KR950011282B1 - Elevator display lamp control device - Google Patents

Abstract

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Description

Indicator light control device of elevator

1 to 5 are diagrams showing one embodiment of the present invention,

1 is an overall configuration diagram.

2 is a block circuit diagram.

3 is an explanatory diagram of a destination floor button arrangement of an operation panel in an elevator car.

4 is a flowchart showing a signal conversion operation.

5 is an explanatory diagram of lighting data output.

6 is a front view of a destination floor button showing another embodiment of the present invention.

7 is a front view of an in-car operation panel to which a conventional service floor indicator is attached.

8 and 9 are control circuit diagrams of FIG.

* Explanation of symbols for main parts of the drawings

1 control device 11 first input conversion means

13 storage means 13 second input conversion means

14: output conversion means B: destination floor button

C: Response light E: Service cut switch

S: Service floor indicator

The present invention relates to an apparatus for lighting control of a service floor indicator arranged on an operation panel in an elevator car (hereinafter abbreviated as car).

7 is a front view of a car operating panel with a service floor indicator light shown in Japanese Patent Application Laid-Open No. 58-48558. In the drawing, B is a destination floor button for call registration of a destination floor, C is a response light which is built in the destination floor button B, and lights up when a call is registered, and S is located next to the destination floor button B. It is service floor indication lamp which displays floor which car is commissioned.

The conventional in-car operating panel is configured as described above, and the service floor indicator S is forbidden to service the floor set by the timer circuit installed in the elevator control device or the service cut switch installed in the platform or in-car control panel. It is to inform the passengers of the floor.

This service layer indicator S is usually controlled to be turned on by circuits as shown in FIGS.

During the eighth, (+) is a DC constant power supply, S ₁ to S ₅ are service layer indicators of the first to fifth floors, D is a diode, and E ₁ and E ₂ are service cut switches (or timer contacts).

That is, when the ① switch E ₁ is closed, the service floor indicators S ₁ , S ₂ , S ₄ , and S _{5 of the} 1st, 2nd, 4th, and 5th floors light up. , The third floor is a non-service floor.

② When the switch (E ₂ ) is closed, the service floor indicators (S ₁ ), (S ₃ ), and (S ₅ ) on the 1st, 3rd, and 5th floors light up, and the 2nd and 4th floors are non-service floors. It is displayed.

(3) When the switches E ₁ and E ₂ are closed, the service floor indicators S ₁ to S _{5 of the first} to fifth floors light up, indicating that the entire floor is a service floor.

During the ninth time, (1) is a control device composed of a microcomputer (hereinafter referred to as a microcomputer), ( ₂ ) is connected to the switches E ₁ and (E ₂ ) to send these signals to the control device 1. The input device 3 is an output device for outputting the lighting data output from the control device 1 to the service floor indicators S ₁ to S ₅ . That is, when signals by the switches E ₁ and E ₂ are input to the control device 1, the signals are converted into lighting data based on the data table input in advance, so that the service layer indicators S ₁ to ˜. and it controls the light output or the like of the corresponding (S _5).

In the case of FIG. 8 of the conventional light control device of the elevator as described above, the lighting is controlled by switching the circuits of the service floor indicators S ₁ to S ₅ and the switches E ₁ and E ₂ . Therefore, there was a problem that it was necessary to change the wiring according to the specification of the building.

In addition, in the case 9 degrees, the service layer indicator _{(S 1) ~ (S 5} ) respectively, because so as to output a dedicated on Data Service layer indicator _{(S 1) ~ (S 5} ) dedicated interface on is required . In addition, when the mutual position of the destination floor button B and the service floor indicator S of FIG. 7 is changed, it is necessary to also change the wiring between an interface, a destination floor button B, and a service floor indicator S. FIG. Therefore, there is a problem in that it is difficult to unite parts and is complicated to prepare. The present invention has been invented to solve the above problems, it is not necessary to change the wiring according to the specifications of the building, or to prepare an interface dedicated to the service floor indicator light, the indicator of the elevator that can simplify the unity and preparation of parts Its purpose is to provide a control device.

According to the present invention, the response light and the service floor indicator are controlled by the lighting data, and the service layer indicator is regarded as the response lamp of the virtual layer other than the floor indicated by the destination floor button, and the lighting data is output.

