JPH0250593B2 - - Google Patents

Description

[Detailed description of the invention]

[Industrial Application Field] The present invention relates to a lighting control device that centrally controls lighting devices placed in a building, and particularly relates to a lighting control device that centrally controls lighting devices placed in a building.
The present invention relates to a lighting control device that realizes optimal lighting conditions in conjunction with the presence of people. [Conventional technology] In recent years, in order to eliminate unnecessary lighting from an energy-saving perspective, intensive techniques such as manual lighting control, time-based control, patterned control by grouping lighting circuits, and daylight utilization control have been developed. In recent years, lighting devices that flicker or dim are becoming more common. For example, as shown in Japanese Patent Application Laid-Open No. 56-139035, a main unit has a storage unit that stores time control data for a lighting device, and a timekeeping unit that outputs time data regarding the day of the week, hour, and minute. There is a known device that performs blinking and dimming control of a plurality of lighting devices via a terminal device based on a time schedule from a parent device. That is, when used in a store, the lighting conditions are set according to opening preparation time, quiet time, crowded time, closing time, etc., and control is performed by setting a time schedule. [Problem to be solved by the invention] However, in the case of such a thing, when the time to be controlled such as opening preparation time and closing time and the situation inside the store are clearly known, appropriate lighting conditions can be set. However, in cases where the control time cannot be clearly determined, such as during off-peak hours or during busy times, it is determined based on experience that it is possible to suddenly control during off-peak hours, which is set to reduce the overall illuminance. This caused problems such as crowding, resulting in insufficient lighting conditions, or situations where the overall illuminance was set to be high, but at times of congestion, the number of people was small, resulting in lighting conditions that were higher than necessary. . In addition, depending on the day, the locations where people gather, such as special sale corners, often differ, making it difficult to maintain lighting at an appropriate level of illumination at all times, and also tending to be insufficient in terms of energy conservation. . In addition, as shown in Japanese Patent Application Laid-Open No. 165998/1983, a detection device that detects a person or the movement of a person and controls a lighting device is used, and when this detection device detects a person, the corresponding lighting It is known to light up devices. However, with devices configured in this way, the corresponding detection device and lighting device are directly connected by wiring, so when changing the partitions in a store, etc., the detection device and lighting device must be connected. Even when changing the combination with the above, a problem arises in that large-scale wiring changes are required. This invention has been made in view of the above-mentioned points, and an object thereof is to obtain a lighting control device that can realize an optimal lighting state according to the environment and the presence of people by simple operation in a group of lighting devices that are controlled to blink. With the goal. [Means for Solving the Problems] A lighting control device according to the present invention includes a detection device group that detects a person or a movement of the person and outputs a detection signal, a detection device group and a lighting device group connected to each other, and the above-mentioned lighting control device. a terminal device receiving detection signals from the detection device group and controlling at least blinking of the lighting device group;
and a lighting control device comprising a main operation panel that inputs the detection signals etc. from these terminal devices and outputs control signals for the lighting device group to the terminal device, wherein the main operation panel is connected to the detection device group. an input device for inputting registration data including combination data of the presence/absence of the detection signal of each detection device and control data indicating at least a blinking state of a group of lighting devices according to this combination; and a registration input by this input device. The result of comparing the detection device correspondence storage unit that stores data, the presence or absence of a detection signal sent back via the terminal from each of the above-mentioned detection devices, and the combination data of the registered data stored in the detection device correspondence storage unit. The communication processing unit includes an arithmetic processing unit that issues control data according to the arithmetic processing unit, and a communication processing unit that transmits the control data from the arithmetic processing unit as a transmission data signal to the terminal device. In the lighting control device according to another aspect of the present invention, in the lighting control device of the above-mentioned invention, the lighting device group can be continuously dimmed, and the terminal device can control the lighting device group to blink or blink.
