JPH07136061A - Equipment operation controller - Google Patents

Abstract

PURPOSE:To allow an actual operation program to act as pseudo-operation program, by reading out the value of a pseudo-table as necessary information supplied from a sensor, while skipping the unnecessary procedure. CONSTITUTION:When lapsed time information as searching key is searched from a pseudo-table 113 memorized in an inside memory part 112, corresponding temperature information can be read out. A rice cooking switch 103 is pushed down, and after a prescribed time of lapse is reached, a mode register 110 is read out and judged, and in case of the actual operation mode, the electric conduction rate of a rice cooking heater 105 is reduced. While, in case of the pseudo-operation mode, the mode register 110 is read out again and judged, without controlling the electric conduction of the rice cooking heater 105 through skip. In the actual operation mode, the temperature information is detected from a temperature sensor 104, while, in the pseudo-operation mode, the time of lapse is detected from a timer 111, and the temperature information is read out from the pseudo-table 113, having the lapse time as searching key, and when the cooking-up temperature is reached, the timer 111 is put into time-up.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a device operation control device having an actual operation program for actually operating the device appropriately based on a detection value of a sensor provided in the device.

[0002]

2. Description of the Related Art In this type of equipment, such as a rice cooker and a washing machine, it is often difficult to actually operate the equipment to demonstrate it to the customer when selling the equipment at a store. For this reason, the device operation control device of these devices can be switched between two modes of the actual operation mode and the pseudo operation mode, and is operated in the pseudo mode at the time of the demonstration at the store.
Here, the actual operation means that when the device is a rice cooker, the heater is actually energized to cook the rice, and the pseudo operation is
It means that the heater is not energized and the time-dependent change of the cooked rice state is imitated and shown.

Conventionally, as this kind of equipment operation control device,
For example, there is one disclosed in Japanese Examined Patent Publication No. 3-13885. It comprises an internal storage unit, an input / output unit, a central processing unit, and a mode register. The internal storage unit stores an actual operation program and a pseudo operation program. The actual operation program shows the processing procedure of the actual operation, and the pseudo operation program shows the processing procedure of the pseudo operation. The input / output unit receives instructions and information from the outside and gives control instructions to the outside. The central processing unit executes the actual operation program or the pseudo operation program in the internal storage unit according to the instruction received by the input / output unit. The mode register is used to specify whether the central processing unit is to execute the actual operation program or the pseudo operation program. In terms of hardware, the operator selects the switch mounted on the outer surface of the device. To do.

[0004]

However, in the above-mentioned conventional one, if the pseudo operation program is made to correspond its processing procedure to that of the actual operation program as much as possible to minimize the difference from the actual operation, The volume is comparable to that of the operating program, and therefore the internal storage unit requires a memory capacity that is twice as large as that of the actual operating program. On the contrary, if the volume of the pseudo operation program is suppressed so as not to increase in order to suppress the memory capacity required for the internal storage unit, there is a problem that the difference from the actual operation increases. Further, since the pseudo operation program is developed separately from the actual operation program, there is a risk of inconsistency such as, for example, processing that does not occur in the actual operation, or the actual operation and the processing order are different.

In view of the above-mentioned problems, the present invention can minimize the difference between the simulated operation and the actual operation, while keeping the required memory capacity of the internal storage unit small, and further, in the simulated operation program and the actual operation program. An object of the present invention is to provide a device operation control device that makes it difficult for inconsistencies in operation to occur.

[0006]

In order to achieve the above object, the equipment operation control apparatus of the present invention is an actual operation program for actually operating the equipment appropriately based on a detection value of a sensor provided in the equipment. A device operation control device having a mode switching means capable of switching from an actual operation mode to a simulated operation mode for simulating, and, when the operation mode is switched to the pseudo operation mode, a time is turned on to start from a predetermined time point. A timer means for measuring an elapsed time, a pseudo table showing a relation between the elapsed time and a detection value in the actual operation mode of the sensor, and the pseudo table for the elapsed time obtained from the timer means when switching to the pseudo operation mode. Information is read out, and the actual operation program is executed using the read information instead of the detection value of the sensor. A program executing means in the pseudo operation mode, and a skip means, which is incorporated in the actual operation program when the mode is switched to the pseudo operation mode, but skips a portion corresponding to an unnecessary operation in the pseudo operation mode, It is characterized by having

[0007]

According to the above configuration, when the actual operation mode is selected, the actual operation program is executed as it is, and the device is actually operated based on the detected value from the sensor. Further, even when the pseudo operation mode is selected, the actual operation program is executed, but the skip means skips the execution of only the part of the actual operation program that corresponds to the process that can be the actual operation. As for the information from the sensor, the program execution means reads the elapsed time after the actual operation from the timer means, reads the information of the pseudo table for this elapsed time, and replaces it with the detection value of the sensor. use.

