TWI798812B - Control device and method for controlling illuminating device - Google Patents

Abstract

A control device for controlling a variable physical parameter includes an operation unit and a sensing unit. The variable physical parameter is characterized based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range. The sensing unit senses the variable physical parameter to generate a sense signal. The operation unit obtains a measurement value in response to the sense signal under a condition that a trigger event occurs, and outputs a control signal used to cause the variable physical parameter to enter the physical parameter target range under a condition that the operation unit determines the physical parameter application range which the variable physical parameter is currently within by checking a mathematical relation between the measurement value and the measurement value application range.

Description

Control device and method for controlling a lighting device

The present disclosure relates to a control device, and more particularly to a control device and method for controlling a variable physical parameter dependent on a trigger event.

A trigger event can be one of a user input event, a signal input event and an identification medium occurrence event, and can be applied to a control device to control a control target device. The control target device can use at least one of a mechanical energy, an electric energy and a light energy, and can include a motor for an access control, a relay for an electric control, and an energy conversion One of the energy converters. The control device transmits a control signal to the control target device to control the control target device depending on the trigger event. In order to effectively control the control target device, the control device can obtain a measurement value provided based on a variable physical parameter. The control device may need an improved mechanism to effectively use the measured value and thereby effectively control the control target device.

US Publication No. 2015/0357887 A1 discloses a product specification setting device and a fan motor equipped with it. US Patent Publication No. 7,411,505 B2 discloses a switch status and radio frequency identification tag.

An object of the present disclosure is to provide a control device and method for effectively controlling a variable physical parameter depending on a trigger event and a sensing unit.

An embodiment of the present disclosure is to provide a control device for controlling a variable physical parameter. The variable physical parameter is characterized based on a physical parameter application range represented by a measurement application range and a physical parameter target range different from the physical parameter application range. The control device includes a sensing unit and an operating unit. The sensing unit senses the variable physical parameter to generate a first sensing signal. The operation unit is coupled to the sensing unit, and a first measurement value is obtained in response to the first sensing signal under the condition that a trigger event occurs, and the operation unit checks the first measurement value and the measurement value Outputting a first control signal for causing the variable physical parameter to enter the physical parameter target range under the condition of determining the physical parameter application range in which the variable physical parameter is currently located using a first mathematical relationship between the ranges.

Another embodiment of the present disclosure is to provide a method for controlling a variable physical parameter by generating a first control signal within a first operation time. The variable physical parameter is characterized based on a physical parameter application range represented by a measurement application range and a physical parameter target range different from the physical parameter application range. The method comprises the steps of: sensing the variable physical parameter to generate a first sensing signal; obtaining a first measurement value in response to the first sensing signal under the condition that a trigger event occurs; Change the physical parameter application range that the physical parameter is currently in by checking the difference between the first measured value and the measured value application range Under the condition that a first mathematical relationship between is determined, a reasonable decision is made whether a first trigger signal for reaching the first operation time is to be additionally generated, the first control signal is used to cause the possible Change the physical parameter into the target range of the physical parameter.

Another embodiment of the present disclosure is to provide a method for controlling a variable physical parameter. The variable physical parameter is characterized based on a physical parameter application range represented by a measurement application range and a physical parameter target range different from the physical parameter application range. The method comprises the steps of: sensing the variable physical parameter to generate a first sensing signal; obtaining a first measurement value in response to the first sensing signal under the condition that a trigger event occurs; The variable physical parameter is currently in the range of application of the physical parameter determined by examining a first mathematical relationship between the first measured value and the range of application of the measured value, generating a method for causing the variable physical parameter to enter A first control signal of the target range of the physical parameter.

210: Control device

220: reader

230, 331: processing unit

240, 338: output unit

240P, 240Q, 263P, 338P, 338Q: output terminal

246, 386: communication interface unit

247: Signal cable

2471, 2472: transmission line

250, 332: storage unit

25Y1: memory unit

263: multiplexer

2631, 2632: input terminal

263C: Control terminal

270, 337: input unit

2701: touch screen

275, 276, 285, 286: electricity usage target

280: server

294, 394: connection terminal

295: user

297, 397: Operation unit

310: Identifying Medium

330, 630: control the target device

330K, 335K: support part

334, 560: sensing unit

3341, 3341: sensing components

335, 735: Functional goals

3351: Formation of Physical Parameters

3355: drive circuit

3371, 3372, 3374, 440, 442, 446: input components

350: electronic label

360: barcode media

370: Biometric Intermediaries

3861, 450, 455: output components

410: Internet

441: pointing device

460: Display components

470: function switch

472:Signal generator

475, 477: state change detector

539, 542: timer

70M: supporting medium

70U: material layer

734, 7341, 7342: Sensor type

801: Control system

8011, 8012, 8013, 8014, 8015, 8016, 8017, 8018, 8019, 8020, 8021, 8022, 8023, 8024, 8025, 8026, 8027, 8028, 8029, 8030, 8031, 8032, 8033, 8034, 8 035、 8036, 8037, 8038, 8039, 8040, 8041, 8042, 8043, 8044, 8045, 8046, 8047, 8048: implementation structure

AA11: First data determination operation

AA12: Second data determination operation

AA1A: Data Confirmation

AC1: Response area

AD11: The first data acquisition operation

AD12: second data acquisition operation

AD1A, AD2A, AD2B, AD2C: data acquisition

AD21, AD22, AD23, AD24, AD25, AD26: data acquisition operation

AJ11, AZ11: Physical parameter application area

AP11, AP21: User Interface Area

AU11, AU21: physical parameter formation area

BC1T, BC21: counting operation

BQ11, BU15, BU16, JU11, JU21, JU22, JW11, JW12: user input operation

BR11, BX11: Read operation

BS11: First signal generation operation

BS15, BS22, BY11, BY27: signal generation operation

BS21: second signal generation operation

BV11, BV15, BV21, ZP11, ZP12: Check operation

BZ11, ZS11: Sensing operation

CC1T, CC13, CC15, CC1L, CC22: control code

CD11: first data comparison

CD21: Second Data Comparison

CD22: Third Data Comparison

CE11, CE1T, CP11, CP12: data comparison

CJ15, CJ1L, CJ1T, CK1T, CK12: control data code

CL1L, CL1T, CX11: Duration value

CU11: Identifying Media IDs

DB11: read data

DD11, DD12: rated range limit value

DD1A: rated range limit value pair

DF11: First code difference

DG11, DG12, DH11, DJ17, DJ18, DJ21: input data

DN13, DN14, DP13, DP14: candidate range limit value

DN15: first application range limit value

DN16: second application range limit value

DN17, DN18, DP17, DP18: target range limit value

DN1B, DP1B: Candidate Range Limit Value Pair

DN1L: application range limit value pair

DN1T, DP1T: target range limit value pair

DN1F: preset range limit value pair

DU11: Physical parameter data record

DX11: Second code difference

DY11: Encoding information

EA11, ZX17, ZX1F, ZX1H2, ZX1HE, ZX1HJ, ZX1HP, ZX1HT, ZX1KJ, ZX1KX, ZX23, ZX25, ZX2A, ZX2B: data encoding operation

EC22, EC2T, FF11, FF12, FE2T, FJ1L, FJ1T, FK11, FK12, FN1T, FS1T, FS12, FX12: memory address

EF11: time value reference range code

EF12: time value reference range code, time value candidate range code

EF1T: time value target range code

EM11, EM17: measurement value reference range code

EM12: measured value reference range code, measured value candidate range code

EM14, EM15: specific measurement value range code

EM1F: preset measurement value range code

EM1L: Measuring value application range code

EM1T: Measured value target range code

EQ11: Triggering Events

EX11: Application environment

FC11: Trigger application function

FN1L: first memory address

FR11: Constraints

FU11: Sensor Specifications

FW11, FW21: Timer specification

FX1L: Second memory address

FY11: Coding video

GC12: The second physical parameter candidate range representation

GC131, GC151, GC1T1, GC221: physical parameter representation

GC17, GC1F: Candidate Range Representation of Physical Parameters

GC1E: Indicates the range of rated physical parameters

GC1H2, GC1HT: time candidate interval representation

GC1HE: Rated time interval representation

GC1HJ: time length reference range representation

GC1HP: time reference interval representation

GC1KJ, GC1KX: time length representation

GC1L: Representation of the application range of physical parameters

GC1T: First physical parameter candidate range representation

GCL1: Trigger Application Functional Specifications

GD1ET, RD1ET: physical parameter target range

GD1E2, RD1E7, RD2E2: Candidate range of physical parameters

GF11: Time Control

GJ11: Reference range of time length value

GP11: Time value reference range

GP12: time value reference range, time value candidate range

GP1T: Time value target range

GS11, GS21, GS22, GY11: signal generation control

GU11: Ensure operation

GW11: Sensor sensitivity indication

GW1R: Indication of sensor measurement range

HA0T: Control device identifier

HA1T, HA12: control target device identifier

HA2T, HA22: Functional Object Identifier

HF11: Sensing signal generation

HH11: Specifies the measured value format

HJ11: Time length reference range

HK11, HK21: control data code type identifier

HN11: Measuring range limit data code type identifier

HP1E: rated time interval

HP1E1: Time reference interval

HP1E2: time reference interval, time candidate interval

HP1ET: Time Target Interval

HP1N: Nominal time value range

HQ21, HQ23, HQ25: Specifies the count value format

HS11: physical parameter specified range code type identifier

HU11: Identifying Media Identifiers

HZ11, HZ12, HZ2T, HZ22: electric use target identifier

JA1A, JB1A, QG1A, QG2A, QL1A, QU1A, QY1A: variable physical parameters

JN11: Measured value sequence

KC1A: first scope relationship

KC2A: Second Scope Relationship

KJ11: numerical relationship

KK21, KK22, KV15, KV1W, KV2W, WP11, WP12: Mathematical Relations

KP11: Arithmetic Relations

KV11: First Mathematical Relations

KV21: Second Mathematical Relations

KV22: Third Mathematical Relations

KW11: Numerical intersection relationship

LB11: The first status indication

LB12: Second status indicator

LF1A, LF2A: variable time length

LJ1L, LJ1T, LX11: reference time length

LN1A: time length range limit value pair

LT1T, LT21: Application time length

LY11: Measurement Information

ME11, MK12, MN11, MN12, MQ15, MQ16, MR15, MR16, MY11: Scientific Computing

MR11: First Scientific Computing

MR21: Third Scientific Computing

MZ11: Second Scientific Computing

NA1A: Data Determination Procedures

ND1A: Data Acquisition Procedures

NP11, NP12: specific count value

NT11: Total number of reference ranges

PB11: First logical decision

PB21: Second logical decision

PB22: Third logical decision

PD11: First Specific Decision

PE11, PP11, PP12: logical decision

PF11, PF12, PF2T, PJ1L, PJ1T, PK11, PK12, PN12, PS12, PS1T, PX12, XC22, XC2T: memory location

PN1L: First memory location

PW11: Reasonable decision

PW21: Second specific decision

PX1L: Second memory location

QB11: Preset time reference interval sequence

QD13, QD15, QD1L, QD1T, QD22: Specify physical parameters

QU11: The third specific physical parameter

QU13: The first specific physical parameter

QU14: Second Specific Physical Parameter

RB1E: Sensor measuring range

RD1E: Rated physical parameter range

RD1E1: Reference range of physical parameters

RD1E2: physical parameter reference range, first physical parameter candidate range

RD1E3: The second physical parameter candidate range

RD1E4: The first specific physical parameter range

RD1E5: Second Specific Physical Parameter Range

RD1EF: preset range of physical parameters

RD1EL: Application range of physical parameters

RD1N: Rated measurement range

RN11: Reference range of measured values

RN12: Measured value reference range, measured value candidate range

RN1F: preset measurement value range

RN1L: Application range of measured values

RN1T: Measured value target range

RN17: Measured value candidate range

RX1L, RX1T: corresponding measurement value range

RY1EL, RY1ET: Corresponding physical parameter range

SA1: memory space

SB11: Physical parameter signal

SC11: The first control signal

SC12: Second control signal

SC15, SC27, SC31, SF11, SH11, SV11, SV12: control signal

SC22: The third control signal

SE21: request response signal

SG11, SG27: function signal

SJ11, SJ12: sensing request signal

SK11, SK12: clock time signal

SL11: Drive signal

SM17, SM18: input signal

SN11: The first sensing signal

SN111, SN112: sensing signal components

SN12: Second sensing signal

SP11: Electrical Signals

SQ11: Optical signal

SS11: storage space

ST11, SX11: trigger signal

SZ11, SZ21, SZ22: operation request signal

TD01, TG12, TX12: specified time

TD11: First operation time

TD21: Second operating time

TH1A: clock time

TJ1T: specific time

TK11, TK21: control data code type

TL11, TU11, TU1G: physical parameter type

TN11: Measuring range limit data code type

TS11: Physical parameter specified range code type

TZ1T, TZ21: end time

UD11: Specified range code for physical parameters

UD12: physical parameter specified range code, physical parameter candidate range code

UD1T, UN1T: physical parameter target range code

UH1T: interrupt request signal

UL11, UL21: preset characteristic physical parameters

UN1A: variable physical parameter range code

UW11: specific input code

UX21, UX23, UX25, UY11: specify the number of bits

VA11, VK11, VK12: relative values

VG11: allowable value

VN11: first measured value

VN12: second measured value

WC1L: Second write request message

WD1L: first write request message

WJ11: Electrical application target

WS12, WS1T: Write request message

WX11: The first trigger signal

WX21: Second trigger signal

XA11: Arrival status of non-characteristic physical parameters

XA12: Actual Characteristic Physical Parameter Arrival Status

XA1A: variable physical state

XJ11: the first specific state

XJ12: Second specific state

XR11: Specific Empirical Formulas

XU11, XU21: Operation Reference

YJ11: Selection tool

YU11: Default data export rules

YW11: Sensor sensitivity

ZA11: The first designated application operation

ZA21: Second designated application operation

ZD1T1, ZD1T2: preset physical parameter target range limit

ZF11: Physical parameter application operation

ZH11: Specified function operation

ZL12, ZL22: arrival of characteristic physical parameters

ZU11: verify operation

ZX11: first data encoding operation

ZX12: second data encoding operation

ZX13: Fourth data encoding operation

ZX14: fifth data encoding operation

ZX21: third data encoding operation

ZY11: First check operation

ZY21: Second check operation

This disclosure can be understood more deeply through the detailed description of the following diagrams:

FIG. 1 is a schematic diagram of a control system in various embodiments of the present disclosure.

Fig. 2: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Fig. 3: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Figure 4: An implementation structure of the control system shown in Figure 1 schematic diagram.

Fig. 5: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Fig. 6: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 7: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 8: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 9: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 10: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

FIG. 11 is a schematic diagram of an implementation structure of the control system shown in FIG. 1 .

Fig. 12: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Fig. 13: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Fig. 14: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 15: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Fig. 16: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 17: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 18: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 19: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 20: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Fig. 21: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Fig. 22: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Fig. 23: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Fig. 24: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 25: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Fig. 26: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 27: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 28: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 29: An implementation result of the control system shown in Fig. 1 Schematic diagram of the structure.

Fig. 30 is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 31: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Fig. 32: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 33: is a schematic diagram of an implementation structure of the control system shown in Fig. 1.

Fig. 34: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 35: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 36: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 37: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 38: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Fig. 39: is a schematic diagram of an implementation structure of the control system shown in Fig. 1 .

Please refer to FIG. 1 , which is a schematic diagram of a control system 801 in various embodiments of the present disclosure. The control system 801 includes a control target device 330 and a control device for controlling the control target device 330 device 210. The control target device 330 has a variable physical parameter QU1A. The variable physical parameter QU1A is characterized based on a physical parameter application range RD1EL represented by a measurement value application range RN1L and a physical parameter target range RD1ET different from the physical parameter application range RD1EL. The control device 210 for controlling the variable physical parameter QU1A includes a sensing unit 334 and an operating unit 297 .

The sensing unit 334 senses the variable physical parameter QU1A to generate a first sensing signal SN11 . The operating unit 297 is coupled to the sensing unit 334, and responds to the first sensing signal SN11 to obtain a first measurement value VN11 under the condition that a trigger event EQ11 occurs, and the operating unit 297 obtains a first measured value VN11 by checking the first A first mathematical relationship KV11 between the measured value VN11 and the measured value application range RN1L is used to determine that the variable physical parameter QU1A is currently in the physical parameter application range RD1EL and output it to cause the variable physical parameter QU1A to enter A first control signal SC11 of the physical parameter target range RD1ET.

See Figure 2. FIG. 2 is a schematic diagram of an implementation structure 8011 of the control system 801 shown in FIG. 1 . As shown in FIG. 2 , the implementation structure 8011 includes the control device 210 and the control target device 330 . In some embodiments, the first control signal SC11 is used to cause the variable physical parameter QU1A to leave the physical parameter application range RD1EL and enter the physical parameter target range RD1ET. The physical parameter target range RD1ET is represented by a measured value target range RN1T, and is the same as or different from a first physical parameter candidate range RD1E2. For example, the measured value target range RN1T has a target range limit value pair DN1T. The target range limit is preset for DN1T. The physical parameters apply to different ranges of RD1EL and The first physical parameter candidate range RD1E2 in the physical parameter application range RD1EL is included in a plurality of different physical parameter reference ranges RD1E1, RD1E2, . . .

The sensing unit 334 is configured to comply with a sensor specification FU11 associated with the measurement application range RN1L. For example, the sensor specification FU11 includes a sensor sensitivity representation GW11 for representing a sensor sensitivity YW11. The sensor sensitivity YW11 is related to a sensing signal generated HF11 performed by the sensing unit 334 . The first measurement value VN11 is obtained by the operation unit 297 in a specified measurement value format HH11.

Both the measured value application range RN1L and a measured value candidate range RN12 representing the first physical parameter candidate range RD1E2 are preset in the designated measured value format HH11 based on the sensor sensitivity representation GW11 . The measured value application range RN1L has an application range limit value pair DN1L. For example, the application range limit value is preset for DN1L. The measurement value candidate range RN12 has a candidate range limit value pair DN1B. For example, the candidate range limit value is preset for DN1B.

The operating unit 297 obtains the application range limit value pair DN1L in response to the trigger event EQ11, and checks the first mathematical relationship KV11 by comparing the first measurement value VN11 with the obtained application range limit value pair DN1L. The operating unit 297 responds to the trigger event EQ11 to obtain the preset target range limit value pair DN1T and a preset control data code CK1T based on a specified physical parameter QD1T within the physical parameter target range RD1ET, And execute a signal generation control GS11 based on the obtained control data code CK1T to output the first control signal SC11.

In some embodiments, the physical parameter application range RD1EL is configured to correspond to a corresponding physical parameter range RY1EL outside the physical parameter application range RD1EL. Under the condition that the operation unit 297 determines that the variable physical parameter QU1A is currently in the corresponding physical parameter range RY1EL by checking the first mathematical relationship KV11, the operation unit 297 is configured to obtain the preset candidate range limit value pair DN1B, and perform a data comparison CD21 between the first measured value VN11 and the obtained candidate range limit value pair DN1B.

Under the condition that the operation unit 297 determines the first physical parameter candidate range RD1E2 that the variable physical parameter QU1A is currently in based on the data comparison CD21, the operation unit 297 outputs a second control signal different from the first control signal SC11. Control signal SC12. The second control signal SC12 is used to cause the variable physical parameter QU1A to leave the first physical parameter candidate range RD1E2 to enter a second physical parameter candidate range RD1E3 included in the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . .

After the operation unit 297 executes the signal generation control GS11 within an operation time TD11 , the sensing unit 334 senses the variable physical parameter QU1A to generate a second sensing signal SN12 . The operation unit 297 responds to the second sensing signal SN12 within a specified time TG12 after the operation time TD11 to obtain a second measurement value VN12 in the specified measurement value format HH11. Within the specified time TG12, the operation unit 297 determines the physical parameter target range RD1ET where the variable physical parameter QU1A is currently located by comparing the second measured value VN12 with the obtained target range limit value pair DN1T. condition, the operating unit 297 executes Perform a guarantee operation GU11, which is used to cause a physical parameter target range code UN1T representing the determined physical parameter target range RD1ET to be recorded.

In some embodiments, the variable physical parameter QU1A is associated with a variable time length LF1A. For example, the operation unit 297 is used to measure the variable time length LF1A. The variable time length LF1A is characterized based on a time length reference range HJ11 and a reference time length LJ1T. The time length reference range HJ11 is represented by a time length value reference range GJ11. The reference time length LJ1T is represented by a time length value CL1T. The obtained control data code CK1T includes the time length value CL1T. The operation unit 297 checks a numerical relationship KJ11 between the time length value CL1T and the time length value reference range GJ11 to make a logical decision PE11 whether a counting operation BC1T for controlling a specific time TJ1T is to be executed. On the condition that the logic decision PE11 is positive, the operation unit 297 executes the counting operation BC1T based on the time length value CL1T.

Under the condition that the variable physical parameter QU1A is configured to be within the physical parameter target range RD1ET due to the trigger event EQ11, the operating unit 297 reaches the specific time TJ1T based on the counting operation BC1T, and at the specific time A third control signal SC22 different from the first control signal SC11 is generated inside the TJ1T. The third control signal SC22 is used to cause the variable physical parameter QU1A to leave the physical parameter target range RD1ET to enter the physical parameter application range RD1EL.

See pictures 3, 4, 5, 6 and 7. Figure 3 is a diagram of the control system 801 shown in Figure 1 Schematic diagram of implementation structure 8012. FIG. 4 is a schematic diagram of an implementation structure 8013 of the control system 801 shown in FIG. 1 . FIG. 5 is a schematic diagram of an implementation structure 8014 of the control system 801 shown in FIG. 1 . FIG. 6 is a schematic diagram of an implementation structure 8015 of the control system 801 shown in FIG. 1 . FIG. 7 is a schematic diagram of an implementation structure 8016 of the control system 801 shown in FIG. 1 . As shown in Figure 3, Figure 4, Figure 5, Figure 6 and Figure 7, each of the implementation structure 8012, the implementation structure 8013, the implementation structure 8014, the implementation structure 8015 and the implementation structure 8016 The structure includes the control device 210 and the control target device 330 .

Please also refer to Figure 1. In some embodiments, the operation unit 297 is configured to execute a trigger application function FC11 related to the physical parameter application range RD1EL, and includes a processing unit 230 coupled to the sensing unit 334, and a processing unit coupled to the processing unit An output unit 240 of 230 . The trigger application function FC11 is configured to comply with a trigger application function specification GCL1 related to the physical parameter application range RD1EL. The sensing unit 334 is configured to comply with a sensor specification FU11 associated with the measurement application range RN1L.

For example, the sensor specification FU11 includes a sensor sensitivity representation GW11 for representing a sensor sensitivity YW11. The sensor sensitivity YW11 is related to a sensing signal generated HF11 performed by the sensing unit 334 . For example, when the trigger event EQ11 occurs, the sensing unit 334 senses the variable physical parameter QU1A to perform the sensing signal generation HF11 dependent on the sensor sensitivity YW11, and the sensing signal generation HF11 is used to generate The first sensing signal SN11.

Under the condition that the trigger event EQ11 occurs, the process The unit 230 obtains the first measured value VN11 in the designated measured value format HH11 in response to the first sensing signal SN11 . For example, the specified measurement value format HH11 is characterized based on a specified bit number UY11. Under the condition that the processing unit 230 determines that the variable physical parameter QU1A is currently in the physical parameter application range RD1EL, the processing unit 230 causes the output unit 240 to output the first control signal SC11. The variable physical parameter QU1A is further characterized based on a nominal physical parameter range RD1E. For example, the rated physical parameter range RD1E is represented by a rated measured value range RD1N, and includes a plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . represented by multiple different measured value reference ranges RN11, RN12, .

Both the physical parameter application range RD1EL and the physical parameter target range RD1ET are contained in the plurality of different physical parameter reference ranges RD1E1 , RD1E2 , . . . The trigger application function specification GCL1 includes the sensor specification FU11, a rated physical parameter range representation GC1E for representing the rated physical parameter range RD1E, and a physical parameter application range representation GC1L for representing the physical parameter application range RD1EL .

In some embodiments, the nominal range of measured values RD1N is used based on the nominal physical parameter range representation GC1E, the sensor sensitivity representation GW11 and a first data encoding operation ZX11 for converting the nominal physical parameter range representation GC1E to the It is preset by specifying the measured value format HH11, has a rated range limit value pair DD1A, and includes the plural different measured value reference ranges RN11, RN12, ... represented by the complex different measured value reference range codes EM11, EM12, ... . For example, the nominal range limit pair DD1A is preset with the specified measurement value format HH11. Should A plurality of different measurement value reference ranges RN11, RN12, . . . include the measurement value application range RN1L.

The measured value application range RN1L is represented by a measured value application range code EM1L contained in the plurality of different measured value reference range codes EM11, EM12, ..., and has an application range limit value pair DN1L; thereby the measured value application The range code EM1L is configured to indicate that the physical parameter applies to the range RD1EL. For example, the plurality of different measured value reference range codes EM11, EM12, . . . are all preset based on the trigger application function specification GCL1.

The application range limit value pair DN1L comprises a first application range limit value DN15 of the measured value application range RN1L and a second application range limit value DN16 relative to the first application range limit value DN15, and is applied based on the physical parameter The range representation GC1L, the sensor sensitivity representation GW11 and a second data encoding operation ZX12 for converting the physical parameter application range representation GC1L are preset with the specified measurement value format HH11. The measured value application range RN1L is preset with the specified measured value format HH11 based on the physical parameter application range representation GC1L, the sensor sensitivity representation GW11 and the second data encoding operation ZX12.

In some embodiments, the control device 210 further includes a storage unit 250 coupled to the processing unit 230 . The storage unit 250 stores the preset rated range limit value pair DD1A and a variable physical parameter range code UN1A. When the trigger event EQ11 occurs, the variable physical parameter range code UN1A is equal to a specific measured value range code EM14 selected from the plurality of different measured value reference range codes EM11, EM12, . . .

For example, the specific measurement value range code EM14 indicates a first specific physical parameter range RD1E4 previously determined by the processing unit 230 based on a sensing operation ZS11 . The first specific physical parameter range RD1E4 is selected from the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . The sensing operation ZS11 performed by the sensing unit 334 is used to sense the variable physical parameter QU1A. Before the trigger event EQ11 occurs, the specific measured value range code EM14 is assigned to the variable physical parameter range code UN1A.

For example, before the trigger event EQ11 occurs, the processing unit 230 obtains the specific measurement value range code EM14. Under the condition that the processing unit 230 determines the first specific physical parameter range RD1E4 based on the sensing operation ZS11 before the trigger event EQ11 occurs, the processing unit 230 uses the storage unit 250 to obtain the specific The measured value range code EM14 is assigned to the variable physical parameter range code UN1A. The specific measurement value range code EM14 represents a specific measurement value range configured to represent the first specific physical parameter range RD1E4. The specific measurement value range is preset with the specified measurement value format HH11 based on the sensor sensitivity indication GW11. For example, the sensing unit 334 performs a sensing signal generation dependent on the sensor sensitivity YW11 by performing the sensing operation ZS11 to generate a sensing signal.

Before the trigger event EQ11 occurs, the processing unit 230 receives the sensing signal, obtains a specific measurement value in the specified measurement value format HH11 in response to the sensing signal, and executes a method for checking the specific measurement value and the specific measurement value A specific checking operation for a mathematical relationship between ranges of values. In the processing unit 230 it is determined based on the specific checking Under the condition that the physical parameter QU1A is in the first specific physical parameter range RD1E4, the processing unit 230 assigns the obtained specific measured value range code EM14 to the variable physical parameter range code UN1A by using the storage unit 250 . The processing unit 230 determines whether the processing unit 230 will use the storage unit 250 to change the variable physical parameter range code UN1A in response to a specific sensing operation for sensing the variable physical parameter QU1A. For example, the specific sensing operation is performed by the sensing unit 334 .

In some embodiments, under the condition that the trigger event EQ11 occurs, the processing unit 230 responds to the trigger event EQ11 to obtain an operation reference data code XU11 from the storage unit 250, and execute it by running a data determination program NA1A Use a data of the operation reference data code XU11 to determine AA1A to determine the measured value application range code EM1L selected from the plurality of different measured value reference range codes EM11, EM12, . . . ... select the range RN1L for which the measured value applies.

The operation reference code XU11 is the same as an allowable reference code preset based on the trigger application function specification GCL1. The data determination program NA1A is constructed based on the trigger application function specification GCL1. The data determination AA1A is one of a first data determination operation AA11 and a second data determination operation AA12. Under the condition that the operation reference data code XU11 is obtained by accessing the variable physical parameter range code UN1A stored in the storage unit 250 to be the same as the specific measured value range code EM14, it is the first data The profile determination AA1A of determining operation AA11 determines the measurement application range code EM1L based on the obtained specific measurement range code EM14. For example, the measured value determined should be Use the range code EM1L to be the same as or different from the range code EM14 obtained for this particular measured value.

Under the condition that the operation reference data code XU11 is obtained by accessing the pair of rated range limit values DD1A stored in the storage unit 250 so as to be the same as the preset pair of rated range limit values DD1A, it is the The data determination AA1A of the second data determination operation AA12 references range code EM11 from the plurality of different measured values by performing a first scientific calculation MR11 using the first measured value VN11 and the obtained pair of nominal range limit values DD1A , EM12, ... select the measurement value application range code EM1L to determine the measurement value application range code EM1L. For example, the first scientific calculation MR11 is performed based on a specific empirical formula XR11. The specific empirical formula XR11 is pre-established based on the preset rated range limit value pair DD1A and the plurality of different measured value reference range codes EM11 , EM12 , . . . . For example, the specific empirical formula XR11 is pre-established based on the triggering application function specification GCL1.

In some embodiments, the processing unit 230 obtains the application range limit value pair DN1L based on the determined application range code EM1L of the measurement value, and obtains the application range limit value pair DN1L based on the first measurement value VN11 and the obtained application range limit value pair DN1L A first data comparison CD11 between them checks the first mathematical relationship KV11 to make a first logical decision PB11 whether the first measurement value VN11 is within the selected application range RN1L of the measurement value. On the condition that the first logic decision PB11 is affirmative, the processing unit 230 determines the physical parameter application range RD1EL where the variable physical parameter QU1A is currently located.

For example, in this first application range limit value DN15 is different Under the condition that the second application range limit value DN16 and the first measurement value VN11 are between the first application range limit value DN15 and the second application range limit value DN16, the processing unit 230 compares the first A measured value VN11 and the obtained application range limit value are paired with DN1L to make the first logical decision PB11 to be affirmative. Under the condition that the first application range limit value DN15, the second application range limit value DN16 and the first measurement value VN11 are equal, the processing unit 230 compares the first measurement value VN11 with the obtained application The first logical decision PB11 is made affirmative for the range limit pair DN1L.

In some embodiments, the variable physical parameter QU1A exists in a control target device 330 . The trigger event EQ11 is one of a trigger action event, a user input event, a signal input event, a state change event and a recognition medium occurrence event, and is applied to the trigger application function FC11. Under the condition that the triggering event EQ11 that is the triggering action event will occur, the control target device 330 is configured to execute a specified functional operation ZH11 related to the variable physical parameter QU1A. For example, the specified functional operation ZH11 is used to cause the triggering event to occur. The trigger application function specification GCL1 further includes a physical parameter representation GC1T1. The physical parameter representation GC1T1 is used to represent a specified physical parameter QD1T within the physical parameter target range RD1ET.

The trigger application function FC11 is associated with a memory unit 25Y1. The memory unit 25Y1 has a first memory location PN1L and a second memory location PX1L different from the first memory location PN1L, the application range limit value pair DN1L is stored in the first memory location PN1L, and Store a control data code in the second memory location PX1L CK1T. For example, both the first memory location PN1L and the second memory location PX1L are identified based on the preset measurement value application range code EM1L. The control data code CK1T includes a control code CC1T. For example, the control code CC1T is preset based on the physical parameter representation GC1T1 and a third data encoding operation ZX21 for converting the physical parameter representation GC1T1. For example, both the application range limit pair DN1L and the control data code CK1T are stored in the memory unit 25Y1 based on the preset measurement value application range code EM1L.

In some embodiments, the processing unit 230 executes a data acquisition AD1A using the determined measurement value application range code EM1L to obtain the application range limit value pair DN1L by running a data acquisition program ND1A. For example, the data acquisition AD1A is one of a first data acquisition operation AD11 and a second data acquisition operation AD12. The data acquisition program ND1A is constructed based on the trigger application function specification GCL1. The first data acquisition operation AD11 uses the memory unit 25Y1 to access the application range limit value pair DN1L stored in the first memory location PN1L based on the determined measurement value application range code EM1L to obtain the application Range cutoffs to DN1L.

The second data acquisition operation AD12 obtains the preset rated range limit value pair DD1A by reading the rated range limit value pair DD1A stored in the storage unit 250, and by executing the determined using the The measured value application range code EM1L and a second scientific calculation MZ11 of the obtained rated range limit value pair DD1A are used to obtain the application range limit value pair DN1L. For example, the nominal range limit value pair DD1A contains a nominal range limit value DD11 and the relative A nominal range limit value DD12 at the nominal range limit value DD11, based on the nominal physical parameter range representation GC1E, the sensor sensitivity representation GW11 and the first data encoding operation ZX11 using the specified measurement value format HH11 default.

Under the condition that the processing unit 230 determines that the variable physical parameter QU1A is currently in the physical parameter application range RD1EL, the processing unit 230 uses the memory unit 25Y1 to access based on the determined measurement value application range code EM1L The control data code CK1T is stored in the second memory location PX1L, and a signal generation control GS11 for the trigger application function FC11 is executed based on the accessed control data code CK1T to control the output unit 240 . The output unit 240 responds to the signal generation control GS11 to execute a first signal generation operation BS11 for the trigger application function FC11 to generate the first control signal SC11. For example, the first control signal SC11 conveys the control code CC1T and is used to cause the variable physical parameter QU1A to leave the physical parameter application range RD1EL and enter the physical parameter target range RD1ET.

In some embodiments, the plurality of different measured value reference ranges RN11 , RN12 , . . . further include a measured value target range RN1T different from the measured value application range RN1L. The trigger application function specification GCL1 further includes a first physical parameter candidate range representation GC1T for representing the physical parameter target range RD1ET. The measured value target range RN1T is represented by a measured value target range code EM1T different from the measured value application range code EM1L, has a target range limit value pair DN1T, and is configured to represent the physical parameter target range RD1ET; thereby The measured value target range code EM1T is configured to indicate the physical parameter target range RD1ET.