Blinking/dimming of a group of lighting devices, which performs dimming control, in accordance with the combination of control data stored in the detection device correspondence storage section of the main operation panel and combination data of presence/absence of detection signals stored together with the control data. The data issued from the arithmetic processing unit is combined with the presence or absence of a detection signal sent back from each detection device via the terminal device and the registered data stored in the detection device correspondence storage unit. Data indicating the current lighting state stored in the lighting device control state storage unit is processed based on the control data corresponding to the matched combination data. [Function] The lighting control device according to the present invention stores combination data indicating the combination of presence/absence of a detection signal of each detection device in the detection device correspondence storage section of the main operation panel, and the blinking state of the lighting device according to this combination. The control data shown is stored in advance as registered data, and the combination data stored in the detection device correspondence storage section and the detection actually detected by each detection device and sent back via the terminal device are stored in advance as registration data. The presence or absence of the signal is compared by the arithmetic processing section of the main operation panel, and the control data according to the matched combination is sent to each terminal device by the communication processing section.
Each lighting device is controlled to flicker to a predetermined optimal lighting state depending on the presence or absence of a person. The lighting control device in this separate invention stores combination data indicating combinations of detection signal presence/absence of each detection device in a detection device correspondence storage section of the main operation panel, and blinks/adjusts the lighting device according to this combination. Control data indicating the light state is stored in advance as registered data, and the above combination data stored in the detection device correspondence storage section is actually detected by each detection device and sent back via the terminal device. The arithmetic processing section of the main operation panel compares the presence or absence of the detected signal, and the data indicating the current lighting state is arithmetic-processed based on the control data corresponding to the matching combination, and this arithmetic processing result data is sent to the communication processing section. The signal is sent to each terminal device, and each lighting device is controlled to flicker and dim to a predetermined optimal lighting state depending on the presence or absence of a person. [Example] Hereinafter, an example of the present invention will be described based on the drawings. In Figure 1, numeral 1 is the main operation panel that performs various settings such as blinking and dimming the lighting, and executes signal transmission, and it communicates transmission data signals by multiplex transmission such as polling method or cyclic time division method. be. 3 is the signal transmission line 2 to this main operation panel.
Multiple terminals connected via a network, each with a unique address. 4
is a lighting device connected to the output terminals of these terminals 3, and receives a command from the main operation panel 1, for example, an address signal TA as shown in FIG. 2, and a plurality of lighting devices connected to one terminal 3. The blinking/dimming state is controlled by the terminal device 3 based on the transmission data signal including the blinking/dimming control signal TC and the return signal TB which returns information from the terminal device 3 to the main operation panel 1. be. 5a and 5b are remote control switches connected to the input terminals of the terminal device 3, and by operating the remote control switches, the terminal device 3
A remote information signal is transmitted to the main operation panel 1 through the main operation panel 1, and the main operation panel 1 determines whether the signal has been received and controls the corresponding lighting device. Reference numeral 6 denotes a detection device connected to the input terminal of the terminal device 3 for detecting the presence of a person, and transmits a detection signal to the main operation panel 1 via the terminal device 3. The lighting device 4 and the detection device 6 are arranged indoors for illumination as shown in FIG. 3, and 12 lighting devices 411 to 4 are arranged in 3 rows and 4 columns.
34 are arranged, and 15 detection devices 611 are installed between each lighting device so that the presence of a person can be detected over the entire area.
~653 are arranged. In addition, in FIG. 3, A11 to A53 indicate each detection device 611.
This shows the detection range detected by 653. Next, the main operation panel 1 will be explained in more detail with reference to FIG. FIG. 4 shows a block circuit diagram of the main operation panel 1. In the figure, 101 is an input device consisting of a key switch on which various settings and operations are performed, such as blinking and dimming of each lighting device 411 to 434. Registration data including control content data patterning the control state of , data indicating a time schedule, combination data of presence/absence of detection signals of each of the detection devices 611 to 653, and control data of the lighting devices 411 to 434 according to this combination;
This is for directly inputting data and the like for controlling blinking and dimming of each of the lighting devices 411 to 434. Reference numeral 102 indicates a timekeeping unit that outputs the current time every moment; 103 indicates a display unit that displays the time, the current lighting status of the lighting devices 411 to 434, etc.; 104
is a pattern storage unit that stores control content data in which the blinking/dimming control states of the lighting devices 411 to 434 are patterned for each specified number range, and the control content data is inputted by the input device 101. . Reference numeral 105 denotes a detection device correspondence storage unit that stores registration data of combination data of presence/absence of detection signals of each of the detection devices 611 to 653 and control data of the lighting devices 411 to 434 according to this combination; For example, the registration data is set as setting examples a to e shown in Table 1 below.