[0008]

【Example】

(Embodiment 1) FIG. 1 is a block diagram of a device operation control device 101 used in a rice cooker, as an embodiment of the present invention.
Functional unit 1 of rice cooker controlled by device operation control device 101
02 is shown.

The function section 102 comprises a rice cooking switch 103, a temperature sensor 104, a rice cooking heater 105, a mode changeover switch 106, and a display means 107. The rice cooking switch 103 is a push switch for starting rice cooking. When the switch is pushed, a circuit (not shown) for detecting a switch is closed, and when the switch is not pushed, the circuit is opened. The device operation control device 101 can detect whether the rice cooking switch 103 is pressed. The temperature sensor 104 is composed of a thermistor, which is a temperature-sensitive resistance element, and is attached to the center of the outer bottom of the inner pot of the rice cooker. The resistance value according to the temperature of the bottom of the inner pot is used as a signal. Output. Since the temperature of the bottom of the inner pot has a corresponding relationship with the food to be cooked in the inner pot, the output signal is a signal indicating temperature information.

The rice cooking heater 105 is arranged at the outer bottom of the inner pot, and the rice cooking heater 105 includes the rice cooking heater 10.
An adjusting device (not shown) for adjusting the duty ratio by adjusting the voltage between terminals of 5 is attached, and this adjusting device is controlled by a signal from the device operation control device 101. The mode changeover switch 106 is an alternative switch for selecting one of two modes, an actual operation mode and a pseudo operation mode, which is attached to the outer surface of the rice cooker so that the operator can directly change the mode. It has become. Further, this mode changeover switch 106 is provided with a circuit (not shown) for detecting a switch, like the above-mentioned push-down switch, so that the equipment operation control device 101 can detect the actual operation mode or the pseudo operation mode. Has become.

The display means 107, as shown in FIG.
It is composed of the indications of "Cooking", "Murashi", and "Heat retention", and an indicator placed below each indication. Each of the indicators is composed of a light emitting diode, and the light emitting diode is controlled to blink by a voltage signal output from the device operation control device 101. Device operation control device 10
1 includes an input / output unit 108, a central processing unit 109, a mode register 110, a timer 111, and an internal storage unit 112.

The input / output unit 108, the central processing unit 109, and the mode register 110 are the same as those in the prior art, and therefore their explanations are omitted. The timer 111 includes a clock generation unit (not shown) and a counter (not shown), and the control unit receives a signal from the central processing unit 109 and counts the pulses of the clock generation unit to generate a time information signal and the central processing unit. Output to 109.

The internal storage unit 112 has a pseudo table 113.
And the program 114 are stored. Pseudo table 11
3 is the elapsed time and the temperature sensor 10 provided in the rice cooker
4 shows the relation with the information obtained by using the temperature information of 4.
An example is shown in FIG. As shown in the figure, it is composed of two columns of "elapsed time" and "temperature information", and the elapsed time and the temperature information are stored in one correspondence with each address. Therefore, when the information of the elapsed time is used as a search key and the search is performed, the temperature information corresponding to the search can be read.

The program 114 replaces the procedure of actually operating the rice cooker based on the temperature information of the temperature sensor 104 and the temperature information of the temperature sensor 104, and substitutes the pseudo table 113.
It has a procedure based on the temperature information of. 5 to 7 show flowcharts of the operation of the rice cooker based on the program 114. In addition, this flowchart is controlled according to a graph showing the energization rate of the rice cooking heater 105 during cooking. The graph is shown in the lower part of FIG. That is, this graph shows that a certain time (T
Up to 1), the duty factor of the rice cooking heater 105 is set to 100%, and then the duty factor is lowered, and when the temperature sensor 104 detects the cooked temperature (indicating that the cooked rice is completed), it is predetermined from that point. Until the time (T2), the rice-cooking heater 105 is stopped (showing purple), and thereafter,
The rice cooking heater 105 is energized at a low energization rate (indicating heat retention). The upper graph of FIG. 4 represents the temperature information expected to be detected by the temperature sensor 104 when the rice heating heater 105 is energized according to the lower graph described above.