In the present invention, since the service floor indicator is controlled by the response light of the virtual layer other than the floor corresponding to the destination floor button, the lighting is controlled by the output conversion. It is possible.

1 to 5 are diagrams of one embodiment of the present invention, in which FIG. 1 is an overall configuration diagram, FIG. 2 is a block circuit diagram, and FIG. 3 is a lamp used as a destination floor button and a response light or a service floor indicator in a car control panel. It is a figure which shows a layout and its number. 4 is a flowchart showing a signal conversion operation. 5 is an explanatory diagram of lighting data output. 7 is also shared with this embodiment. In the first step, reference numeral 11 denotes first input converting means for converting an input from the destination layer button B into destination layer data, and reference numeral 12 denotes a destination layer button from the first input converting means 11; Storage means for registering data, i.e., a call signal and outputting a call registration signal 12a, (13), second input converting means for converting an input from the service cut switch E into switch data, and (14). Is an output conversion means for converting the destination layer button data from the storage means 12 and the switch data from the second input conversion means 13 into lit data, the output of which is a response light C (service layer described later). Indicator light S is also regarded as response light C).

In addition, (1)-(24) corresponds to (1)-(24) of FIG. During the second, C ₁ to C ₁₂ are the response lights of the first to twelve floors, and S ₁ to S ₁₂ are the service indicators in the same way.

In this embodiment, twice as many stops, i.e., 12 stops, are handled by the in-cab operating panel corresponding to 24 stops as shown in FIG.

Next, the input / output conversion processing operation will be described with reference to FIG.

4 (a) is an operation for processing the input from the destination floor button B. In step 31, the address n of the destination floor button B is set to the variable ⓑ and the control device 1 in step 32. The layer N written at address n is read from the data table set in the ROM, and set in the variable ⓑ.

Thus, processing is performed as shown in the table below, and the destination layer button B at the address n is changed to the actual N layer.

[table]

The numerical value of the "next floor button address n" part is the batch number described in the baton arrangement explanation drawing of FIG. The destination floor button change data section displays the actual floor. That is, the buttons are developed in the "actual layer N" according to this table as in the address 7 → 001 layer and the address 8 → 002 layer. In addition, in this embodiment, Nos. 7 to 18 are buttons, and 1 to 6 and 19 to 24 are ignored.

4 (b) is an operation for processing the lighting data to the response light C. In step 41, the address m of the response light C to be turned on is set to the variable ⓒ and is set in the ROM in step 42. Read the lit data M written in the address m from the data table and set it to the variable ©. As a result, the data is processed as shown in the following table, and the lighting data of the response light C at the address m is changed into the response light data M. FIG.

[table]

"1" of the third digit of the data such as the response data 107 to 118 is extra. Therefore, the response data is 107 to 118 → (07 to 18).

For example, the lighting data M to the response light C ₁ of the first floor is "107", and the response light "7" of FIG. 3 is turned on.

In the same manner below, the response lights "7" to "18" light up.

The numerical value of the "response address m" part corresponds to the "actual layer N" recorded in the above table (1), and the numerical value of the "response data M" part corresponds to the batch number described in the button arrangement description of FIG. Corresponds to In other words, the button on the first floor → button 07 on the control panel, the button on the second floor → button 08 on the control panel, according to this table, "actual button on the floor N correspond to" the "button light arrangement of the operation panel Unfolds into. This embodiment is 12 stops, and since m = 13 or more does not have a button or the like, it is ignored in this table.

4 (c) is the operation of processing the lighting data to the response light C (service floor indicator S), and the address 1 of the response light C (service floor indicator S) to be turned on at step 51 is variable. The lighting data L written in the address l is read from the data table set in the ROM in step 52 and set in the variable ⓢ.

Thus, processing as shown in the following table changes the lighting data to the response light (service floor indicator S) of the address l to the response light data L. FIG.

The numerical value of the "service layer address L1" part corresponds to "actual layer N" described in the above table (1), and the numerical value of the response light data L (service layer indicator light S) part is the button of FIG. Corresponds to the batch number described in the batch description. That is, the service floor 1st floor → operation panel 01 button, the service floor 2nd floor → operation panel 02 button, the service floor 7th floor → operation panel 19 button, etc. The service floor indicator of "" is developed to the "button light arrangement" of the operation panel.