[Table] 106 is a time schedule that stores data indicating a time schedule, for example, data indicating an instruction to implement the control content data specified by the pattern number stored in the pattern storage unit 104 on which day of the week and at what minute. This data is input into the storage section using the input device 101. 107 is a lighting device control state storage unit that stores data indicating the current lighting states of the lighting devices 411 to 434;
8 is a transmission data storage unit that temporarily stores transmission data to the terminal device 3; 109 is a storage unit 106 for storing the current time and time schedule from the clock unit 102;
110 is a first arithmetic processing unit that extracts and outputs the control content data stored in the pattern storage unit 104 using the pattern number of the matched data when they match. The presence or absence of a detection signal sent back via the terminal device 3 from the detection devices 611 to 653 is compared with the combination data in the registered data stored in the detection device correspondence storage unit 105, and control is performed using control data that matches. A second arithmetic processing section 111 that outputs data receives the outputs from the first and second arithmetic processing sections 109 and 110 and outputs the predetermined data as a transmission data signal shown in FIG. 2 via the signal transmission line 2. A communication processing unit that sends data to the terminal device 3 includes the pattern storage unit 104, the detection device correspondence storage unit 105, the time schedule storage unit 106, the lighting device control state storage unit 107, the transmission data storage unit 108, and the 1
and second arithmetic processing units 109 and 110, which are composed of a microcomputer. Note that the operation of the second arithmetic processing section 110 is as follows.
The operation shown in the flowchart in the figure is performed. In other words, in step in FIG. 5, it is determined whether the detection signals from each of the detection devices 611 to 653 match the setting example of the combination of detection devices with no detection signal stored in the detection signal correspondence storage unit 105. do. If there is no match, the process proceeds to step and the data indicating the current lighting state stored in the lighting device control state storage section 107 is stored in the transmission data storage section 108. If there is a match, in step step the illumination state of the registered data stored in the matched detection signal correspondence relationship storage unit 105 and the illumination data of the current lighting state stored in the lighting device control state storage unit 107 are displayed. Compare with the state. If the lighting condition based on the registered data is brighter than the current lighting condition, the process proceeds to step 12 and transmits data indicating the current lighting condition to the data storage unit 10.
8 to be memorized. On the other hand, if it is dark, the process proceeds to step and the matched registration data is stored in the transmission data storage section 108. Next, in step, it is determined whether the detection signals from each of the detection devices 611 to 653 and the detection signals stored in the detection signal correspondence storage section 105 match the setting example of a certain combination of detection devices. If there is no match, the process proceeds to step and the data indicating the current lighting state stored in the lighting device control state storage section 107 is stored in the transmission data storage section 108. If there is a match, in step step the illumination state of the registered data stored in the matched detection signal correspondence relationship storage unit 105 and the illumination data of the current lighting state stored in the lighting device control state storage unit 107 are displayed. Compare with the state. If the lighting condition based on the registered data is darker than the current lighting condition, the process proceeds to step 100 and transmits data indicating the current lighting condition to the data storage unit 108.
to be memorized. On the other hand, if it is bright, the process proceeds to step and the matched registration data is stored in the transmission data storage section 108. The data in the transmission data storage unit 108 that has been arithmetic processed and stored in this manner is transferred to the communication processing unit 111 in steps. Next, the operation of the lighting control device configured as described above will be explained. First, the control content data is stored in the pattern storage unit 104 and the detection device correspondence relationship storage unit 10
5, and the time schedule storage unit 1.
Data indicating a time schedule is stored in 06 using the input device 101, respectively. Then, the pattern storage unit 104, the time scale unit 106,
A transmission data signal according to the time schedule is transmitted by the clock section 102 and the first arithmetic processing section 109 from the communication processing section 111 to the terminal device via the signal transmission line 2.
(3), each of the lighting devices 411 to 434 is controlled to blink and dim. Assume that each of the lighting devices 411 to 434 is controlled to blink and dim as shown in FIG. 6. Note that each lighting device 411 to 4
In 34, the blank area indicates the fully lit state, the shaded area indicates the dimming state, and the black area indicates the off state. In such a state, the detection range A of the detection device 611
When a person enters the room 11, the detection device 611 outputs a detection signal. This detection signal is
is sent back to the main operation panel 2 via the second arithmetic processing section 1.