First, waiting for the rice cooking switch 103 to be pressed (S101), when detecting that the rice cooking switch 103 is pressed, the timer is timed on (S1).
02), it is detected whether the mode changeover switch 106 is selected in the actual operation mode or the pseudo operation mode (S103). If the actual operation mode is selected, "0" is stored in the mode register 110 (S104), and if the pseudo operation mode is selected,
“1” is stored in the mode register 110 (S10
5). Then, the display device arranged below the "during cooking" on the display means 107 is turned on (S106).

Next, the contents stored in the mode register 110 are read out, and if "0", it is determined to be the actual operation mode, and if "1", it is determined to be the pseudo operation mode (S1).
07). If it is determined to be the actual operation mode, the rice cooking heater 10
5 is energized for the maximum amount (S108). On the other hand, if it is determined that the operation mode is the pseudo operation mode, S108 is skipped, that is, the rice heating heater 105 is not energized and the process proceeds to S109. Next, if the elapsed time after pressing the rice cooking switch 103 reaches a predetermined elapsed time T1 (S10
9), the mode register 110 is read out and determined, and if it is the actual operation mode, the energization rate of the rice cooking heater 105 is lowered (S1).
11) On the other hand, in the pseudo operation mode, S111 is skipped, that is, while the energization of the rice cooking heater 105 is stopped without controlling the energization, the process proceeds to S112. Next, the mode register 110 is read again and determined, and if it is the actual operation mode, temperature information is detected from the temperature sensor 104 (S11).
3) On the other hand, in the pseudo operation mode, the elapsed time is detected from the timer 111 (S114), and the temperature information is read from the pseudo table 113 using this elapsed time as a search key (S115).

If the temperature information detected by the temperature sensor 104 or read from the pseudo table 113 reaches a predetermined cooking temperature (S116), the timer 111 is set.
And time on again (S11
7). Next, the mode register 110 is read and discriminated, and the energization of the rice cooking heater 105 is stopped in the actual operation mode (S119), while S119 is skipped in the pseudo operation mode, that is, the energization of the rice cooking heater 105 is controlled. Without stopping, the process proceeds to S120.

Next, the display unit arranged below the "during cooking" of the display means 107 is stopped, and the display unit arranged below the "Murashi" is turned on (S120) to display the temperature. If the predetermined time T2 has elapsed after the information reaches the cooked temperature (S121), the mode register 110 is read and determined, and in the actual operation mode, the rice cooking heater 105 is energized at a low duty ratio (S123), while the pseudo operation is performed. If it is the mode, S123 is skipped, that is, while the energization of the rice cooking heater 105 is stopped without controlling the energization, the process proceeds to S124.

Next, the display unit arranged below "Murashi" of the display means 107 is stopped, and the display unit arranged below "Heat retention" is turned on (S124). As described above, the rice cooker can be caused to perform the actual operation and the pseudo operation by one program. (Embodiment 2) FIG. 8 is a block diagram of an equipment operation control device 201 used in a washing machine, as an embodiment of the present invention.
Functional unit 2 of the washing machine controlled by the equipment operation control device 201
02 is shown.

The function section 202 includes a washing start switch 21.
3, water level sensor 214, rotary motor 215, water injection solenoid valve 216, drainage solenoid valve 217, mode selector switch 2
18, a display unit 219, and a buzzer 220.
The washing start switch 213 is a push switch for starting washing, and is provided with a switch detection circuit (not shown) similar to the rice cooking switch 103 of the first embodiment, and the machine operation control device 201 causes the washing start switch 213 to operate. It is possible to detect whether or not is pressed.

The water level sensor 214 is of the electrostatic capacitance type which utilizes the dielectric constant of a normal liquid, and outputs the water level in the washing tub as a signal, and the rotary motor 215 has a built-in circuit (not shown). ) To switch between right rotation and left rotation. The rotary motor 215 is interlocked with a pulsator (water flow generation blade) attached to the bottom of the washing tub, and further receives an output signal from the device operation control device 201 to energize, stop, or stop the rotary motor 215. A control unit (not shown) that controls switching of the rotation direction is attached. The water injection solenoid valve 216 is provided in the middle of a pipe line that leads from the water supply source to the upper side of the washing tub, and can open and close to supply water and stop it. The water injection solenoid valve 216 is adapted to be opened and closed by turning on and off the attached relay switch. The relay switch is controlled by the output signal of the device operation control device 201. The drainage electromagnetic valve 217 is provided in the middle of a pipeline connecting the bottom of the washing tub to the external drainage channel, and can be opened and closed to drain water from the washing tub and stop it. Further, the drainage solenoid valve 217 is provided with a relay switch for opening and closing the valve, similarly to the water injection solenoid valve 216, and is controlled by an output signal of the device operation control device 201.

