CN113692090B - Intelligent induction control method - Google Patents

Abstract

The intelligent induction control method is based on an intelligent induction control system and comprises an intelligent induction lamp and an intelligent sensor; the number of the intelligent induction lamps is N, N is more than or equal to 1, the intelligent induction lamps are divided into N groups according to the area or the number, N is more than or equal to 1, and each intelligent induction lamp in each group is in a unidirectional linkage illumination mode or a non-unidirectional linkage illumination mode; the intelligent sensing lamps are arranged in a wireless communication mode, and the intelligent sensing lamps are connected with the corresponding intelligent sensors in an interactive wireless communication mode; in the uncorrelated illumination mode, the sensing area parts between two adjacent groups of intelligent sensing lamps are overlapped. The invention can self-define and set the automatic starting time, the number of the induction lamps and the type of the illumination scene modes, and realize the automatic switching to different illumination scene modes according to different application scenes, different time periods and the outdoor illumination intensity of the environment, thereby achieving the maximum energy saving under the condition of not affecting the normal operation of the induction lamps.

Description

Intelligent induction control method

Technical field

The invention relates to an intelligent induction control method.

Background technique

Sensor lights are a new type of intelligent lighting product that automatically controls the light source to light up through the sensor module. It can automatically turn on the lighting and automatically delay the shutdown after the person leaves. Sensor lights are often installed in some larger buildings in daily use, such as Residential buildings, shopping malls, hospitals, airports, urban roads and other public areas are used to bring light to users in dark areas or when the lights are dim; however, existing sensor lights have the following shortcomings: First, many public areas are currently equipped with The distance between the sensor lights will be farther to meet the usage requirements to minimize the trouble of wiring and wiring and the unnecessary waste of resources. When people walk in the building, because the two sensor lights are far apart, When people leave the sensing area of the current sensor lamp but have not yet walked to the sensing area of the next sensor lamp, they usually experience a period of dim lighting or no lighting, which affects the user experience and poses a major safety hazard; secondly, , in two adjacent areas, due to obstacles such as walls or doors, when the user leaves the current area and enters another area, the sensor light in the other area cannot be turned on in advance, and the user often experiences a state of darkness in front of his eyes, and is unaware of the situation. In another area, the situation is unpredictable, causing inconvenience to users and affecting user experience; thirdly, existing sensor lights can only be turned on when they sense someone, but cannot adjust the brightness of the light. However, under different ambient light brightness, the demand for light brightness is different. For example, on cloudy days, the light brightness can be lower, while at night, the light brightness needs to be higher. However, the brightness of existing sensor lights is constant. , cannot be adjusted.

Contents of the invention

In view of the shortcomings of the existing technology, the present invention provides an intelligent induction control method.

In order to achieve the above objectives, the present invention is implemented through the following technical solutions:

The intelligent induction control method is based on an intelligent induction control system, which includes an intelligent induction lamp and an intelligent sensor; the intelligent induction lamp includes a power supply module, a lighting module, a controller, a wireless communication module, an induction module and an environmental monitoring module. The power supply module, light emitting module, wireless communication module, induction module and environmental monitoring module of the sensor lamp are all electrically connected to its controller; the smart sensor also includes a power supply module, controller, wireless communication module, induction module and environmental monitoring module, so The power supply module, wireless communication module, induction module and environmental monitoring module of the smart sensor are all electrically connected to its controller; the number of the smart sensor lights is n, n≥1, and the n smart sensor lights are divided into areas or quantities. N groups, N≥1, each group of smart sensor lights are connected through interactive wireless communication and present a linkage lighting mode; the linkage lighting mode includes a one-way linkage lighting mode and a non-unidirectional linkage lighting mode; any two adjacent groups Intelligent sensor lights are in an associated lighting mode or a non-associated lighting mode. In the associated lighting mode, the sensing areas between two adjacent groups of intelligent sensor lamps do not overlap, and there is at least one between the two groups of intelligent sensor lamps. The smart sensor, and each group of the two groups of smart sensor lamps has at least one smart sensor lamp that is associated with the corresponding smart sensor through interactive wireless communication connection; in the non-associated lighting mode, the distance between the two adjacent groups of smart sensor lamps is The sensing areas partially overlap.