At step 10, calculation processing is performed based on the flowchart shown in FIG. In other words, the detection device correspondence relationship storage unit 1
The registered data stored in 05, that is, the registered data based on the setting example of a shown in Table 1, is read out.
The control data in this registration data, that is, the data to dim the lighting device 411, is sent from the communication processing unit 111 as a transmission data signal to the terminal device 3.
The lighting device 411 is controlled to be in a dimming state as shown in FIG. Furthermore, if there are no people near the lighting devices 422 and 423 when the lighting devices 411 to 434 are in the control state shown in FIG. 6, for example, there is no detection signal from the detection device 632 corresponding to the detection range A32. ,
Since there is no detection signal input from the detection device 632 to the main operation panel 2, the second arithmetic processing unit 110
Calculation processing is performed based on the flowchart shown in the figure.
The lighting devices 422 and 423 are controlled from a fully lit state to a dimmed state. In other words, the registered data based on the setting example b shown in Table 1 is read out from the detection device correspondence storage section 105 by the second arithmetic processing section 110, and the control data in this registered data is sent as the transmission data signal from the communication processing section 111. as shown in FIG.
2,423 will be controlled to a dimming state. Furthermore, when each of the lighting devices 411 to 434 is in the lighting control state shown in FIG. 6, there are people in the detection ranges A22 and A31 as shown in FIG. 9, and there are no people in the other detection ranges. do. Then, detection signals are output from the detection devices 622 and 631, and no detection signals are output from the other detection devices. These detection devices 611 to 653
The presence/absence status of the detection signal is sent back to the main operation panel 2, and is subjected to calculation processing in the second calculation processing section 110 based on the flowchart shown in FIG. As a result, the lighting device 411 changes from an off state to a dimmed state, the lighting device 413 changes from a dimmed state to a fully lit state, the lighting device 421 changes from a dimmed state to a fully lit state, and the lighting device 421 changes from a dimmed state to a fully lit state.
31 and 433 are respectively controlled from a fully lit state to a dimmed state. This means that the registered data based on the setting example c, the registered data based on the setting example d, and the registered data based on the setting example e shown in Table 1 are stored in the second
The control data in these registered data is read out by the arithmetic processing unit and sent from the communication processing unit 111 to the terminal device 3 as a transmission data signal.
As shown in the figure, each lighting device 411, 413, 42
1,431,433 will be controlled to light up. Note that although the registration data based on the setting example b shown in Table 1 is once read out from the detection device correspondence storage unit 105 by the second arithmetic processing unit 110, the first
Since the lighting state based on the registered data based on the setting example c shown in the table is brighter, the lighting control based on the registered data based on the setting example b is not performed. Next, another embodiment of the invention will be described. Each of the lighting devices 411 to 434 is, for example, a continuously dimmable lighting device consisting of a combination of a semiconductor ballast and a fluorescent lamp, and the operation of the second arithmetic processing unit 110 is based on the flowchart shown in FIG. did. In addition, the registered data stored in the detection signal correspondence storage section 105 includes, for example, setting examples f to h shown in Table 2 below.