For example, the measured value target range code EM1T is included in the plurality of different measured value reference range codes EM11, EM12, . . . The target range limit pair DN1T uses the specification based on the first physical parameter candidate range representation GC1T, the sensor sensitivity representation GW11 and a fourth data encoding operation ZX13 for converting the first physical parameter candidate range representation GC1T The measured value format HH11 is preset. The measured value target range RN1T is preset with the designated measured value format HH11 based on the first physical parameter candidate range representation GC1T, the sensor sensitivity representation GW11 and the fourth data encoding operation ZX13.

The plurality of different measured value reference ranges RN11, RN12, . . . has a total reference range number NT11. For example, the total reference range number NT11 is preset based on the trigger application function specification GCL1. The processing unit 230 obtains the total reference range number NT11 in response to the trigger event EQ11 . The first scientific calculation MR11 further uses the obtained total reference range number NT11. The second scientific calculation MZ11 further uses the obtained total reference range number NT11. For example, the total number of reference ranges is greater than or equal to two. For example, the total number of reference ranges NT11≧3; the total number of reference ranges NT11≧4; the total number of reference ranges NT11≧5; the total number of reference ranges NT11≧6; and the total number of reference ranges NT11≦255.

The control target device 330 receives the first control signal SC11, obtains the control code CC1T from the received first control signal SC11, and causes the variable physical parameter QU1A to change from a first The specific physical parameter QU13 is changed to a second specific physical parameter QU14. For example, the first specific physical parameter QU13 is then This physical parameter applies within the range RD1EL. The second specific physical parameter QU14 is within the physical parameter target range RD1ET. For example, the control target device 330 is coupled to the output unit 240 . The control target device 330 is disposed on the control device 210 or supported by the control device 210 .

In some embodiments, the measurement application range RN1L is a first part of the nominal measurement range RD1N. The measured value target range RN1T is a second part of the nominal measured value range RD1N. The physical parameter application range RD1EL and the physical parameter target range RD1ET are separate or adjacent. On the condition that the physical parameter application range RD1EL and the physical parameter target range RD1ET are separate, the measurement value application range RN1L and the measurement value target range RN1T are separate. On the condition that the physical parameter application range RD1EL and the physical parameter target range RD1ET are adjacent, the measurement value application range RN1L and the measurement value target range RN1T are adjacent.

For example, the measurement value application range code EM1L is configured to be equal to an integer. The setpoint range limit value DD12 is greater than the setpoint range limit value DD11 . There is a relative value VA11 between the rated range limit value DD12 and the rated range limit value DD11 relative to the rated range limit value DD11 . The relative value VA11 is equal to a calculation result obtained by subtracting the rated range limit value DD11 from the rated range limit value DD11 . For example, the application range limit pair DN1L is preset based on the nominal range limit DD11, the nominal range limit DD12, the integer, and a ratio of the relative value VA11 to the total reference range number NT11. The second scientific calculation MZ11 uses one of the rated range limit value DD11, the rated range limit value DD12, the integer, the ratio and any combination thereof.

The physical parameter target range RD1ET is the same as or different from a first physical parameter candidate range RD1E2 included in the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . . For example, the first physical parameter candidate range RD1E2 is different from the physical parameter application range RD1EL. The triggered application function specification GCL1 further includes a second physical parameter candidate range representation GC12 for representing the first physical parameter candidate range RD1E2. The measured value candidate range RN12 is represented by a measured value candidate range code EM12 different from the measured value application range code EM1L, has a candidate range limit value pair DN1B, and is configured to represent the physical parameter candidate range RD1E2; thereby The measurement value candidate range code EM12 is configured to indicate the physical parameter candidate range RD1E2.

For example, the candidate range limit pair DN1B is based on the second physical parameter candidate range representation GC12, the sensor sensitivity representation GW11 and a fifth data encoding operation ZX14 for converting the second physical parameter candidate range representation GC12 Preset with the specified measurement value format HH11. The measured value candidate range RN12 is preset with the designated measured value format HH11 based on the second physical parameter candidate range representation GC12 , the sensor sensitivity representation GW11 and the fifth data encoding operation ZX14 .

In some embodiments, under the condition that the first logic decision PB11 is negative, the processing unit 230 determines the selection from the complex number by performing a third scientific calculation MR21 using the determined measurement value application range code EM1L. The measured value candidate range code EM12 of the different measured value reference range codes EM11, EM12, . . . selects the measured value candidate range RN12 from the plurality of different measured value reference ranges RN11, RN12, .

The processing unit 230 based on the determined measured value Select the range code EM12 to obtain the candidate range limit value pair DN1B, and check the first measurement value VN11 based on a second data comparison CD21 between the first measurement value VN11 and the obtained candidate range limit value pair DN1B and a second mathematical relationship KV21 between the selected candidate measurement value range RN12 to make a second logical decision PB21 whether the first measurement value VN11 is within the selected measurement value candidate range RN12. On the condition that the second logic decision PB21 is positive, the processing unit 230 determines the first physical parameter candidate range RD1E2 where the variable physical parameter QU1A is currently located.

Under the condition that the processing unit 230 determines that the variable physical parameter QU1A is currently in the first physical parameter candidate range RD1E2, the processing unit 230 causes the output unit 240 to execute a second signal generation for the trigger application function FC11 The BS21 is operated to generate a second control signal SC12 different from the first control signal SC11. The second control signal SC12 is used to cause the variable physical parameter QU1A to leave the first physical parameter candidate range RD1E2 to enter a second physical parameter candidate range RD1E3 included in the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . .

In some embodiments, after the processing unit 230 executes the signal generation control GS11 within an operation time TD11 , the sensing unit 334 senses the variable physical parameter QU1A to generate a second sensing signal SN12 . For example, after the processing unit 230 executes the signal generation control GS11, the sensing unit 334 senses the variable physical parameter QU1A to perform a sensing signal generation HF12 dependent on the sensor sensitivity YW11, the sensing signal Generate HF12 for generating the second sensing signal SN12.

The processing unit 230 responds to the second sensing signal SN12 within a specified time TG12 after the operating time TD11 to obtain a second measurement value VN12 in the specified measurement value format HH11. Under the condition that the processing unit 230 executes the signal generation control GS11, the processing unit 230 determines the measurement value target based on one of the accessed control data code CK1T and the determined measurement value application range code EM1L range code EM1T to determine the measurement target range RN1T.

The processing unit 230 obtains the target range limit value pair DN1T based on the determined measured value target range code EM1T, and based on a third difference between the second measured value VN12 and the obtained target range limit value pair DN1T Data comparison CD22 checks a third mathematical relationship KV22 between the second measurement value VN12 and the determined measurement value target range RN1T to make whether the second measurement value VN12 is within the determined measurement value target range A third logic within RN1T determines PB22. On the condition that the third logical decision PB22 is positive, the processing unit 230 determines the physical parameter target range RD1ET where the variable physical parameter QU1A is currently within the specified time TG12.

The specific measured value range code EM14 is different from the determined measured value target range code EM1T and the processing unit 230 determines the physical parameter target at which the variable physical parameter QU1A is currently located by making the third logical decision PB22 Under the condition of range RD1ET, the processing unit 230 uses based on a first code difference DF11 between the variable physical parameter range code UN1A equal to the specific measured value range code EM14 and the determined measured value target range code EM1T The storage unit 250 will determine the The measured value target range code EM1T is assigned to the variable physical parameter range code UN1A.

When the trigger event EQ11 occurs, the output unit 240 displays a first state indication LB11. For example, the first state indicator LB11 is used to indicate a first specific state XJ11 in which the variable physical parameter QU1A is configured within the first specific physical parameter range RD1E4. The specific measured value range code EM14 is different from the determined measured value target range code EM1T and the processing unit 230 determines the physical parameter target at which the variable physical parameter QU1A is currently located by making the third logical decision PB22 Under the condition of the range RD1ET, the processing unit 230 further causes the output unit 240 to change the first status indicator LB11 to a second status indicator LB12 based on the first code difference DF11. For example, the second state indicator LB12 is used to indicate a second specific state XJ12 in which the variable physical parameter QU1A is configured within the physical parameter target range RD1ET.

In some embodiments, the operation unit 297 further includes a response area AC1 , a reader 220 and an input unit 270 . The response area AC1 is used to execute the triggered application function FC11. The reader 220 is coupled to the response area AC1. The input unit 270 is coupled to the processing unit 230 . Under the condition that the trigger event EQ11 is the occurrence event of the identification medium and the processing unit 230 recognizes an identification medium 310 appearing in the response area AC1 through the reader 220, the processing unit 230 based on the first sensing Signal SN11 to obtain the first measured value VN11.

Under the condition that the variable physical parameter QU1A is configured within the physical parameter target range RD1ET due to the trigger event EQ11, the input unit 270 receives a user input operation BQ11, and responds The user input operation BQ11 causes the processing unit 230 to determine a specific input code UW11. For example, the specific input code UW11 is selected from the plurality of different measured value reference range codes EM11, EM12, . . .

In some embodiments, under the condition that the specific input code UW11 is different from the preset measurement value target range code EM1T, the processing unit 230 is based on the variable physical value equal to the determined measurement value target range code EM1T. A second code difference DX11 between the parameter range code UN1A and the specific input code UW11 passes through the output unit 240 causing the variable physical parameter QU1A to leave the physical parameter target range RD1ET to enter the plurality of different physical parameter references A second specific physical parameter range RD1E5 in the ranges RD1E1, RD1E2, . . .

Under the condition that the trigger event EQ11 occurs, the sensing unit 334 senses the variable physical parameter QU1A under a constraint condition FR11 to provide the first sensing signal SN11 to the processing unit 230 . For example, the constraint condition FR11 is that the variable physical parameter QU1A is equal to a third specific physical parameter QU11 included in the rated physical parameter range RD1E. The processing unit 230 estimates the third specific physical parameter QU11 based on the first sensing signal SN11 to obtain the first measured value VN11. Since the variable physical parameter QU1A under the constraint condition FR11 is within the physical parameter application range RD1EL, the processing unit 230 identifies the first measurement value VN11 as an allowable value within the measurement value application range RN1L , thereby identifying the first mathematical relationship KV11 between the first measured value VN11 and the measured value application range RN1L as a numerical intersection relationship, and thereby determining the physical parameter application range where the variable physical parameter QU1A is currently located RD1EL.

In some embodiments, the sensing unit 334 is characterized based on the sensor sensitivity YW11 associated with the sensing signal generation HF11 and is configured to comply with the sensor specification FU11. The sensor specification FU11 includes the sensor sensitivity representation GW11 for representing the sensor sensitivity YW11 and a sensor measurement range representation GW1R for representing a sensor measurement range RB1E. For example, the nominal physical parameter range RD1E is configured to be identical to the sensor measurement range RB1E, or configured to be a part of the sensor measurement range RB1E. The sensor measurement range RB1E is related to a physical parameter sensing performed by the sensing unit 334 . The sensor measurement range indicates that GW1R is provided based on a first preset measurement unit. For example, the first preset measurement unit is one of a metric measurement unit and an imperial measurement unit.

The rated measurement value range RD1N and the rated range limit value pair DD1A are based on the rated physical parameter range indicating GC1E, the sensor measuring range indicating GW1R, the sensor sensitivity indicating GW11 and the first data encoding operation ZX11. The specified measurement value format is HH11 and is preset. The measurement value application range RN1L and the application range limit value pair DN1L are based on the physical parameter application range representation GC1L, the sensor measurement range representation GW1R, the sensor sensitivity representation GW11 and the second data encoding operation ZX12. The specified measurement value format is HH11 and is preset. The measured value target range RN1T and the target range threshold pair DN1T are based on the first physical parameter candidate range representation GC1T, the sensor measurement range representation GW1R, the sensor sensitivity representation GW11 and the fourth data encoding operation ZX13 to be preset with the specified measurement value format HH11.

The measured value candidate range RN12 and the candidate range limit The value pair DN1B is pre-predicted with the designated measurement value format HH11 based on the second physical parameter candidate range representation GC12, the sensor measurement range representation GW1R, the sensor sensitivity representation GW11 and the fifth data encoding operation ZX14 set up. The rated physical parameter range represents GC1E, the physical parameter application range represents GC1L, the physical parameter represents GC1T1, the first physical parameter candidate range represents GC1T, and the second physical parameter candidate range represents GC12 are all based on a second preset measurement unit and was provided. For example, the second default measurement unit is one of a metric measurement unit and an imperial measurement unit, and is the same as or different from the first default measurement unit.

The variable physical parameter QU1A is further characterized based on the sensor measurement range RB1E. For example, the sensor measurement range represents GW1R, the rated physical parameter range represents GC1E, the physical parameter application range represents GC1L, the first physical parameter candidate range represents GC1T, the second physical parameter candidate range represents GC12 and the physical parameter Indicates that GC1T1 belongs to the decimal data type. The first measured value VN11, the second measured value VN12, the pair of nominal range limit values DD1A, the pair of application range limit values DN1L, the pair of target range limit values DN1T, the pair of candidate range limit values DN1B and the control code CC1T All belong to the binary data type, and are suitable for computer processing. Both the sensor specification FU11 and the trigger application function specification GCL1 are preset.

In some embodiments, the first memory location PN1L is identified based on a first memory address FN1L. The first memory address FN1L is preset based on the preset measurement value application range code EM1L. The second memory location PX1L is identified based on a second memory address FX1L. The second memory address FX1L is based on the preset measurement Values are preset using range code EM1L.

Before the trigger event EQ11 occurs, the processing unit 230 is configured to obtain the preset measurement value application range code EM1L, the preset application range limit value pair DN1L and the preset control data code CK1T, And apply the range code EM1L based on the acquired measurement value to obtain the first memory address FN1L. Before the trigger event EQ11 occurs, the processing unit 230 causes the operation unit 297 to provide the acquired application range limit value based on the obtained application range limit value pair DN1L and the obtained first memory address FN1L A first write request message WD1L to DN1L and the obtained first memory address FN1L. For example, the first write request message WD1L is used to cause the memory unit 25Y1 to store the transmitted application range limit value pair DN1L in the first memory location PN1L.

Before the trigger event EQ11 occurs, the processing unit 230 applies the range code EM1L to obtain the second memory address FX1L based on the obtained measurement value, and obtains the second memory address FX1L based on the obtained control data code CK1T and the obtained second The memory address FX1L causes the operation unit 297 to provide a second write request message WC1L for conveying the obtained control data code CK1T and the obtained second memory address FX1L. For example, the second write request message WC1L is used to cause the memory unit 25Y1 to store the transmitted control data code CK1T in the second memory location PX1L. The control device 210 is coupled to a server 280 . The identification medium 310 is one of an electronic tag 350 , a barcode medium 360 and a biometric identification medium 370 . One of the electronic tag 350 , the storage unit 250 and the server 280 includes the memory unit 25Y1 .

Please refer to Figure 1, Figure 2, Figure 3, Figure 4, Figure 5 and Figure 6. A method MT10 for controlling a variable physical parameter QU1A is disclosed. The variable physical parameter QU1A is characterized based on a physical parameter application range RD1EL represented by a measurement value application range RN1L and a physical parameter target range RD1ET different from the physical parameter application range RD1EL. The method MT10 includes the following steps: sensing the variable physical parameter QU1A to generate a first sensing signal SN11; under the condition that a trigger event EQ11 occurs, obtaining a first measurement value in response to the first sensing signal SN11 VN11; and under the condition that the physical parameter application range RD1EL in which the variable physical parameter QU1A is currently located is determined by examining a first mathematical relationship KV11 between the first measurement value VN11 and the measurement value application range RN1L , generating a first control signal SC11 for causing the variable physical parameter QU1A to enter the physical parameter target range RD1ET.

In some embodiments, the first control signal SC11 is used to cause the variable physical parameter QU1A to leave the physical parameter application range RD1EL and enter the physical parameter target range RD1ET. The physical parameter target range RD1ET is represented by a measured value target range RN1T, and is the same as or different from a first physical parameter candidate range RD1E2. For example, the measured value target range RN1T has a target range limit value pair DN1T. The target range limit is preset for DN1T. Both the physical parameter application range RD1EL and the first physical parameter candidate range RD1E2 different from the physical parameter application range RD1EL are included in a plurality of different physical parameter reference ranges RD1E1, RD1E2, . . .

The method MT10 further comprises a step of providing a sense Measuring unit 334. For example, the step of sensing the variable physical parameter QU1A is performed by using the sensing unit 334 . The sensing unit 334 is configured to comply with a sensor specification FU11 associated with the measurement application range RN1L. For example, the sensor specification FU11 includes a sensor sensitivity representation GW11 for representing a sensor sensitivity YW11. The sensor sensitivity YW11 is related to a sensing signal generated HF11 performed by the sensing unit 334 . The first measured value VN11 is obtained in a specified measured value format HH11.

Both the measured value application range RN1L and a measured value candidate range RN12 representing the first physical parameter candidate range RD1E2 are preset in the designated measured value format HH11 based on the sensor sensitivity representation GW11 . The measured value application range RN1L has an application range limit value pair DN1L. For example, the application range limit value is preset for DN1L. The measurement value candidate range RN12 has a candidate range limit value pair DN1B. For example, the candidate range limit value is preset for DN1B.

The method MT10 further comprises the following steps: in response to the trigger event EQ11, obtaining the application range limit value pair DN1L; A control data code CK1T is set. The step of generating the first control signal SC11 includes a sub-step: based on the obtained control data code CK1T, execute a signal generation control GS11 to generate the first control signal SC11. The physical parameter application range RD1EL is configured to correspond to a corresponding physical parameter range RY1EL outside the physical parameter application range RD1EL.

In some embodiments, the method MT10 further comprises The following steps: under the condition that the corresponding physical parameter range RY1EL in which the variable physical parameter QU1A is currently located is determined by checking the first mathematical relationship KV11, obtain the preset candidate range limit value pair DN1B; execute the A data comparison CD21 between the first measured value VN11 and the obtained candidate range limit value pair DN1B; and the first physical parameter candidate range RD1E2 in which the variable physical parameter QU1A is currently located is determined based on the data comparison CD21 Under certain conditions, a second control signal SC12 different from the first control signal SC11 is generated. The second control signal SC12 is used to cause the variable physical parameter QU1A to leave the first physical parameter candidate range RD1E2 to enter a second physical parameter candidate range RD1E3 included in the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . .

The method MT10 further includes the following steps: responding to the trigger event EQ11, obtaining the preset target range limit value pair DN1T; after the signal generation control GS11 is executed within an operation time TD11, sensing the variable physical Parameter QU1A to generate a second sensing signal SN12; within a specified time TG12 after the operating time TD11, respond to the second sensing signal SN12 to obtain a second measured value VN12 in the specified measured value format HH11; And under the condition that the physical parameter target range RD1ET in which the variable physical parameter QU1A is currently located is determined within the specified time TG12 by comparing the second measured value VN12 with the obtained target range limit value pair DN1T , execute a guarantee operation GU11, the guarantee operation GU11 is used to cause a physical parameter target range code UN1T representing the determined physical parameter target range RD1ET to be recorded.

In some embodiments, the variable physical parameter QU1A phase Regarding a variable length of time LF1A. For example, the variable time length LF1A is characterized based on a time length reference range HJ11 and a reference time length LJ1T. The time length reference range HJ11 is represented by a time length value reference range GJ11. The reference time length LJ1T is represented by a time length value CL1T. The obtained control data code CK1T includes the time length value CL1T. The method MT10 further comprises the following steps: checking a numerical relationship KJ11 between the time length value CL1T and the time length value reference range GJ11 to make a determination whether a counting operation BC1T for controlling a specific time TJ1T is to be executed Logical decision PE11; and on the condition that the logical decision PE11 is affirmative, the counting operation BC1T is performed based on the time length value CL1T.

The method MT10 further comprises the steps of: reaching the specific time TJ1T based on the counting operation BC1T under the condition that the variable physical parameter QU1A is configured due to the trigger event EQ11 to be within the physical parameter target range RD1ET; and Within the specific time TJ1T, a third control signal SC22 different from the first control signal SC11 is generated. The third control signal SC22 is used to cause the variable physical parameter QU1A to leave the physical parameter target range RD1ET to enter the physical parameter application range RD1EL.

In some embodiments, the method MT10 further includes the following steps: providing a sensing unit 334, wherein the step of sensing the variable physical parameter QU1A is performed by using the sensing unit 334; A trigger application function FC11 associated with the application range RD1EL. The trigger application function FC11 is configured to comply with a trigger application function specification GCL1 related to the physical parameter application range RD1EL.

The sensing unit 334 is configured to comply with a sensor specification FU11 associated with the measurement application range RN1L. For example, the sensor specification FU11 includes a sensor sensitivity representation GW11 for representing a sensor sensitivity YW11. The sensor sensitivity YW11 is related to a sensing signal generated HF11 performed by the sensing unit 334 . The first measured value VN11 is obtained in a specified measured value format HH11. For example, the specified measurement value format HH11 is characterized based on a specified bit number UY11.

The variable physical parameter QU1A is further characterized based on a nominal physical parameter range RD1E. For example, the rated physical parameter range RD1E is represented by a rated measured value range RD1N, and includes a plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . represented by multiple different measured value reference ranges RN11, RN12, . Both the physical parameter application range RD1EL and the physical parameter target range RD1ET are contained in the plurality of different physical parameter reference ranges RD1E1 , RD1E2 , . . . The trigger application function specification GCL1 includes the sensor specification FU11, a rated physical parameter range representation GC1E for representing the rated physical parameter range RD1E, and a physical parameter application range representation GC1L for representing the physical parameter application range RD1EL .

The rated measured value range RD1N is based on the rated physical parameter range representation GC1E, the sensor sensitivity representation GW11 and a first data encoding operation ZX11 for converting the rated physical parameter range representation GC1E to use the specified measured value format HH11 It is preset to have a rated range limit value pair DD1A, and includes the plural different measured value reference ranges RN11, RN12, . . . represented by the plural different measured value reference range codes EM11, EM12, . For example, the rated range limit value for DD1A Preset with the specified measurement value format HH11. The plurality of different measurement value reference ranges RN11, RN12, . . . include the measurement value application range RN1L.

The measured value application range RN1L is represented by a measured value application range code EM1L contained in the plurality of different measured value reference range codes EM11, EM12, . . . and has an application range limit value pair DN1L. For example, the plurality of different measured value reference range codes EM11, EM12, . . . are all preset based on the trigger application function specification GCL1. The application range limit value pair DN1L includes a first application range limit value DN15 and a second application range limit value DN16 relative to the first application range limit value DN15, and is based on the physical parameter application range representation GC1L, the sensing The instrument sensitivity representation GW11 and a second data encoding operation ZX12 for converting the physical parameter application range representation GC1L are preset with the specified measurement value format HH11.

In some embodiments, the method MT10 further includes the following steps: providing a storage space SS11 ; and storing the preset rated range limit value pair DD1A and a variable physical parameter range code UN1A in the storage space SS11 . When the trigger event EQ11 occurs, the variable physical parameter range code UN1A is equal to a specific measured value range code EM14 selected from the plurality of different measured value reference range codes EM11, EM12, . . .

For example, the specific measurement value range code EM14 indicates a specific physical parameter range RD1E4 previously determined based on a sensing operation ZS11. The specific physical parameter range RD1E4 is selected from the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . The sensing operation ZS11 performed by the sensing unit 334 is used to sense the variable physical parameter QU1A. Before the trigger event EQ11 occurs, the specific measured value range Code EM14 is assigned to the variable physical parameter range code UN1A.

In some embodiments, the method MT10 further includes the following steps: under the condition that the trigger event EQ11 occurs, obtain an operation reference data code XU11 from the storage space SS11 in response to the trigger event EQ11; and determine by running a data Program NA1A, executes a data determination AA1A using the operation reference data code XU11 to determine the measurement value application range code EM1L selected from the plurality of different measurement value reference range codes EM11, EM12, . . . RN11, RN12, ... select the measurement value application range RN1L.

The operation reference code XU11 is the same as an allowable reference code preset based on the trigger application function specification GCL1. The data determination program NA1A is constructed based on the trigger application function specification GCL1. The data determination AA1A is one of a first data determination operation AA11 and a second data determination operation AA12. Under the condition that the operation reference data code XU11 is obtained by accessing the variable physical parameter range code UN1A stored in the storage space SS11 to be the same as the specific measured value range code EM14, it is the first data The profile of determining operation AA11 determines that AA1A determines the measured value application range code EM1L based on the obtained specific measured value range code EM14, wherein the determined measured value applied range code EM1L is the same as or different from the obtained specific measured value range code EM1L Value range code EM14.

Under the condition that the operation reference code XU11 is obtained by accessing the pair of rated range limit values DD1A stored in the storage space SS11 to be the same as the preset pair of rated range limit values DD1A, it is the The data determination AA1A of the second data determination operation AA12 Selecting the measured value application range code EM1L from the plurality of different measured value reference range codes EM11, EM12, . To determine this measurement apply range code EM1L. For example, the scientific calculation MR11 is executed based on a specific empirical formula XR11, and the specific empirical formula XR11 is calculated based on the preset rated range limit value pair DD1A and the plurality of different measured value reference range codes EM11, EM12, . . . pre-made.

The method MT10 further comprises a step of obtaining the application range limit value pair DN1L based on the determined application range code EM1L of the measured value. The step of generating the first control signal SC11 comprises the following sub-steps: based on a data comparison CD11 between the first measured value VN11 and the obtained application range limit value pair DN1L, checking the first mathematical relationship KV11 to make It is a logical decision PB11 whether the first measured value VN11 is within the selected measured value application range RN1L; Parameter application range RD1EL.

In some embodiments, the variable physical parameter QU1A exists in a control target device 330 . The trigger event EQ11 is one of a trigger action event, a user input event, a signal input event, a state change event and a recognition medium occurrence event, and is applied to the trigger application function FC11. The trigger application function specification GCL1 further includes a physical parameter representation GC1T1. The physical parameter representation GC1T1 is used to represent a specified physical parameter QD1T within the physical parameter target range RD1ET. The preset measurement value application range code EM1L is related to a control Data code CK1T. For example, the control code CC1T is preset based on the physical parameter representation GC1T1 and a third data encoding operation ZX21 for converting the physical parameter representation GC1T1.

The method MT10 further includes a step of executing a specified function operation ZH11 related to the variable physical parameter QU1A by using the control target device 330 under the condition that the trigger event EQ11 that is the trigger action event will occur. For example, the specified functional operation ZH11 is used to cause the triggering event to occur. The step of generating the first control signal SC11 further includes the following sub-steps: under the condition that the physical parameter application range RD1EL is determined, the control data code CK1T is obtained based on the determined measurement value application range code EM1L; and based on the determined The obtained control data code CK1T executes a signal generating control GS11 for the triggering application function FC11 to generate the first control signal SC11 for causing the variable physical parameter QU1A to depart from the physical parameter Apply the range RD1EL to enter the physical parameter target range RD1ET.

The plurality of different measured value reference ranges RN11 , RN12 , . . . further include a measured value target range RN1T different from the measured value application range RN1L. The trigger application function specification GCL1 further includes a physical parameter candidate range representation GC1T for representing the physical parameter target range RD1ET. The measured value target range RN1T is represented by a measured value target range code EM1T different from the measured value application range code EM1L, has a target range limit value pair DN1T, and is configured to represent the physical parameter target range RD1ET. For example, the measured value target range code EM1T is included in the plurality of different measured value reference range codes EM11, EM12, . . . The target range threshold pair DN1T is based on the first physical parameter candidate range The representation GC1T, the sensor sensitivity representation GW11 and a fourth data encoding operation ZX13 for converting the first physical parameter candidate range representation GC1T are preset with the specified measurement value format HH11.

In some embodiments, the method MT10 further includes the following steps: after the signal generation control GS11 is executed within an operation time TD11, sensing the variable physical parameter QU1A to generate a second sensing signal SN12; Within a specified time TG12 after the operation time TD11, a second measurement value VN12 is obtained in response to the second sensing signal SN12; and under the condition that the signal generation control GS11 is executed, based on the obtained control data The code CK1T and the determined measured value application range code EM1L determine the measured value target range code EM1T.

The method MT10 further comprises the following steps: based on the determined measured value target range code EM1T, obtaining the target range limit value pair DN1T; and when the specific measured value range code EM14 is different from the determined measured value target range code EM1T And under the condition that the physical parameter target range RD1ET in which the variable physical parameter QU1A is currently located is determined within the specified time TG12 by comparing the second measured value VN12 with the obtained target range limit value pair DN1T, Assigning the determined measured value target range code EM1T to The variable physical parameter range code is UN1A.

The method MT10 further includes the following steps: when the trigger event EQ11 occurs, displaying a first status indication LB11, wherein the The first state indicator LB11 is used to indicate that the variable physical parameter QU1A is configured in a first specific state XJ11 within the specific physical parameter range RD1E4; and the code EM14 is different from the determined measured value in the specific measured value range Under the condition that the target range code EM1T and the physical parameter target range RD1ET are determined within the specified time TG12 by comparing the second measured value VN12 with the obtained target range limit value pair DN1T, based on the code difference DF11 to change the first status indicator LB11 into a second status indicator LB12. For example, the second state indicator LB12 is used to indicate a second specific state XJ12 in which the variable physical parameter QU1A is configured within the physical parameter target range RD1ET.

See Figure 8. FIG. 8 is a schematic diagram of an implementation structure 8017 of the control system 801 shown in FIG. 1 . Please also see Figures 1, 2, 3, 4, 5, 6 and 7. A method MT12 for controlling a variable physical parameter QU1A by generating a first control signal SC11 within a first operating time TD11 is disclosed. The variable physical parameter QU1A is characterized based on a physical parameter application range RD1EL represented by a measurement value application range RN1L and a physical parameter target range RD1ET different from the physical parameter application range RD1EL.

The method MT12 includes the following steps: the sensing unit 334 senses the variable physical parameter QU1A to generate a first sensing signal SN11; when a trigger event EQ11 occurs, the processing unit 230 responds to the first sensing signal SN11 to obtain a first measurement value VN11; and the physical parameter application range RD1EL in which the variable physical parameter QU1A is currently located is checked by checking the first measurement value VN11 and the measurement value application range Under the condition determined by the processing unit 230 around a first mathematical relationship KV11 between RN1L, the processing unit 230 determines whether a first trigger signal WX11 for reaching the first operation time TD11 is to be additionally generated A reasonable decision PW11, the first control signal SC11 is used to cause the variable physical parameter QU1A to enter the physical parameter target range RD1ET.

In some embodiments, the step of making the reasonable decision PW11 includes the following sub-steps: under the condition that the physical parameter application range RD1EL is determined by the processing unit 230, the processing unit 230 executes a method for checking the determined physical parameter A first checking operation ZY11 of a first range relationship KC1A between the application range RD1EL and a preset physical parameter range RD1EF; the processing unit 230 makes the determined application range of the physical parameter based on the first checking operation ZY11 Whether RD1EL is the same as a first specific decision PD11 of the preset physical parameter range RD1EF; and if the first specific decision PD11 is positive, the processing unit 230 makes the reasonable decision PW11 to be positive.

The first trigger signal WX11 is one of an interrupt request signal and a state change control signal. The first control signal SC11 is used to cause the variable physical parameter QU1A to leave the physical parameter application range RD1EL and enter the physical parameter target range RD1ET. The physical parameter target range RD1ET is represented by a measured value target range RN1T, and is the same as or different from a first physical parameter candidate range RD1E2. For example, the measured value target range RN1T has a target range limit value pair DN1T. The target range limit is preset for DN1T. The physical parameter application range RD1EL and the first physical parameter candidate range RD1E2 different from the physical parameter application range RD1EL are both included in a plurality of different physical parameter reference ranges RD1E1, RD1E2, ... in.

The method MT12 further includes a step: the control device 210 provides a sensing unit 334 . For example, the step of sensing the variable physical parameter QU1A is performed by using the sensing unit 334 . The sensing unit 334 is configured to comply with a sensor specification FU11 associated with the measurement application range RN1L. For example, the sensor specification FU11 includes a sensor sensitivity representation GW11 for representing a sensor sensitivity YW11. The sensor sensitivity YW11 is related to a sensing signal generated HF11 performed by the sensing unit 334 . The first measurement value VN11 is obtained by the processing unit 230 in a specified measurement value format HH11.

Both the measured value application range RN1L and a measured value candidate range RN12 representing the first physical parameter candidate range RD1E2 are preset in the designated measured value format HH11 based on the sensor sensitivity representation GW11 . The measured value application range RN1L has an application range limit value pair DN1L. For example, the application range limit value is preset for DN1L. The measurement value candidate range RN12 has a candidate range limit value pair DN1B. For example, the candidate range limit value is preset for DN1B.

In some embodiments, the method MT12 further includes the following steps: the processing unit 230 responds to the trigger event EQ11 to obtain the application range limit value pair DN1L; and the processing unit 230 responds to the trigger event EQ11 to obtain a control data code CK1T preset for a specified physical parameter QD1T within the target range RD1ET; and under the condition that the rationale decision PW11 is negative, the processing unit 230 directly reaches the trigger signal independent of the first trigger signal WX11 The first operating time TD11.

The method MT12 further comprises the following steps: under the condition that the reasonable decision PW11 is affirmative, one of the control device 210 and the operating unit 297 responds to a first designated application operation ZA11 related to the variable physical parameter QU1A to generating the first trigger signal WX11; under the condition that the reasonable decision PW11 is positive, the processing unit 230 responds to the first trigger signal WX11 to reach the first operation time TD11 dependent on the first trigger signal WX11; and the The processing unit 230 executes a signal generation control GS11 to generate the first control signal SC11 based on the obtained control data code CK1T within the first operation time TD11 .

In some embodiments, the physical parameter application range RD1EL is configured to correspond to a corresponding physical parameter range RY1EL outside the physical parameter application range RD1EL. The method MT12 further comprises the following steps: under the condition that the corresponding physical parameter range RY1EL in which the variable physical parameter QU1A is currently located is determined by the processing unit 230 by checking the first mathematical relationship KV11, the processing unit 230 obtains the The preset candidate range limit value pair DN1B; and the processing unit 230 performs a data comparison CD21 between the first measurement value VN11 and the obtained candidate range limit value pair DN1B.

The method MT12 further includes the following steps: under the condition that the first physical parameter candidate range RD1E2 that the variable physical parameter QU1A is currently in is determined by the processing unit 230 based on the data comparison CD21, the processing unit 230 executes a method for checking A second checking operation ZY21 of a second range relation KC2A between the determined first physical parameter candidate range RD1E2 and the preset physical parameter range RD1EF; the processing sheet The unit 230 makes a second specific decision PW21 whether a second trigger signal WX21 for reaching a second operation time TD21 is to be additionally generated based on the second checking operation ZY21, which is different from the first control signal SC11 A second control signal SC12 is to be generated within the second operating time TD21; and under the condition that the second specific decision PW21 is negative, the processing unit 230 directly reaches the trigger signal independent of the second trigger signal WX21 The second operating time TD21.