The specific intelligent sensing control method is:

S1. Pre-configure the preset triggering strategies of smart sensor lights and smart sensors;

If the current smart sensor light senses the signal of the target object, the controller of the current smart sensor light calls its preset trigger strategy and compares the preset trigger strategy with the monitoring data of its environmental monitoring module to determine the preset trigger Whether the strategy is established; if the triggering strategy is established and the triggering strategy in the non-unidirectional linkage lighting mode is triggered, then step S2 is executed; if the triggering strategy is established and the triggering strategy in the one-way linkage lighting mode is triggered, step S3 is executed; If not, jump back to step S1;

If the current smart sensor senses the signal of the target object, the controller of the current smart sensor calls its preset trigger strategy and compares the preset trigger strategy with the monitoring data of its environmental monitoring module to determine whether the preset trigger strategy is Established; if yes, execute step S4; if not, jump back to step S1;

S2. The current smart sensor light sends non-one-way linkage instructions to other smart sensor lights in the same group, notifying other smart sensor lights in the same group to perform the linkage action in the non-one-way linkage lighting mode;

S3. The current smart sensor light sends a one-way linkage instruction to other smart sensor lights in the same group adjacent to it, and notifies other smart sensor lights in the same group adjacent to it to perform the linkage action of the one-way linkage lighting mode;

S4. The current smart sensor sends an associated instruction to the smart sensor lamp associated with it, and notifies the smart sensor lamp associated with it to perform the associated action of the associated lighting mode.

In the above technical solution, the linkage action of the non-unidirectional linkage lighting mode in step S2 includes the following steps:

S2.1. The current smart sensor lamp compares the monitoring data of its environmental monitoring module according to the preset triggering strategy, and controls the lighting scene mode of its light-emitting module through its controller based on the comparison results; at the same time, it sends a message to the current Other smart sensor lights in the same group of smart sensor lights send non-one-way linkage instructions;

S2.2. When other smart sensor lights in the same group of the current smart sensor light receive the non-one-way linkage instruction, they first determine whether they need to turn on the lighting scene mode based on the monitoring data of their own environmental monitoring modules. If not, they will not Respond to the linkage lighting request of the non-one-way linkage instruction. If so, respond to the linkage lighting request of the non-one-way linkage instruction and control the lighting scene mode of the light-emitting module through the respective controller according to the respective monitoring data.

In the above technical solution, the linkage action of the one-way linkage lighting mode in step S3 specifically includes the following steps:

S3.1 The current smart sensor lamp compares the monitoring data of its environmental monitoring module according to the preset triggering strategy, and controls the lighting scene mode of its light-emitting module through its controller based on the comparison results; at the same time, it responds to it Send one-way linkage instructions to other smart sensor lights in the same neighboring group;

When other smart sensor lights in the same group adjacent to the current smart sensor light in S3.2 receive the one-way linkage command, they will first review the validity of the one-way linkage command. If the one-way linkage command is valid, then Each determines whether the lighting scene mode needs to be turned on based on the monitoring data of its own environmental monitoring module. If not, it will not respond to the linkage lighting request of the one-way linkage instruction. If so, it will respond to the linkage lighting request of the one-way linkage instruction and based on its respective monitoring data. Then, the respective controllers control the lighting scene modes of the light-emitting modules; if the one-way linkage instruction is invalid, the linkage lighting request of the one-way linkage instruction will not be responded to.

In the above technical solution, the validity review method of the one-way linkage instruction described in step S3.2 is as follows:

Define the preset sensing duration of the current smart sensor lamp as T, and the real-time sensing duration of the current smart sensor lamp as t; define that there are smart sensors in the same group and adjacent smart sensor lamps as the current smart sensor lamp. Light A and smart sensor light B, but smart sensor light A and smart sensor light B are not adjacent;

Assume that smart sensor light A senses the target object signal and effectively links the current smart sensor light in one direction;

If the real-time sensing duration of the current smart sensor lamp is t<T, when the current smart sensor lamp senses the signal of the target object, then the one-way linkage command sent by the current smart sensor lamp to the smart sensor lamp B is valid at this time, and the one-way linkage command sent to the smart sensor lamp B is valid. If the one-way linkage command sent by sensor light A is invalid, it will be one-way linkage until the real-time sensing duration of the current smart sensor light reaches T;

If the real-time sensing duration of the current smart sensor lamp is t<T, and the smart sensor lamp B senses the signal of the target object, then the one-way linkage command sent by the smart sensor lamp B to the current smart sensor lamp is still valid at this time;

If the real-time sensing duration of the current smart sensor light t ≥ T, when the current smart sensor light senses the signal of the target object, then the current smart sensor light sends a one-way linkage command to smart sensor light A and smart sensor light B at this time. All are valid.