【table】

[Table] Other structural requirements are the same as those of the above embodiment. The calculation operation of the second calculation processing section 110 will be explained below. In step 10 in FIG. 10, it is determined whether the detection signals from each of the detection devices 611 to 653 match the setting example of the combination of detection devices without detection signals stored in the detection signal correspondence storage unit 105. . If there is no match, the process proceeds to step and the data indicating the current lighting state stored in the lighting device control state storage section 107 is stored in the transmission data storage section 108. If there is a match, the data indicating the current lighting state stored in the lighting device control state storage unit 107 is retrieved based on the control data in the registration data stored in the matching detection signal correspondence storage unit 105 in step. In the step of performing arithmetic processing, the illumination state resulting from the arithmetic processing is compared with the illumination state of the data indicating the current lighting state stored in the lighting device control state storage section 107. If the illumination state based on the arithmetic processing result is brighter than the current lighting state, the process proceeds to step and data indicating the current lighting state is stored in the transmission data storage unit 108. On the other hand, if it is dark, the process proceeds to step and the data of the arithmetic processing effect is stored in the transmission data storage section 108. Next, in step, it is determined whether the detection signals from each of the detection devices 611 to 653 and the detection signals stored in the detection signal correspondence storage section 105 match the setting example of a certain combination of detection devices. If there is no match, the process proceeds to step and the data indicating the current lighting state stored in the lighting device control state storage section 107 is stored in the transmission data storage section. If there is a match, the illumination device control state storage unit 107 uses the control data in the registered data stored in the matched detection signal correspondence relationship storage unit 105 in step
The data indicating the current lighting state stored in the lighting device control state storage unit 107 is calculated and the lighting state based on the processing result and the lighting state of the data showing the current lighting state stored in the lighting device control state storage unit 107 are calculated. compare. If the illumination state based on the arithmetic processing result is darker than the current lighting state, the process proceeds to step and data indicating the current lighting state is stored in the transmission data storage section 108. On the other hand, if it is bright, the process proceeds to step X and the data resulting from the above calculation process is stored in the transmission data storage section 108. Transmission data storage unit 108 that has been arithmetic processed and recorded in this way
The data is transferred to the communication processing section 111 in step XI. In addition, if the calculation result exceeds 100% in a step or a step, it will be
% and 0%, in other words, when performing an increase operation on the unlit state, for example, when +20%, that is the operation result, and when performing a decrease operation on 0%, 0% is used as the operation result. This is the result of the arithmetic processing. Next, the operation of the lighting control device configured as described above will be explained mainly regarding the control operation in the presence of a person. Assume that each of the lighting devices 411 to 434 is controlled to blink and dim as shown in FIG. 6. Note that the shaded area in FIG. 6 represents a 50% dimming state. In this state, it is assumed that there are people in the detection ranges A22 and A31, and there are no people in the detection ranges A53, A41, and A51. Then, the detection devices 622 and 6
A detection signal is output from 31 and the detection devices 653, 6
No detection signal is output from 41 and 651. The presence/absence status of these detection signals is sent back to the main operation panel 2, and is subjected to arithmetic processing in the second arithmetic processing section 110 based on the flowchart shown in FIG. In other words, the registered data based on the setting example of f shown in Table 2 is transferred from the detection device correspondence relationship storage unit 105 to the second arithmetic processing unit 1.
At the same time, data indicating the current lighting state is read out from the lighting device control state storage unit 107 at step 10, and this data is subjected to arithmetic processing based on the control data in the registered data. In other words,
The illuminance of the lighting device 411 is set to 20%, the illuminance of the lighting device 413 is set to 70% (=50% x 140%), the illuminance of the lighting device 421 is set to 75% (=50% x 150%), and the illuminance of the lighting device 422 is set to 100%. %, the data that sets the lighting device 423 as 100% is sent from the communication processing unit 111 to the terminal device 3 as a transmission data signal, and each lighting device 411, 413, 421, 422, 423 controls the lighting as shown in FIG. will be done. Also, g shown in Table 2
Registration data based on the setting example is read out from the detection device correspondence storage section 105 by the second arithmetic processing section 110 and is also read out from the lighting device control state storage section 107.
Data indicating the current lighting status is read from
This data is processed based on the control data in the registered data. In other words, the lighting device 43
3 illuminance to 50% (=100% x 50%), lighting device 43
The data that sets the illuminance of No. 4 to 0% is the communication processing unit 111.
The signal is sent to the terminal device 3 as a transmission data signal, and the lighting of each lighting device 433, 434 is controlled as shown in FIG. In addition, h shown in Table 2
Registration data based on the setting example is read out from the detection device correspondence storage section 105 by the second arithmetic processing section 110 and is also read out from the lighting device control state storage section 107.
Data indicating the current lighting status is read from
This data is processed based on the control data in the registered data. In other words, the lighting device 431
Data that sets the illuminance of
1 will be controlled to be lit. As described above, in the above embodiment, the microcomputer can control the blinking and dimming of the lighting devices in a pattern based on a desired time schedule, and also control the blinking and dimming of the lighting devices according to the presence of a person. Light control can be performed and effective energy saving control can be performed. Moreover, when changing the combination of the detection device and the lighting device when changing the partitions in the store, etc., the storage contents of the detection device correspondence relationship storage unit 105 can be input to the input device 101.