The method MT12 further comprises the following steps: on the condition that the second specific decision PW21 is affirmative, one of the control device 210 and the operating unit 297 responds to a second specified application operation related to the variable physical parameter QU1A ZA21 to generate the second trigger signal WX21; under the condition that the second specific decision PW21 is positive, the processing unit 230 responds to the second trigger signal WX21 to reach the second operation time dependent on the second trigger signal WX21 TD21; and within the second operating time TD21, the processing unit 230 causes the output unit 240 to generate the second control signal SC12. The second control signal SC12 is used to cause the variable physical parameter QU1A to leave the first physical parameter candidate range RD1E2 to enter a second physical parameter candidate range RD1E3 included in the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . .

In some embodiments, the method MT12 further includes the following steps: the processing unit 230 responds to the trigger event EQ11 to obtain the preset target range limit value pair DN1T; After being executed by the processing unit 230 , the sensing unit 334 senses the variable physical parameter QU1A to generate a second sensing signal SN12 .

The method MT12 further includes the following steps: the processing unit 230 obtains a second measurement value VN12 in the specified measurement value format HH11 in response to the second sensing signal SN12 within a specified time TG12 after the operation time TD11; And the physical parameter target range RD1ET in which the variable physical parameter QU1A is currently located is determined by the processing unit 230 by comparing the second measured value VN12 with the obtained target range limit value pair DN1T within the specified time TG12 Under certain conditions, the processing unit 230 executes a guarantee operation GU11 for causing a physical parameter target range code UN1T representing the determined physical parameter target range RD1ET to be recorded by the storage unit 250 .

The variable physical parameter QU1A is associated with a variable time length LF1A. For example, the variable time length LF1A is characterized based on a time length reference range HJ11 and a reference time length LJ1T. The time length reference range HJ11 is represented by a time length value reference range GJ11. The reference time length LJ1T is represented by a time length value CL1T. The obtained control data code CK1T includes the time length value CL1T. The method MT12 further comprises the following steps: the processing unit 230 checks a numerical relationship KJ11 between the time length value CL1T and the time length value reference range GJ11 to make a counting operation BC1T for controlling a specific time TJ1T whether to A logical decision PE11 is executed; and if the logical decision PE11 is positive, the processing unit 230 executes the counting operation BC1T based on the time length value CL1T.

The method MT12 further comprises the following steps: under the condition that the variable physical parameter QU1A is configured to be within the physical parameter target range RD1ET due to the trigger event EQ11, the processing unit 230 basically The counting operation BC1T reaches the specific time TJ1T; and the processing unit 230 causes the output unit 240 to generate a third control signal SC22 different from the first control signal SC11 within the specific time TJ1T. The third control signal SC22 is used to cause the variable physical parameter QU1A to leave the physical parameter target range RD1ET to enter the physical parameter application range RD1EL.

In some embodiments, the method MT12 further includes the following steps: the control device 210 provides a sensing unit 334, wherein the step of sensing the variable physical parameter QU1A is performed by using the sensing unit 334; and the The operation unit 297 executes a trigger application function FC11 related to the physical parameter application range RD1EL. The trigger application function FC11 is configured to comply with a trigger application function specification GCL1 related to the physical parameter application range RD1EL.

The sensing unit 334 is configured to comply with a sensor specification FU11 associated with the measurement application range RN1L. For example, the sensor specification FU11 includes a sensor sensitivity representation GW11 for representing a sensor sensitivity YW11. The sensor sensitivity YW11 is related to a sensing signal generated HF11 performed by the sensing unit 334 . The specified measurement value format HH11 is characterized based on a specified bit number UY11. The first measurement value VN11 is obtained by the processing unit 230 in a specified measurement value format HH11. For example, the specified measurement value format HH11 is characterized based on a specified bit number UY11. For example, when the trigger event EQ11 occurs, the sensing unit 334 senses the variable physical parameter QU1A to perform the sensing signal generation HF11 dependent on the sensor sensitivity YW11, and the sensing signal generation HF11 is used to generate The first sensing signal SN11.

The variable physical parameter QU1A is further characterized based on a nominal physical parameter range RD1E. For example, the rated physical parameter range RD1E is represented by a rated measured value range RD1N, and includes a plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . represented by multiple different measured value reference ranges RN11, RN12, . Both the physical parameter application range RD1EL and the physical parameter target range RD1ET are contained in the plurality of different physical parameter reference ranges RD1E1 , RD1E2 , . . . The trigger application function specification GCL1 includes the sensor specification FU11, a rated physical parameter range representation GC1E for representing the rated physical parameter range RD1E, and a physical parameter application range representation GC1L for representing the physical parameter application range RD1EL .

In some embodiments, the nominal range of measured values RD1N is used based on the nominal physical parameter range representation GC1E, the sensor sensitivity representation GW11 and a first data encoding operation ZX11 for converting the nominal physical parameter range representation GC1E to the It is preset by specifying the measured value format HH11, has a rated range limit value pair DD1A, and includes the plural different measured value reference ranges RN11, RN12, ... represented by the complex different measured value reference range codes EM11, EM12, ... . For example, the nominal range limit pair DD1A is preset with the specified measurement value format HH11. The plurality of different measurement value reference ranges RN11, RN12, . . . include the measurement value application range RN1L.

The measured value application range RN1L is represented by a measured value application range code EM1L contained in the plurality of different measured value reference range codes EM11, EM12, ..., and has an application range limit value pair DN1L; thereby the measured value application Range code EM1L is configured to indicate that the The application range of the physical parameters is RD1EL. For example, the plurality of different measured value reference range codes EM11, EM12, . . . are all preset based on the trigger application function specification GCL1.

The application range limit value pair DN1L comprises a first application range limit value DN15 of the measured value application range RN1L and a second application range limit value DN16 relative to the first application range limit value DN15, and is applied based on the physical parameter The range representation GC1L, the sensor sensitivity representation GW11 and a second data encoding operation ZX12 for converting the physical parameter application range representation GC1L are preset with the specified measurement value format HH11. The measured value application range RN1L is preset with the specified measured value format HH11 based on the physical parameter application range representation GC1L, the sensor sensitivity representation GW11 and the second data encoding operation ZX12.

In some embodiments, the method MT12 further includes the following steps: the storage unit 250 provides a storage space SS11; and the storage unit 250 stores the preset rated range limit value pair DD1A and a variable in the storage space SS11 Change physical parameter range code UN1A. When the trigger event EQ11 occurs, the variable physical parameter range code UN1A is equal to a specific measured value range code EM14 selected from the plurality of different measured value reference range codes EM11, EM12, . . .

For example, the specific measurement value range code EM14 indicates a first specific physical parameter range RD1E4 previously determined by the processing unit 230 based on a sensing operation ZS11 . The first specific physical parameter range RD1E4 is selected from the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . The sensing operation ZS11 performed by the sensing unit 334 is used to sense the possible Change the physical parameters of QU1A. Before the trigger event EQ11 occurs, the specific measured value range code EM14 is assigned to the variable physical parameter range code UN1A.

For example, before the trigger event EQ11 occurs, the processing unit 230 obtains the specific measurement value range code EM14. Under the condition that the processing unit 230 determines the first specific physical parameter range RD1E4 based on the sensing operation ZS11 before the trigger event EQ11 occurs, the processing unit 230 uses the storage unit 250 to obtain the specific The measured value range code EM14 is assigned to the variable physical parameter range code UN1A. The specific measurement value range code EM14 represents a specific measurement value range configured to represent the first specific physical parameter range RD1E4. The specific measurement value range is preset with the specified measurement value format HH11 based on the sensor sensitivity indication GW11. For example, the sensing unit 334 performs a sensing signal generation dependent on the sensor sensitivity YW11 by performing the sensing operation ZS11 to generate a sensing signal.

Before the trigger event EQ11 occurs, the processing unit 230 receives the sensing signal, obtains a specific measurement value in the specified measurement value format HH11 in response to the sensing signal, and executes a method for checking the specific measurement value and the specific measurement value A specific checking operation for a mathematical relationship between ranges of values. Under the condition that the processing unit 230 determines that the variable physical parameter QU1A is in the first specific physical parameter range RD1E4 based on the specific checking operation, the processing unit 230 uses the storage unit 250 to store the obtained specific The measured value range code EM14 is assigned to the variable physical parameter range code UN1A. The processing unit 230 determines whether the processing unit 230 is to respond to a specific sensing operation for sensing the variable physical parameter QU1A Use the storage unit 250 to change the variable physical parameter range code UN1A. For example, the specific sensing operation is performed by the sensing unit 334 .

In some embodiments, the method MT12 further includes the following steps: under the condition that the trigger event EQ11 occurs, the processing unit 230 obtains an operation reference code XU11 from the storage space SS11 in response to the trigger event EQ11; and the processing The unit 230 executes a data determination AA1A using the operation reference data code XU11 by running a data determination program NA1A to determine the measurement value application range code EM1L selected from the plurality of different measurement value reference range codes EM11, EM12, . . . The measured value application range RN1L is selected from the plurality of different measured value reference ranges RN11, RN12, . . .

The operation reference code XU11 is the same as an allowable reference code preset based on the trigger application function specification GCL1. The data determination program NA1A is constructed based on the trigger application function specification GCL1. The data determination AA1A is one of a first data determination operation AA11 and a second data determination operation AA12. Under the condition that the operation reference data code XU11 is obtained by the processing unit 230 by accessing the variable physical parameter range code UN1A stored in the storage space SS11 to be the same as the specific measured value range code EM14, is The material determination AA1A of the first material determination operation AA11 determines the measurement value application range code EM1L based on the obtained specific measurement value range code EM14 . For example, the determined measurement value application range code EM1L is the same as or different from the specific measurement value range code EM14 obtained.

In the operation reference code XU11 by accessing the nominal range limit value pair DD1A stored in the storage space SS11, the The processing unit 230 obtains the data determination AA1A of the second data determination operation AA12 under the same condition as the preset nominal range limit value pair DD1A by using the first measurement value VN11 and the obtained A first scientific calculation MR11 of the rated range limit value pair DD1A selects the measured value application range code EM1L from the plurality of different measured value reference range codes EM11, EM12, . . . to determine the measured value application range code EM1L. For example, the first scientific calculation MR11 is performed based on a specific empirical formula XR11. The specific empirical formula XR11 is pre-established based on the preset rated range limit value pair DD1A and the plurality of different measured value reference range codes EM11 , EM12 , . . . . For example, the specific empirical formula XR11 is pre-established based on the triggering application function specification GCL1.

In some embodiments, the method MT12 further includes a step: the processing unit 230 obtains the application range limit value pair DN1L based on the determined measurement value application range code EM1L. The step of making the plausible decision PW11 comprises the following sub-steps: The processing unit 230 checks the first mathematical relationship KV11 to make a first logical decision PB11 whether the first measured value VN11 is within the selected measured value application range RN1L; and under the condition that the first logical decision PB11 is affirmative, the processing unit 230 Determine the application range RD1EL of the physical parameter that the variable physical parameter QU1A is currently in.

For example, when the first application range limit value DN15 is different from the second application range limit value DN16 and the first measured value VN11 is between the first application range limit value DN15 and the second application range limit value Under the condition between DN16, the processing unit 230 makes the first logical decision PB11 by comparing the first measurement value VN11 with the obtained application range limit value pair DN1L to be positive. Under the condition that the first application range limit value DN15, the second application range limit value DN16 and the first measurement value VN11 are equal, the processing unit 230 compares the first measurement value VN11 with the obtained application The first logical decision PB11 is made affirmative for the range limit pair DN1L.

In some embodiments, the variable physical parameter QU1A exists in a control target device 330 . The trigger event EQ11 is one of a trigger action event, a user input event, a signal input event, a state change event and a recognition medium occurrence event, and is applied to the trigger application function FC11. The trigger application function specification GCL1 further includes a physical parameter representation GC1T1. The physical parameter representation GC1T1 is used to represent a specified physical parameter QD1T within the physical parameter target range RD1ET. The method MT12 further includes a step of executing a specified function operation ZH11 related to the variable physical parameter QU1A by using the control target device 330 under the condition that the trigger event EQ11 that is the trigger action event will occur. For example, the specified functional operation ZH11 is used to cause the triggering event to occur.

The method MT12 further includes the following steps: the operating unit 297 provides a response area AC1 for executing the triggering application function FC11 ; and the memory unit 25Y1 provides a memory space SA1 related to the triggering application function FC11 . For example, the memory space SA1 has a first memory location PN1L and a second memory location PX1L different from the first memory location PN1L. The first memory location PN1L and the The second memory location PX1L is identified based on the preset measurement value application range code EM1L.

The method MT12 further includes the following steps: the memory unit 25Y1 stores the application range limit value pair DN1L in the first memory location PN1L; and the memory unit 25Y1 stores a control data code CK1T in the second memory location PX1L . For example, the control data code CK1T includes a control code CC1T. The control code CC1T is preset based on the physical parameter representation GC1T1 and a third data encoding operation ZX21 for converting the physical parameter representation GC1T1. For example, both the application range limit pair DN1L and the control data code CK1T are stored in the memory unit 25Y1 based on the preset measurement value application range code EM1L.

In some embodiments, the step of obtaining the application range limit value pair DN1L includes a sub-step: the processing unit 230 executes a data acquisition using the determined application range code EM1L of the measured value by running a data acquisition program ND1A AD1A to obtain the application range limit value to DN1L. For example, the data acquisition AD1A is one of a first data acquisition operation AD11 and a second data acquisition operation AD12. The data acquisition program ND1A is constructed based on the trigger application function specification GCL1. The first data acquisition operation AD11 uses the memory unit 25Y1 to access the application range limit value pair DN1L stored in the first memory location PN1L based on the determined measurement value application range code EM1L to obtain the application Range cutoffs to DN1L.

The second data acquisition operation AD12 obtains the preset rated range limit value pair DD1A by reading the rated range limit value pair DD1A stored in the storage space SS11, and executes using the The determined measured value application range code EM1L and a second scientific calculation MZ11 of the obtained nominal range limit value pair DD1A are used to obtain the application range limit value pair DN1L. For example, the rated range limit value pair DD1A includes a rated range limit value DD11 of the rated measured value range RD1N and a rated range limit value DD12 relative to the rated range limit value DD11, and based on the rated physical parameter range represents GC1E, The sensor sensitivity indication GW11 and the first data encoding operation ZX11 are preset with the designated measurement value format HH11.

In some embodiments, the method MT12 further includes the following steps: under the condition that the rational decision PW11 is negative, the processing unit 230 directly reaches the first operation time TD11 independent of the first trigger signal WX11; at the Under the condition that the reasonable decision PW11 is affirmative, one of the control device and the operation unit 297 responds to a specified application operation ZA11 related to the variable physical parameter QU1A to generate the first trigger signal WX11; In the affirmative condition, the processing unit 230 responds to the first trigger signal WX11 to reach the first operation time TD11 dependent on the first trigger signal WX11; and the processing unit 230 is within the first operation time TD11, The range code EM1L is used based on the determined measurement value to use the memory unit 25Y1 to access the control data code CK1T stored in the second memory location PX1L.

The method MT12 further includes the following steps: the processing unit 230 executes a signal generation control GS11 for the trigger application function FC11 based on the accessed control data code CK1T within the first operation time TD11 to control the an output unit 240; and the output unit 240 generates a control GS11 in response to the signal, and executes the trigger application function FC11 A first signal generating operation BS11 to generate the first control signal SC11 within the first operation time TD11. For example, the first control signal SC11 conveys the control code CC1T and is used to cause the variable physical parameter QU1A to leave the physical parameter application range RD1EL and enter the physical parameter target range RD1ET.

The plurality of different measured value reference ranges RN11 , RN12 , . . . further include a measured value target range RN1T different from the measured value application range RN1L. The trigger application function specification GCL1 further includes a first physical parameter candidate range representation GC1T for representing the physical parameter target range RD1ET. The measured value target range RN1T is represented by a measured value target range code EM1T different from the measured value application range code EM1L, has a target range limit value pair DN1T, and is configured to represent the physical parameter target range RD1ET; thereby The measured value target range code EM1T is configured to indicate the physical parameter target range RD1ET. For example, the measured value target range code EM1T is included in the plurality of different measured value reference range codes EM11, EM12, . . .

The target range limit pair DN1T uses the specification based on the first physical parameter candidate range representation GC1T, the sensor sensitivity representation GW11 and a fourth data encoding operation ZX13 for converting the first physical parameter candidate range representation GC1T The measured value format HH11 is preset. The measured value target range RN1T is preset with the designated measured value format HH11 based on the first physical parameter candidate range representation GC1T, the sensor sensitivity representation GW11 and the fourth data encoding operation ZX13.

In some embodiments, the plurality of different measurement value reference ranges RN11, RN12, . . . has a total reference range number NT11. For example, The total reference range number NT11 is preset based on the trigger application function specification GCL1. The method MT12 further includes a step: the processing unit 230 obtains the total number of reference ranges NT11 in response to the trigger event EQ11 . The first scientific calculation MR11 further uses the obtained total reference range number NT11. The second scientific calculation MZ11 further uses the obtained total reference range number NT11. For example, the total number of reference ranges NT11≧3; the total number of reference ranges NT11≧4; the total number of reference ranges NT11≧5; the total number of reference ranges NT11≧6; and the total number of reference ranges NT11≦255.

The method MT12 further includes the following steps: receiving the first control signal SC11 by using a control target device 330; obtaining the control code CC1T from the received first control signal SC11 by using the control target device 330; And by using the control target device 330, the variable physical parameter QU1A is changed from a first specific physical parameter QU13 to a second specific physical parameter QU14 based on the obtained control code CC1T. For example, the first specific physical parameter QU13 is within the physical parameter application range RD1EL. The second specific physical parameter QU14 is within the physical parameter target range RD1ET. For example, the control target device 330 is coupled to the output unit 240 . The control target device 330 is disposed on the control device 210 or supported by the control device 210 .

The measured value application range RN1L is a first part of the nominal measured value range RD1N. The measured value target range RN1T is a second part of the nominal measured value range RD1N. The physical parameter application range RD1EL and the physical parameter target range RD1ET are separate or adjacent. In the application range of this physical parameter RD1EL and the target range of this physical parameter RD1ET is separated under the condition that the measured value application range RN1L and the measured value target range RN1T are separated. On the condition that the physical parameter application range RD1EL and the physical parameter target range RD1ET are adjacent, the measurement value application range RN1L and the measurement value target range RN1T are adjacent.

For example, the measurement value application range code EM1L is configured to be equal to an integer. The setpoint range limit value DD12 is greater than the setpoint range limit value DD11 . There is a relative value VA11 between the rated range limit value DD12 and the rated range limit value DD11 relative to the rated range limit value DD11 . The relative value VA11 is equal to a calculation result obtained by subtracting the rated range limit value DD11 from the rated range limit value DD11 . For example, the application range limit pair DN1L is preset based on the nominal range limit DD11, the nominal range limit DD12, the integer, and a ratio of the relative value VA11 to the total reference range number NT11. The second scientific calculation MZ11 uses one of the rated range limit value DD11, the rated range limit value DD12, the integer, the ratio and any combination thereof.

The physical parameter target range RD1ET is the same as or different from a first physical parameter candidate range RD1E2 included in the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . . For example, the first physical parameter candidate range RD1E2 is different from the physical parameter application range RD1EL. The measurement value target range RN1T is the same as or different from a measurement value candidate range RN12 included in the plurality of different measurement value reference ranges RN11, RN12, . . . . For example, the measurement value candidate range RN12 is different from the measurement value application range RN1L.

In some embodiments, the trigger application function specification GCL1 further includes a second physical parameter candidate range representation GC12 for representing the first physical parameter candidate range RD1E2. The measured value candidate range RN12 is represented by a measured value candidate range code EM12 different from the measured value application range code EM1L, has a candidate range limit value pair DN1B, and is configured to represent the physical parameter candidate range RD1E2; thereby The measurement value candidate range code EM12 is configured to indicate the physical parameter candidate range RD1E2. For example, the candidate range limit pair DN1B is based on the second physical parameter candidate range representation GC12, the sensor sensitivity representation GW11 and a fifth data encoding operation ZX14 for converting the second physical parameter candidate range representation GC12 Preset with the specified measurement value format HH11. The measured value candidate range RN12 is preset with the designated measured value format HH11 based on the second physical parameter candidate range representation GC12 , the sensor sensitivity representation GW11 and the fifth data encoding operation ZX14 .

The method MT12 further comprises a step: under the condition that the first logic decision PB11 is negative, the processing unit 230 determines the selection from The measured value candidate range code EM12 of the plurality of different measured value reference range codes EM11 , EM12 , .

The method MT12 further includes the following steps: the processing unit 230 obtains the candidate range limit value pair DN1B based on the determined measurement value candidate range code EM12; and the processing unit 230 obtains the candidate range limit value pair DN1B based on the first measurement value VN11 and the obtained A second data comparison CD21 between the candidate range limit value pair DN1B checks the first measured value VN11 and the selected A second mathematical relationship KV21 between the measured value candidate ranges RN12 is used to make a second logical decision PB21 whether the first measured value VN11 is within the selected measured value candidate range RN12.

The method MT12 further includes the following steps: under the condition that the second logical decision PB21 is positive, the processing unit 230 determines the first physical parameter candidate range RD1E2 in which the variable physical parameter QU1A is currently located; Under the condition that the parameter candidate range RD1E2 is determined by the processing unit 230, the processing unit 230 executes a second signal generating operation BS21 for the trigger application function FC11 to generate a second control signal different from the first control signal SC11 SC12. The second control signal SC12 is used to cause the variable physical parameter QU1A to leave the first physical parameter candidate range RD1E2 to enter a second physical parameter candidate range RD1E3 included in the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . .

In some embodiments, the method MT12 further includes the following steps: after the signal generation control GS11 is executed by the processing unit 230 within an operation time TD11, the sensing unit 334 senses the variable physical parameter QU1A to generate A second sensing signal SN12; the processing unit 230 responds to the second sensing signal SN12 within a specified time TG12 after the operating time TD11 to obtain a second measured value VN12 in the specified measured value format HH11; And under the condition that the signal generation control GS11 is executed by the processing unit 230, the processing unit 230 determines the measurement based on one of the accessed control data code CK1T and the determined measurement value application range code EM1L Value target range code EM1T to determine the measured value target range RN1T.

The method MT12 further includes the following steps: the processing unit 230 obtains the target range limit value pair DN1T based on the determined measurement value target range code EM1T; and the processing unit 230 obtains the target range limit value pair DN1T based on the second measurement value VN12 and the obtained A third data comparison CD22 between target range limit value pair DN1T checks a third mathematical relationship KV22 between the second measured value VN12 and the determined measured value target range RN1T to make the second measured value A third logical decision PB22 is whether VN12 is within the determined measurement value target range RN1T. For example, after the processing unit 230 executes the signal generation control GS11, the sensing unit 334 senses the variable physical parameter QU1A to perform a sensing signal generation HF12 dependent on the sensor sensitivity YW11, the sensing signal Generate HF12 for generating the second sensing signal SN12.

The method MT12 further includes the following steps: under the condition that the third logical decision PB22 is positive, the processing unit 230 determines the physical parameter target range RD1ET where the variable physical parameter QU1A is currently within the specified time TG12; and Under the condition that the specific measured value range code EM14 is different from the determined measured value target range code EM1T and the physical parameter target range RD1ET is determined by the processing unit 230 by making the third logical decision PB22, the processing Unit 230 converts the determined measured value target range based on a first code difference DF11 between the variable physical parameter range code UN1A equal to the specific measured value range code EM14 and the determined measured value target range code EM1T Code EM1T is assigned to the variable physical parameter range code UN1A.

The method MT12 further includes the following steps: when the trigger event EQ11 occurs, the output unit 240 displays a first status indication LB11, wherein the first state indication LB11 is used to indicate that the variable physical parameter QU1A is configured in a first specific state XJ11 within the first specific physical parameter range RD1E4; and the specific measurement value range code EM14 is different from Under the condition that the measured value target range code EM1T is determined and the physical parameter target range RD1ET is determined by the processing unit 230 by making the third logical decision PB22, the processing unit 230 determines based on the first code difference DF11 This causes the output unit 240 to change the first status indicator LB11 into a second status indicator LB12. For example, the second state indicator LB12 is used to indicate a second specific state XJ12 in which the variable physical parameter QU1A is configured within the physical parameter target range RD1ET.

In some embodiments, the step of obtaining the first measurement value VN11 includes a sub-step: when the trigger event EQ11 is the occurrence event of the identification medium and an identification medium 310 appearing in the response area AC1 is recognized by the processing unit 230 Under the condition of , the processing unit 230 obtains the first measurement value VN11 based on the first sensing signal SN11 . The method MT12 further includes a step: under the condition that the variable physical parameter QU1A is configured within the physical parameter target range RD1ET due to the trigger event EQ11 , the input unit 270 receives a user input operation BQ11 .

The method MT12 further includes the following steps: the processing unit 230 determines a specific input code UW11 in response to the user input operation BQ11, wherein the specific input code UW11 is selected from the plurality of different measured value reference range codes EM11, EM12, . . . ; and Under the condition that the specific input code UW11 is different from the preset measured value target range code EM1T, the processing unit 230 is based on the variable physical parameter range code UN1A equal to the determined measured value target range code EM1T and the specific input code A second code difference DX11 between UW11 to cause the variable physical parameter QU1A to leave the physical parameter target range RD1ET to enter a second specific physical parameter range included in the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . RD1E5.

In some embodiments, the step of sensing the variable physical parameter QU1A includes a sub-step: under the condition that the trigger event EQ11 occurs, the sensing unit 334 senses the variable physical parameter QU1A under a constraint condition FR11 to provide the first sensing signal SN11. For example, the constraint condition FR11 is that the variable physical parameter QU1A is equal to a third specific physical parameter QU11 included in the rated physical parameter range RD1E. The step of obtaining the first measurement value VN11 includes a sub-step: the processing unit 230 estimates the third specific physical parameter QU11 based on the first sensing signal SN11 to obtain the first measurement value VN11.

Since the variable physical parameter QU1A under the constraint condition FR11 is within the physical parameter application range RD1EL, the processing unit 230 identifies the first measurement value VN11 as an allowable value within the measurement value application range RN1L , thereby identifying the first mathematical relationship KV11 between the first measured value VN11 and the measured value application range RN1L as a numerical intersection relationship, and thereby determining the physical parameter application range where the variable physical parameter QU1A is currently located RD1EL.

In some embodiments, the sensing unit 334 is characterized based on the sensor sensitivity YW11 associated with the sensing signal generation HF11 and is configured to comply with the sensor specification FU11. The sensor specification FU11 includes the sensor sensitivity indication GW11 for indicating the sensor sensitivity YW11, and a sensor sensitivity indication GW11 for indicating a sensor measurement range RB1E. The measurement range of the instrument indicates GW1R. For example, the nominal physical parameter range RD1E is configured to be identical to the sensor measurement range RB1E, or configured to be a part of the sensor measurement range RB1E. The sensor measurement range RB1E is related to a physical parameter sensing performed by the sensing unit 334 . The sensor measurement range indicates that GW1R is provided based on a first preset measurement unit. For example, the first preset measurement unit is one of a metric measurement unit and an imperial measurement unit.

The rated measurement value range RD1N and the rated range limit value pair DD1A are based on the rated physical parameter range indicating GC1E, the sensor measuring range indicating GW1R, the sensor sensitivity indicating GW11 and the first data encoding operation ZX11. The specified measurement value format is HH11 and is preset. The measurement value application range RN1L and the application range limit value pair DN1L are based on the physical parameter application range representation GC1L, the sensor measurement range representation GW1R, the sensor sensitivity representation GW11 and the second data encoding operation ZX12. The specified measurement value format is HH11 and is preset. The measured value target range RN1T and the target range threshold pair DN1T are based on the first physical parameter candidate range representation GC1T, the sensor measurement range representation GW1R, the sensor sensitivity representation GW11 and the fourth data encoding operation ZX13 to be preset with the specified measurement value format HH11.

The measurement value candidate range RN12 and the candidate range limit value pair DN1B are both based on the second physical parameter candidate range representation GC12, the sensor measurement range representation GW1R, the sensor sensitivity representation GW11 and the fifth data encoding operation ZX14 to be preset with the specified measurement value format HH11. The rated physical parameter range indicates GC1E, the physical parameter application range indicates GC1L, the physical parameter indicates GC1T1, and the first physical parameter Both the number candidate range representation GC1T and the second physical parameter candidate range representation GC12 are provided based on a second preset measurement unit. For example, the second default measurement unit is one of a metric measurement unit and an imperial measurement unit, and is the same as or different from the first default measurement unit.

The variable physical parameter QU1A is further characterized based on the sensor measurement range RB1E. For example, the sensor measurement range represents GW1R, the rated physical parameter range represents GC1E, the physical parameter application range represents GC1L, the first physical parameter candidate range represents GC1T, the second physical parameter candidate range represents GC12 and the physical parameter Indicates that GC1T1 belongs to the decimal data type. The first measured value VN11, the second measured value VN12, the pair of nominal range limit values DD1A, the pair of application range limit values DN1L, the pair of target range limit values DN1T, the pair of candidate range limit values DN1B and the control code CC1T All belong to the binary data type, and are suitable for computer processing. Both the sensor specification FU11 and the trigger application function specification GCL1 are preset.

In some embodiments, the first memory location PN1L is identified based on a first memory address FN1L. The first memory address FN1L is preset based on the preset measurement value application range code EM1L. The second memory location PX1L is identified based on a second memory address FX1L. The second memory address FX1L is preset based on the preset measurement value application range code EM1L.

The method MT12 further includes the following steps: before the trigger event EQ11 occurs, the processing unit 230 obtains the preset measurement value application range code EM1L, the preset application range limit value pair DN1L and the preset Control data code CK1T; The processing unit 230 base Apply range code EM1L to the obtained measurement value to obtain the first memory address FN1L; and before the trigger event EQ11 occurs, the processing unit 230 based on the obtained application range limit value pair DN1L and the obtained The first memory address FN1L is used to provide a first write request message WD1L for conveying the obtained application range limit value pair DN1L and the obtained first memory address FN1L. For example, the first write request message WD1L is used to store the transmitted application range limit value pair DN1L in the first memory location PN1L.

The method MT12 further includes the following steps: the processing unit 230 obtains the second memory address FX1L based on the obtained measurement value by applying a range code EM1L; and before the trigger event EQ11 occurs, the processing unit 230 obtains the address based on the obtained The control data code CK1T and the obtained second memory address FX1L are used to provide a second write request message WC1L conveying the obtained control data code CK1T and the obtained second memory address FX1L. For example, the second write request message WC1L is used to store the transmitted control data code CK1T in the second memory location PX1L. The identification medium 310 is one of an electronic tag 350 , a barcode medium 360 and a biometric identification medium 370 .

See Figure 9. FIG. 9 is a schematic diagram of an implementation structure 8018 of the control system 801 shown in FIG. 1 . As shown in FIG. 9 , the implementation structure 8018 includes the identification medium 310 , the control device 210 , the control target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used to control the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11, and includes the sensing unit 334, the operating unit 297 and the storage storage unit 250. The operation unit 297 includes the processing unit 230 , the response area AC1 , the reader 220 , the input unit 270 and the output unit 240 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the reader 220 , the input unit 270 and the output unit 240 . The sensing unit 334 , the storage unit 250 , the reader 220 , the input unit 270 and the output unit 240 are all controlled by the processing unit 230 .

In some embodiments, the trigger event EQ11 is the recognition medium appearance event that the recognition medium 310 appears in the response area AC1. The trigger application function FC11 is an identification application function. The response area AC1 is used to execute the triggered application function FC11. The reader 220 is coupled to the response area AC1 and the processing unit 230 . For example, under the condition that the trigger event EQ11 of the identification medium 310 appearing in the response area AC1 occurs, the sensing unit 334 senses the variable physical parameter QU1A to generate the first sensing signal SN11 .

The processing unit 230 receives the first sensing signal SN11 , and processes the received first sensing signal SN11 in response to the trigger event EQ11 to obtain the first measurement value VN11 . For example, under the condition that the processing unit 230 identifies the identification medium 310 appearing in the response area AC1 through the reader 220, the processing unit 230 processes the received first sensing signal SN11 to obtain the second - Measured value VN11.

The identification medium 310 is identified by an identification medium identifier HU11 and is one of the electronic tag 350 , the barcode medium 360 and the biometric identification medium 370 . Under the condition that the identification medium 310 appears in the response area AC1, the reader 220 executes the A read operation BX11 of the application function is used to read the identification medium 310 to obtain a read data DB11. The processing unit 230 determines an identification medium identification code CU11 equal to the identification medium identifier HU11 based on the read data DB11 , thereby identifying the identification medium 310 .

Under the condition that the processing unit 230 obtains the first measurement value VN11, the processing unit 230 performs a checking operation for checking the first mathematical relationship KV11 between the first measurement value VN11 and the measurement value application range RN1L BV11. Under the condition that the processing unit 230 determines the physical parameter application range RD1EL in which the variable physical parameter QU1A is currently located based on the checking operation BV11 , the processing unit 230 causes the output unit 240 to generate the first control signal SC11 . For example, the first control signal SC11 is one of a pulse width modulation signal, a potential signal, a driving signal and a command signal.

In some embodiments, the implementing structure 8018 further includes a control target device 630 . The control device 210 is identified by a control device identifier HAOT, and is used to control the control target device 630 . The output unit 240 has an output terminal 240P and an output terminal 240Q; thereby the operation unit 297 has the output terminal 240P and the output terminal 240Q. The output end 240P and the output end 240Q are respectively located at different spatial positions. The control target device 330 is coupled to the output terminal 240P, and is identified by a control target device identifier HA1T. The control target device 630 is coupled to the output terminal 240Q, and is identified by a control target device identifier HA12.

For example, the control device identifier HAOT is a control device number and is preset. The control target device identifier HA1T is configured to indicate that the output terminal 240P is a first control target device number, and is default. The control target device identifier HA12 is configured to indicate that the output terminal 240Q is a second control target device number and is preset. The first memory location PN1L is identified based on the first memory address FN1L. The first memory address FN1L is preset based on the preset measurement value application range code EM1L and the preset control target device identifier HA1T. The second memory location PX1L is identified based on the second memory address FX1L. The second memory address FX1L is preset based on the preset measurement value application range code EM1L and the preset control target device identifier HA12 .