The mode changeover switch 218 is the same as that of the first embodiment, so its explanation is omitted. The display unit 219 includes a liquid crystal display, a storage unit (not shown) that stores image data to be displayed on the liquid crystal display, the liquid crystal display, and a control unit (not shown) that controls the storage unit. FIG. 9 shows an image displayed on the liquid crystal display according to the data of the liquid crystal display and the storage unit.

There are seven image pictures in total, and the number 1 in the figure shows the state in which water is being poured into the washing tub, and the number 2 shows the completed state of water injection. The number 3 represents the pulsator and water in the washing tub.
When the washing tub is viewed from above, it represents a state of rotating to the right, number 4 represents a state in which they are stopped, number 5 represents a state in which they are rotating to the left, The number 6 represents a state in which the water in the washing tub is being drained, and the number 7 represents a state in which the drainage is completed. Note that the same image is used for the image images “No. 2 and No. 4.” The control unit is controlled by a signal from the central processing unit 109 to select the type of image image and output the image image to the liquid crystal display. The buzzer 220 rings for a certain period of time in response to a signal from the device operation control device 201.

The equipment operation control device 201 includes an input / output unit 20.
6, a central processing unit 207, a mode register 208, a timer 209, and an internal storage unit 210. Input / output unit 20
6, the central processing unit 207, the mode register 208, and the timer 209 are the same as those in the first embodiment, and therefore their explanations are omitted. The internal storage unit 210 also stores the pseudo table 211 and the program 212 similar to those in the first embodiment.
FIG. 10 shows the contents of the pseudo table 211. As can be seen from this figure, the difference from the first embodiment is that the pseudo table 211 is related to the temperature sensor in relation to the temperature sensor, and in accordance with this, the program 212 may operate the equipment. , Not from the temperature sensor, but from the water level sensor.

12 to 15 show the program 212.
3 shows a flowchart of the operation of the device based on the above. In addition,
This flowchart is controlled according to the washing process shown in FIG. That is, in FIG. 11, the washing process is shown in the upper part, and the water level sensor, the electromagnetic water injection valve, the electromagnetic drain valve, and the lower part are shown in the lower part.
The rotation motor and the elapsed time from the start of the operation of each process are shown, and the control states thereof in each of the upper steps are also shown. Specifically, when the process is water injection, only the electromagnetic water injection valve is open, and when the predetermined water level H1 is reached,
When the process shifts to washing, the rotary motor is rotated rightward and leftward for a predetermined time T4 while the rotation motor rotation stop interval T3 is interposed, and when the process enters drainage, only the electromagnetic drain valve is opened to drain water. When the water level becomes “0”, the washing process is completed.

First, when it is detected that the washing start switch 213 is pressed (S201), it is detected whether the mode changeover switch 106 is selected in the actual operation mode or the pseudo operation mode (S202), and the actual operation is detected. When the operation mode is selected, "0" is stored in the mode register 208 (S203), and when the pseudo operation mode is selected, "1" is stored in the mode register 208 and the timer 209 is timed on. (S20
4). Then, the image image of "water injection" with number 1 is displayed on the liquid crystal display of the display means 219 (S20).
5). Next, the contents of the mode register 208 are read out, and if "0", it is determined that the actual operation mode is selected, and if "1", it is determined that the pseudo operation mode is selected (S206). . If it is determined that the selected one is the actual operation mode, the water injection solenoid valve 216 is opened to start water injection (S207), while it is determined that the selected one is the pseudo operation mode. If so, S2
07 is skipped, that is, the water injection solenoid valve 216 is not opened and the process proceeds to S208.