This can be done simply by changing the . In addition, in the above embodiment, the surrounding lighting status changes as soon as a person leaves the detection range, but in general, a detection device detects a person with a certain time delay even if the person leaves the detection range. Since the structure is such that there is no signal, there is no sense of discomfort towards people. In addition, if the detection device is simplified so that the detection signal disappears as soon as a person leaves the detection range,
This can be easily dealt with by creating a time delay using software in the second arithmetic processing unit 110.
This can reduce the cost. [Effects of the Invention] As described above, according to the present invention, a detection device group that detects a person or a movement of the person and outputs a detection signal, this detection device group and a lighting device group are connected, and the detection device group a terminal device that receives a detection signal from the device and controls at least blinking of the lighting device group;
and a lighting control device comprising a main operation panel that inputs the detection signals etc. from these terminal devices and outputs control signals for the lighting device group to the terminal device, wherein the main operation panel is connected to the detection device group. an input device for inputting registration data including combination data of presence/absence of detection signals of each detection device and control data indicating at least a blinking state of a group of lighting devices according to this combination; and registration data input by this input device. The presence or absence of a detection signal sent back via the terminal device from the detection device correspondence storage unit that stores the above-mentioned detection device correspondence relationship storage unit and the combination data of registered data stored in the above-mentioned detection device correspondence relationship storage unit are compared to match. It has an arithmetic processing unit that generates the control data according to the combination data obtained, and a communication processing unit that transmits the control data from the arithmetic processing unit to the terminal device as a transmission data signal, so it is not affected by the environment or the presence of people. In combination with this, it is possible to realize a lighting condition with an optimum and sufficient energy saving effect by simple operation. According to another invention of the present invention, a detection position group for detecting a person or the movement of the person and outputting a detection signal, and a group of detection devices and a group of lighting devices capable of continuous dimming are connected, A terminal device that receives detection signals from the device group and controls blinking and dimming of the lighting device group, and a terminal device that inputs the detection signal etc. from these terminal devices and sends a control signal to the lighting device group. In a lighting control device equipped with a main operation panel that outputs output to a device, the main operation panel is configured to provide combination data of presence/absence of detection signals of each detection device of the detection device group, and blink/adjust the lighting device group according to this combination. An input device for inputting registration data including control data indicating a light state, a detection device correspondence storage section for storing the registration data input by this input device, and a lighting device control for storing data indicating a current lighting state. Compare the presence or absence of a detection signal sent back via the status storage unit and the terminal device from each of the above-mentioned detection devices with the combination data of registered data stored in the above-mentioned detection device correspondence storage unit, and respond to the matched combination data. an arithmetic processing section that arithmetic-processes data indicating the current lighting state stored in the illumination device control state storage section based on the control data and issues the arithmetic processing result data; and the arithmetic processing result from this arithmetic processing section. The continuous dimming lighting device has a communication processing unit that transmits the data as a transmission data signal to the terminal device, so that it has a more optimal and sufficient energy saving effect in consideration of the environment and the presence of people. This has the effect that illumination conditions based on groups can be realized through simple operations.

[Brief explanation of the drawing]

FIG. 1 is a basic configuration block diagram showing an embodiment of the present invention, FIG. 2 is a format diagram of data transmitted from the main operation panel 1, and FIG. 3 is a lighting device 411.
434 and the arrangement of the detection devices 611 to 653 and the detection range of each detection device 611 to 653, FIG. 4 is a schematic block diagram of the main operation panel, and FIG. A flowchart showing the control procedure, FIGS. 6 to 9 are diagrams each showing the lighting state of the lighting device group, and FIG. 10 is a flowchart showing the control procedure, and FIG.