In some embodiments, the processing unit 230 obtains the preset control target device identifier HA1T in response to the trigger event EQ11 . The first data acquisition operation AD11 obtains the first memory address FN1L based on the obtained control target device identifier HA1T and the determined measurement value application range code EM1L, and based on the obtained first memory address FN1L uses the memory unit 25Y1 to access the preset application range threshold pair DN1L stored in the first memory location PN1L. Under the condition that the processing unit 230 determines that the variable physical parameter QU1A is currently in the physical parameter application range RD1EL, the processing unit 230 based on the obtained control target device identifier HA1T and the determined measurement value application range code EM1L to obtain the second memory address FX1L, and use the memory unit 25Y1 to access the control data code CK1T stored in the second memory location PX1L based on the obtained second memory address FX1L.

The processing unit 230 executes the operation based on the obtained control target device identifier HA1T and the obtained control data code CK1T The signal generation at the trigger application function FC11 controls GS11 to control the output unit 240 . The signal generation control GS11 is used to indicate the output terminal 240P, and is used to cause the processing unit 230 to provide a control signal SH11 to the output unit 240 . The control signal SH11 serves to indicate the output terminal 240P. The output unit 240 responds to one of the signal generation control GS11 and the control signal SH11 to execute the signal generation operation BS11 using the output terminal 240P to transmit the first control signal SC11 to the control target device 330 .

In some embodiments, the processing unit 230 is configured to obtain the preset control device identifier HAOT. The first control signal SC11 includes at least one of the obtained control device identifier HA0T, the obtained control target device identifier HA1T and the obtained control code CC1T. In a specific case, the processing unit 230 responds to a trigger event EQ21 to obtain the preset control target device identifier HA12, and based on the obtained control target device identifier HA12, send the output terminal 240Q to the The control target device 630 transmits a control signal SC19. The control signal SC19 is used to control the control target device 630 .

For example, the storage unit 250 stores the preset control device identifier HA0T, the preset control target device identifier HA1T, and the preset control target device identifier HA12. The processing unit 230 is configured to obtain the preset control device identifier HAOT from the storage unit 250 . The processing unit 230 obtains the preset control target device identifier HA1T from the storage unit 250 in response to the trigger event EQ11 . The processing unit 230 obtains the preset control target device identifier HA12 from the storage unit 250 in response to the trigger event EQ21 .

For example, the storage unit 250 has a first application memory location and a second application memory location, the nominal range limit value pair DD1A is stored in the first application memory location, and stored in the second application memory location The variable physical parameter range code is UN1A. The first application memory location is identified by or based on a first application memory address. The second application memory location is identified by or based on a second application memory address. Both the first application memory address and the second application memory address are preset based on the preset control target device identifier HA1T.

In some embodiments, the second data obtaining operation AD12 obtains the first application memory address based on the obtained control target device identifier HA1T, and uses the stored address based on the obtained first application memory address. The unit 250 reads the rated range limit value pair DD1A stored in the first application memory location to obtain the preset rated range limit value pair DD1A. The processing unit 230 is configured to obtain the second application memory address based on the obtained control target device identifier HA1T, and use the storage unit 250 to access the second application memory address based on the obtained second application memory address. The variable physical parameter range code UN1A stored in the second application memory location.

The physical parameter target range RD1ET has a predetermined physical parameter target range limit ZD1T1 and a predetermined physical parameter target range limit ZD1T2 relative to the predetermined physical parameter target range limit ZD1T1 . The target range limit value pair DN1T comprises a target range limit value DN17 of the measured value target range RN1T and a target range limit value DN18 corresponding to the target range limit value DN17. The target range of the preset physical parameters The boundary limit ZD1T1 is represented by the target range limit value DN17. The target range limit ZD1T2 of the preset physical parameter is represented by the target range limit value DN18.

See Figure 10. FIG. 10 is a schematic diagram of an implementation structure 8019 of the control system 801 shown in FIG. 1 . As shown in FIG. 10 , the implementation structure 8019 includes the control device 210 , the control target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 , the input unit 270 and the output unit 240 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the input unit 270 and the output unit 240 . The output unit 240 is coupled to the control target device 330 .

In some embodiments, the trigger application function FC11 is a signal input application function. The trigger event EQ11 is a signal input event. Under the condition that the input unit 270 receives a trigger signal ST11 and the signal input event occurs, the sensing unit 334 senses the variable physical parameter QU1A to generate the first sensing signal SN11 . For example, the processing unit 230 processes the received first sensing signal SN11 to obtain the first measurement value VN11 in response to the trigger event EQ11 of the trigger signal ST11 received by the input unit 270 . For example, the trigger signal ST11 is provided by one of a function switch 470 and a signal generator 472 . For example, the server 280 includes the memory unit 25Y1. The input unit 270 is coupled to at least one of the function switch 470 and the signal generator 472 .

In some embodiments, the triggering application function FC11 is a user input application function. The trigger event EQ11 is a user input event. The control device 210 further includes an electrical application target WJ11 coupled to the processing unit 230 . Under the condition that the input unit 270 receives a user input operation JU11 and the user input event occurs, the sensing unit 334 senses the variable physical parameter QU1A to generate the first sensing signal SN11 . The user input operation JU11 is used to select the electrical application target WJ11. For example, the processing unit 230 processes the received first sensing signal SN11 to obtain the first measurement value VN11 in response to the input unit 270 receiving the trigger event EQ11 of the user input operation JU11. For example, the control device 210 is used by a user 295 . The user input operation JU11 is performed by the user 295 .

The electrical application object WJ11 is one of a sensing object and a display object. On the condition that the electric application object WJ11 is the sensing object, the input unit 270 includes the electric application object WJ11. On the condition that the electric application object WJ11 is the display object, the output unit 240 includes the electric application object WJ11. The input unit 270 provides an operation request signal SZ11 to the processing unit 230 in response to the user input operation JU11. The processing unit 230 determines the trigger event EQ11 in response to the operation request signal SZ11 . For example, under the condition that the processing unit 230 determines the trigger event EQ11, the processing unit 230 obtains the first measurement value VN11 based on the first sensing signal SN11. For example, the sensing target is a button target. The display object is an icon object.

See Figure 11. FIG. 11 is a schematic diagram of an implementation structure 8020 of the control system 801 shown in FIG. 1 . as the 11th As shown in the figure, the implementation structure 8020 includes the control device 210 , the control target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 , the input unit 270 and the output unit 240 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the input unit 270 and the output unit 240 . The output unit 240 is coupled to the control target device 330 .

In some embodiments, the control target device 330 includes a physical parameter forming area AU11 coupled to the output unit 240 and is configured to form the variable physical parameter QU1A in the physical parameter forming area AU11 . For example, the sensing unit 334 is coupled to the physical parameter forming area AU11. The physical parameter forming area AU11 has the variable physical parameter QU1A. For example, the sensing unit 334 is disposed in the physical parameter forming area AU11. The control device 210 is set in an application environment EX11, or has the application environment EX11. For example, one of the control target device 330 and the application environment EX11 has the variable physical parameter QU1A. For example, the physical parameter formation area AU11 is one of a load area, a display area, a sensing area, a power supply area and an environment area.

For example, the control object device 330 includes an operation unit 397 and a function object 335 coupled to the operation unit 397 . The functional object 335 includes the physical parameter forming area AU11. The operation unit 397 receives the first control signal SC11, and generates a function signal SG11 in response to the first control signal SC11. For example, the function signal SG11 is a control signal. The function target 335 receives the function signal SG11 and responds to the function signal SG11 to cause the variable physical parameter QU1A to leave the physical parameter application range RD1EL and enter the physical parameter target range RD1ET. For example, the function signal SG11 is one of a pulse width modulation signal, a potential signal and a driving signal.

In some embodiments, the operation unit 397 receives the first control signal SC11 from the output unit 240 by wire or wirelessly. The first control signal SC11 is one of an electrical signal SP11 and an optical signal SQ11. Under the condition that the first control signal SC11 is the electrical signal SP11 , the operating unit 397 receives the electrical signal SP11 from the output unit 240 . Under the condition that the first control signal SC11 is the light signal SQ11 , the operation unit 397 receives the light signal SQ11 from the output unit 240 to transmit a coded image FY11 . For example, the encoded image FY11 represents the control code CC1T and is a barcode image.

The functional object 335 has the variable physical parameter QU1A and is controlled by the operating unit 397 . The operating unit 397 receives a physical parameter signal SB11 from the output unit 240 under the condition that the variable physical parameter QU1A is provided depending on the control device 210 . The functional object 335 receives the physical parameter signal SB11 from the operating unit 397 . The operation unit 397 causes the functional object 335 to use the physical parameter signal SB11 to form the variable physical parameter QU1A depending on the physical parameter signal SB11. For example, the output unit 240 transmits the physical parameter signal SB11 to the operation unit 397 by wire or wirelessly.

In some embodiments, the trigger event caused by the control target device 330 is a state change event. the control device 210 further includes a state change detector 475 coupled to the processing unit 230 . For example, the state change detector 475 is one of a limit detector and an edge detector. The limit detector is a limit switch. The state change detector 475 is configured to detect a characteristic physical parameter related to a predetermined characteristic physical parameter UL11 reaching ZL12. The functional object 335 includes a physical parameter application area AJ11. The physical parameter application area AJ11 has a variable physical parameter QG1A. The variable physical parameter QG1A depends on the variable physical parameter QU1A and is characterized based on the preset characteristic physical parameter UL11 . For example, the physical parameter application area AJ11 is one of a load area, a display area, a sensing area, a power supply area and an environment area. The preset characteristic physical parameter UL11 is related to the variable physical parameter QU1A.

Before the triggering event EQ11 which is the triggering action event occurs, the operating unit 397 makes the functional object 335 execute the specified functional operation ZH11 related to the variable physical parameter QU1A. The designated function operation ZH11 is used to control the variable physical parameter QG1A, and causes the trigger event EQ11 to occur by changing the variable physical parameter QG1A. The variable physical parameter QG1A is configured to be in a variable physical state XA1A. For example, the operation unit 397 is controlled by the control device 210 to make the function object 335 execute the designated function operation ZH11.

Under the condition that the variable physical parameter QU1A is within the specified physical parameter range RD1E4, the designated function operation ZH11 causes the variable physical parameter QG1A to reach the preset characteristic physical parameter UL11 to form the characteristic physical parameter to reach ZL12, and Change the variable physical state XA1A from a non-characteristic physical parameter arrival state XA11 to an actual characteristic physical parameter arrival state by forming the characteristic physical parameter arrival ZL12 XA12. The state change detector 475 generates a trigger signal SX11 in response to the characteristic physical parameter reaching ZL12. For example, the actual characteristic physical parameter arrival state XA12 is characterized based on the preset characteristic physical parameter UL11 . The state change detector 475 generates the trigger signal SX11 in response to a state change event in which the variable physical parameter QG1A is changed from the non-characteristic physical parameter to the state XA11 to the actual characteristic physical parameter to the state XA12 .

For example, the trigger event EQ11 is the state change event that the variable physical parameter QG1A enters the actual characteristic physical parameter arrival state XA12. The input unit 270 is coupled to the state change detector 475 . One of the input unit 270 and the processing unit 230 receives the trigger signal SX11 . The processing unit 230 generates the first control signal SC11 in response to the received trigger signal SX11 . For example, under the condition that the state change detector 475 is the limit switch, the characteristic physical parameter reaching ZL12 is equal to the variable physical parameter QG1A of a variable spatial position reaching the preset characteristic equal to a preset limit position A limit position of physical parameter UL11 is reached. For example, the input unit 270 includes a touch screen 2701 coupled to the processing unit 230 . On the condition that the electrical application object WJ11 is the sensing object, the touch screen 2701 includes the electrical application object WJ11.

For example, the processing unit 230 uses the first sensing signal SN11 to obtain the first measurement value VN11 in response to the received trigger signal SX11. Under the condition that the processing unit 230 determines the physical parameter application range RD1EL that the variable physical parameter QU1A is currently in by checking the first mathematical relationship KV11 between the first measurement value VN11 and the measurement value application range RN1L , the processing unit 230 based on the determined measurement Quantity uses the range code EM1L to obtain the control data code CK1T, and based on the obtained control data code CK1T, causes the output unit 240 to generate the first parameter for causing the variable physical parameter QU1A to enter the physical parameter target range RD1ET A control signal SC11. For example, the functional object 335 forms the variable physical parameter QG1A in the physical parameter application area AJ11 by executing the specified functional operation ZH11 caused based on the variable physical parameter QU1A. Under the condition that the physical parameter application area AJ11 is coupled to the state change detector 475, the state change detector 475 detects that the characteristic physical parameter reaches ZL12.

In some embodiments, the variable physical parameter QU1A is a first variable electrical parameter, a first variable mechanical parameter, a first variable optical parameter, a first variable temperature, a first variable Voltage, a first variable current, a first variable electric power, a first variable resistance, a first variable capacitance, a first variable inductance, a first variable frequency, a first clock Time, a first variable time length, a first variable brightness, a first variable light intensity, a first variable volume, a first variable data flow, a first variable amplitude, a first Variable spatial position, a first variable displacement, a first variable sequence position, a first variable angle, a first variable spatial length, a first variable distance, a first variable translation speed, One of a first variable angular velocity, a first variable acceleration, a first variable force, a first variable pressure, and a first variable mechanical power.

The operation unit 397 is configured to execute a physical parameter control function FA11 related to the variable physical parameter QU1A depending on the control signal SC11. The control target device 330 is one of the plurality of application devices. The physical parameter control function FA11 is one of the complex specific control functions One of them, the plurality of specific control functions include a light control function, a force control function, an electric control function, a magnetic control function and any combination thereof. The multiple application devices include a relay, a control switch device, a motor, a lighting device, a door, a vending machine, an energy converter, a load device, a timing device, a toy, an electrical appliance, a printing device, a Display device, a mobile device, a speaker and any combination thereof.

The function object 335 is one of a plurality of application objects and is configured to execute a specific application function. The specific application function is one of the complex physical parameter application functions, and the complex physical parameter application function includes a light use function, a force use function, an electricity use function, a magnetic use function and any combination thereof. The multiple application objects include an electronic component, an actuator, a resistor, a capacitor, an inductor, a relay, a control switch, a transistor, a motor, a lighting unit, an energy conversion unit, and a load unit , a timing unit, a printing unit, a display object, a loudspeaker and any combination thereof. For example, the functional object 335 is a physically achievable functional object.

For example, the variable physical parameter QU1A and the variable physical parameter QG1A belong to a physical parameter type TU11 and a physical parameter type TU1G respectively. The physical parameter type TU11 is the same as or different from the physical parameter type TU1G. The preset characteristic physical parameter UL11 belongs to the physical parameter type TU1G. The functional object 335 includes the physical parameter forming area AU11 with the variable physical parameter QU1A. The physical parameter application area AJ11 is coupled to the physical parameter formation area AU11. For example, the specified function operation ZH11 is used to drive the physical parameter application area AJ11 to form the characteristic physical parameter to ZL12. For example, the physical parameter type TU11 is different from a time class type.

The variable physical parameter QG1A is a variable electrical parameter, a variable mechanical parameter, a variable optical parameter, a variable temperature, a variable voltage, a variable current, a variable electric power, a variable Resistor, a variable capacitor, a variable inductance, a variable frequency, a clock time, a variable time length, a variable brightness, a variable light intensity, a variable volume, a variable data flow, A variable amplitude, a variable spatial position, a variable displacement, a variable sequence position, a variable angle, a variable length, a variable spatial length, a variable distance, a variable translation speed, a One of variable angular velocity, a variable acceleration, a variable force, a variable pressure, and a variable mechanical power. For example, the variable physical parameter QU1A is the same as or different from the variable physical parameter QG1A.

See Figures 12, 13 and 14. FIG. 12 is a schematic diagram of an implementation structure 8021 of the control system 801 shown in FIG. 1 . FIG. 13 is a schematic diagram of an implementation structure 8022 of the control system 801 shown in FIG. 1 . FIG. 14 is a schematic diagram of an implementation structure 8023 of the control system 801 shown in FIG. 1 . As shown in FIG. 12 , FIG. 13 and FIG. 14 , each structure of the implementation structure 8021 , the implementation structure 8022 and the implementation structure 8023 includes the control device 210 , the control target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 , the input unit 270 and the output unit 240 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the input unit 270 and the output unit 240 . The output unit 240 is coupled to the control target device 330 .

In some embodiments, the sensing unit 334 senses the variable physical parameter QU1A to generate the first sensing signal SN11 . For example, under the condition that the trigger event EQ11 occurs, the sensing unit 334 senses the variable physical parameter QU1A to generate the first sensing signal SN11 . After the processing unit 230 causes the output unit 240 to generate the first control signal SC11 within the operation time TD11 by executing the signal generation control GS11, the sensing unit 334 senses the variable physical parameter QU1A to generate The second sensing signal SN12. For example, the sensing unit 334 is a time sensing unit, an electrical parameter sensing unit, a mechanical parameter sensing unit, an optical parameter sensing unit, a temperature sensing unit, a humidity sensing unit, a motion One of the sensing unit and a magnetic parameter sensing unit.

The sensing unit 334 includes a sensing element 3341 coupled to the processing unit 230 , and uses the sensing element 3341 to generate the first sensing signal SN11 and the second sensing signal SN12 . The sensing element 3341 belongs to a sensor type 7341 and is one of the first plurality of application sensors. The first complex application sensor includes a first voltage sensor, a first current sensor, a first resistance sensor, a first capacitance sensor, a first inductance sensor, a A first accelerometer, a first gyroscope, a first pressure transducer, a first strain gauge, a first timer, a first light detector, a first temperature sensor and a first humidity sensor. For example, the sensing component 3341 generates a sensing signal component SN111. The first sensing signal SN11 includes the sensing signal component SN111.

The sensing unit 334 further includes a sensing element 3342 coupled to the processing unit 230 , and uses the sensing element 3342 to generate the first sensing signal SN11 and the second sensing signal SN12 . The sensing element 3342 belongs to a sensor type 7342 and is one of the second plurality of application sensors. The sensor type 7342 is different from or independent of the sensor type 7341. The second complex application sensor includes a second voltage sensor, a second current sensor, a second resistance sensor, a second capacitance sensor, a second inductance sensor, a A second accelerometer, a second gyroscope, a second pressure transducer, a second strain gauge, a second timer, a second light detector, a second temperature sensor and a second humidity sensor.

For example, the sensing component 3342 generates a sensing signal component SN112. The first sensing signal SN11 further includes the sensing signal component SN112 . For example, the sensing unit 334 belongs to a sensor type 734 . The sensor type 734 is related to the sensor type 7341 and the sensor type 7342 . For example, the sensing unit 334 , the sensing component 3341 and the sensing component 3342 are respectively an electric power sensing unit, a voltage sensor and a current sensor. For example, the sensing unit 334 , the sensing component 3341 and the sensing component 3342 are an inertial measurement unit, an accelerometer and a gyroscope, respectively.

In some embodiments, the variable physical parameter QU1A depends on a variable physical parameter JA1A and a variable physical parameter JB1A different from the variable physical parameter JA1A. For example, the variable physical parameter QU1A, the variable physical parameter JA1A and the variable physical parameter JB1A are respectively a variable electric power, a variable voltage and a variable current, and belong to a first physical parameter type, A second physical parameter type and a third physical parameter class type. The second physical parameter type and the third physical parameter type are different or independent. The first physical parameter type is dependent on the second physical parameter type and the third physical parameter type. The sensing component 3341 senses the variable physical parameter JA1A to generate the sensing signal component SN111. The sensing component 3342 senses the variable physical parameter JB1A to generate the sensing signal component SN112 .

The processing unit 230 receives the sensing signal component SN111 and the sensing signal component SN112 . Under the condition that the trigger event EQ11 occurs, the processing unit 230 obtains the first measurement value VN11 in response to the sensing signal component SN111 and the sensing signal component SN112 . For example, the processing unit 230 obtains a measurement value VN111 in response to the sensing signal component SN111, obtains a measurement value VN112 in response to the sensing signal component SN112, and executes a process using the measurement value VN111 and the measurement value VN112. Scientifically calculate MY11 to obtain the first measured value VN11. The scientific calculation MY11 is predetermined based on the first physical parameter type, the second physical parameter type and the third physical parameter type.

Each physical parameter of the variable physical parameter JA1A and the variable physical parameter JB1A is a variable electrical parameter, a variable mechanical parameter, a variable optical parameter, a variable temperature, a variable voltage, a variable Variable current, a variable electric power, a variable resistor, a variable capacitor, a variable inductance, a variable frequency, a clock time, a variable time length, a variable brightness, a variable light intensity , a variable volume, a variable data flow rate, a variable amplitude, a variable spatial position, a variable displacement, a variable sequence position, a variable angle, a variable spatial length, a variable distance, A variable translational velocity, a variable angular velocity, a variable acceleration, a variable force, One of a variable pressure and a variable mechanical power.

In some embodiments, the sensing unit 334 is configured to comply with the sensor specification FU11. The sensing unit 334 generates the first sensing signal SN11 by performing the sensing signal generation HF11 dependent on the sensor sensitivity YW11. Under the condition that the trigger event EQ11 occurs and the variable physical parameter QU1A exists in the physical parameter forming area AU11 , the sensing unit 334 senses the variable physical parameter QU1A to generate the first sensing signal SN11 . For example, the sensing unit 334 is coupled to the physical parameter forming area AU11, or is located in the physical parameter forming area AU11. The processing unit 230 receives the first sensing signal SN11 , and obtains the first measurement value VN11 in the designated measurement value format HH11 by processing the received first sensing signal SN11 .

The processing unit 230 performs checking of the first mathematical relationship between the first measurement value VN11 and the measurement value application range RN1L by comparing the first measurement value VN11 with the obtained application range limit value pair DN1L The checking operation BV11 of KV11 and based on the checking operation BV11 the first logical decision PB11 is made. In some embodiments, the processing unit 230 processes the received first sensing signal SN11 to obtain a measurement value sequence JN11 including the first measurement value VN11. The processing unit 230 performs a check for checking a mathematical relationship KV15 between the measured value sequence JN11 and the measured value application range RN1L by comparing the measured value sequence JN11 with the obtained application range limit value pair DN1L Operate BV15. The processing unit 230 makes the first logical decision PB11 based on the checking operation BV15. For example, the checking operation BV15 includes the checking operation BV11.

For example, under the condition that the processing unit 230 identifies the first measured value VN11 as an allowable value VG11 within the measured value application range RN1L based on the first data comparison CD11, the processing unit 230 makes the first A logic determines PB11 to be positive. Alternatively, under the condition that the processing unit 230 identifies the first mathematical relationship KV11 as a numerical intersection relationship KW11, the processing unit 230 makes the first logic decision PB11 to be positive.

In some embodiments, the processing unit 230 executes a verification operation ZU11 related to the variable physical parameter QU1A within the specified time TG12 after the operation time TD11 . Under the condition that the processing unit 230 determines the physical parameter target range RD1ET into which the variable physical parameter QU1A enters based on the verification operation ZU11, the processing unit 230 uses the storage unit 250 to code the determined target range of measured values to EM1T is assigned to the variable physical parameter range code UN1A.

For example, the verification operation ZU11 responds to the second sensing signal SN12 within the specified time TG12 after the operation time TD11 to obtain the second measurement value VN12 in the specified measurement value format HH11. Under the condition that the processing unit 230 executes the signal generation control GS11, the verification operation ZU11 determines the measurement value target based on one of the accessed control data code CK1T and the determined measurement value application range code EM1L range code EM1T to determine the measurement target range RN1T.

In some embodiments, the verification operation ZU11 obtains the target range limit value pair DN1T based on the determined measured value target range code EM1T, and obtains the target range limit value pair DN1T based on the second measured value VN12 and the obtained target range limit value pair DN1T Compare CD22 between this third data to examine the The third mathematical relationship KV22 between the second measurement value VN12 and the determined measurement value target range RN1T is used to determine whether the second measurement value VN12 is within the determined measurement value target range RN1T. Three logical decisions for PB22. On the condition that the third logic decision PB22 is affirmative, the verification operation ZU11 determines the physical parameter target range RD1ET that the variable physical parameter QU1A is currently in, or determines the physical parameter target range RD1ET that the variable physical parameter QU1A enters .

Under the condition that the specific measured value range code EM14 is different from the determined measured value target range code EM1T and the processing unit 230 determines that the variable physical parameter QU1A is currently in the physical parameter target range RD1ET based on the verification operation ZU11 , the processing unit 230 uses the storage unit 250 based on the first code difference DF11 between the variable physical parameter range code UN1A equal to the specific measured value range code EM14 and the determined measured value target range code EM1T The determined measurement value target range code EM1T is assigned to the variable physical parameter range code UN1A.

In some embodiments, under the condition that the processing unit 230 determines within the specified time TG12 based on the verification operation ZU11 that the variable physical parameter QU1A is currently in the physical parameter target range RD1ET, the processing unit 230 executes a method equal to A data comparison CE1T between the variable physical parameter range code UN1A of the specific measured value range code EM14 and the determined measured value target range code EM1T. The first code difference DF11 between the variable physical parameter range code UN1A determined to be equal to the specific measured value range code EM14 and the determined measured value target range code EM1T is determined by the processing unit 230 based on the data comparison CE1T condition, the processing unit 230 uses the storage unit 250 to store the determined measured value The target range code EM1T is assigned to the variable physical parameter range code UN1A.

For example, under the condition that the processing unit 230 determines the first code difference DF11 based on the data comparison CE1T, the processing unit 230 executes the ensuring operation GU11, which is used to result in representing the determined physical parameter target range RD1ET The physical parameter target range code UN1T is recorded by the storage unit 250 . For example, the physical parameter target range code UN1T is equal to the determined measured value target range code EM1T. The ensuring operation GU11 uses the storage unit 250 to assign the determined measurement value target range code EM1T to the variable physical parameter range code UN1A.

When the trigger event EQ11 occurs, the output unit 240 displays the first status indication LB11. For example, the first state indication LB11 is used to indicate the first specific state XJ11 in which the variable physical parameter QU1A is configured within the first specific physical parameter range RD1E4. Before the trigger event EQ11 occurs, the output unit 240 is configured to obtain the specific measurement value range code EM14 , and cause the output unit 240 to display the first status indication LB11 based on the obtained specific measurement value range code EM14 .

Under the condition that the processing unit 230 determines the first code difference DF11 based on the data comparison CE1T, the processing unit 230 causes the output unit 240 to change the first status indication LB11 to This second state indicates LB12. For example, the second state indicator LB12 is used to indicate the second specific state XJ12 in which the variable physical parameter QU1A is currently within the physical parameter target range RD1ET.

In some embodiments, both the physical parameter target range RD1ET and the physical parameter application range RD1EL are included in the complex different The reference range of physical parameters is RD1E1, RD1E2, .... The physical parameter target range RD1ET is different from the physical parameter application range RD1EL. The variable physical parameter QU1A is further characterized based on the first physical parameter candidate range RD1E2 and the second physical parameter candidate range RD1E3. The first physical parameter candidate range RD1E2 is different from the physical parameter application range RD1EL, and is the same as or different from the physical parameter target range RD1ET. For example, the physical parameter application range RD1EL is a physical parameter candidate range. The second physical parameter candidate range RD1E3 is different from the first physical parameter candidate range RD1E2, the same as or different from the physical parameter target range RD1ET, and the same or different from the physical parameter application range RD1EL.

The variable physical parameter QU1A is further characterized based on the corresponding physical parameter range RY1EL corresponding to the physical parameter application range RD1EL. The rated physical parameter range RD1E is equal to a range combination of the physical parameter application range RD1EL and the corresponding physical parameter range RY1EL. The corresponding physical parameter range RY1EL includes the physical parameter target range RD1ET. The corresponding range of physical parameters RY1EL is represented by a corresponding range of measured values RX1L. For example, the rated measured value range RD1N is equal to a range combination of the measured value application range RN1L and the corresponding measured value range RX1L. The corresponding measured value range RX1L includes the measured value target range RN1T representing the physical parameter target range RD1ET, and is preset based on the measured value application range RN1L and the rated measured value range RD1N.

The physical parameter target range RD1ET is configured to correspond to a corresponding physical parameter range RY1ET. The rated physical parameter range RD1E is equal to a range combination of the physical parameter target range RD1ET and the corresponding physical parameter range RY1ET, and includes the physical parameter application range RD1EL. The measured value target range RN1T is configured to correspond to a corresponding measured value range RX1T. The rated measured value range RD1N is equal to a range combination of the measured value target range RN1T and the corresponding measured value range RX1T. The corresponding physical parameter range RY1ET is represented by the corresponding measured value range RX1T.

Both the measured value target range RN1T and the measured value application range RN1L are included in the plurality of different measured value reference ranges RN11 , RN12 , . . . The measurement value target range RN1T is different from the measurement value application range RN1L. The first physical parameter candidate range RD1E2 is represented by the measurement value candidate range RN12. The measurement value candidate range RN12 is different from the measurement value application range RN1L, and is the same as or different from the measurement value target range RN1T. The rated measured value range RD1N includes the measured value application range RN1L and the measured value candidate range RN12.

For example, the measurement value candidate range RN12 is preset based on the first physical parameter candidate range RD1E2 and the rated measurement value range RD1N. The measurement value application range RN1L is a measurement value candidate range. The nominal measurement value range RD1N is based on the nominal physical parameter range representation GC1E, the sensor sensitivity representation GW11 and the first data encoding operation ZX11 for converting the nominal physical parameter range representation GC1E using the specified measurement value format HH11 is preset.

In some embodiments, the physical parameter application range RD1EL and the physical parameter candidate range RD1E2 are separate or adjacent. On the condition that the physical parameter application range RD1EL and the physical parameter candidate range RD1E2 are separate, the measurement value application range RN1L and the measurement value candidate range RN12 are separate. In the application range of this physical parameter Under the condition that RD1EL and the candidate physical parameter range RD1E2 are adjacent, the application range RN1L of the measurement value is adjacent to the candidate range RN12 of the measurement value. The complex different physical parameter reference ranges RD1E1, RD1E2, ... include the physical parameter candidate range RD1E2, respectively represented by the complex different measured value reference ranges RN11, RN12, ..., and are respectively represented by complex physical parameter reference range codes.

The measured value candidate range RN12 is represented by the measured value candidate range code EM12 and has the candidate range limit value pair DN1B, whereby the measured value candidate range code EM12 is configured to indicate the physical parameter candidate range RD1E2. For example, the candidate range limit pair DN1B includes a candidate range limit value DN13 of the measurement value candidate range RN12 and a candidate range limit value DN14 corresponding to the candidate range limit value DN13 . Both the measurement value candidate range code EM12 and the candidate range limit value pair DN1B are preset. The plurality of different measured value reference range codes EM11, EM12, . . . include the preset measured value candidate range code EM12. The plurality of reference ranges RN11 , RN12 , . For example, the complex physical parameter reference range codes are configured to be equal to the complex different measurement value reference range codes EM11, EM12, . . . respectively.

In some embodiments, the trigger application function specification GCL1 is used to represent the nominal physical parameter range RD1E and the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . The rated measured value range RD1N, the rated range limit value pair DD1A, the plurality of different measured value reference ranges RN11, RN12, ..., and the plurality of different measured value reference range codes EM11, EM12, ... are all based on the trigger application function specification GCL1 and was predicted set up. The trigger application function FC11 is selected from a plurality of different trigger action functions. The storage unit 250 stores the triggered application function specification GCL1.

The processing unit 230 presets the nominal range limit pair DD1A, the application range limit pair DN1L, the target range limit pair DN1T, the candidate range limit pair DN1B, . . . according to the trigger application function specification GCL1. The first sensing signal SN11 includes sensing data. For example, the sensing data belongs to the binary data type. The processing unit 230 obtains the first measurement value VN11 in the designated measurement value format HH11 based on the sensing data.

In some embodiments, the operating unit 297 is configured to execute the triggering application function FC11 depending on the triggering event EQ11. The processing unit 230 makes the first logical decision PB11 whether the first measurement value VN11 is within the measurement value application range RN1L based on the checking operation BV11 for the trigger application function FC11 . On the condition that the first logical decision PB11 is positive, the processing unit 230 determines the physical parameter application range RD1EL that the variable physical parameter QU1A is currently in, and executes the method for checking the determined physical parameter application range RD1EL and the physical parameter application range RD1EL. The first checking operation ZY11 of the first range relationship KC1A between preset physical parameter ranges RD1EF.

The processing unit 230 makes the first specific decision PD11 of whether the determined physical parameter application range RD1EL is the same as the preset physical parameter range RD1EF based on the first checking operation ZY11 for the trigger application function FC11 . On condition that the first specific decision PD11 is positive, the processing unit 230 makes the rational decision PW11 to be positive.

On the condition that the reasonable decision PW11 is negative, the processing unit 230 directly reaches the first operating time TD11 independent of the first trigger signal WX11. If the reasonable decision PW11 is positive, one of the control device 210 and the operating unit 297 generates the first trigger signal WX11 in response to the first specified application operation ZA11 related to the variable physical parameter QU1A. Under the condition that the rational decision PW11 is positive, the processing unit 230 responds to the first trigger signal WX11 to reach the first operation time TD11 dependent on the first trigger signal WX11 . The processing unit 230 executes the signal generation control GS11 based on the obtained control data code CK1T within the first operation time TD11 to cause the output unit 240 to generate the first control signal SC11 .

In some embodiments, under the condition that the variable physical parameter QU1A is configured to be within the physical parameter target range RD1ET due to the trigger event EQ11, the input unit 270 receives the user input operation BQ11, and responds to the The user inputs operation BQ11 to provide an input data DH11 to the processing unit 230 . The processing unit 230 performs a data encoding operation EA11 on the input data DH11 to determine the specific input code UW11.

The processing unit 230 executes a checking operation ZP11 for the trigger application function FC11 in response to determining the specific input code UW11 to determine whether the determined specific input code UW11 is equal to the variable physical parameter range code UN1A. For example, under the condition that the processing unit 230 determines the specific input code UW11, the processing unit 230 reads the variable physical parameter range code UN1A equal to the measured value target range code EM1T by using the storage unit 250, and Execute the check for that particular input identified The checking operation ZP11 of an arithmetic relation KP11 between the code UW11 and the read code EM1T of the measured value target range.

The checking operation ZP11 is configured to compare the determined specific input code UW11 with the read measured value target range code EM1T by performing a data comparison CE11 for the triggering application function FC11 to determine the determined Whether the specific input code UW11 is different from the read target range code EM1T of the measured value. The processing unit 230 determines the second code between the determined specific input code UW11 and the variable physical parameter range code UN1A equal to the determined measured value target range code EM1T by performing the data comparison CE11 Under the condition of difference DX11, the processing unit 230 causes the output unit 240 to perform a signal generating operation BS15 for the trigger application function FC11 to generate a control signal SC15. The output unit 240 transmits the control signal SC15 to the operation unit 397 .