This embodiment is 12 stops, and since l = 13 or more does not have a button or the like, it is ignored in this table.

For example, the lighting data L to the response light (service floor indicator) S ₁ on the _first floor becomes "1", and the response light "1" in FIG. 3 lights up. In addition, the lighting data L to the response light (service floor indicator) S _{7 on} the _seventh floor becomes "19", and the response light "19" of FIG. The other is the same.

[Example]

When the destination floor button on the eleventh floor, that is, the button at the position of 17 in Fig. 3, is operated, the first input conversion means 11 displays the button address 17 according to the table of "The destination floor button address: destination button change data". It is recognized that the destination floor button is " 011 ", that is, the button on the eleventh floor, and transfers this button to the storage means 12.

Next, as an indication for answering the call on the eleventh floor, the data of "11" is sent to the output conversion means 14 as a response light address to light up the lamp on the eleventh floor, that is, the position 17 in FIG. "17" is selected as the response data by the "response light data" table, and the lamp at the position of 17 in FIG. 3 lights with the response light.

Next, in the case of displaying the service on the 11th floor, when the service cut switch on the 11th floor is inputted and recognized by the second input converting means 13, the output converting means 14 includes a "service layer address response, etc." Since the service layer address "11" on the 11th floor is recognized and output as "23" such as a response by the data table, as shown in the arrangement of FIG. 3, the "23" of the right side of "17", such as the response on the 11th floor, The lamp will light up and this will be the light serving the 11th floor.

Thus, by treating the service floor indicator S as one of the response lamp C of the destination floor button B, it is different from adding a dedicated interface of the service floor indicator S as in the prior art by changing the data table of the ROM of the control apparatus 1. The interface of the response light C can be used to realize the lighting of the service floor indicator S. The typical navigation floor button interface of the in-car operating panel is standardized to cope with the stratification change up to a considerable number of stops, and it is considered to select the number of destination floor buttons B according to the building. Therefore, the number of destination floor buttons B in the car control panel is usually considered, so that preparation can be uniform.

FIG. 5 shows the arrangement of the destination floor button B (response lamps) B and the service floor S in FIG. 3 and the relationship between the response lamp data M and the response lamp data (service floor indicator lamp) L. FIG. will be.

That is, in FIG. 3, only one row of response lamps 1, 7, 13, 19, 2, 8, 14, 20, etc., shows the relationship between the response lamp data M and the service layer indicator data L. FIG.

However, data M and L are displayed as contact output. Conventionally, when the arrangement of the same arrangement as the fifth (a) diagram is applied to the position of a set of the destination floor button B and the service floor indicator S as the fifth (b) diagram, a change of wiring is necessary, In the example, since the lighting data is converted as shown in FIG. 5C, the parts can be unified without changing the wiring.

6 is a front view of the destination floor button B showing another embodiment of the present invention, which is composed of a double frame, the inner frame is the service layer indicator S and the outer frame is the response lamp C, and is exchanged as described above. Applicable

As described above, in the present invention, the service floor indicator is regarded as the response light of the virtual floor other than the floor corresponding to the destination floor button, and the lighting is controlled so that the correlation between the lighting output of the response light and the lighting output of the service floor indicator can be changed. It does not need to arrange an interface dedicated to the service floor display lamp, and it is effective to unify the parts and simplify the preparation.

Claims (2)

An elevator light control device having a destination floor button, a response light indicating that the destination floor button has been operated, and a service floor display light indicating a service floor of the elevator car, wherein the input from the destination floor button is routed. A first input conversion means for converting the floor button data, a storage means for registering the destination floor button data from the first input conversion means, and outputting a call registration signal, and a service cut for disabling the elevator car Second input conversion means for converting an input from the switch to switch data, destination layer button data from the storage means, and switch data from the second input conversion means are converted into lighting data to convert the lighting data. And an output converting means for supplying the response light. The light control device for an elevator according to claim 1, wherein a circuit of a destination floor button at least twice the number of stops of the elevator is provided.

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