Next, the mode register 208 is read and discriminated. In the actual operation mode, the water level sensor 214 detects water level information (S209), and in the pseudo operation mode, the elapsed time is detected from the timer 209 (S210). Water level information is read from the pseudo table 211 using the elapsed time as a search key (S211). When the water level sensor 214 detects or the water level information read from the pseudo table 211 reaches a predetermined water level H1 (S212), the display unit 2
On the liquid crystal display of 19, the image of "water injection" of number 1 is changed to the image of "water injection completed" of number 2 (S213), and after the timer 209 is timed up, the timer 209 is timed on again. Yes (S21
4). Next, the elapsed time is detected from the timer 209,
When the predetermined time T3 has passed (S215), the mode register 208 is read and discriminated, and in the actual operation mode, the pulsator is rotated to the right (S217). On the other hand, in the pseudo operation mode, S217 is skipped, that is, the pulsator. The process proceeds to S218 without rotating. Thereafter, the liquid crystal display of the display means 219 is changed to the image image of "water injection completed" of No. 2 and the image image of "right rotation" of No. 3 is displayed (S218).

Next, after the timer 209 is timed up, the timer 209 is timed on again (S21).
9). After that, when the predetermined time T4 elapses (S22
0), the mode register 208 is read and determined, and if it is the actual operation mode, the rotation of the pulsator is stopped (S22).
2) In the pseudo operation mode, S222 is skipped, that is, the pulsator is stopped, and the process proceeds to S223. On the liquid crystal display of the display means 219, the image image of "right rotation" of number 3 is changed to the image image of "stop" of number 4 (S223). After the timer 209 is timed up, the timer is timed on again (S2
24). After that, when the predetermined time T3 has elapsed (S22
5) When the mode register 208 is read and determined, in the actual operation mode, the rotary motor 215 is rotated to the left (S227), and in the pseudo operation mode, S227 is skipped, that is, while the rotation of the pulsator is stopped, S22
Go to 8. Next, on the liquid crystal display of the display unit 219, the image image of "stop" of No. 4 is displayed, and the image image of "counterclockwise rotation" of No. 5 is displayed (S228).
After the timer 09 is timed up, the timer is timed on again (S229).

After that, when the predetermined time T4 elapses (S2
30), the mode register 208 is read and determined, and if it is the actual operation mode, the rotation of the pulsator is stopped (S23).
2) In the pseudo operation mode, S232 is skipped, that is, the rotation of the pulsator is stopped, and the process proceeds to S233. Next, the number 5 is displayed on the liquid crystal display of the display means 219.
Change to the image of "Left rotation" of No.4, "Stop"
Is displayed (S233), the timer 209 is timed up, and then the timer 209 is timed on again (S234). After that, when the predetermined time T3 has passed (S225), the mode register 208 is read and discriminated. In the actual operation mode, the drainage electromagnetic valve 217 is opened to start draining (S237), and in the pseudo operation mode, S237 is skipped. That is, the process proceeds to S238 without opening the drainage solenoid valve 217.

Next, the liquid crystal display of the display means 219 replaces the image image of "stop" with the number 4 and displays the image image of "draining" with the number 6 (S238). Then, the mode register 208 is read and discriminated, and in the actual operation mode, the water level sensor 214 detects water level information (S240), and in the pseudo operation mode, the elapsed time is detected from the timer 209 (S241), and this elapsed time is searched. Water level information is read from the pseudo table 211 as a key (S242).

If the water level information detected by the water level sensor 214 or read out from the pseudo table 211 is "0" (S243), the liquid crystal display of the display means 219 is changed to the image image of "draining" of number 6. To turn on the display of the image image of “Drainage completed” of No. 7 (S24
4) The buzzer 220 is sounded (S245), and the washing process is completed.

If the washing time cannot be estimated in advance,
The pseudo table may be configured as shown in FIG. That is, as shown in FIG. 16, a pseudo table at the time of water injection and a pseudo table at the time of drainage are provided, and a selection register indicating which of the above two pseudo tables should be used and a start time register Is further provided. By doing so, in the above-mentioned flowchart, when the water injection of S207 is started, "water injection" is set in the selection register and the time elapsed since the pressing of the selection start switch is detected is stored in the start time register. . S237
When the drainage of the selection start switch is started, “drainage” is set in the selection register, and the time elapsed since the pressing of the selection start switch is detected is stored in the start time register. When reading the water level information from the pseudo table, if the selection register is “water injection”, the pseudo table for water injection is used, and if the selection register is “drainage”, the pseudo table for water discharge is used. Then, only the value stored in the start time register is subtracted and corrected, and the value is read from the pseudo table.