In some embodiments, the operation unit 397 generates a function signal SG15 in response to the control signal SC15. The function target 335 receives the function signal SG15 and responds to the function signal SG15 to cause the variable physical parameter QU1A to enter the corresponding physical parameter range RY1ET from the physical parameter target range RD1ET. For example, the function signal SG15 is one of a pulse width modulation signal, a potential signal and a driving signal. For example, the function target 335 responds to the function signal SG15 to cause the variable physical parameter QU1A to leave the physical parameter target range RD1ET to enter the second specific physical parameter range RD1E5 included in the corresponding physical parameter range RY1ET.

For example, the plurality of different measured value reference range codes EM11, EM12, ... contain values different from the measured value target range code EM1T A specific measurement range code EM15. The specific measurement value range code EM15 is configured to indicate the second specific physical parameter range RD1E5. Between the determined specific input code UW11 equal to the specific measured value range code EM15 resulting in the determined specific input code UW11 and the variable physical parameter range code UN1A equal to the determined measured value target range code EM1T With the second code difference DX11, the processing unit 230 determines the second code difference DX11 by performing the data comparison CE11, and causes the output unit 240 to generate the control in response to determining the second code difference DX11 Signal SC15.

The control target device 330 responds to the control signal SC15 to cause the variable physical parameter QU1A to leave the physical parameter target range RD1ET to enter the second specific physical parameter range RD1E5 included in the corresponding physical parameter range RY1ET. For example, after the processing unit 230 causes the output unit 240 to generate the control signal SC15, the processing unit 230 executes a verification operation related to the variable physical parameter QU1A within a specified time. Under the condition that the processing unit 230 determines that the variable physical parameter QU1A enters the second specific physical parameter range RD1E5 based on the verification operation, the processing unit 230 will be equal to the determined specific range code EM15 of the specific measurement value range code EM15. The input code UW11 is assigned to the variable physical parameter range code UN1A.

See Figures 15 and 16. FIG. 15 is a schematic diagram of an implementation structure 8024 of the control system 801 shown in FIG. 1 . FIG. 16 is a schematic diagram of an implementation structure 8025 of the control system 801 shown in FIG. 1 . As shown in Figures 15 and 16, each structure of the implementation structure 8024 and the implementation structure 8025 includes the control device 210 . The control target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 , the input unit 270 and the output unit 240 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the input unit 270 and the output unit 240 . The output unit 240 is coupled to the control target device 330 .

In some embodiments, the processing unit 230 uses the storage unit 250 to access the variable physical parameter range code UN1A equal to the specific measurement value range code EM14 in response to the trigger event EQ11 to obtain the specific measurement value range code EM14 . The first data determination operation AA11 determines the measurement application range code EM1L by performing a scientific calculation ME11 using the obtained specific measurement range code EM14. For example, the obtained specific measurement value range code EM14 is the same as or different from the determined measurement value application range code EM1L.

In some embodiments, the triggering application function FC11 is associated with the memory unit 25Y1. Under the condition that the trigger event EQ11 is applied to the trigger application function FC11, the processing unit 230 is coupled to the memory unit 25Y1. For example, the storage unit 250 includes the memory unit 25Y1. Under the condition that the processing unit 230 recognizes that the first mathematical relationship KV11 is a numerical intersection relationship based on the first measured value VN11 and the obtained first data comparison CD11 between the application range limit value pair DN1L, the The processing unit 230 makes this first logical decision PB11 to be affirmative fixed.

Under the condition that the first logical decision PB11 is affirmative, the processing unit 230 determines a physical parameter situation of the variable physical parameter QU1A currently within the physical parameter application range RD1EL, and thereby identifies the variable physical parameter QU1A A physical parameter relationship with the physical parameter application range RD1EL is a physical parameter intersection relationship of the variable physical parameter QU1A currently within the physical parameter application range RD1EL.

In some embodiments, the application range limit value pair DN1L belongs to a measurement range limit data code type TN11. The measurement range limit data code type TN11 is identified by a measurement range limit data code type identifier HN11. The control data code CK1T belongs to a control data code type TK11. The control data code type TK11 is identified by a control data code type identifier HK11. Both the measurement range boundary data code type identifier HN11 and the control data code type identifier HK11 are preset. The nominal measured value range RD1N is configured to contain the plurality of different measured value reference ranges RN11, RN12, . . . The plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . are respectively represented by the plurality of different measurement value reference ranges RN11, RN12, .

The first memory location PN1L is identified based on or identified by the first memory address FN1L. The second memory location PX1L is identified based on or identified by the second memory address FX1L. The first memory address FN1L is preset based on the preset control target device identifier HA1T, the preset measurement value application range code EM1L and the preset measurement range limit data type identifier HN11 . the second The memory address FX1L is preset based on the preset control target device identifier HA1T, the preset measurement value application range code EM1L and the preset control data code type identifier HK11. For example, the control data code CK1T stored in the second memory location PX1L includes the control code CC1T and the time length value CL1T.

The processing unit 230 is configured to obtain the preset control target device identifier HA1T and the preset measurement range limit data code type identifier HN11. The first data acquisition operation AD11 obtains the first memory location based on the obtained control target device identifier HA1T, the determined measurement value application range code EM1L and the obtained measurement range limit data type identifier HN11. address FN1L, and use the memory unit 25Y1 to access the application range limit value pair DN1L stored in the first memory location PN1L based on the obtained first memory address FN1L to obtain the application range limit value to DN1L.

In some embodiments, the total number of reference ranges NT11 is preset. The storage unit 250 stores the total reference range number NT11 and the rated range limit value pair DD1A. The processing unit 230 is configured to perform a scientific calculation to obtain the preset total reference range number NT11 and the preset rated range limit value pair DD1A, or obtain the preset value from the storage unit 250 in response to the trigger event EQ11 The total reference range number NT11 and the nominal range limit value pair DD1A. The operation reference XU11 further includes the total reference range number NT11.

Under the condition that the second data determines that operation AA12 is to be performed, the processing unit 230 is configured to obtain the preset total reference range number NT11 and the preset amount based on the operation reference data XU11 Range cutoffs to DD1A. Under the condition that the processing unit 230 obtains the first measurement value VN11, the second data determination operation AA12 is performed by using the obtained first measurement value VN11, the obtained total reference range number NT11 and the obtained The rated range limit value pairs the first scientific calculation MR11 of DD1A to select the measured value application range code EM1L from the plurality of different measured value reference range codes EM11 , EM12 , . . . to determine the measured value application range code EM1L.

For example, the first scientific calculation MR11 is pre-constructed based on the preset total reference range number NT11, the preset rated range limit value pair DD1A and the plurality of different measured value reference range codes EM11, EM12, . . . The second data acquisition operation AD12 is performed by performing the second scientific calculation MZ11 using the determined measurement value application range code EM1L, the obtained pair of nominal range limit values DD1A and the obtained total reference range number NT11. Obtain the application range limit value pair DN1L.

In some embodiments, the processing unit 230 is configured to obtain the preset control data code type identifier HK11. Under the condition that the processing unit 230 determines that the variable physical parameter QU1A is currently in the physical parameter application range RD1EL, the processing unit 230 based on the obtained control target device identifier HA1T, the determined measurement value application range code EM1L and the obtained control data code type identifier HK11 to obtain the second memory address FX1L, based on the obtained second memory address FX1L to use the memory unit 25Y1 to access stored in the second The control data code CK1T of memory location PX1L, and based on the obtained control target device identifier HA1T and the accessed control data code CK1T, execute the signal generation control GS11 for the trigger application function FC11 to control the output unit 240 .

The triggering application function specification GCL1 includes the physical parameter representation GC1T1, which is used to represent the specified physical parameter QD1T within the physical parameter target range RD1ET. The accessed control data code CK1T includes the control code CC1T and the time length value CL1T. For example, the control code CC1T is preset based on the physical parameter representation GC1T1 and the third data encoding operation ZX21 for converting the physical parameter representation GC1T1 .

The signal generation control GS11 is used to indicate the output terminal 240P, and is used to cause the processing unit 230 to provide the control signal SH11 to the output unit 240 . The control signal SH11 serves to indicate the output terminal 240P. The output unit 240 obtains the control code CC1T from the processing unit 230 in response to one of the signal generation control GS11 and the control signal SH11, and performs the first signal generation using the output terminal 240P based on the control signal SH11 The BS11 is operated to generate the first control signal SC11. For example, the first control signal SC11 conveys the control code CC1T and is used to cause the variable physical parameter QU1A to leave the physical parameter application range RD1EL and enter the physical parameter target range RD1ET.

In some embodiments, under the condition that the logic decision PE11 is affirmative, the processing unit 230 reaches the specific time TJ1T based on the time length value CL1T, and causes the output unit 240 to generate a value different from The third control signal SC22 of the first control signal SC11. The third control signal SC22 is used to cause the variable physical parameter QU1A to leave the physical parameter target range RD1ET to enter one of the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . The candidate range of rational parameters RD2E2. For example, the physical parameter candidate range RD2E2 is one of the physical parameter application range RD1EL and the physical parameter candidate range RD1E2, and is different from the physical parameter target range RD1ET.

See Figures 17, 18 and 19. FIG. 17 is a schematic diagram of an implementation structure 8026 of the control system 801 shown in FIG. 1 . FIG. 18 is a schematic diagram of an implementation structure 8027 of the control system 801 shown in FIG. 1 . FIG. 19 is a schematic diagram of an implementation structure 8028 of the control system 801 shown in FIG. 1 . As shown in FIG. 17 , FIG. 18 and FIG. 19 , each structure of the implementation structure 8026 , the implementation structure 8027 and the implementation structure 8028 includes the control device 210 , the control target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 , the input unit 270 and the output unit 240 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the input unit 270 and the output unit 240 . The output unit 240 is coupled to the control target device 330 . For example, the electronic tag 350 includes the memory unit 25Y1.

The plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . include the physical parameter application range RD1EL, the physical parameter target range RD1ET and a physical parameter candidate range RD1E7. The plurality of different measured value reference ranges RN11, RN12, . . . include the measured value application range RN1L, the measured value target range RN1T and a measured value candidate range RN17. The trigger application function specification GCL1 contains the physical parameters used to represent the A physical parameter candidate range of the number candidate range RD1E7 represents GC17. The measured value candidate range RN17 is used based on the physical parameter candidate range representation GC17, the sensor measurement range representation GW1R, the sensor sensitivity representation GW11, and a data encoding operation ZX17 for converting the physical parameter candidate range representation GC17. The specified measured value format HH11 is preset, configured to represent the physical parameter candidate range RD1E7, and is represented by a measured value candidate range code EM17 contained in the plurality of different measured value reference range codes EM11, EM12, . . . .

For example, the first physical parameter candidate range RD1E2 is one of the physical parameter target range RD1ET and the physical parameter candidate range RD1E7. The second physical parameter candidate range RD1E3 is one of the physical parameter application range RD1EL, the physical parameter target range RD1ET and the physical parameter candidate range RD1E7. The physical parameter candidate range RD2E2 is one of the physical parameter application range RD1EL and the physical parameter candidate range RD1E7. The second specific physical parameter range RD1E5 is one of the physical parameter application range RD1EL and the physical parameter candidate range RD1E7.

In some embodiments, the memory unit 25Y1 further has a memory location PN12 and a memory location PX12 different from the memory location PN12, the candidate range limit value pair DN1B is stored in the memory location PN12, and is stored in the memory location PN12. The memory location PX12 stores a control data code CK12. For example, both the memory location PN12 and the memory location PX12 are identified based on the preset measurement value candidate range code EM12 . The memory location PN12 is identified by or based on a memory address FN12. The memory location PX12 consists of a memory identified by or based on the memory address FX12. Both the memory address FN12 and the memory address FX12 are preset based on the preset measurement value candidate range code EM12 .

For example, the candidate range limit value pair DN1B and the control data code CK12 belong to the measurement range limit data type TN11 and the control data code type TK11 respectively. The memory address FN12 is preset based on the preset control target device identifier HA1T, the preset measurement value candidate range code EM12 and the preset measurement range limit data type identifier HN11. The memory address FX12 is preset based on the preset control target device identifier HA1T, the preset measured value candidate range code EM12 and the preset control data code type identifier HK11.

The processing unit 230 obtains the memory address FN12 based on the obtained control target device identifier HA1T, the determined measurement value candidate range code EM12 and the obtained measurement range limit data type identifier HN11, and based on The obtained memory address FN12 is used to use the memory unit 25Y1 to access the candidate range limit pair DN1B stored in the memory location PN12 to obtain the candidate range limit pair DN1B. The processing unit 230 performs a method for checking the first measured value VN11 and the selected measured value candidate based on the second profile comparison CD21 between the first measured value VN11 and the obtained pair of candidate range limit values DN1B. A checking operation BV21 of this second mathematical relationship KV21 between ranges RN12.

The processing unit 230 makes a decision based on the checking operation BV21 whether the first measured value VN11 is within the selected measured value candidate range. The second logical decision PB21 within the range RN12, and under the condition that the second logical decision PB21 is positive, determine the first physical parameter candidate range RD1E2 that the variable physical parameter QU1A is currently in. For example, the processing unit 230 determines that the variable physical parameter QU1A is currently within the first physical parameter candidate range RD1E2 based on the checking operation BV21, and thereby identifies the variable physical parameter QU1A and the first physical parameter candidate range RD1E2. A physical parameter relationship between a physical parameter candidate range RD1E2 is a physical parameter intersection relationship of the variable physical parameter QU1A currently within the first physical parameter candidate range RD1E2.

In some embodiments, under the condition that the processing unit 230 determines the first physical parameter candidate range RD1E2 that the variable physical parameter QU1A is currently in by making the second logical decision PB21, the processing unit 230 based on the The obtained control target device identifier HA1T, the determined measured value candidate range code EM12 and the obtained control data code type identifier HK11 are used to obtain the memory address FX12, and based on the obtained memory address FX12 to use the memory unit 25Y1 to access the control data code CK12 stored in the memory location PX12. The control data code CK12 includes a control code CC13.

The triggering application function specification GCL1 includes a physical parameter representation GC131, which is used to represent a specified physical parameter QD13 included in the second physical parameter candidate range RD1E3. The control code CC13 is preset based on the physical parameter representation GC131 and a data encoding operation ZX23 for converting the physical parameter representation GC131 .

230 derives based on the accessed control data code CK12 The output unit 240 executes the second signal generating operation BS21 for the trigger application function FC11 to generate the second control signal SC12 different from the first control signal SC11 . The second control signal SC12 conveys the control code CC13 and is used to cause the variable physical parameter QU1A to leave the physical parameter target range RD1ET to enter the second physical parameter contained in the plurality of different physical parameter reference ranges RD1E1, RD1E2, ... Parameter candidate range RD1E3. For example, under the condition that the second physical parameter candidate range RD1E3 is the same as the physical parameter application range RD1EL, the second control signal SC12 conveying the control code CC13 is used to cause the variable physical parameter QU1A to leave the physical parameter target range RD1ET to enter the second physical parameter candidate range RD1E3 which is the same as the physical parameter application range RD1EL.

In some embodiments, under the condition that the variable physical parameter QU1A is configured to be within the physical parameter target range RD1ET due to the trigger event EQ11, the input unit 270 receives the user input operation BQ11, and responds to the User input operation BQ11 causes the processing unit 230 to determine the specific input code UW11. For example, the specific input code UW11 is selected from the plurality of different measured value reference range codes EM11, EM12, .

The processing unit and the storage unit 250 store a control data code CJ15 stored based on the specific measurement value range code EM15. On the condition that the processing unit 230 determines the specific input code UW11, the processing unit 230 executes the data comparison CE11 between the variable physical parameter range code UN1A and the determined specific input code UW11. In the processing unit 230, based on the data comparison CE11, it is determined to be equal to the determined measured value Under the condition of the second code difference DX11 between the variable physical parameter range code UN1A of the target range code EM1T and the determined specific input code UW11, the processing unit 230 stores based on the determined specific input code UW11 Take the control data code CJ15. For example, the control data code CJ15 includes a control code CC15.

The triggering application function specification GCL1 includes a physical parameter representation GC151, which is used to represent a specified physical parameter QD15 included in the second specific physical parameter range RD1E5. The control code CC15 is preset based on the physical parameter representation GC151 and a data encoding operation ZX25 for converting the physical parameter representation GC151 .

The processing unit 230 causes the output unit 240 to perform the signal generating operation BS15 for the trigger application function FC11 based on the accessed control data code CJ15 to generate the control signal different from the first control signal SC11 SC15. The control signal SC15 includes the control code CC15 and is used to cause the variable physical parameter QU1A to leave the physical parameter target range RD1ET to enter the second specific physical parameter contained in the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . Range RD1E5. For example, the variable physical parameter QU1A is related to a control code CC1L. The control code CC1L is preset based on a specified physical parameter QD1L included in the physical parameter application range RD1EL. Under the condition that the control code CC15 is the same as the control code CC1L, the second specific physical parameter range RD1E5 is the same as the physical parameter application range RD1EL.

In some embodiments, one of the input unit 270 and the output unit 240 includes a user coupled to the processing unit 230 The user interface area AP11. Before the trigger event EQ11 occurs, the processing unit 230 obtains an input data DG11 and an input data DG12 by means of the user interface area AP11. Before the trigger event EQ11 occurs, the processing unit 230 obtains the preset application range limit value pair DN1L based on the input data DG11 , and obtains the preset control data code CK1T based on the input data DG12 . For example, the processing unit 230 obtains the preset application range limit value pair DN1L by performing a data encoding operation ZX2A on the input data DG11, and obtains the preset application range limit value pair DN1L by performing a data encoding operation ZX2B on the input data DG12. The preset control data code CK1T.

The input unit 270 receives a user input operation BU15 for operating the user interface area AP11 , and causes the processing unit 230 to obtain the input data DG11 from the input unit 270 in response to the user input operation BU15 . The input unit 270 receives a user input operation BU16 for operating the user interface area AP11 , and responds to the user input operation BU16 to cause the processing unit 230 to obtain the input data DG12 from the input unit 270 .

Before the trigger event EQ11 occurs, the processing unit 230 is configured to obtain the preset control target device identifier HA1T, the preset measurement value application range code EM1L, and the preset measurement range limit data code The type identifier HN11 and the preset control data code type identifier HK11 are based on the obtained control target device identifier HA1T, the obtained measurement value application range code EM1L and the obtained measurement range limit data code Type identifier HN11 to obtain the first memory address FN1L, and based on the obtained application range limit value pair DN1L and the obtained first memory address FN1L to cause the operation unit 297 to provide the first write request message WD1L conveying the obtained application range limit value pair DN1L and the obtained first memory address FN1L. For example, the first write request message WD1L is used to cause the memory unit 25Y1 to store the transmitted application range limit value pair DN1L in the first memory location PN1L.

Before the trigger event EQ11 occurs, the processing unit 230 obtains the first control data code type identifier HK11 based on the obtained control target device identifier HA1T, the obtained measurement value application range code EM1L and the obtained control data code type identifier HK11. Two memory addresses FX1L, and based on the obtained control data code CK1T and the obtained second memory address FX1L to cause the operation unit 297 to provide and transmit the obtained control data code CK1T and the obtained second The second write request message WC1L of the memory address FX1L. For example, the second write request message WC1L is used to cause the memory unit 25Y1 to store the transmitted control data code CK1T in the second memory location PX1L.

For example, one of the electronic tag 350 , the storage unit 250 and the server 280 includes the memory unit 25Y1 . Under the condition that the electronic tag 350 includes the memory unit 25Y1 , the processing unit 230 causes the reader 220 to provide the first write request message WD1L and the second write request message WC1L to the electronic tag 350 . Under the condition that the server 280 includes the memory unit 25Y1 , the processing unit 230 causes the output unit 240 to provide the first write request message WD1L and the second write request message WC1L to the server 280 . Under the condition that the storage unit 250 includes the memory unit 25Y1, the processing unit 230 provides Provide the first write request message WD1L and the second write request message WC1L to the storage unit 250 .

In some embodiments, the control device 210 is a computing device, a communication device, a user device, a mobile device, a remote control, an electronic device, a portable device, a desktop device, a relative One of a fixed device, a fixed device, a smart phone, and any combination thereof. The electronic tag 350 is one of a passive electronic tag, an active electronic tag, a semi-active electronic tag, a wireless electronic tag and a wired electronic tag. For example, the control device 210 transmits the first control signal SC11 to the control target device 330 through an actual link between the output unit 240 and the operation unit 397 . The actual link is one of a wired link and a wireless link.

The first control signal SC11 is one of an electrical signal SP11 and an optical signal SQ11. The output unit 240 includes an output component 450 , a display component 460 and an output component 455 . The output component 450 is coupled to the processing unit 230 and used for outputting the electrical signal SP11 under the condition that the first control signal SC11 is the electrical signal SP11. For example, the output component 450 is a transmission component. When the trigger event EQ11 occurs, the display component 460 displays the first status indication LB11. Under the condition that the processing unit 230 determines the first code difference DF11 based on the data comparison CE1T, the processing unit 230 causes the display component 460 to change the first status indication LB11 to This second state indicates LB12.

The display component 460 is coupled to the processing unit 230 for displaying a measurement information LY11 related to the first measurement value VN11, and Under the condition that the control signal SC11 is the optical signal SQ11, it is used to output the optical signal SQ11 for conveying an encoded image FY11. The output component 455 is coupled to the processing unit 230 . For example, the processing unit 230 is configured to cause the output component 455 to transmit a physical parameter signal SB11 to the control target device 330 . The variable physical parameter QU1A is formed based on the physical parameter signal SB11. For example, the output component 455 is a transmission component. For example, the coded image FY11 represents the control code CC1T. For example, the encoded image FY11 is a barcode image.

In some embodiments, the operating unit 297 is coupled to the server 280 through a network 410 . The input unit 270 includes an input component 440 and an input component 442 . The input component 440 is coupled to the processing unit 230 . For example, one of the input component 440 and the display component 460 includes the user interface area AP11. The input component 442 is coupled to the processing unit 230 and receives the user input operation BQ11. The sensing unit 334 , the storage unit 250 , the output component 450 , the display component 460 , the output component 455 , the input component 440 , the input component 442 and the reader 220 are all controlled by the processing unit 230 . For example, the operation unit 297 is coupled to the network 410 ; and the network 410 is coupled to the server 280 .

For example, under the condition that the variable physical parameter QU1A is configured to be within the physical parameter target range RD1ET due to the trigger event EQ11, the input component 442 receives the user input operation BQ11 and responds to the user input operation BQ11 provides the input data DH11 to the processing unit 230 . The processing unit 230 performs the data encoding operation EA11 on the input data DH11 to determine the specific input code UW11.

See Figures 20 and 21. Figure 20 shows A schematic diagram of an implementation structure 8029 of the control system 801 is shown in FIG. 1 . FIG. 21 is a schematic diagram of an implementation structure 8030 of the control system 801 shown in FIG. 1 . As shown in FIG. 20 and FIG. 21 , each structure of the implementation structure 8029 and the implementation structure 8030 includes the control device 210 , the control target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 , the input unit 270 and the output unit 240 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the input unit 270 and the output unit 240 . The output unit 240 is coupled to the control target device 330 .

In some embodiments, the control object device 330 includes the operation unit 397 and the function object 335 coupled to the operation unit 397 . The functional object 335 includes the physical parameter forming area AU11 and is controlled by the operating unit 397 . The physical parameter forming area AU11 has the variable physical parameter QU1A. The operation unit 397 receives the first control signal SC11, the second control signal SC12, the third control signal SC22 and the control signal SC15, and responds to the first control signal SC11, the second control signal SC12, the third Either one of the control signal SC22 and the control signal SC15 is used to use the functional object 335 to control the variable physical parameter QU1A.

For example, the first control signal SC11 conveys the control code CC1T. The operating unit 397 receives the first control signal SC11 The control code CC1T is obtained, and the function signal SG11 is generated based on the obtained control code CC1T. The function target 335 receives the function signal SG11 and responds to the function signal SG11 to cause the variable physical parameter QU1A to leave the physical parameter application range RD1EL and enter the physical parameter target range RD1ET. For example, the function signal SG11 is one of a control signal, a pulse width modulation signal, a potential signal and a driving signal.

In some embodiments, the operating unit 297 further includes a timer 539 coupled to the processing unit 230 . The timer 539 is controlled by the processing unit 230 and configured to comply with a timer specification FW11. The preset control data code CK1T includes the control code CC1T, the time length value CL1T, and a control code CC22 different from the control code CC1T. For example, the variable time length LF1A is further characterized based on a reference time length LJ1T. The time length value CL1T represents the reference time length LJ1T, and is preset in a specified count value format HQ21 based on the reference time length LJ1T and the timer specification FW11. For example, the specified count value format HQ21 is characterized based on a specified bit number UX21.

The trigger application function specification GCL1 includes a physical parameter indicating GC221 and a time length indicating GC1KJ. The physical parameter representation GC221 is used to represent a specified physical parameter QD22 included in the physical parameter candidate range RD2E2. The time length representation GC1KJ is used to represent the reference time length LJ1T. The control code CC22 is preset based on the physical parameter representation GC221 and a data encoding operation ZX2B for converting the physical parameter representation GC221 . The physical parameter candidate range RD2E2 is different from the The physical parameter target range RD1ET is included in the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . For example, the time length value CL1T is preset in the specified count value format HQ21 based on the time length representation GC1KJ, the timer specification FW11 and a data encoding operation ZX1KJ for converting the time length representation GC1KJ.

On the condition that the processing unit 230 determines the physical parameter application range RD1EL in which the variable physical parameter QU1A is currently located by making the first logical decision PB11, the processing unit 230 applies a range code based on the determined measured value EM1L to obtain the control data code CK1T, and execute the signal generation control GS11 for the trigger application function FC11 to control the output unit 240 based on the control code CC1T included in the obtained control data code CK1T. For example, the signal generation control GS11 provides the obtained control code CC1T to the output unit 240 . The output unit 240 responds to the signal generating control GS11 to use the provided control code CC1T to generate the first control signal SC11.

The timer 539 is used to measure the variable time length LF1A. The processing unit 230 generates control GS11 in response to the signal to check the numerical relationship KJ11 between the time length value CL1T contained in the obtained control data code CK1T and the time length value reference range GJ11 to make a control The logic determines PE11 whether the counting operation BC1T of the specific time TJ1T is to be performed. On the condition that the logical decision PE11 is positive, the processing unit 230 causes the timer 539 to perform the counting operation BC1T based on the time length value CL1T.

In some embodiments, the time length value reference range GJ11 for making the logical decision PE11 has a time length range The limit value is on LN1A, and represents the reference range HJ11 for this length of time. The time length value reference range GJ11 is preset with the specified count value format HQ21 based on the time length reference range HJ11 and the timer specification FW11. For example, the trigger application function specification GCL1 includes a time length reference range representation GClHJ, and the time length reference range representation GClHJ is used to represent the time length reference range HJ11. The time length reference range HJ11 and the time length range limit value pair LN1A are based on the time length reference range representation GC1HJ, the timer specification FW11 and a data encoding operation ZX1HJ for converting the time length reference range representation GC1HJ to use the It is preset by specifying the count value format HQ21.

The storage unit 250 stores the time length range limit value pair LN1A. The processing unit 230 generates a control GS11 in response to the signal to obtain the time length range limit value pair LN1A from the storage unit 250, and compares the time length value CL1T contained in the obtained control data code CK1T with the obtained The time length range limit value pair LN1A checks the numerical relationship KJ11 to make the logical decision PE11.

For example, on the condition that the processing unit 230 identifies the numerical relation KJ11 as a numerical intersection relation by examining the numerical relation KJ11, the processing unit 230 makes the logical decision PE11 to be positive. For example, the time length range limit value pair LN1A is preset, and includes a time length range limit value LN11 of the time length value reference range GJ11 and a time length range limit value LN12 corresponding to the time length range limit value LN11. In the processing unit 230, the reference time length LJ1T is determined by comparing the time length value CL1T contained in the obtained control data code CK1T with the obtained time length range limit value pair LN1A Conditional on the time length reference range HJ11 contained in, the processing unit 230 makes the logic decision PE11 to be positive.

In some embodiments, under the condition that the variable physical parameter QU1A is configured to be within the physical parameter target range RD1ET due to the trigger event EQ11, the processing unit 230 experiences an end time based on the counting operation BC1T An application time length LT1T of TZ1T is used to reach the specific time TJ1T. The processing unit 230 executes a signal generation control GS22 for the trigger application function FC11 to control the output unit 240 within the specific time TJ1T based on the control code CC22 included in the obtained control data code CK1T. For example, the signal generation control GS22 provides the obtained control code CC22 to the output unit 240 . The first control signal SC11 is used to cause the variable physical parameter QU1A to have the application time length LT1T matching the reference time length LJ1T within the physical parameter target range RD1ET.

The output unit 240 responds to the signal generation control GS22 to obtain the control code CC22 from the processing unit 230, and executes a signal generation operation BS22 for the trigger application function FC11 based on the obtained control code CC22 to generate a signal different from The third control signal SC22 of the first control signal SC11. The third control signal SC22 is used to control the functional object 335 to cause the variable physical parameter QU1A to leave the physical parameter target range RD1ET and enter the physical parameter candidate range RD2E2. The specific time TJ1T is adjacent to the end time TZ1T.

For example, when the timer 539 reaches the end time TZ1T by executing the counting operation BC1T, the timer 539 transmits an interrupt request signal UH1T to the processing unit 230 to cause the processing unit 230 to This specific time TJ1T is reached. The processing unit 230 uses the control code CC22 to execute the signal generation control GS22 in response to the interrupt request signal UH1T. For example, the physical parameter candidate range RD2E2 is the same as the physical parameter application range RD1EL.

In some embodiments, the rated physical parameter range RD1E of the variable physical parameter QU1A includes the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . The plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . include the physical parameter application range RD1EL, the physical parameter target range RD1ET and the physical parameter candidate range RD1E7. The variable physical parameter QU1A is in one of a plurality of reference states based on the plurality of different physical parameter reference ranges RD1E1 , RD1E2 , . . . . The plurality of reference states are different and include a first reference state, a second reference state and a third reference state, whereby the variable physical parameter QU1A is characterized by a variable current state. The mutable current state is one of the plurality of reference states.

For example, the first reference state and the second reference state are complementary. On the condition that the variable physical parameter QU1A is within the physical parameter application range RD1EL, the variable physical parameter QU1A is in the first reference state. On the condition that the variable physical parameter QU1A is within the physical parameter target range RD1ET, the variable physical parameter QU1A is in the second reference state. On the condition that the variable physical parameter QU1A is within the physical parameter candidate range RD1E7, the variable physical parameter QU1A is in the third reference state.

The control target device 330 responds to the first control signal SC11 to cause the variable physical parameter QU1A to change from a current state to the The second reference state, or responding to the first control signal SC11 causes the variable physical parameter QU1A to change from the first specific physical parameter QU13 to the second specific physical parameter QU14. For example, the current state is the first reference state. The first specific physical parameter QU13 is within the physical parameter application range RD1EL, and the second specific physical parameter QU14 is within the physical parameter target range RD1ET.

In some embodiments, the corresponding physical parameter range RY1ET is represented by the corresponding measured value range RX1T, and includes the physical parameter application range RD1EL and the physical parameter candidate range RD1E7. The corresponding measurement value range RX1T includes the measurement value application range RN1L and the measurement value candidate range RN17. Any one of the second control signal SC12, the third control signal SC22 and the control signal SC15 is used to control the functional object 335 to cause the variable physical parameter QU1A to leave the physical parameter target range RD1ET to enter the corresponding physical parameter Range RY1ET.

The plurality of reference states cause the functional object 335 to be in a plurality of functional states, respectively. The plurality of functional states are different and include a first functional state, a second functional state and a third functional state. For example, the first functional state and the second functional state are complementary. On the condition that the variable physical parameter QU1A is within the physical parameter application range RD1EL, the functional object 335 is in the first functional state. On the condition that the variable physical parameter QU1A is within the physical parameter target range RD1ET, the functional object 335 is in the second functional state. On the condition that the variable physical parameter QU1A is within the physical parameter candidate range RD1E7, the functional object 335 is in the third functional state.

For example, the measurement value application range code EM1L is a measurement Values refer to range numbers. The measured value application range RN1L is arranged in the nominal measured value range RD1N based on the measured value application range code EM1L. The measured value target range code EM1T is a measured value reference range number. The measured value target range RN1T is arranged in the nominal measured value range RD1N based on the measured value target range code EM1T. The measured value candidate range code EM12 is a measured value reference range number. The measured value candidate range RN12 is arranged in the nominal measured value range RD1N based on the measured value candidate range code EM12.

In some embodiments, the physical parameter application range RD1EL is one of a relatively high physical parameter range and a relatively low physical parameter range; and the physical parameter application range RD1EL is the relatively high physical parameter range and the relatively low physical parameter range. Another one of the parameter ranges. Under the condition that the variable physical parameter QU1A is the first variable voltage, the relatively high physical parameter range and the relatively low physical parameter range are a relatively high voltage range and a relatively low voltage range, respectively. Under the condition that the variable physical parameter QU1A is the first variable current, the relatively high physical parameter range and the relatively low physical parameter range are a relatively high current range and a relatively low current range, respectively. Under the condition that the variable physical parameter QU1A is the first variable resistor, the relatively high physical parameter range and the relatively low physical parameter range are a relatively high resistance range and a relatively low resistance range, respectively.

Under the condition that the variable physical parameter QU1A is the first variable brightness, the relatively high physical parameter range and the relatively low physical parameter range are a relatively high brightness range and a relatively low brightness range, respectively. Under the condition that the variable physical parameter QU1A is the first variable light intensity, the relatively high physical parameter range and the relatively low physical parameter range are a relative A high light intensity range and a relatively low light intensity range. Under the condition that the variable physical parameter QU1A is the first variable volume, the relatively high physical parameter range and the relatively low physical parameter range are a relatively high volume range and a relatively low volume range, respectively. Under the condition that the variable physical parameter QU1A is the first variable angular velocity, the relatively high physical parameter range and the relatively low physical parameter range are a relatively high angular velocity range and a relatively low angular velocity range, respectively.

For example, the physical parameter application range RD1EL is one of a relatively high physical parameter range and a relatively low physical parameter range; and the physical parameter target range RD1ET is one of the relatively high physical parameter range and the relatively low physical parameter range another. The physical parameter application range RD1EL is one of a relatively high physical parameter range and a relatively low physical parameter range; and the first physical parameter candidate range RD1E2 is one of the relatively high physical parameter range and the relatively low physical parameter range another. For example, the first physical parameter candidate range RD1E2 is one of a relatively high physical parameter range and a relatively low physical parameter range; and the second physical parameter candidate range RD1E3 is the relatively high physical parameter range and the relatively low physical parameter range. Another one of the parameter ranges.