FIG. 11 is a flowchart showing the control procedure of step 10, and FIG. 11 is a diagram showing the lighting state of the lighting device group. In the figure, 1 is the main operation panel, 101 is the input device,
102 is a clock section, 104 is a pattern storage section, 10
5 is a detection device correspondence storage unit, 106 is a time schedule storage unit, 107 is a lighting device control state storage unit, 108 is a transmission data storage unit, and 109 is a first
Arithmetic processing unit, 110 is a second arithmetic processing unit, 111 is a communication processing unit, 3 is a terminal device, 411 to 434 are lighting devices, 611 to 653 are detection devices, A11 to A5
3 is the detection range. Note that the same reference numerals in each figure indicate the same or corresponding parts.

Claims (1)

[Claims] 1. A group of detection devices that detect a person or the movement of the person and output a detection signal, this detection device group and a lighting device group are connected, and the detection signal from the detection device group is inputted. and a terminal device that controls at least the blinking of the lighting device group, and a main operation panel that inputs the detection signal etc. from these terminal devices and outputs a control signal for the lighting device group to the terminal device. In the device, the main operation panel is an input for inputting registration data including combination data of presence/absence of detection signals of each detection device of the detection device group and control data indicating at least a blinking state of the lighting device group according to this combination. A device, a detection device correspondence storage section that stores the registration data inputted by this input device, and the presence or absence of a detection signal sent back from each of the above-mentioned detection devices via a terminal device, and the detection device correspondence storage section that stores the registration data inputted by this input device. an arithmetic processing unit that compares the stored combination data of registered data and issues the control data according to the matching combination data; and a communication process that transmits the control data from the arithmetic processing unit to the terminal device as a transmission data signal. 1. A lighting control device characterized by having a section. 2. The main operation panel is equipped with a lighting device control state storage section that stores data indicating the current lighting control state of the lighting device group, and the arithmetic processing section stores detection signals sent back from each detection device via the terminal device. Control data corresponding to the matched combination data obtained by comparing the presence or absence of the detection device with the combination data of the registered data stored in the detection device correspondence storage unit, and the matched combination data is a combination with a detection signal present. , when the control data corresponding to this combination data indicates a lighting state brighter than the current lighting control state stored in the lighting device control state storage unit, and when the matching combination data is a combination of no detection signal; , when the control data corresponding to the combination data indicates a lighting state darker than the current lighting control state stored in the lighting device control state storage unit, the control data is output to the communication processing unit. The lighting control device according to item 1. 3 A group of detection devices that detect a person or the movement of the person and output a detection signal; this group of detection devices is connected to a group of lighting devices capable of continuous dimming, and the detection signals from the group of detection devices are input; A lighting device equipped with a terminal device that controls blinking and dimming of the lighting device group, and a main operation panel that inputs the detection signal etc. from these terminal devices and outputs a control signal for the lighting device group to the terminal device. In the control device, the main operation panel is controlled by registration data including combination data of presence/absence of detection signals of each of the detection devices of the detection device group and control data indicating the blinking/dimming state of the lighting device group according to this combination. An input device for input, a detection device correspondence storage section that stores registration data input by this input device, a lighting device control state storage section that stores data indicating the current lighting state, and information from each of the above-mentioned detection devices. The presence or absence of a detection signal sent back via the terminal device is compared with the combination data of registered data stored in the detection device correspondence storage section, and the lighting device control state is determined based on the control data corresponding to the matched combination data. an arithmetic processing unit that processes data indicating the current lighting state stored in the storage unit and issues the arithmetic processing result data; and a data processing unit that processes the data indicating the current lighting state stored in the storage unit, and sends the data resulting from the arithmetic processing from this arithmetic processing unit to the terminal device as a transmission data signal. A lighting control device characterized by having a communication processing unit for transmitting data. 4 The arithmetic processing unit compares the presence or absence of the detection signal sent back from each detection device via the terminal device with the combination data of the registered data stored in the detection device correspondence relationship storage unit, and responds to the matched combination data. Processing result data based on control data,
The matched combination data is a combination with a detection signal, and the arithmetic processing result data based on the control data corresponding to this combination data is a light that is brighter than the current lighting control state stored in the lighting device control state storage unit. The case where the matching combination data is a combination of no detection signal, and the current lighting state where the arithmetic processing result data based on the control data corresponding to this combination data is stored in the lighting device control state storage unit. 4. The lighting control device according to claim 3, wherein the lighting control device outputs the output to the communication processing unit when the lighting state is darker than the control state.