In the first and second embodiments, the device is a rice cooker,
Although the washing machine has been described as an example, the present invention is not limited to this, and household appliances such as a vacuum cleaner and a dishwasher can also be used, for example. Further, although a display is adopted for the display means, a still image or a moving image may be used, and an identification sound may be generated together with the image. As described above, one program can cause the washing machine to perform the actual operation and the pseudo operation.

Although the image displayed on the liquid crystal display of the display unit 219 is a still image in the embodiment, the present invention is not limited to this, and may be a moving image, for example. Further, although not performed in the embodiment, various sounds may be output according to the washing condition. For example, if water is being poured into the washing tub, a "jar" sound is made to make the image of the water filling.

[0035]

As described above, the actual operation program reads the value of the pseudo table for the necessary information from the sensor, and skips the unnecessary procedure, so that the actual operation program acts as the pseudo operation program. I am doing it. Therefore, create both programs separately,
When compared with the stored one, the volume of the entire program can be reduced, an internal storage unit, for example, a ROM having a small memory capacity can be used, and economic efficiency can be improved. Furthermore, since the actual operation program is mainly used, it is possible to reduce the number of steps different from the actual operation in the processing procedure of the pseudo operation program.

[Brief description of drawings]

FIG. 1 shows a block diagram of a device operation control apparatus according to the present invention.

FIG. 2 is a diagram showing a display unit.

FIG. 3 is a diagram showing a pseudo table.

FIG. 4 is a graph showing a duty ratio of a rice cooking heater and temperature information of a temperature sensor over time.

FIG. 5 is a flowchart showing the operation of the device operation control device according to the present invention.

FIG. 6 is a flowchart showing the operation of the device operation control device according to the present invention.

FIG. 7 is a flowchart showing the operation of the device operation control device according to the present invention.

FIG. 8 shows a block diagram of a device operation control apparatus according to the present invention.

FIG. 9 is a diagram showing display means.

FIG. 10 is a diagram showing a pseudo table.

FIG. 11 is a diagram showing the movement of each part with respect to the washing process.

FIG. 12 is a flowchart showing the operation of the device operation control apparatus according to the present invention.

FIG. 13 is a flowchart showing the operation of the device operation control device according to the present invention.

FIG. 14 is a flowchart showing the operation of the device operation control device according to the present invention.

FIG. 15 is a flowchart showing the operation of the device operation control device according to the present invention.

FIG. 16 is a diagram showing a pseudo table.

[Explanation of symbols]

 101 device operation control device 102 functional unit 103 rice cooking switch 104 temperature sensor 105 rice cooking heater 106 mode change switch 107 display means 108 input / output unit 109 central processing unit 110 mode register 111 timer 112 internal storage unit 113 pseudo table 114 program 201 device operation control Device 202 Function unit 206 Input / output unit 207 Central processing unit 208 Mode register 209 Timer 210 Internal storage unit 211 Pseudo table 212 Program 213 Washing start switch 214 Water level sensor 215 Rotation motor 216 Water injection solenoid valve 217 Drainage solenoid valve 218 Mode changeover switch 219 Display Means 220 buzzer

Claims (3)

[Claims] 1. A device operation control device having an actual operation program for actually operating the device appropriately based on a detection value of a sensor provided in the device, the simulated operation simulating from an actual operation mode. Mode switching means for enabling switching to a mode, timer means for measuring the elapsed time from a predetermined time point when switched to the pseudo operation mode, detection of the elapsed time and the actual operation mode of the sensor Pseudo table showing the relation with the value, When switching to the pseudo operation mode, the information of the pseudo table for the elapsed time obtained from the timer means is read, and the read information is replaced with the detected value of the sensor. Program execution means in the pseudo operation mode to execute the actual operation program using If, although the incorporated within the program to the actual operation program, and skip means for skipping a portion corresponding to the operation is not required in the pseudo operation mode, device operation control apparatus characterized by comprising a. 2. The device is a rice cooker, and the contents of the pseudo table correspond to the temperature information of the temperature sensor that will rise when the rice cooker actually operates and the elapsed time at that time. The device operation control device according to claim 1, which is stored. 3. The device is a washing machine, and the contents of the pseudo table correspond to the water level information of the water level sensor that may change when the washing machine actually operates and the elapsed time at that time. It is something which is remembered.
The equipment operation control device according to.