For example, the physical parameter application range RD1EL is one of a relatively high physical parameter range and a relatively low physical parameter range; and the first specific physical parameter range RD1E4 is the relatively high physical parameter range and the relatively low physical parameter range another of the . For example, the physical parameter target range RD1ET is one of a relatively high physical parameter range and a relatively low physical parameter range; and the second specific physical parameter range RD1E5 is the relatively high physical parameter range and the relatively low physical parameter range another of the .

The operating unit 297 is configured to execute the triggering application function FC11 related to the variable physical parameter QU1A by virtue of the triggering event EQ11. The control target device 330 is one of the plurality of application devices. The trigger application function FC11 is one of a plurality of specific actual functions, and the plurality of specific actual functions include a light application function, a force application function, an electric application function, a magnetic application function and any combination thereof. The multiple application devices include a relay, a control switch device, a motor, a lighting device, a door, a vending machine, an energy converter, a load device, a timing device, a toy, an electrical appliance, a printing device, a Display device, a mobile device, a speaker and any combination thereof.

The function object 335 is one of a plurality of application objects and is configured to execute a specific application function. The specific application function is one of the complex physical parameter application functions, and the complex physical parameter application function includes a light use function, a force use function, an electricity use function, a magnetic use function and any combination thereof. The multiple application objects include an electronic component, an actuator, a resistor, a capacitor, an inductor, a relay, a control switch, a transistor, a motor, a lighting unit, an energy conversion unit, and a load unit , a timing unit, a printing unit, a display object, a loudspeaker and any combination thereof.

In some embodiments, under the condition that the control target device 330 is a relay, the functional target 335 is a control switch. Under the condition that the functional object 335 is the control switch, the control switch has a variable switch state, and is in one of an on state and an off state based on the variable physical parameter QU1A. For example, the variable switch like The state is equal to one of the on state and the off state, and the on state and the off state are complementary. The on state is one of the first functional state and the second functional state, and the off state is the other of the first functional state and the second functional state.

Under the condition that the processing unit 230 determines that the variable physical parameter QU1A is currently in the physical parameter application range RD1EL by making the first logical decision PB11, the processing unit 230 recognizes that the variable current state is the first Reference state, thereby causing the output unit 240 to generate the first control signal SC11 for changing the variable current state. The control target device 330 responds to the first control signal SC11 to cause the variable physical parameter QU1A to leave the physical parameter application range RD1EL to enter the physical parameter target range RD1ET, so that the variable current state is changed to the second reference state .

Under the condition that the processing unit 230 determines the second code difference DX11, the processing unit 230 causes the output unit 240 to generate the control signal SC15. The functional object 335 responds to the control signal SC15 to cause the variable physical parameter QU1A to move from the physical parameter target range RD1ET into the second specific physical parameter range RD1E5 included in the corresponding physical parameter range RY1ET. Under the condition that the second specific physical parameter range RD1E5 is the same as the physical parameter application range RD1EL, the variable current state is changed to the first reference state.

In some embodiments, the variable physical parameter QU1A is the first variable current. The physical parameter application range RD1EL and the physical parameter target range RD1ET are respectively a first current reference range and a second current reference range. The control code CC1L is based on the first current reference range in the A first specified current within is preset. The control code CC1T is preset based on a second specified current within the second current reference range.

The time length value CL1T is preset in the specified count value format HQ21 based on the time length representation GC1KJ, the timer specification FW11 and the data encoding operation ZX1KJ. On the condition that the logical decision PE11 is positive, the processing unit 230 causes the timer 539 to perform the counting operation BC1T based on the obtained time length value CL1T. Under the condition that the first variable current is configured to be within the second current reference range due to the trigger event EQ11, the processing unit 230 experiences the application time length LT1T based on the counting operation BC1T to reach the specific time TJ1T , whereby the first variable current remains within the second current reference range within the application time length LT1T associated with the counting operation BC1T.

For example, under the condition that the variable physical parameter QU1A is a variable rotational speed, the physical parameter application range RD1EL and the physical parameter target range RD1ET are respectively a first rotational speed reference range and a second rotational speed reference range. Under the condition that the variable physical parameter QU1A is a variable temperature, the physical parameter application range RD1EL and the physical parameter target range RD1ET are respectively a first temperature reference range and a second temperature reference range.

See Figures 22 and 23. FIG. 22 is a schematic diagram of an implementation structure 8031 of the control system 801 shown in FIG. 1 . FIG. 23 is a schematic diagram of an implementation structure 8032 of the control system 801 shown in FIG. 1 . As shown in Figure 22 and Figure 23, each structure of the implementation structure 8031 and the implementation structure 8032 includes the control device 210 . The control target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 , the input unit 270 , the output unit 240 and the timer 539 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the input unit 270 , the output unit 240 and the timer 539 . The output unit 240 is coupled to the control target device 330 .

In some embodiments, the processing unit 230 is used to cause the output unit 240 to generate the first control signal SC11 within the first operation time TD11. For example, under the condition that the processing unit 230 obtains the first measurement value VN11, the processing unit 230 executes the method for checking the first mathematical relationship KV11 between the first measurement value VN11 and the measurement value application range RN1L. Check operation BV11. Under the condition that the processing unit 230 determines the physical parameter application range RD1EL that the variable physical parameter QU1A is currently in based on the checking operation BV11, the processing unit 230 makes the first operation time TD11 for reaching the first operation time TD11. It is reasonable to determine whether the trigger signal WX11 is additionally generated PW11. The first control signal SC11 is used to cause the variable physical parameter QU1A to leave the physical parameter application range RD1EL and enter the physical parameter target range RD1ET.

The preset physical parameter range RD1EF for making the rational decision PW11 is contained in the plurality of different physical parameter reference ranges RD1E1, RD1E2, ..., and is contained in the plurality of different measured value reference ranges RN11, RN12, ... A preset measurement value range RN1F is represented. The preset measured value range RN1F has a preset range limit value pair DN1F, and is represented by a preset measured value range code EM1F contained in the plurality of different measured value reference range codes EM11, EM12, . . . .

The triggered application function specification GCL1 includes a physical parameter candidate range representation GC1F for representing the preset physical parameter range RD1EF. The preset measurement value range RN1F is based on the physical parameter candidate range representation GC1F, the sensor measurement range representation GW1R, the sensor sensitivity representation GW11 and a data encoding operation ZX1F for converting the physical parameter candidate range representation GC1F. Preset with the specified measurement value format HH11. The storage unit 250 stores an operation reference data XU21. For example, the operation reference XU21 includes the preset range limit value pair DN1F and the preset measurement value range code EM1F, and is preset based on the trigger application function specification GCL1.

For example, under the condition that the functional target 335 is equal to a switch, the physical parameter reference range RD1EF is configured to characterize an on-state associated with the switch. Under the condition that the control target device 330 is equal to a relay, the physical parameter reference range RD1EF is configured to characterize an on state related to the relay. Under the condition that the control target device 330 is equal to an electric motor, the physical parameter reference range RD1EF is configured to characterize an operating state related to the electric motor. For example, the physical parameter reference range RD1EF is configured to characterize one of an off state and a stop state, or configured to characterize one of an off state and an on state.

In some embodiments, the first trigger signal WX11 is one of an interrupt request signal and a state change control signal. exist On the condition that the timer 539 is caused to cause an integer overflow, the timer 539 provides the interrupt request signal to the processing unit 230 . The timer 539 is used to control the variable physical parameter QU1A. The control device 210 further includes a state change detector 477 coupled to the processing unit 230 . For example, the state change detector 477 is one of a limit detector and an edge detector. Under the condition that the state change detector 477 detects that a characteristic physical parameter related to a predetermined characteristic physical parameter UL21 reaches ZL22 , the state change detector 477 provides the state change control signal to the processing unit 230 . The state change detector 477 is used to control the variable physical parameter QU1A. For example, the preset characteristic physical parameter UL21 is related to the variable physical parameter QU1A. The characteristic physical parameter arrival ZL22 is caused based on the variable physical parameter QU1A.

Under the condition that the processing unit 230 determines that the variable physical parameter QU1A is currently in the physical parameter application range RD1EL, the processing unit 230 executes the method for checking the determined physical parameter application range RD1EL and The first checking operation ZY11 of the first range relationship KC1A between the preset physical parameter ranges RD1EF. The processing unit 230 makes the first specific decision PD11 of whether the determined physical parameter application range RD1EL is the same as the preset physical parameter range RD1EF based on the first checking operation ZY11 . On condition that the first specific decision PD11 is positive, the processing unit 230 makes the rational decision PW11 to be positive.

In some embodiments, under the condition that the processing unit 230 determines that the variable physical parameter QU1A is currently in the physical parameter application range RD1EL, the processing unit 230 is configured to obtain the preset The control data code CK1T is configured to obtain the stored default range limit value pair DN1F from the operation reference data XU21 stored in the storage unit 250, and by comparing the obtained application range limit value pair DN1L and the obtained preset range limit value are paired with DN1F to perform the first check operation for checking the first range relationship KC1A between the determined application range RD1EL of the physical parameter and the preset physical parameter range RD1EF ZY11.

For example, under the condition that the processing unit 230 determines that the variable physical parameter QU1A is currently in the physical parameter application range RD1EL, the processing unit 230 is configured to obtain from the operation reference data XU21 stored in the storage unit 250 The stored preset measured value range code EM1F is used to check the determined physical parameter by comparing the determined measured value applied range code EM1L with the obtained preset measured value range code EM1F The first checking operation ZY11 of the first range relation KC1A between the range RD1EL and the preset physical parameter range RD1EF.

For example, under the condition that the first specific decision PD11 is affirmative, the processing unit 230 determines that the determined application range RD1EL of the physical parameter is the same as a physical parameter of the preset physical parameter range RD1EF, and thereby identifies the determined The first range relationship KC1A between the physical parameter application range RD1EL and the preset physical parameter range RD1EF is a first range equality relationship.

In some embodiments, under the condition that the reasonable decision PW11 is affirmative, one of the control device 210 and the operation unit 297 responds to the first specified application operation related to the variable physical parameter QU1A ZA11 is used to generate the first trigger signal WX11. Under the condition that the rational decision PW11 is positive, the processing unit 230 responds to the first trigger signal WX11 to reach the first operation time TD11 dependent on the first trigger signal WX11 . For example, the first designated application operation ZA11 is a time control GF11 related to the timer 539 .

For example, the functional object 335 further includes a physical parameter application area AZ11 coupled to the physical parameter formation area AU11. The physical parameter application zone AZ11 has a variable physical parameter QG2A. The first designated application operation ZA11 is a physical parameter application operation ZF11 executed by the functional object 335 based on the variable physical parameter QU1A. The physical parameter application operation ZF11 is used to cause the variable physical parameter QG2A to reach the preset characteristic physical parameter UL21 to form the characteristic physical parameter to reach ZL22. The state change detector 477 is coupled to the physical parameter application zone AZ11 and used for detecting that the characteristic physical parameter reaches ZL22. The state change detector 477 generates the first trigger signal WX11 in response to the characteristic physical parameter reaching ZL22. For example, the physical parameter application zone AZ11 is one of a load zone, a display zone, a sensing zone, a power supply zone and an environment zone.

The variable physical parameter QU1A is further related to a variable time length LF2A. For example, the timer 539 is used to measure the variable time length LF2A. The variable time length LF2A is characterized based on a reference time length LX11. The storage unit 250 stores a time length value CX11 related to the variable time length LF2A. The time length value CX11 is preset in a specified count value format HQ23 based on the reference time length LX11 and the timer specification FW11 . Under the condition that the rational decision PW11 is affirmative, the processing unit 230 obtains the time length from the storage unit 250 and execute the time control GF11 to control the timer 539 based on the obtained time length value CX11. The timer 539 performs a count operation BC21 in response to the time control GF11. For example, the specified count value format HQ23 is characterized based on a specified bit number UX23.

For example, the trigger application function specification GCL1 includes a time length representation GC1KX, and the time length representation GC1KX is used to represent the reference time length LX11. The duration value CX11 is preset in the specified count value format HQ23 based on the duration representation GC1KX, the timer specification FW11 and a data encoding operation ZX1KX for converting the duration representation GC1KX. For example, the specified count value format HQ23 is the same as the specified count value format HQ21, whereby the specified bit number UX23 is the same as the specified bit number UX21.

On the condition that the reasonable decision PW11 is positive, the timer 539 experiences an applied time length LT21 with an end time TZ21 by performing the counting operation BC21, by forming the integer overflow associated with the counting operation BC21 The end time TZ21 is reached, and the first trigger signal WX11 is generated in response to the integer overflow. The processing unit 230 responds to the first trigger signal WX11 to reach the first operation time TD11 dependent on the time control GF11, whereby the first operation time TD11 is adjacent to the end time TZ21.

In some embodiments, the state change detector 477 is coupled to the physical parameter application zone AZ11. Under the condition that the reasonable decision PW11 is affirmative, the state change detector 477 responds to the physical parameter application operation using ZB11 to detect that the characteristic physical parameter reaches ZL22 to generate the first trigger signal WX11. For example, the functional object 335 is controlled by the operating unit 397 Control to form the physical parameter application operation ZF11 in the physical parameter application zone AZ11. On the condition that the plausible decision PW11 is negative, the processing unit 230 directly reaches the first operating time TD11 independent of the first trigger signal WX11, whereby the first operating time TD11 is adjacent to making the plausible decision An effective time for PW11.

The processing unit 230 uses the memory unit 25Y1 to access the control data code CK1T stored in the second memory location PX1L based on the determined measurement value application range code EM1L within the first operating time TD11 , and execute the signal generation control GS11 for the trigger application function FC11 to control the output unit 240 based on the accessed control data code CK1T. For example, the signal generation control GS11 provides the obtained control code CC1T to the output unit 240 . The output unit 240 responds to the signal generation control GS11 to obtain the control code CC1T from the processing unit 230, and based on the obtained control code CC1T, executes the first signal generation operation BS11 for the trigger application function FC11 to The first control signal SC11 is generated within the first operation time TD11. For example, the first control signal SC11 conveys the obtained control code CC1T.

In some embodiments, under the condition that the processing unit 230 determines the first physical parameter candidate range RD1E2 that the variable physical parameter QU1A is currently in based on the data comparison CD21, the processing unit 230 determines based on the operation reference data XU21 The second checking operation ZY21 for checking the second range relationship KC2A between the determined first physical parameter candidate range RD1E2 and the preset physical parameter range RD1EF is performed. The processing unit 230 determines whether the second trigger signal WX21 for reaching the second operation time TD21 should be additionally activated based on the second checking operation ZY21 This second specific decision PW21 is generated. For example, the second control signal SC12 different from the first control signal SC11 is to be generated within the second operation time TD21. The second trigger signal WX21 is one of an interrupt request signal and a state change control signal.

On the condition that the second specific decision PW21 is negative, the processing unit 230 directly reaches the second operating time TD21 independent of the second trigger signal WX21. On the condition that the second specific decision PW21 is affirmative, one of the control device 210 and the operating unit 297 generates the second trigger signal in response to the second designated application operation ZA21 related to the variable physical parameter QU1A WX21. Under the condition that the second specific decision PW21 is positive, the processing unit 230 responds to the second trigger signal WX21 to reach the second operation time TD21 dependent on the second trigger signal WX21 .

In some embodiments, the processing unit 230 uses the memory unit 25Y1 to access the memory location PX12 based on the determined measurement value candidate range code EM12 within the second operation time TD21 and execute a signal generation control GS21 for the trigger application function FC11 to control the output unit 240 based on the accessed control data code CK12. For example, the signal generation control GS21 provides the control code CC13 included in the accessed control data code CK12 to the output unit 240 .

The output unit 240 responds to the signal generation control GS21 to obtain the control code CC13 from the processing unit 230, and executes the signal generation operation BS21 for the trigger application function FC11 based on the obtained control code CC1T to perform the signal generation operation BS21 on the second The second operating time TD21 is generated within the second Control signal SC12. For example, the second control signal SC12 conveys the obtained control code CC13. The second control signal SC12 is used to cause the variable physical parameter QU1A to leave the first physical parameter candidate range RD1E2 to enter the second physical parameter candidate range RD1E3 included in the plurality of different physical parameter reference ranges RD1E1, RD1E2, . . . .

See Figures 24, 25, 26 and 27. FIG. 24 is a schematic diagram of an implementation structure 8033 of the control system 801 shown in FIG. 1 . FIG. 25 is a schematic diagram of an implementation structure 8034 of the control system 801 shown in FIG. 1 . FIG. 26 is a schematic diagram of an implementation structure 8035 of the control system 801 shown in FIG. 1 . FIG. 27 is a schematic diagram of an implementation structure 8036 of the control system 801 shown in FIG. 1 . As shown in Figure 24, Figure 25, Figure 26 and Figure 27, each structure of the implementation structure 8032, the implementation structure 8033, the implementation structure 8034 and the implementation structure 8035 includes the control device 210, the control The target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 , the input unit 270 , the output unit 240 and a timer 542 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the input unit 270 , the output unit 240 and the timer 542 . The output unit 240 is coupled to the control target device 330 .

In some embodiments, the timer 542 is controlled by the processing unit 230 and used to measure a clock time TH1A. The timer 542 are configured to comply with a timer specification FW21. The variable physical parameter QU1A is related to the clock time TH1A. The clock time TH1A is characterized based on a plurality of different time reference intervals HP1E1 , HP1E2 , . . . . The plurality of different time reference intervals HP1E1 , HP1E2 , . . . are represented by plural time value reference ranges GP11 , GP12 , . The complex time value reference ranges GP11, GP12, . . . are arranged based on the preset time reference interval sequence QB11.

The complex time value reference ranges GP11, GP12, . The storage unit 250 further has a plurality of different memory locations PS11, PS12, . The plural different time reference intervals HP1E1, HP1E2, . . . are respectively represented by plural time reference interval codes. For example, the complex time reference interval codes are configured to be equal to the complex time value reference range codes EF11, EF12, . . . respectively. Therefore, the complex time value reference range codes EF11 , EF12 , . . . are configured to respectively indicate the plurality of different time reference intervals HP1E1 , HP1E2 , . . . For example, the specified count value format HQ25 is characterized based on a specified bit number UX25.

The complex time value reference range codes EF11, EF12, . . . include a time value target range code EF1T and a time value candidate range code EF12. The plurality of different time reference intervals HP1E1, HP1E2, . . . include a time target interval HP1ET and a time candidate interval HP1E2. The time value target range code EF1T and the time value candidate range code EF12 are configured to respectively indicate the time target interval HP1ET and the time candidate interval HP1E2. The complex time value reference ranges GP11, GP12, . . . include a time value target range GP1T and a time value candidate range GP12. The time target interval HP1ET and the time candidate interval HP1E2 are respectively represented by the time value target range GP1T and the time value candidate range GP12 .

In some embodiments, the plurality of different memory locations PS11, PS12, . . . are identified based on the plurality of time value reference range codes EF11, EF12, . . . respectively. For example, the plurality of different memory locations PS11, PS12, . . . are identified based on or identified by the plurality of memory addresses FS11, FS12, . The complex memory addresses FS11, FS12, . . . are preset based on the complex time value reference range codes EF11, EF12, . . . respectively. For example, the clock time TH1A is further characterized based on a nominal time interval HP1E. The nominal time interval HP1E includes the plurality of different time reference intervals HP1E1 , HP1E2 , . . . and is represented by a nominal time value range HP1N. The nominal time value range HP1N includes the complex time value reference ranges GP11 , GP12 , .

For example, the trigger application function specification GCL1 includes a rated time interval indicating GClHE and a time reference interval indicating GClHP. The nominal time interval designation GC1HE is used to represent the nominal time interval HP1E. The time reference interval representation GClHP is used to represent the plurality of different time reference intervals HP1E1, HP1E2, . . . The nominal time value range HP1N is based on the nominal time interval representation GC1HE, the timer specification FW21 and a data encoding operation for converting the nominal time interval representation GC1HE ZX1HE is preset with the specified count value format HQ25. The complex time value reference ranges GP11, GP12, . default.

The complex physical parameter designated range codes UD11, UD12, ... are configured to be stored based on the complex time value reference range codes EF11, EF12, ... respectively, and include a physical parameter target range code UD1T and a physical parameter candidate range code UD12 . The complex physical parameter specified range codes UD11, UD12, . . . are selected from the plurality of different measured value range codes EM11, EM12, . The physical parameter target range code UD1T represents a physical parameter target range GD1ET where the variable physical parameter QU1A is expected to be within the time target interval HP1ET, and is configured to be stored in a memory based on the time value target range code EF1T body position PS1T. The memory location PS1T is identified based on a memory address FS1T. The complex time value reference range codes EL11, EL12, . . . are all preset based on the trigger application function specification GCL1.

The physical parameter candidate range code UD12 represents a physical parameter candidate range GD1E2 that the variable physical parameter QU1A is expected to be within the time candidate interval HP1E2, and is configured to be stored in a memory based on the time value candidate range code EF12 body position PS12. The memory location PS12 is identified based on a memory address FS12. Both the physical parameter target range GD1ET and the physical parameter candidate range GD1E2 are selected from the plurality of different physical parameter ranges RD1E1, RD1E2, . . . For example, the time candidate interval HP1E2 is adjacent to the time target interval HP1ET.

For example, under the condition that the physical parameter target range code UD1T is equal to the preset measured value target range code EM1T, the physical parameter target range GD1ET is the same as the physical parameter target range RD1ET. Under the condition that the physical parameter target range code UD12 is equal to the preset measured value candidate range code EM12 , the physical parameter candidate range GD1E2 is the same as the first physical parameter candidate range RD1E2 . For example, there is a preset time interval between the time target interval HP1ET and the time candidate interval HP1E2.

In some embodiments, the time value target range GP1T has a target range limit value pair DP1T. The target range limit pair DP1T includes a target range limit DP17 of the time value target range GP1T and a target range limit DP18 corresponding to the target range limit DP17. Both the time target range GP1T and the target range limit pair DP1T are preset with the specified count value format HQ25 based on the time target range HP1ET and the timer specification FW21 . The time value candidate range GP12 has a candidate range limit value pair DP1B. The candidate range limit value pair DP1B includes a candidate range limit value DP13 of the time value candidate range GP12 and a candidate range limit value DP14 corresponding to the candidate range limit value DP13. Both the time value candidate range GP12 and the candidate range limit value pair DP1B are preset based on the time candidate range HP1E2 and the timer specification FW21 using the specified count value format HQ25 .

For example, the triggering application function specification GCL1 includes a time candidate interval representation GClHT and a time candidate interval representation GClH2. The time candidate interval representation GC1HT is used to represent the time target interval HP1ET. The time candidate interval indicates that GC1H2 is used to represent the time candidate Interval HP1E2. The time value target range GP1T and the target range limit value pair DP1T are based on the time candidate interval representation GC1HT, the timer specification FW21 and a data encoding operation ZX1HT for converting the time candidate interval representation GC1HT to use the specified count value The format HQ25 is preset. The time value candidate range GP12 and the candidate range limit value pair DP1B are based on the time candidate range representation GC1H2, the timer specification FW21 and a data encoding operation ZX1H2 for converting the time candidate range representation GC1H2 to use the specified count value The format HQ25 is preset.

For example, when the trigger event EQ11 occurs, the physical parameter target range code UD1T is equal to the preset measured value target range code EM1T. The storage unit 250 stores the target range limit pair DP1T and the candidate range limit pair DP1B. The target range limit pair DP1T and the candidate range limit pair DP1B are preset based on the time value target range code EF1T and the time value candidate range code EF12 respectively. The target range limit pair DP1T and the candidate range limit pair DP1B are stored in the storage unit 250 based on the time value target range code EF1T and the time value candidate range code EF12 respectively.

In some embodiments, the timer 542 senses the clock time TH1A to generate a clock time signal SK11 delivering a specific count value NP11. Under the condition that the trigger event EQ11 occurs, the processing unit 230 responds to the clock time signal SK11 to obtain the specific count value NP11 in the specified count value format HQ25. The processing unit 230 is configured to obtain the time value target range code EF1T, obtain the target range limit value pair DP1T from the storage unit 250 based on the obtained time value target range code EF1T, and compare the specific count value NP11 and the obtained A checking operation ZP11 for checking a mathematical relationship WP11 between the specific count value NP11 and the time value target range GP1T is performed for the target range limit value pair DP1T.

Under the condition that the processing unit 230 determines that the clock time TH1A is currently in the time target interval HP1ET based on the checking operation ZP11, the processing unit 230 obtains the memory address FS1T based on the obtained time value target range code EF1T , and access the physical parameter target range code UD1T stored in the memory location PS1T based on the obtained memory address FS1T to obtain the physical parameter target range code UD1T.

For example, the processing unit 230 determines a specific situation that the clock time TH1A is currently within the time target interval HP1ET based on the checking operation ZP11, thereby identifying a range between the clock time TH1A and the time target interval HP1ET Relationship is a specific relationship that the clock time TH1A is currently within the time target interval HP1ET. For example, under the condition that the trigger event EQ11 occurs, the processing unit 230 obtains the specific count value NP11 from the clock time signal SK11 in the specified count value format HQ25.

In some embodiments, under the condition that the processing unit 230 obtains the physical parameter target range code UD1T from the memory location PS1T and determines the physical parameter application range RD1EL that the variable physical parameter QU1A is currently in, the processing unit 230 Whether the obtained physical parameter target range code UD1T is equal to the determined value is made by performing a data comparison CP11 for comparing the obtained physical parameter target range code UD1T with the determined measurement value application range code EM1L. The application range of this measurement A logic of the code EM1L determines PP11.

The memory unit 25Y1 has a memory location PJ1T, and stores a control data code CJ1T in the memory location PJ1T. The memory location PJ1T is identified based on the preset measurement target range code EM1T. The control data code CJ1T is equal to the control data code CK1T, and includes the control code CC1T and the time length value CL1T. Under the condition that the logic decision PP11 is negative, the processing unit 230 uses the memory unit 25Y1 to access the obtained physical parameter target range code UD1T based on the preset measurement value target range code EM1T. storing the control data code CJ1T in the memory location PJ1T to obtain the control code CC1T, and executing the signal generation control for the trigger application function FC11 within the operation time TD11 based on the obtained control code CC1T GS11 to control the output unit 240 .

The output unit 240 responds to the signal to generate control GS11 to obtain the control code CC1T from the processing unit 230, and based on the obtained control code CC1T to execute the second trigger application function FC11 within the operation time TD11 A signal generating operation BS11 to generate the first control signal SC11. For example, the first control signal SC11 conveys the control code CC1T and is used to cause the variable physical parameter QU1A to leave the physical parameter application range RD1EL to enter the physical parameter target range GD1ET which is the same as the physical parameter target range RD1ET.

The processing unit 230 executes the verification operation ZU11 related to the variable physical parameter QU1A within the specified time TG12 after the operation time TD11 . Under the condition that the processing unit 230 executes the signal generation control GS11, the verification operation ZU11 is based on the obtained physical parameter One of the number target range code UD1T, the accessed control data code CJ1T and the determined measurement value application range code EM1L is used to determine the measurement value target range code EM1T to determine the measurement value target range RN1T. Under the condition that the processing unit 230 determines the physical parameter target range RD1ET into which the variable physical parameter QU1A enters based on the verification operation ZU11, the processing unit 230 uses the storage unit 250 to code the determined target range of measured values to EM1T is assigned to the variable physical parameter range code UN1A.

In some embodiments, the time candidate interval HP1E2 is adjacent to the time target interval HP1ET. After the processing unit 230 executes the signal generation control GS11 within the operation time TD11, the timer 542 senses the clock time TH1A to generate a clock time signal SK12 delivering a specific count value NP12. The processing unit 230 responds to the clock time signal SK12 within a specified time TX12 after the operation time TD11 to obtain the specific count value NP12 in the specified count value format HQ25. Under the condition that the processing unit 230 executes the signal generation control GS11, the processing unit 230 obtains the time value candidate range code EF12 by performing a scientific calculation MK12 using the obtained time value target range code EF1T so as to check all A mathematical relationship WP12 between the specific count value NP12 and the time value candidate range GP12 is obtained. For example, the specified time TX12 is after the specified time TG12.

The processing unit 230 obtains the candidate range limit value pair DP1B from the storage unit 250 based on the obtained time value candidate range code EF12, and compares the specific count value NP12 with the obtained candidate range limit value pair DP1B To perform a check for checking the mathematical relationship WP12 between the specific count value NP12 and the time value candidate range GP12 Check operation ZP12. For example, the processing unit 230 obtains the specific count value NP12 from the clock time signal SK12 in the specified count value format HQ25 within the specified time TX12.

Under the condition that the processing unit 230 determines that the clock time TH1A is in the time candidate interval HP1E2 based on the checking operation ZP12 within the specified time TX12, the processing unit 230 determines based on the obtained time value candidate range code EF12 Obtain the memory address FS12, and access the physical parameter candidate range code UD12 stored in the memory position PS12 based on the obtained memory address FS12 within the specified time TX12 to obtain the physical parameter candidate range Code UD12.

In some embodiments, under the condition that the processing unit 230 obtains the physical parameter candidate range code UD12 from the memory location PS12 and the variable physical parameter QU1A is currently in the physical parameter target range RD1ET, the processing unit 230 in the The obtained value is made by performing a data comparison CP12 for comparing the obtained physical parameter candidate range code UD12 and the variable physical parameter range code UN1A equal to the measured value target range code EM1T within the specified time TX12. A logical decision PP12 is whether the physical parameter target range code UD1T is equal to the variable physical parameter range code UN1A. Under the condition that the logical decision PP12 is negative, the processing unit 230 causes the variable physical parameter QU1A to leave the physical parameter target range RD1ET through the output unit 240 to enter the physical parameter range RD1E2 same as the first physical parameter candidate range RD1E2. parameter candidate range GD1E2, and use the storage unit 250 to cause the variable physical parameter range code UN1A to change.

In some embodiments, the complex physical parameter specified range codes UD11, UD12, . . . belong to a physical parameter specified range code type TS11. The physical parameter specified range code type TS11 is identified by a physical parameter specified range code type identifier HS11. The physical parameter specifies that the range code type identifier HS11 is preset. The memory address FS1T is preset based on the preset physical parameter specifying range code type identifier HS11 and the preset time value target range code EF1T. The memory address FS12 is preset based on the preset physical parameter specified range code type identifier HS11 and the preset time value candidate range code EF12 .

Before the trigger event EQ11 occurs, the processing unit 230 is configured to obtain the physical parameter target range code UD1T, the preset physical parameter specified range code type identifier HS11 and the preset time value target range code EF1T , and obtain the memory address FS1T based on the obtained physical parameter specified range code type identifier HS11 and the obtained time value target range code EF1T. Before the trigger event EQ11 occurs, the processing unit 230 provides a write request message WS1T to the storage unit 250 based on the obtained physical parameter target range code UD1T and the obtained memory address FS1T. The write request message WS1T conveys the obtained physical parameter target range code UD1T and the obtained memory address FS1T. The storage unit 250 receives the write request message WS1T, and stores the received physical parameter target range code UD1T in the memory location PS1T in response to the write request message WS1T.

Before the trigger event EQ11 occurs, the processing unit 230 is configured to obtain the physical parameter candidate range code UD12 and the preset time value candidate range code EF12 in advance, and specify the range code type identification based on the obtained physical parameter The symbol HS11 and the obtained time value candidate range code EF12 are used to obtain the memory address FS12. In the trigger event EQ11 Before it happens, the processing unit 230 provides a write request message WS12 to the storage unit 250 based on the acquired physical parameter candidate range code UD12 and the acquired memory address FS12. The write request message WS12 conveys the acquired physical parameter candidate range code UD12 and the acquired memory address FS12. The storage unit 250 receives the write request message WS12, and stores the received physical parameter candidate range code UD12 in the memory location PS12 in response to the write request message WS12.

Please refer to FIG. 28 , which is a schematic diagram of an implementation structure 8037 of the control system 801 shown in FIG. 1 . As shown in FIG. 28 , the implementation structure 8037 includes the control device 210 , the control target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The control object device 330 includes the operation unit 397 and the function object 335 . The operation unit 397 includes a processing unit 331 , an input unit 337 coupled to the processing unit 331 , and an output unit 338 coupled to the processing unit 331 . Both the input unit 337 and the output unit 338 are controlled by the processing unit 331 . The output unit 338 is coupled to the functional object 335 .

In some embodiments, the input unit 337 receives the first control signal SC11 from the control device 210 via wire or wirelessly, and includes an input component 3371 , an input component 3372 and an input component 3374 . The input component 3371 , the input component 3372 and the input component 3374 are all coupled to the processing unit 331 . The first control signal SC11 is one of the electrical signal SP11 and the optical signal SQ11. The input component 3371 is a The receiver receives the electrical signal SP11 from the control device 210 under the condition that the first control signal SC11 is the electrical signal SP11. The input component 3372 is a reader, and receives the light signal SQ11 conveying the coded image FY11 from the control device 210 under the condition that the first control signal SC11 is the light signal SQ11. For example, the encoded image FY11 is a barcode image. Under the condition that the first control signal SC11 is the optical signal SQ11, the input component 3372 senses the coded image FY11 to generate a coded data DY11, and decodes the coded data DY11 to provide the control code CC1T to the processing unit 331 .

The functional object 335 has the variable physical parameter QU1A. The input component 3371 , the input component 3372 and the input component 3374 are all coupled to the processing unit 331 . Under the condition that the variable physical parameter QU1A is provided depending on the control device 210 , the input component 3374 receives the physical parameter signal SB11 from the control device 210 . The functional object 335 receives the physical parameter signal SB11 from the input component 3374 . The processing unit 331 causes the functional object 335 to use the physical parameter signal SB11 to form the variable physical parameter QU1A depending on the physical parameter signal SB11 through the output unit 338 . For example, the input component 3374 is a receiving component. The output component 455 included in the control device 210 transmits the physical parameter signal SB11 to the input component 3374 by wire or wirelessly.

In some embodiments, the control device 210 performs one of a reading operation BR11 and a sensing operation BZ11 to output the physical parameter signal SB11. The processing unit 230 executes the read operation BR11 to read a physical parameter data record DU11 stored in one of the storage unit 250 and the server 280 . The control unit 210 includes a coupled A sensing unit 560 in the processing unit 230 . The sensing unit 560 senses a variable physical parameter QL1A by performing the sensing operation BZ11 to cause the output component 455 to output the physical parameter signal SB11 . For example, the control device 210 transmits the first control signal SC11 to the control target device 330 through the actual link between the output unit 240 and the input unit 337 . The actual link is one of a wired link and a wireless link. For example, the sensing unit 560 is coupled to the operating unit 297 and controlled by the processing unit 230 to sense the variable physical parameter QL1A.

For example, the variable physical parameter QU1A belongs to the physical parameter type TU11. The variable physical parameter QL1A belongs to a physical parameter type TL11. The physical parameter type TU11 is the same as or different from the physical parameter type TL11. The control device 210 is in the application environment EX11. One of the control device 210 and the application environment EX11 has the variable physical parameter QL1A. The physical parameter data record DU11 is provided in advance based on a variable physical parameter QY1A. The variable physical parameter QY1A belongs to the physical parameter type TL11. For example, the physical parameter type TU11 is different from a time type.

In some embodiments, the processing unit 331 obtains the control code CC1T from the first control signal SC11 in response to the first control signal SC11, and executes the physical parameter control function FA11 based on the obtained control code CC1T. A signal of is generated to control GY11 to control the output unit 338 . The output unit 338 generates the function signal SG11 in response to the signal generation control GY11. For example, the function signal SG11 is one of a control signal, a pulse width modulation signal, a potential signal and a driving signal.

The functional object 335 includes a driving circuit 3355 and a physical parameter forming part 3351 coupled to the driving circuit 3355 . The physical parameter forming section 3351 is used to form the variable physical parameter QU1A, and includes the physical parameter forming area AU11. The driving circuit 3355 is coupled to the input component 3374 and the output unit 338 , and is controlled by the processing unit 331 through the output unit 338 . The driving circuit 3355 receives the physical parameter signal SB11 from the input component 3374 , receives the functional signal SG11 from the output unit 338 , and processes the physical parameter signal SB11 in response to the functional signal SG11 to output a driving signal SL11 . For example, the functional object 335 further includes a support portion 335K. The driving circuit 3355, the physical parameter forming part 3351 and the sensing unit 334 are all coupled to the supporting part 335K.

The physical parameter forming part 3351 receives the driving signal SL11 and responds to the driving signal SL11 to make the variable physical parameter QU1A within the physical parameter target range RD1ET. For example, under the condition that the input unit 337 receives the first control signal SC11 from the control device 210, the processing unit 331 executes the signal generation control GY11 in response to the received first control signal SC11 to control the output unit 338 . The output unit 338 responds to the signal generation control GY11 to execute a signal generation operation BY11 for the physical parameter control function FA11 to provide the function signal SG11 to the driving circuit 3355 . The driving circuit 3355 drives the physical parameter forming part 3351 in response to the function signal SG11 so that the variable physical parameter QU1A enters the physical parameter target range RD1ET.

The variable physical parameter QL1A is a second variable electrical parameter, a second variable mechanical parameter, a second variable optical parameter, a first Two variable temperature, one second variable voltage, one second variable current, one second variable electric power, one second variable resistance, one second variable capacitance, one second variable inductance, one A second variable frequency, a second clock time, a second variable time length, a second variable brightness, a second variable light intensity, a second variable volume, a second variable data flow, A second variable amplitude, a second variable spatial position, a second variable displacement, a second variable sequence position, a second variable angle, a second variable spatial length, a second variable One of distance, a second variable translational velocity, a second variable angular velocity, a second variable acceleration, a second variable force, a second variable pressure, and a second variable mechanical power.

The variable physical parameter QY1A is a third variable electrical parameter, a third variable mechanical parameter, a third variable optical parameter, a third variable temperature, a third variable voltage, a third variable Variable current, a third variable electric power, a third variable resistance, a third variable capacitance, a third variable inductance, a third variable frequency, a third clock time, a third variable Variable time length, a third variable brightness, a third variable light intensity, a third variable volume, a third variable data flow rate, a third variable amplitude, a third variable spatial position, a A third variable displacement, a third variable sequence position, a third variable angle, a third variable space length, a third variable distance, a third variable translation speed, a third variable angular velocity , a third variable acceleration, a third variable force, a third variable pressure and a third variable mechanical power.

See Figure 29. FIG. 29 is a schematic diagram of an implementation structure 8038 of the control system 801 shown in FIG. 1 . As shown in Figure 29, the implementation structure 8038 includes the control device 210, the control object Target device 330 and the server 280. The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 , the input unit 270 and the output unit 240 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the input unit 270 and the output unit 240 . The output unit 240 is coupled to the control target device 330 .

In some embodiments, the memory unit 25Y1 has the first memory location PN1L and a memory location PJ1L different from the first memory location PN1L, the application range limit value is stored in the first memory location PN1L For DN1L, store a control data code CJ1L in the memory location PJ1L. The memory unit 25Y1 further has a memory location PN1T and a memory location PJ1T different from the memory location PN1T, the target range limit value pair DN1T is stored in the memory location PN1T, and the memory location PJ1T is stored The control data code is CJ1T. Both the first memory location PN1L and the memory location PJ1L are identified based on the preset measurement value application range code EM1L. Both the memory location PN1T and the memory location PJ1T are identified based on the preset measurement value target range code EM1T.

The control data code CJ1L includes the control code CC1L and a time length value CL1L. The time length value CL1L is preset in the specified count value format HQ21 based on a reference time length LJ1L and the timer specification FW11. The control data code CJ1T includes the control code CC1T and the time length value CL1T. The control data code CJ1L and the control data The codes CJ1T all belong to a control data code type TK21. The control data code type TK21 is identified by a control data code type identifier HK21. For example, the control data code type identifier HK21 is preset. The memory location PJ1L is identified based on or identified by a memory address FJ1L. The memory location PJ1T is identified based on or identified by a memory address FJ1T. The memory address FJ1L is preset based on the preset measurement value application range code EM1L and the preset control data code type identifier HK21. The memory address FJ1T is preset based on the preset measurement value target range code EM1T and the preset control data code type identifier HK21.

For example, the trigger application function specification GCL1 includes a time length representation GClKL, and the time length representation GClKL is used to represent the reference time length LJ1L. The duration value CL1L is preset in the specified count value format HQ21 based on the duration representation GC1KL, the timer specification FW11 and a data encoding operation ZX1KL for converting the duration representation GC1KL. For example, the trigger application function specification GCL1 includes the sensor specification FU11 , the timer specification FW11 and the timer specification FW21 .

In some embodiments, the control data code CJ1L is preset based on one of the physical parameter application range RD1EL and the trigger application function specification GCL1. The control data code CJ1T is preset based on one of the physical parameter target range RD1ET and the trigger application function specification GCL1. The processing unit 230 is configured to obtain the control data code type identifier HK21. Under the condition that the processing unit 230 determines that the variable physical parameter QU1A is currently in the physical parameter application range RD1EL, The processing unit 230 executes a scientific calculation MN11 using the determined measurement value application range code EM1L to obtain the preset measurement value target range code EM1T, and based on the obtained measurement value target range code EM1T and the obtained The control data code type identifier HK21 is used to obtain the memory address FJ1T.

The processing unit 230 uses the memory unit 25Y1 to access the control data code CJ1T stored in the memory location PJ1T based on the obtained memory address FJ1T, and based on the accessed control data code CJ1T Execute the signal generation control GS11 for the trigger application function FC11 to control the output unit 240 . For example, the signal generation control GS11 provides the control code CC1T in the accessed control data code CJ1T to the output unit 240 . The output unit 240 generates the control GS11 in response to the signal to obtain the control code CC1T from the processing unit 230, and generates the first control signal SC11 based on the obtained control code CC1T. For example, the control data code CJ1T is the same as the control data code CK1T.

The target range limit value pair DN1T belongs to the measurement range limit data code type TN11. The memory location PN1T is identified based on or identified by a memory address FN1T. The memory address FN1T is preset based on the preset measurement value target range code EM1T and the preset measurement range limit data type identifier HN11. The verification operation ZU11 obtains the memory address FN1T based on the obtained measurement range limit data type identifier HN11 and the determined or obtained measurement value target range code EM1T, and based on the obtained memory address FN1T to access the target range limit value pair DN1T stored in the memory location PN1T to obtain the target range limit Value pair DN1T.

In some embodiments, under the condition that the variable physical parameter QU1A is configured to be within the physical parameter target range RD1ET due to the trigger event EQ11, the processing unit 230 experiences a time with the end time based on the counting operation BC1T The application time length of TZ1T is LT1T to reach the specific time TJ1T. The processing unit 230 executes a scientific calculation MN12 using the measured value target range code EM1T within the specific time TJ1T to obtain the preset measured value application range code EM1L, and based on the determined measured value application range code EM1L and the obtained control data code type identifier HK21 to obtain the memory address FJ1L.

The processing unit 230 uses the memory unit 25Y1 to access the control data code CJ1L stored in the memory location PJ1L based on the obtained memory address FJ1L. Under the condition that the control code CC22 is the same as the control code CC1L, the processing unit 230 executes the signal generation control GS22 for the trigger application function FC11 to control the output unit 240 based on the accessed control data code CJ1L. For example, the signal generation control GS22 provides the control code CC1L in the accessed control data code CJ1L to the output unit 240 .

Under the condition that the control code CC22 is the same as the control code CC1L, the output unit 240 responds to the signal to generate a control GS21 to obtain the control code CC22 that is the same as the control code CC1L from the processing unit 230, and based on the obtained control code CC22 to generate the third control signal SC22. For example, the control data code CJ1L is the same as the control data code CK12. Under the condition that the control code CC22 is the same as the control code CC1L, the third control signal SC22 is used to cause the variable physical parameter QU1A to leave the The physical parameter target range RD1ET is used to enter the physical parameter application range RD1EL.

See Figure 30. FIG. 30 is a schematic diagram of an implementation structure 8039 of the control system 801 shown in FIG. 1 . As shown in FIG. 30 , the implementation structure 8039 includes the control device 210 , the control target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 , the input unit 270 and the output unit 240 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the input unit 270 and the output unit 240 . The output unit 240 is coupled to the control target device 330 .

In some embodiments, before the triggering event EQ11 which is the triggering action event occurs, the processing unit 331 causes the functional object 335 to execute the specified functional operation ZH11 related to the variable physical parameter QU1A. Under the condition that the variable physical parameter QU1A is within the specified physical parameter range RD1E4, the designated function operation ZH11 causes the variable physical parameter QG1A to reach the preset characteristic physical parameter UL11 to form the characteristic physical parameter to reach ZL12. The state change detector 475 generates the trigger signal SX11 in response to the characteristic physical parameter reaching ZL12.

The input unit 270 is coupled to the state change detector 475 and receives the trigger signal SX11. The processing unit 230 uses the first sensing signal SN11 to obtain the first measurement value VN11 in response to the trigger signal SX11 . In the processing unit 230 by checking the first measured value VN11 and the first mathematical relationship KV11 between the measurement value application range RN1L to determine that the variable physical parameter QU1A is currently under the condition of the physical parameter application range RD1EL, the processing unit 230 causes the output unit 240 to generate The first control signal SC11 indicates that the variable physical parameter QU1A enters the physical parameter target range RD1ET.

In some embodiments, the control target device 330 further includes a support portion 330K. The operating unit 397 , the functional object 335 and the sensing unit 334 are all coupled to the supporting part 330K. Under the condition that the processing unit 230 determines that the variable physical parameter QU1A is currently in the physical parameter application range RD1EL, the processing unit 230 uses the memory unit 25Y1 to access based on the determined measurement value application range code EM1L The control data code CK1T is stored in the second memory location PX1L, and the first control signal SC11 is generated based on the accessed control data code CK1T. The control data code CK1T includes the control code CC1T. For example, the control code CC1T is preset based on the physical parameter representation GC1T1 and the third data encoding operation ZX21 for converting the physical parameter representation GC1T1 .

The physical parameter representation GC1T1 is used to represent the specified physical parameter QD1T within the physical parameter target range RD1ET. For example, the specified physical parameter QD1T is specified based on the preset characteristic physical parameter UL11. The triggering application function specification GCL1 includes a physical parameter representation GCL1UL for representing the preset characteristic physical parameter UL11 . The physical parameter representation GC1T1 is provided based on the physical parameter representation GC1UL.

In some embodiments, the operation unit 297 further includes at least one of the processing unit 230 and the output unit 240 coupled to A connection terminal 294 for one. The control target device 330 further includes a connection terminal 394 coupled to the sensing unit 334 and the input unit 337 . There is a signal cable 247 between the connection terminal 294 and the connection terminal 394 . The signal cable 247 is coupled to the connection terminal 294 and the connection terminal 394 for transmitting the first control signal SC11 and the first sensing signal SN11 . The signal cable 247 includes a transmission line 2471 and a transmission line 2472 .

For example, the transmission line 2471 is used to transmit at least one of the first control signal SC11, the second control signal SC12, the third control signal SC22 and the control signal SC31, and has a first terminal and a second terminal . The first end is coupled to the output unit 240 through the connection terminal 294 . The second end is coupled to the input unit 337 through the connection terminal 394 . The transmission line 2472 is used for transmitting at least one of the first sensing signal SN11 and the second sensing signal SN12 , and has a third end and a fourth end. The third end is coupled to the processing unit 230 through the connection terminal 294 . The fourth end is coupled to the sensing unit 334 through the connection terminal 394 .

See Figures 31, 32, 33 and 34. FIG. 31 is a schematic diagram of an implementation structure 8040 of the control system 801 shown in FIG. 1 . FIG. 32 is a schematic diagram of an implementation structure 8041 of the control system 801 shown in FIG. 1 . FIG. 33 is a schematic diagram of an implementation structure 8042 of the control system 801 shown in FIG. 1 . FIG. 34 is a schematic diagram of an implementation structure 8043 of the control system 801 shown in FIG. 1 . As shown in Figure 31, Figure 32, Figure 33 and Figure 34, each structure of the implementation structure 8040, the implementation structure 8041, the implementation structure 8042 and the implementation structure 8043 includes the control device 210, the control Control the target device 330 and the server 280. The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 , the input unit 270 and the output unit 240 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the input unit 270 and the output unit 240 . The output unit 240 is coupled to the control target device 330 .

In some embodiments, the control device 210 further includes an electricity usage target 275 and an electricity usage target 276 related to the electricity usage target 275 . Both the electricity usage object 275 and the electricity usage object 276 are coupled to the processing unit 230 . The electricity usage object 275 is identified by an electricity usage object identifier HZ11. The electricity usage object 276 is identified by an electricity usage object identifier HZ12. Both the electricity usage target identifier HZ11 and the electricity usage target identifier HZ12 are preset based on the triggering application function specification GCL1.

The storage unit 250 has a memory location PK11 and a memory location PK12 different from the memory location PK11. The storage unit 250 stores a relative value VK11 representing a preset increment in the memory location PK11, and stores a relative value VK12 representing a preset decrement in the memory location PK12. For example, the electricity usage target WJ11 is one of the electricity usage target 275 and the electricity usage target 276 . The electricity usage target 275 and the electricity usage target 276 are respectively located at different spatial positions.

The memory location PK11 is identified by or based on a memory address FK11. the memory bit Set PK12 is identified by or based on a memory address FK12. The memory address FK11 is preset based on the electricity usage object identifier HZ11; thereby, the electricity usage object 275 is related to the relative value VK11. The memory address FK12 is preset based on the electricity usage object identifier HZ12; thereby, the electricity usage object 276 is related to the relative value VK12.

For example, there is a mathematical relationship KV1W between the electricity usage target identifier HZ11 and the relative value VK11 ; thus, the electricity usage target 275 is related to the relative value VK11 . There is a mathematical relationship KV2W between the electricity usage target identifier HZ12 and the relative value VK12 ; thus, the electricity usage target 276 is related to the relative value VK12 . The electricity usage target 275 is used to cause the variable physical parameter QU1A to have a first physical quantity change to change the variable current state of the variable physical parameter QU1A. The electricity usage target 276 is used to cause the variable physical parameter QU1A to have a second physical quantity change opposite to the first physical quantity change to change the variable current state of the variable physical parameter QU1A.

In some embodiments, the trigger event EQ11 occurs depending on one of the electricity usage object 275 and the electricity usage object 276 , and causes the processing unit 230 to receive the operation request signal SZ11 . Under the condition that the trigger event EQ11 occurs depending on the electricity usage object 275, the processing unit 230 responds to the operation request signal SZ11 to obtain the electricity usage object identifier HZ11, and based on the obtained electricity usage object identifier HZ11 This relative value VK11 is obtained. Under the condition that the trigger event EQ11 occurs depending on the electricity usage object 276, the processing unit 230 responds to the operation request signal SZ11 to obtain the electricity usage object identifier HZ12, and based on the The electricity obtained uses the object identifier HZ12 to obtain the relative value VK12.

The trigger event EQ11 is a user input event that the input unit 270 receives a user input operation JU11. The input unit 270 provides an operation request signal SZ11 to the processing unit 230 in response to the trigger event EQ11 which is the user input event. The input unit 270 provides an input signal SM17 to the processing unit 230 by virtue of the power usage object 275 under the condition that the trigger event EQ11 occurs depending on the power usage object 275 . The input unit 270 provides an input signal SM18 to the processing unit 230 by virtue of the power usage target 276 under the condition that the trigger event EQ11 occurs depending on the power usage target 276 . The operation request signal SZ11 is one of the input signal SM17 and the input signal SM18. The processing unit 230 uses the first sensing signal SN11 to obtain the first measurement value VN11 in response to the operation request signal SZ11.

The user input operation JU11 is one of a user input operation JW11 and a user input operation JW12. In a first specific case, the user input operation JU11 is the user input operation JW11. In a second specific case, the user input operation JU11 is the user input operation JW12. The storage unit 250 stores the relative value VK11 and the relative value VK12 different from the relative value VK11. For example, the relative value VK11 is proportional to 1, or equal to 1. This relative value VK12 is proportional to (-1), or equal to (-1).

In some embodiments, in the first specific situation, the input unit 270 receives the user input operation JW11 for selecting the electricity usage target 275 to cause the trigger event EQ11 to occur. The input unit 270 responds to the user input operation JW11 to generate as the operation request message The input signal SM17 of number SZ11. The processing unit 230 receives the input signal SM17, uses the first sensing signal SN11 to obtain the first measured value VN11 in response to the input signal SM17, and executes a data acquisition AD2A in response to the input signal SM17 to obtain the electrical usage Target identifier HZ11.

Under the condition that the processing unit 230 determines the physical parameter application range RD1EL that the variable physical parameter QU1A is currently in by checking the first mathematical relationship KV11 between the first measurement value VN11 and the measurement value application range RN1L , the processing unit 230 obtains the relative value VK11 based on the obtained electricity usage target identifier HZ11. For example, the processing unit 230 obtains the memory address FK11 based on the obtained electrical usage target identifier HZ11, and accesses the relative value stored in the memory location PK11 based on the obtained memory address FK11 VK11 to obtain this relative value VK11. For example, the processing unit 230 obtains the relative value VK11 by performing a scientific calculation MR15 using the obtained electricity usage target identifier HZ11 and the mathematical relationship KV1W.

The determined application range RD1EL of the physical parameter is indicated by the determined application range code EM1L of the measured value. The processing unit 230 obtains the preset measurement value target range code EM1T by performing a scientific calculation MQ15 using the determined measurement value application range code EM1L and the obtained relative value VK11, and based on the obtained The measured value target range code EM1T uses the memory unit 25Y1 to access the control data code CJ1T stored in the memory location PJ1T to obtain the control code CC1T. For example, the scientific calculation MQ15 includes a first arithmetic operation using the determined application range code EM1L of the measured value and the obtained relative value VK11 Calculate.

In some embodiments, under the condition that the input unit 270 generates the input signal SM17, the processing unit 230 executes the trigger application function FC11 within the operation time TD11 based on the accessed control data code CJ1T The signal generation controls GS11 to cause the output unit 240 to generate the first control signal SC11 conveying the control code CC1T. The physical parameter target range RD1ET has a first specific physical parameter range limit and a second specific physical parameter range limit relative to the first specific physical parameter range limit. In the first specific case, the operation unit 397 of the control target device 330 responds to the first control signal SC11 to cause the variable physical parameter QU1A to have the first physical quantity change to change the variable physical parameter QU1A. change the current state.

For example, under the condition that the input unit 270 generates the input signal SM17, the operation unit 397 of the control target device 330 responds to the first control signal SC11 to cause the variable physical parameter QU1A to pass through the physical parameter application range RD1EL The first specific physical parameter range limit to enter the physical parameter target range RD1ET. The first specific physical parameter range limit is one of the preset physical parameter target range limit ZD1T1 and the preset physical parameter target range limit ZD1T2 . For example, in the first specific case, the change of the first physical quantity is one of a first physical increment and a first physical decrement. For example, the relative value VK11 is configured to be equal to a positive integer.

In some embodiments, in the second specific situation, the input unit 270 receives the user input operation JW12 for selecting the electricity usage target 276 to cause the trigger event EQ11 to occur. The input unit 270 generates the input signal SM18 as the operation request signal SZ11 in response to the user input operation JW12. The processing unit 230 receives the input signal SM18, uses the first sensing signal SN11 to obtain the first measurement value VN11 in response to the input signal SM18, and executes a data acquisition AD2B in response to the input signal SM18 to obtain the electrical usage Target identifier HZ12.

Under the condition that the processing unit 230 determines the physical parameter application range RD1EL that the variable physical parameter QU1A is currently in by checking the first mathematical relationship KV11 between the first measurement value VN11 and the measurement value application range RN1L , the processing unit 230 obtains the relative value VK12 based on the obtained electricity usage target identifier HZ12. For example, the processing unit 230 obtains the memory address FK12 based on the obtained electrical usage target identifier HZ12, and accesses the relative value stored in the memory location PK12 based on the obtained memory address FK12 VK12 to obtain this relative value VK12. For example, the processing unit 230 obtains the relative value VK12 by performing a scientific calculation MR16 using the obtained electricity usage target identifier HZ12 and the mathematical relationship KV2W.

The determined application range RD1EL of the physical parameter is indicated by the determined application range code EM1L of the measured value. The processing unit 230 obtains the preset measurement value target range code EM1T by performing a scientific calculation MQ16 using the determined measurement value application range code EM1L and the obtained relative value VK12, and based on the obtained measurement value target range code EM1T The measured value target range code EM1T uses the memory unit 25Y1 to access the control data code CJ1T stored in the memory location PJ1T to obtain the control code CC1T. For example, the scientific calculation MQ16 contains the application of this measurement determined using A second arithmetic operation of the range code EM1L and the obtained relative value VK12.

Under the condition that the input unit 270 generates the input signal SM18, the processing unit 230 executes the signal generation control GS11 for the trigger application function FC11 within the operation time TD11 based on the accessed control data code CJ1T To cause the output unit 240 to generate the first control signal SC11 conveying the measured value target range code EM1T. In the second specific case, the operation unit 397 of the control target device 330 responds to the first control signal SC11 to cause the variable physical parameter QU1A to have the change of the second physical quantity opposite to the change of the first physical quantity to change the This variable current state of the variable physical parameter QU1A.

For example, under the condition that the input unit 270 generates the input signal SM18, the operation unit 397 of the control target device 330 responds to the first control signal SC11 to cause the variable physical parameter QU1A to pass through the physical parameter application range RD1EL The second specific physical parameter range limits to enter the physical parameter target range RD1ET. The second specific physical parameter range limit is the other one of the preset physical parameter target range limit ZD1T1 and the preset physical parameter target range limit ZD1T2 . For example, in the second specific case, the change of the second physical quantity is one of a second physical increment and a second physical decrement. For example, the relative value VK12 is configured to be equal to a negative integer.

In some embodiments, the storage unit 250 further has a memory location PF11 and a memory location PF12 different from the memory location PF11. The storage unit 250 stores the preset electricity usage target identifier HZ11 in the memory location PF11, and stores the preset electricity usage target identifier HZ11 in the memory location The PF12 stores the preset electrical usage target identifier HZ12. The memory location PF11 is identified by or based on a memory address FF11. The memory location PF12 is identified by or based on a memory address FF12.

Both the memory address FF11 and the memory address FF12 are preset. The power usage object 275 is coupled to the memory location PF11 through the processing unit 230 . The power usage object 276 is coupled to the memory location PF12 through the processing unit 230 . For example, the input signal SM17 sends an input data DJ17. The input signal SM18 sends an input data DJ18.

In the first specific case, the data acquisition AD2A is one of a data acquisition operation AD21 and a data acquisition operation AD22. The data acquisition operation AD21 obtains the preset electrical usage target ID HZ11 by using the preset memory address FF11 to access the electrical usage target ID HZ11 stored in the memory location PF11 . The data acquisition operation AD22 processes the input data DJ17 based on a preset data derivation rule YU11 to obtain the preset electricity usage target identifier HZ11 .

In the second specific case, the data acquisition AD2B is one of a data acquisition operation AD23 and a data acquisition operation AD24. The data acquisition operation AD23 obtains the preset electrical usage target ID HZ12 by using the preset memory address FF12 to access the electrical usage target ID HZ12 stored in the memory location PF12 . The data acquisition operation AD24 processes the input data DJ18 based on the default data derivation rule YU11 to obtain the preset electricity usage target. Mark the identifier HZ12.

In some embodiments, the control device 210 is used by the user 295 and includes a user interface area AP21 coupled to the processing unit 230 . The user interface area AP21 has the electricity usage object 275 and the electricity usage object 276, or both the electricity usage object 275 and the electricity usage object 276 are located in the user interface area AP21. The input unit 270 includes the input component 440 . The output unit 240 includes the display component 460 . For example, one of the input component 440 and the display component 460 includes the user interface area AP21.

For example, the user input operation JW11 is performed by the user 295 . The electricity usage target 275 is one of a first sensing target and a first display target. On the condition that the electricity usage object 275 is the first sensing object, the input component 440 includes the electricity usage object 275 . On the condition that the electricity usage object 275 is the first display object, the display assembly 460 includes the electricity usage object 275 . For example, the first sensing target is a first button target. The first display object is a first icon object.

For example, the user input operation JW12 is performed by the user 295 . The electricity usage target 276 is one of a second sensing target and a second display target. On the condition that the electricity usage target 276 is the second sensing target, the input component 440 includes the electricity usage target 276 . On the condition that the electricity usage object 276 is the second display object, the display assembly 460 includes the electricity usage object 276 . For example, the second sensing target is a second button target. The second display object is a second icon object.

In some embodiments, the input unit 270 relies on the power usage object 275 to provide the input signal SM17 to the processing unit 230 . The input unit 270 provides the input signal SM18 to the processing unit 230 via the power usage object 276 . For example, under the condition that the electricity usage object 275 is configured to exist in the input component 440 , the electricity usage object 275 receives the user input operation JW11 to cause the input component 440 to provide the input signal SM17 to the processing unit 230 .

For example, the input unit 270 further includes a pointing device 441 . Before the trigger event EQ11 occurs, the processing unit 230 is configured to cause the display component 460 to display a selection tool YJ11 , the electricity usage target 275 and the electricity usage target 276 . The pointing device 441 is used to control the selection tool YJ11. Under the condition that the electricity usage object 275 is configured to exist in the display assembly 460, the pointing device 441 receives the user input operation JW11 for selecting the electricity usage object 275 to cause the pointing device 441 to provide the input signal SM17 to the processing unit 230. For example, the user input operation JW11 is configured to select the electricity usage target 275 by means of the pointing device 441 and the selection tool YJ11. For example, the selection tool YJ11 is a cursor.

For example, under the condition that the electricity usage object 276 is configured to exist in the input component 440 , the electricity usage object 276 receives the user input operation JW12 to cause the input component 440 to provide the input signal SM18 to the processing unit 230 . Under the condition that the electricity usage object 276 is configured to exist in the display assembly 460, the pointing device 441 receives the user input operation JW12 for selecting the electricity usage object 276 to cause the pointing device 441 to provide the input signal SM18 to the processing unit 230. For example, the user input operation JW12 is configured to select the electricity usage target 276 by means of the pointing device 441 and the selection tool YJ11.

See Figures 35, 36 and 37. FIG. 35 is a schematic diagram of an implementation structure 8044 of the control system 801 shown in FIG. 1 . FIG. 36 is a schematic diagram of an implementation structure 8045 of the control system 801 shown in FIG. 1 . FIG. 37 is a schematic diagram of an implementation structure 8046 of the control system 801 shown in FIG. 1 . As shown in FIG. 35 , FIG. 36 and FIG. 37 , each structure of the implementation structure 8044 , the implementation structure 8045 and the implementation structure 8046 includes the control device 210 , the control target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used for controlling the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the sensing unit 334 , the operating unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 , the input unit 270 and the output unit 240 . The processing unit 230 is coupled to the server 280 , the sensing unit 334 , the storage unit 250 , the input unit 270 and the output unit 240 . The output unit 240 is coupled to the control target device 330 .

In some embodiments, the control object device 330 includes the operation unit 397 , the function object 335 and a function object 735 coupled to the operation unit 397 . The operation unit 397 has an output terminal 338P and an output terminal 338Q. The output 338P is coupled to the functional object 335 . The functional object 735 includes a physical parameter forming area AU21 and is coupled to the output terminal 338Q. The output end 338P and the output end 338Q are respectively located at different spatial positions. The physical parameter forming area AU21 has the variable physical parameter QU2A. The control device 210 further includes a multiplexer 263 coupled to the processing unit 230 . The multiplexer 263 has an input terminal 2631, an output An input terminal 2632, a control terminal 263C and an output terminal 263P. The control terminal 263C is coupled to the processing unit 230 . For example, the functional object 735 is a physically realizable functional object and has a functional structure similar to the functional object 335 .

The input terminal 2631 is coupled to the physical parameter formation area AU11. The input terminal 2632 is coupled to the physical parameter formation area AU21. The output terminal 263P is coupled to the sensing unit 334 . For example, the variable physical parameter QU1A and the variable physical parameter QU2A are respectively a fourth variable electrical parameter and a fifth variable electrical parameter. For example, the fourth variable electrical parameter and the fifth variable electrical parameter are a fourth variable voltage and a fifth variable voltage, respectively. There is a first functional relationship between the input end 2631 and the output end 263P. The first functional relationship is equal to one of a first on relationship and a first off relationship.

There is a second functional relationship between the input end 2632 and the output end 263P. The second functional relationship is equal to one of a second on relationship and a second off relationship. Under the condition that the first functional relationship is equal to the first conduction relationship, the sensing unit 334 is used to sense the variable physical parameter QU1A through the output terminal 263P and the input terminal 2631, and through the output terminal 263P and the input terminal 2631 to sense the variable physical parameter QU1A. The input terminal 2631 is coupled to the physical parameter formation area AU11. Under the condition that the second functional relationship is equal to the second conduction relationship, the sensing unit 334 is used to sense the variable physical parameter QU2A through the output terminal 263P and the input terminal 2632, and through the output terminal 263P and the input terminal 2632 to sense the variable physical parameter QU2A. The input terminal 2632 is coupled to the physical parameter formation area AU21. For example, the multiplexer 263 is controlled by the processing unit 230 and is an analog multiplexer.

In some embodiments, the function object 335 consists of a function Identified by the target identifier HA2T. The functional object 735 is identified by a functional object identifier HA22. The functional object 335 and the functional object 735 are respectively located at different spatial positions, and both are coupled to the processing unit 230 through the operating unit 397 and the output unit 240 . Both the functional object identifier HA2T and the functional object identifier HA22 are preset based on the triggering application functional specification GCL1. The control device 210 further includes an electricity usage object 285 coupled to the processing unit 230 , and an electricity usage object 286 coupled to the processing unit 230 . For example, the functional object identifier HA2T is configured to indicate the output terminal 338P and is a first functional object number. The functional object identifier HA22 is configured to indicate the output terminal 338Q and is a second functional object number.

In some embodiments, the functional object 335 is identified by a functional object identifier HA2T. The functional object 735 is identified by a functional object identifier HA22. The functional object 335 and the functional object 735 are respectively located at different spatial positions, and both are coupled to the processing unit 230 through the operating unit 397 and the output unit 240 . Both the functional object identifier HA2T and the functional object identifier HA22 are preset based on the triggering application functional specification GCL1. The control device 210 further includes an electricity usage object 285 coupled to the processing unit 230 , and an electricity usage object 286 coupled to the processing unit 230 . For example, the functional object identifier HA2T is a first functional object number. The functional object identifier HA22 is a second functional object number.

The electricity usage object 285 is identified by an electricity usage object identifier HZ2T. The electricity usage object 286 is identified by an electricity usage object identifier HZ22. The electric use target identifier HZ2T and the electric use target The identifier HZ22 is preset based on the trigger application function specification GCL1. On the condition that the trigger event EQ11 occurs depending on the electricity usage object 285, the processing unit 230 selects the functional object 335 for control in response to the trigger event EQ11. On the condition that the trigger event EQ11 occurs depending on the electricity usage object 286, the processing unit 230 selects the function object 735 for control in response to the trigger event EQ11.

The storage unit 250 has a memory location XC2T and a memory location XC22, the memory location XC2T stores the functional object identifier HA2T, and the memory location XC22 stores the functional object identifier HA22. The memory location XC2T is identified by or based on a memory address EC2T. The memory address EC2T is preset based on the electrical usage object identifier HZ2T; thereby, the electrical usage object 285 is associated with the functional object identifier HA2T. For example, there is a mathematical relationship KK21 between the electricity usage object identifier HZ2T and the functional object identifier HA2T; thereby, the electricity usage object 285 is related to the functional object identifier HA2T.

The memory location XC22 is identified by or based on a memory address EC22. The memory address EC22 is preset based on the electrical usage object identifier HZ22; thereby, the electrical usage object 286 is associated with the functional object identifier HA22. For example, there is a mathematical relationship KK22 between the electricity usage object identifier HZ22 and the functional object identifier HA22 ; thus, the electricity usage object 286 is related to the functional object identifier HA22 .

For example, the functional object 335 and the functional object 735 are separate, or are set between the functional object 335 and the functional object 735 separated by a material layer 70U in between. The functional object 335, the material layer 70U and the functional object 735 are all coupled to a support medium 70M. The control target device 330 includes the material layer 70U, or the material layer 70U is disposed outside the control target device 330 . The control target device 330 includes the support medium 70M, or the support medium 70M is disposed outside the control target device 330 .

In some embodiments, the processing unit 230 is caused to receive an operation request signal SZ21 under the condition that the trigger event EQ11 occurs depending on the power usage target 285 . The processing unit 230 responds to the operation request signal SZ21 to obtain the first measurement value VN11 and the electricity use object identifier HZ2T, and obtains the function object identifier HA2T based on the obtained electricity use object identifier HZ2T. The processing unit 230 causes the output unit 240 to transmit at least one of the first control signal SC11, the second control signal SC12, and the third control signal SC22 to the control target device 330 based on the obtained functional object identifier HA2T. One to control the function object 335 .

For example, the trigger event EQ11 is a user input event that the input unit 270 receives a user input operation JU21. The input unit 270 provides the operation request signal SZ21 to the processing unit 230 in response to the trigger event EQ11 which is the user input event. Under the condition that the trigger event EQ11 occurs depending on the electricity usage object 285 , the input unit 270 provides the operation request signal SZ21 to the processing unit 230 depending on the electricity usage object 285 . The processing unit 230 provides a control signal SV11 to the control terminal 263C in response to the operation request signal SZ21 . For example, the control signal SV11 is a selection control signal, and serves to indicate that the input terminal 2631 role. The multiplexer 263 responds to the control signal SV11 to cause the first functional relationship between the input terminal 2631 and the output terminal 263P to be equal to the first conduction relationship.

Under the condition that the first functional relationship is equal to the first conduction relationship, the sensing unit 334 senses the variable physical parameter QU1A to generate the first sensing signal SN11 . The processing unit 230 receives the first sensing signal SN11 from the sensing unit 334 , and obtains the first measurement value VN11 in the designated measurement value format HH11 based on the received first sensing signal SN11 . For example, the electricity usage object 285 and the electricity usage object 286 are configured to correspond to the functional object 335 and the functional object 735 respectively, are coupled to the processing unit 230 , and are respectively located at different spatial positions.

In some embodiments, the input unit 270 receives the user input operation JU21 for selecting the electricity usage target 285 to cause the trigger event EQ11 to occur. The input unit 270 generates the operation request signal SZ21 in response to the user input operation JU21. The processing unit 230 receives the operation request signal SZ21, uses the first sensing signal SN11 to obtain the first measurement value VN11 in response to the operation request signal SZ21, and executes a data acquisition AD2C in response to the operation request signal SZ21 to obtain This call uses the target identifier HZ2T.

For example, the storage unit 250 includes the storage space SS11. The storage space SS11 has the preset rated range limit value pair DD1A, the variable physical parameter range code UN1A, the electricity use target identifier HZ2T, the electricity use target identifier HZ22, the function target identifier HA2T, the The function target identifier HA22, the electricity usage target identifier HZ11, the electricity usage target identifier HZ12, the relative value VK11, the phase The pair value VK12, the operational reference XU21 and the time length range limit value pair LN1A.

The processing unit 230 is configured to obtain the memory address EC2T based on the obtained electrical usage object identifier HZ2T, and access the function stored in the memory location XC2T based on the obtained memory address EC2T object identifier HA2T to obtain the functional object identifier HA2T. Under the condition that the processing unit 230 determines the physical parameter application range RD1EL that the variable physical parameter QU1A is currently in by checking the first mathematical relationship KV11 between the first measurement value VN11 and the measurement value application range RN1L , the processing unit 230 executes the signal generation control GS11 based on the obtained function object identifier HA2T and the accessed control data code CK1T to cause the output unit 240 to generate the first control signal SC11 and cause the output The unit 240 transmits the first control signal SC11 to the operation unit 397 .

For example, the first control signal SC11 conveys the functional object identifier HA2T. For example, the first control signal SC11 conveys the function object identifier HA2T and the control code CC1T. The operation unit 397 obtains the control code CC1T and the functional object identifier HA2T from the first control signal SC11 in response to the first control signal SC11, and based on the obtained control code CC1T and the obtained functional object identifier HA2T performs the signal generating operation BY11 using the output terminal 338P to transmit the function signal SG11 to the function object 335 . The function target 335 responds to the function signal SG11 to cause the variable physical parameter QU1A to leave the physical parameter application range RD1EL to enter the physical parameter target range RD1ET.

In some embodiments, the storage space SS11 is further There is a memory location PF2T. The storage unit 250 stores the preset electricity usage target identifier HZ2T in the memory location PF2T. The memory location PF2T is identified by or based on a memory address FF2T. The memory address FF2T is preset. The power usage target 285 is coupled to the memory location PF2T through the processing unit 230 . For example, the operation request signal SZ21 sends an input data DJ21.

The data acquisition AD2C is one of a data acquisition operation AD25 and a data acquisition operation AD26. The data acquisition operation AD25 obtains the preset electrical usage target identifier HZ2T by using the preset memory address FF2T to access the electrical usage target ID HZ2T stored in the memory location PF2T. The data acquisition operation AD26 processes the input data DJ21 based on a preset data derivation rule YU21 to obtain the preset electricity usage target identifier HZ2T.

In some embodiments, the input unit 270 causes the processing unit 230 to receive an operation request signal under the condition that the input unit 270 receives a user input operation JU22 for selecting the electricity usage target 286 and a trigger event occurs. SZ22. The processing unit 230 responds to the operation request signal SZ22 to obtain a measured value VN21 and the electricity use object identifier HZ22, and obtains the function object identifier HA22 based on the obtained electricity use object identifier HZ22. The processing unit 230 causes the output unit 240 to transmit a control signal SC27 to the operating unit 397 based on the obtained measurement value VN21 and the obtained functional object identifier HA22 . The control signal SC27 is used to control the variable physical parameter QU2A, and transmits the functional object identifier HA22.

For example, the processing unit 230 responds to the operation request signal SZ22 provides a control signal SV12 to the control terminal 263C. For example, the control signal SV12 is a selection control signal, which serves as an indication to the input terminal 2632 and is different from the control signal SV11. The multiplexer 263 responds to the control signal SV12 to cause the second functional relationship between the input terminal 2632 and the output terminal 263P to be equal to the second conduction relationship. Under the condition that the second functional relationship is equal to the second conduction relationship, the sensing unit 334 senses the variable physical parameter QU2A to generate a sensing signal SN21 .

The processing unit 230 receives the sensing signal SN21 from the sensing unit 334 , and obtains the measurement value VN21 in the designated measurement value format HH11 based on the received sensing signal SN21 . The operation unit 397 obtains the function object identifier HA22 from the control signal SC27 in response to the control signal SC27, and executes a signal generation operation BY27 using the output terminal 338Q based on the obtained function object identifier HA22 to send to the function. The target 735 transmits a function signal SG27. The function signal SG27 is used to control the variable physical parameter QU2A.

In some embodiments, the user interface area AP21 has the electricity usage goal 285 and the electricity usage goal 286 . The user input operation JU21 is performed by the user 295 . The electricity usage target 285 is one of a third sensing target and a third display target. On the condition that the electricity usage object 285 is the third sensing object, the input component 440 includes the electricity usage object 285 . On the condition that the electricity usage object 285 is the third display object, the display component 460 includes the electricity usage object 285 . For example, the third sensing target is a third button target. The third display object is a third icon object.

The electricity usage target 286 is a fourth sensing target and a The fourth shows one of the targets. On the condition that the electricity usage target 286 is the fourth sensing target, the input component 440 includes the electricity usage target 286 . On the condition that the electricity usage object 286 is the fourth display object, the display component 460 includes the electricity usage object 286 . For example, the fourth sensing target is a fourth button target. The third display object is a fourth icon object.

For example, under the condition that the electricity usage object 285 is configured to exist in the input component 440, the electricity usage object 285 receives the user input operation JU21 to cause the input component 440 to provide the operation request signal SZ21 to the processing unit 230 . Under the condition that the electricity usage object 285 is configured to exist in the display assembly 460, the pointing device 441 receives the user input operation JU21 for selecting the electricity usage object 285 to cause the pointing device 441 to provide the operation request signal SZ21 to the processing unit 230. For example, the user input operation JU21 is configured to select the electricity usage target 285 by means of the pointing device 441 and the selection tool YJ11. For example, the selection tool YJ11 is a cursor.

In some embodiments, the preset rated range limit value pair DD1A, the variable physical parameter range code UN1A, the relative value VK11, the relative value VK12, the operation reference XU21 and the time length range limit value pair LN1A is further stored in the storage space SS11 based on the preset functional object identifier HA2T. The processing unit 230 further uses the storage unit 250 to access the preset rated range limit value pair DD1A, the variable physical parameter range code UN1A, the relative value VK11, based on the obtained functional target identifier HA2T. Any one of the relative value VK12 , the operation reference XU21 and the time length range limit value pair LN1A.

The preset application range limit value pair DN1L, the preset control data code CK1T, the preset target range limit value pair DN1T, the preset candidate range limit value pair DN1B and the preset The control data code CK12 is further stored in the memory space SA1 based on the preset function object identifier HA2T. The processing unit 230 further uses the memory unit 25Y1 to access the preset application range threshold pair DN1L, the preset control data code CK1T, the preset Any one of the target range limit value pair DN1T, the preset candidate range limit value pair DN1B and the preset control data code CK12.

For example, the first memory address FN1L is preset based on the preset function object identifier HA2T, the preset measurement value application range code EM1L and the preset measurement range limit data type identifier HN11 set up. The processing unit 230 obtains the functional object identifier HA2T in response to the trigger event EQ11 . The first data acquisition operation AD11 obtains the first memory address based on the obtained functional target identifier HA2T, the determined measurement value application range code EM1L and the obtained measurement range limit data type identifier HN11 FN1L, and use the memory unit 25Y1 to access the preset application range limit value pair DN1L stored in the first memory location PN1L based on the obtained first memory address FN1L.

For example, the second memory address FX1L is preset based on the preset function object identifier HA2T, the preset measurement value application range code EM1L and the preset control data code type identifier HK11. The processing unit 230 determines that the variable physical parameter QU1A is currently at Under the condition of the physical parameter application range RD1EL, the processing unit 230 obtains based on the obtained functional target identifier HA2T, the determined measurement value application range code EM1L and the obtained control data code type identifier HK11 The second memory address FX1L, and use the memory unit 25Y1 to access the control data code CK1T stored in the second memory location PX1L based on the obtained second memory address FX1L.

See Figures 38 and 39. FIG. 38 is a schematic diagram of an implementation structure 8047 of the control system 801 shown in FIG. 1 . FIG. 39 is a schematic diagram of an implementation structure 8048 of the control system 801 shown in FIG. 1 . As shown in FIG. 38 and FIG. 39 , each structure of the implementation structure 8047 and the implementation structure 8048 includes the control device 210 , the control target device 330 and the server 280 . The control device 210 is linked to the server 280 . The control device 210 is used to control the variable physical parameter QU1A existing in the control target device 330 depending on the trigger event EQ11 , and includes the operation unit 297 and the storage unit 250 . The operation unit 297 includes the processing unit 230 and a communication interface unit 246 coupled to the processing unit 230 .

In some embodiments, the control device 210 is identified by a control device identifier HAOT. The processing unit 230 is coupled to the server 280 , the storage unit 250 and the communication interface unit 246 . The communication interface unit 246 is coupled to the control target device 330 . The communication interface unit 246 is controlled by the processing unit 230 and includes the output component 450 and an input component 446 coupled to the processing unit 230 . The output component 450 is controlled by the processing unit 230 and is a transmission component. The input component 446 is controlled by the processing unit 230 and is a receiving component.

The control target device 330 includes the operating unit 397 , the sensing unit 334 , a storage unit 332 and the function target 335 . The functional object 335 is identified by the functional object identifier HA2T. The operation unit 397 includes the processing unit 331 , the output unit 338 , an input unit 377 coupled to the processing unit 331 , and a communication interface unit 386 coupled to the processing unit 331 . The storage unit 332 is coupled to the processing unit 331 . The input unit 377 includes the input component 3372 and the input component 3374 . The communication interface unit 386 includes the input component 3371 and an output component 3861 . The sensing unit 334 , the storage unit 332 , the function object 335 , the output unit 338 , the input component 3372 , the input component 3374 and the input component 3371 are all controlled by the processing unit 331 .

The input component 3371 is a receiver, and receives the electrical signal SP11 from the control device 210 under the condition that the first control signal SC11 is the electrical signal SP11. The output component 3861 is a transmitter for transmitting at least one of the first sensing signal SN11 and the second sensing signal SN12. The first control signal SC11 conveys the control code CC1T and the functional object identifier HA2T. The processing unit 331 obtains the control code CC1T and the functional object identifier HA2T from the first control signal SC11 in response to the first control signal SC11, and based on the obtained control code CC1T and the obtained functional object identifier HA2T executes the signal generation control GY11 for controlling the output unit 338 .

The output unit 338 responds to the signal generation control GY11 to execute the signal generation operation BY11 to transmit the function signal SG11 to the function object 335 . The functional object 335 includes the supporting part 335K and the physical parameter forming part 3351 coupled to the supporting part 335K. For example, The output unit 338 includes an output terminal 338P coupled to the functional object 335 . The preset function object identifier HA2T is configured to indicate the output terminal 338P. The signal generation control GY11 is used to indicate the output terminal 338P, and is used to cause the processing unit 331 to provide a control signal SF11 to the output unit 338 . The control signal SF11 serves to indicate the output terminal 338P. The output unit 338 responds to one of the signal generation control GY11 and the control signal SF11 to execute the signal generation operation BY11 using the output terminal 338P to transmit the function signal SG11 to the function object 335 .

The control target device 330 further includes the support portion 330K. The supporting part 330K includes the supporting part 335K, and is coupled to the operating unit 397 , the sensing unit 334 and the functional object 335 . The sensing unit 334 is coupled to the functional object 335 . For example, the sensing unit 334 is coupled to one of the supporting portion 330K and the supporting portion 335K. For example, the processing unit 230 is coupled to the network 410 through the communication interface unit 246 . Therefore, the processing unit 230 is coupled to the server 280 through the communication interface unit 246 and the network 410 .

The sensing unit 334 is configured to sense the variable physical parameter QU1A present in the functional object 335 . The processing unit 230 responds to the trigger event EQ11 to cause the output component 450 to transmit a sensing request signal SJ11 to the input component 3371 . The sensing request signal SJ11 conveys the control device identifier HA0T and the function object identifier HA2T. The input component 3371 receives the sensing request signal SJ11 from the output component 450 . The sensing unit 334 senses the variable physical parameter QU1A to generate the first sensing signal SN11 .

The processing unit 331 obtains the control device identifier HA0T and the functional object identifier HA2T from the sensing request signal SJ11 in response to the sensing request signal SJ11, and causes the output component 3861 based on the obtained functional object identifier HA2T receiving the first sensing signal SN11 from the sensing unit 334, and causing the output component 3861 to transmit a request including the first sensing signal SN11 to the input component 446 based on the obtained control device identifier HA0T Response to signal SE21. For example, the processing unit 230 causes the sensing unit 334 to sense the variable physical parameter QU1A based on the obtained functional object identifier HA2T to generate the first sensing signal SN11, and to receive the first sensing signal SN11, And provide the first sensing signal SN11 to the output component 3861 based on the obtained functional object identifier HA2T. For example, the processing unit 230 responds to the sensing request signal SJ11 by causing the output component 450 to transmit the request response signal SE21.

The input component 446 receives the request response signal SE21 from the output component 3861 , and provides the first sensing signal SN11 to the processing unit 230 in response to the request response signal SE21 . When the trigger event EQ11 occurs, the processing unit 230 responds to the first sensing signal SN11 provided by the input component 446 to obtain the first measurement value VN11 in the specified measurement value format HH11. For example, the operating unit 297 includes the timer 539 coupled to the processing unit 230 . The timer 539 is controlled by the processing unit 230 .

For example, the processing unit 230 executes a time control GF11 related to a specified time TD01 in response to the trigger event EQ11. From the input component 446 within the specified time TD01 from the output component 3861 Under the condition of receiving the request response signal SE21 , the processing unit 230 obtains the first measurement value VN11 in the specified measurement value format HH11 based on the provided first sensing signal SN11 within the specified time TD01 . The time control GF11 is used to control the timer 539 .

Under a specific condition that the input component 446 fails to receive the request response signal SE21 within the specified time TD01, the processing unit 230 prohibits the execution of the method for checking between the first measured value VN11 and the measured value application range RN1L. The checking operation BV11 of the first mathematical relation KV11. For example, the designated time TD01 has an end time point. Under the condition that the processing unit 230 determines the specific condition through the timer 539 in response to the end time point, the processing unit 230 prohibits the execution of the checking operation BV11. Under the condition that the processing unit 230 determines the physical parameter application range RD1EL that the variable physical parameter QU1A is currently in based on the checking operation BV11, the processing unit 230 generates the control GS11 by executing the signal within the operation time TD11 to cause the output component 450 to generate the first control signal SC11.

In some embodiments, after the processing unit 230 executes the signal generation control GS11 within the operation time TD11 , the sensing unit 334 senses the variable physical parameter QU1A to generate the second sensing signal SN12 . The processing unit 230 generates a control GS11 in response to the signal to cause the output component 450 to transmit a sensing request signal SJ12 to the input component 3371 . For example, the processing unit 230 causes the output component 450 to transmit the sensing request signal SJ12 to the input component 3371 within a specified time TG11 after the operation time TD11 . The sensing request signal SJ12 conveys the control device identifier HA0T and the function object identifier HA2T. The input group The component 3371 receives the sensing request signal SJ12 from the output component 450 .

The processing unit 331 obtains the control device identifier HA0T and the functional object identifier HA2T from the sensing request signal SJ12 in response to the sensing request signal SJ12, and causes the output component 3861 based on the obtained functional object identifier HA2T Receive the second sensing signal SN12 from the sensing unit 334, and cause the output component 3861 to transmit a request response including the second sensing signal SN12 to the input component 446 based on the obtained control device identifier HAOT Signal SE22. For example, the processing unit 230 responds to the sensing request signal SJ12 by causing the output component 450 to transmit the request response signal SE22.

The input component 446 receives the request response signal SE22 and the second sensing signal SN12 from the output component 3861 , and provides the second sensing signal SN12 to the processing unit 230 in response to the request response signal SE22 . Under the condition that the processing unit 230 receives the second sensing signal SN12 within the specified time TG12 after the operation time TD11, the processing unit 230 responds to the second sensing signal SN12 provided by the input component 446 to obtain the second measured value VN12 in the specified measured value format HH11. For example, the specified time TG12 is after the specified time TG11. For example, the first control signal SC11 is a physical parameter control signal. The sensing request signal SJ11 is a physical parameter sensing request signal.

Many variations and other embodiments of the present disclosure presented herein will be appreciated by those skilled in the art having the benefit of the teachings presented in the foregoing description and associated drawings. Therefore, it should be understood that the present disclosure is not limited to the disclosed specific embodiments, and modifications and other embodiments are intended to be included within the scope of the following claims.

210: Control device

297: Operation unit

330: Control the target device

334: Sensing unit

801: Control system

EQ11: Triggering Events

KV11: First Mathematical Relations

QU1A: variable physical parameters

RD1EL: Application range of physical parameters

RD1ET: Physical parameter target range

RN1L: Application range of measured values

SC11: The first control signal

SN11: The first sensing signal

VN11: first measured value

Claims (20)

A control device for controlling a lighting device, wherein a variable optical parameter of the lighting device is based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range And being characterized, the control device includes: a sensing unit that senses the variable optical parameter to generate a sensing signal; and an operating unit that is coupled to the sensing unit and includes a touch screen, wherein: The touch screen includes a sensing target that is a button target; under the condition that a user input operation for selecting the sensing target results in a trigger event that is a user input event, the operating unit responds to the sensing a signal to obtain a measurement value; and under the condition that the operation unit determines the application range of the physical parameter in which the variable optical parameter is currently located by examining a mathematical relationship between the measurement value and the application range of the measurement value , the operating unit is configured to transmit a control signal to the lighting device, wherein the control signal is used to cause the variable optical parameter to enter the physical parameter target range from the physical parameter application range. The control device as claimed in claim 1, wherein: the measurement value application range is represented by a measurement value application range code; the control signal is generated based on a specified physical parameter within the physical parameter target range; the lighting The device includes a physical parameter forming area, wherein the physical parameter forming area has the variable optical parameter and is an environment area; the control device further includes a storage unit coupled to the processing unit element; the storage unit stores a control data code preset based on the specified physical parameter; and under the condition that the operating unit determines the application range of the physical parameter that the variable optical parameter is currently in due to checking the mathematical relationship, The operation unit uses the measured value application range code to obtain the stored control data code from the storage unit, and generates the control signal based on the obtained control data code. A method for controlling a lighting device, wherein a variable optical parameter of the lighting device is determined based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range Characterized, the method comprises the steps of: providing a control device, wherein the control device includes a touch screen, and the touch screen includes a sensing target that is a button target; sensing the variable optical parameter to generate a sensing signal; under the condition that a user input operation for selecting the sensing target causes a trigger event which is a user input event to occur, a sensing signal is obtained by using the control device in response to the sensing signal measured value; under the condition that the application range of the physical parameter in which the variable optical parameter is currently located is determined by the control means by examining a mathematical relationship between the measurement value and the application range of the measurement value, by using the control A device is used to transmit a control signal to the lighting device, wherein the control signal is used to cause the variable optical parameter to enter the physical parameter target range from the physical parameter application range. A method for controlling a lighting device, wherein a The variable optical parameter is characterized based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range, the method comprising the steps of: providing a control device, wherein The control device includes a state change detector and an operation unit coupled to the state change detector; senses the variable optical parameter to generate a sensing signal; responds to a state change event by using the operation unit And generate a trigger signal, wherein the state change event is that a variable physical parameter of the lighting device is changed from a non-characteristic physical parameter arrival state to an actual characteristic physical parameter arrival state; by using the operation unit, the trigger signal is received ; by using the operating unit, using the sensing signal in response to the received trigger signal to obtain a measurement value; and by checking the measurement value and the physical parameter application range where the variable optical parameter is currently in By using the control device to transmit a control signal to the lighting device under the conditions determined by the operating unit using a mathematical relationship between measurement value ranges, wherein the control signal is used to cause the variable optical parameter to change from the physical The parameter application range enters the physical parameter target range. A control device for controlling a lighting device, wherein a variable optical parameter of the lighting device is based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range And being characterized, the control device includes: an operating unit; a sensing unit, coupled to the operating unit, and senses the variable optical parameters to generate a sensing signal; and a state change detector coupled to the operating unit and responding to a state change event to generate a trigger signal, wherein: the state change event is a variable physical parameter of the lighting device is changed from a non-characteristic physical parameter arrival state to an actual characteristic physical parameter arrival state; and the operating unit receives the trigger signal, uses the sensing signal to obtain a measurement value in response to the received trigger signal, and operates during the operation The unit is configured to transmit a control signal to the lighting device under conditions of the physical parameter application range in which the variable optical parameter is determined by examining a mathematical relationship between the measurement value and the measurement value application range, wherein The control signal is used to cause the variable optical parameter to enter the target range of the physical parameter from the application range of the physical parameter. The control device as described in claim 5, wherein: the physical parameter target range is indicated by a target range code; the measurement value application range is represented by a measurement value application range code; the control signal is based on the physical parameter target range A specified physical parameter within is generated; the lighting device includes a physical parameter forming area having the variable optical parameter, and a physical parameter application area coupled to the physical parameter forming area, wherein the physical parameter forming area is a first environment area, and the physical parameter application area has the variable physical parameter and is one of a load area, a display area, a sensing area, a power supply area and a second environment area; the control The device further includes a storage unit coupled to the operation unit; The storage unit stores a control data code preset based on the specified physical parameter; and under the condition that the operating unit determines that the variable optical parameter is currently in the physical parameter application range due to checking the mathematical relationship, the operation the unit performs a scientific calculation using the measured value application range code to obtain the target range code, obtains the stored control data code from the storage unit based on the obtained target range code, and based on the obtained control data code to generate the control signal. A control device for controlling a lighting device, wherein a variable optical parameter of the lighting device is based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range And being characterized, the control device includes: a function switch for providing a trigger signal; a sensing unit for sensing the variable optical parameter to generate a sensing signal; and an operating unit coupled to the function switch and the sensing unit, responding to the sensing signal to obtain a measurement value under the condition that a trigger event of the trigger signal is received by the operation unit occurs, and by checking the measurement value and the application range of the measurement value at the operation unit It is configured to transmit a control signal to the lighting device under the condition of determining the application range of the physical parameter that the variable optical parameter is currently in through a mathematical relationship, wherein the control signal is used to cause the variable optical parameter to change from the The application range of the physical parameter enters the target range of the physical parameter. The control device as claimed in claim 7, wherein: the physical parameter target range is indicated by a target range code; The measurement value application range is represented by a measurement value application range code; the control signal is generated based on a specified physical parameter within the target range of the physical parameter; the lighting device includes a physical parameter forming area, wherein the physical parameter The forming area has the variable optical parameter and is an environment area; the control device further includes a storage unit coupled to the operation unit; the storage unit stores a control data code preset based on the specified physical parameter; and On the condition that the operating unit determines the physical parameter application range in which the variable optical parameter is currently located due to checking the mathematical relationship, the operating unit performs a scientific calculation using the measured value application range code to obtain the target range code, The stored control data code is obtained from the storage unit based on the obtained target range code, and the control signal is generated based on the obtained control data code. A control device for controlling a lighting device, wherein a variable optical parameter of the lighting device is based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range And being characterized, the control device includes: a processing unit; a sensing unit coupled to the processing unit and sensing the variable optical parameter to generate a sensing signal; and a user interface area having an electrical an application object, wherein: the electronic application object is coupled to the processing unit and is one of a button object and an icon object; A trigger event occurs depending on the electrical application object and causes the processing unit to receive an operation request signal; the processing unit uses the sensing signal to obtain a measurement value in response to the operation request signal, and the processing unit checks the A mathematical relationship between the measurement and the range of application of the measurement determines the range of application of the physical parameter in which the variable optical parameter is currently located, configured to cause a control signal to be transmitted to the lighting device; and the control The signal is used to cause the variable optical parameter to enter the target range of the physical parameter from the application range of the physical parameter. The control device as described in claim 9, wherein: the physical parameter target range is indicated by a target range code; the measurement value application range is represented by a measurement value application range code; the control signal is based on the physical parameter target range A specified physical parameter within is generated; the lighting device includes a physical parameter forming area, wherein the physical parameter forming area has the variable optical parameter, and is an environment area; the control device further includes coupling to the processing unit A storage unit, and an output unit coupled to the processing unit; the storage unit stores a control data code that is preset based on the specified physical parameter; and the variable is determined in the processing unit by checking the mathematical relationship Under the condition that the optical parameter is currently in the application range of the physical parameter, the processing unit performs a scientific calculation using the measurement value application range code to obtain the target range code, which is obtained from the storage unit based on the obtained target range code The stored control data code, based on the obtained control data code to make the output unit generate the control signal. A method for controlling a lighting device, wherein a variable optical parameter of the lighting device is determined based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range Characterized, the method comprises the steps of: providing a control device, wherein the control device includes a user interface area having an electrical application object, and a processing unit coupled to the electrical application object, and the electrical application object is one of a button target and an icon target; sensing the variable optical parameter to generate a sensing signal; dependent on the electrical application target, causing a trigger event to occur; dependent on the trigger event, causing the processing unit to receive a an operation request signal; using the sensing signal to obtain a measurement value in response to the operation request signal by using the processing unit; and by checking the measurement value and the physical parameter application range where the variable optical parameter is currently in The measurement values apply a mathematical relationship between the ranges determined by the processing unit by using the control device to transmit a control signal to the lighting device, wherein the control signal is used to cause the variable optical parameter to change from the The application range of the physical parameter enters the target range of the physical parameter. A method for controlling a lighting device, wherein a variable optical parameter of the lighting device is determined based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range is characterized, the method includes the following steps: providing a control device, wherein the control device includes a function switch and an operation unit coupled to the function switch; sensing the variable optical parameter to generate a sensing signal; providing a trigger signal by using the function switch; Obtaining a measurement value by using the operating unit to respond to the sensing signal under the condition that a trigger event occurs in which the operating unit receives the trigger signal; and in the application range of the physical parameter in which the variable optical parameter is currently located Using the control device to transmit a control signal to the lighting device under conditions determined by the operating unit by checking a mathematical relationship between the measured value and the range of application of the measured value, wherein the control signal is used to cause The variable optical parameter enters the target range of the physical parameter from the application range of the physical parameter. A control device for controlling a lighting device, wherein a variable optical parameter of the lighting device is based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range And being characterized, the control device includes: a user interface area having an electrical application object, wherein the electrical application object is one of a display object and a sensing object; a sensing unit that senses the electrical application object changing an optical parameter to generate a sensing signal; and a processing unit, coupled to the electrical application object and the sensing unit, upon a user input operation for selecting the electrical application object resulting in a user input event A measurement value is obtained in response to the sensing signal under the condition that a trigger event occurs, and the processing unit checks the measurement value and the measurement value A mathematical relationship between the application ranges of magnitudes is configured to cause a control signal to be transmitted to the lighting device under the conditions of the physical parameter application range in which the variable optical parameter is currently located, wherein the control signal is used to cause the The variable optical parameter enters the target range of the physical parameter from the application range of the physical parameter. The control device according to claim 13, wherein: the physical parameter target range is indicated by a target range code; the measurement value application range is represented by a measurement value application range code; the trigger event causes the processing unit to receive an operation request signal; the processing unit responds to the operation request signal to use the sensing signal to obtain the measured value; the control signal is generated based on a specified physical parameter within the physical parameter target range; the lighting device includes a physical A parameter forming area, wherein the physical parameter forming area has the variable optical parameter and is an environment area; the control device further includes a storage unit coupled to the processing unit, and an output unit coupled to the processing unit; the The storage unit stores a control data code preset based on the specified physical parameter; and under the condition that the processing unit determines that the variable optical parameter is currently in the application range of the physical parameter due to checking the mathematical relationship, the processing unit performing a scientific calculation using the measured value application range code to obtain the target range code, obtaining the stored control data code from the storage unit based on the obtained target range code, and based on the obtained control data code to make the output unit generate the control signal. A method for controlling a lighting device, wherein a variable optical parameter of the lighting device is determined based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range As characterized, the method comprises the steps of: providing a control device, wherein the control device includes a user interface area having an electrical application object, and the electrical application object is one of a display object and a sensing object ; sensing the variable optical parameter to generate a sensing signal; under the condition that a user input operation for selecting the electrical application object results in a trigger event being a user input event, by using the control means to obtain a measurement value in response to the sensing signal; and the variable optical parameter is controlled by checking a mathematical relationship between the measurement value and the measurement value application range in which the physical parameter application range is currently located Under conditions determined by the device, a control signal is transmitted to the lighting device by using the control device, wherein the control signal is used to cause the variable optical parameter to enter the physical parameter target range from the physical parameter application range. A control device for controlling a lighting device, wherein a variable optical parameter of the lighting device is based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range And being characterized, the control device includes: an operating unit; a sensing unit, coupled to the operating unit, and senses the variable optical parameter to generate a sensing signal; and a state change detector, coupled to the the operating unit, and responds to a status A state change event is used to generate a trigger signal, wherein: the state change event is that a variable time length is changed from a non-characteristic physical parameter arrival state to an actual characteristic physical parameter arrival state; and the operation unit receives the trigger signal and responds to the receiving the trigger signal to use the sensing signal to obtain a measurement value, and determining the current position of the variable optical parameter by checking a mathematical relationship between the measurement value and the measurement value application range in the operation unit The physical parameter application range is configured to transmit a control signal to the lighting device, wherein the control signal is used to cause the variable optical parameter to enter the physical parameter target range from the physical parameter application range. A control device for controlling a lighting device, wherein a variable optical parameter of the lighting device is based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range To be characterized, the measurement value application range is represented by a measurement value application range code, and a control data code associated with the physical parameter target range is predicted based on a specified physical parameter within the physical parameter target range It is assumed that the control device includes: a sensing unit that senses the variable optical parameter to generate a sensing signal; and an operating unit that is coupled to the sensing unit and responds to the sensing when a trigger event occurs. signal to obtain a measurement value, which is used under the condition that the operating unit determines the application range of the physical parameter in which the variable optical parameter is currently located by examining a mathematical relationship between the measurement value and the application range of the measurement value Value application range code to obtain the preset control data code, and based on the obtained control data code to send to the lighting device A control signal is input, wherein the control signal is used to cause the variable optical parameter to enter the physical parameter target range from the physical parameter application range. The control device as described in claim 17, wherein: the sensing unit includes a light detector, and the sensing signal is generated by using the light detector to sense the variable optical parameter; the operating unit Including a user interface area with an electrical application object, wherein the electrical application object is one of a display object and a sensing object; the trigger event is that the operation unit receives a user for selecting the electrical application object A user input event of an input operation, and causes the operation unit to generate an operation request signal; the operation unit responds to the operation request signal to use the sensing signal to obtain the measured value; the lighting device includes a physical parameter forming area , wherein the physical parameter forming area has the variable optical parameter and is an environment area; the control device further includes a storage unit coupled to the operation unit; the storage unit stores the control data code; and in the operation unit due to Under the condition of checking the mathematical relationship to determine that the variable optical parameter is currently in the application range of the physical parameter, the operation unit uses the measurement value application range code to obtain the stored control data code from the storage unit, and based on the The obtained control data code is used to generate the control signal. A method for controlling a lighting device, wherein a variable optical parameter of the lighting device is based on a physical The parameter application range is characterized by a physical parameter target range different from the physical parameter application range, the measurement value application range is represented by a measurement value application range code, and a control data code related to the physical parameter target range Preset based on a specified physical parameter within a target range of the physical parameter, the method comprises the steps of: providing a control device; sensing the variable optical parameter to generate a sensing signal; upon occurrence of a trigger event Under the condition, by using the control device to respond to the sensing signal to obtain a measurement value; in the application range of the physical parameter in which the variable optical parameter is currently located, by checking the distance between the measurement value and the application range of the measurement value A mathematical relationship determined by the control device, by using the control device to use the measured value application range code to obtain the preset control data code; and by using the control device, based on the obtained The control data code is used to transmit a control signal to the lighting device, wherein the control signal is used to cause the variable optical parameter to enter the physical parameter target range from the physical parameter application range. A method for controlling a lighting device, wherein a variable optical parameter of the lighting device is determined based on a physical parameter application range represented by a measurement value application range and a physical parameter target range different from the physical parameter application range Characterized, the method comprises the steps of: providing a control device, wherein the control device includes a state change detector and an operating unit coupled to the state change detector; sensing the variable optical parameter to generate a sensing signal; by using the operating unit, a state change event is generated in response to a A trigger signal, wherein the state change event is a variable time length from a non-characteristic physical parameter arrival state is changed to an actual characteristic physical parameter arrival state; by using the operation unit, receiving the trigger signal; by using the operation unit , using the sensing signal to obtain a measurement value in response to receiving the trigger signal; and by checking the measurement value and the measurement value application range between the measurement value and the measurement value application range in which the variable optical parameter is currently located. Under the condition of a mathematical relationship determined by the operating unit, by using the control device to transmit a control signal to the lighting device, wherein the control signal is used to cause the variable optical parameter to enter the physical parameter from the application range of the physical parameter target range.

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