In the above technical solution, the associated action of associated lighting mode in step S4 includes the following steps:

S4.1. When the smart sensor compares the monitoring data of its environmental monitoring module according to the preset triggering strategy, and sends associated instructions to the smart sensor lights associated with it based on the comparison results;

S4.2. When the smart sensor lights associated with them receive the associated instructions, they first determine whether the lighting scene mode needs to be turned on based on the monitoring data of their own environmental monitoring modules. Otherwise, the associated lighting will not respond to the associated instructions. request, if so, respond to the associated lighting request of the associated instruction and control the lighting scene mode of its light-emitting module through the respective controller according to the respective monitoring data.

In the above technical solution, the trigger mode of the preset trigger strategy is one or more of the timing trigger mode, satellite positioning trigger mode and light induction trigger mode; if the trigger mode of the preset trigger strategy is the timing trigger mode , the timing time interval is preset. When the set timing start node and timing end node are reached, the controller of the smart sensor lamp or smart sensor also controls the lighting scene mode of the corresponding smart sensor lamp light-emitting module; if the preset When the trigger mode of the trigger strategy is the satellite positioning trigger mode, the controller of the smart sensor light or smart sensor obtains the longitude and latitude information of the current area by receiving satellite positioning information, and configures the sunrise and sunset schedule based on the longitude and latitude information. The smart sensor light or smart sensor The controller of the sensor controls the lighting scene mode of the corresponding smart sensor lamp light-emitting module according to the sunrise and sunset schedule; if the trigger mode of the preset trigger strategy is the light sensor trigger mode, the controller of the smart sensor lamp or smart sensor controls the lighting scene mode according to the sunrise and sunset schedule. The lighting condition control of the current area corresponds to the lighting scene mode of the intelligent sensor light emitting module.

In the above technical solution, the lighting scene mode includes four modes: turning on the light, turning off the light, customized dimming and color temperature adjustment.

In the above technical solution, the custom dimming includes linear dimming and fixed frame dimming. The custom dimming is the lighting control unit controlling the output duty cycle of each set of lamps through PWM signal or 0-10V. accomplish.

In the above technical solution, the sensing modules of the smart sensor lights and smart sensors include one or more of a human body sensor, a light sensor, and a radar sensor.

In the above technical solution, the environmental monitoring module includes a GPS satellite positioning element, an illumination element, a fog sensor element, a haze sensor element, a wind speed sensor element, a human body sensor element, a temperature sensor element, a rainfall sensor element, a speed sensor element, and a radar detection element. one or more components.

The above technical solution also includes a main control unit, which is interactively connected to each smart sensor lamp and each smart sensor. The main control unit is used to operate the smart sensor lamp and smart sensor according to the acquired information. Status parameters are stored, compared, analyzed, and processed to remotely monitor smart induction lights and smart sensors; the main control unit includes a storage server, a data server, and a monitoring platform software.

Compared with the prior art, the beneficial effects of the present invention are:

The intelligent induction control method of the present invention can customize the automatic opening time of the intelligent induction control system, the number of induction lights and the type of lighting scene mode, and realize automatic switching to different outdoor light intensity for different application scenarios, different time periods and the environment. Lighting scene mode, thereby achieving maximum energy saving without affecting the normal operation of the sensor lamp; at the same time, the sensor linkage mode can be customized on the moving path of the object, providing a more intelligent and convenient sensor control solution.

According to the present invention, there are two modes to choose between any two adjacent groups of intelligent sensor lamps, the associated lighting mode and the non-associated lighting mode. In the associated lighting mode, by adding an additional light between the adjacent two groups of intelligent sensor lamps whose sensing areas do not overlap, Smart sensors, through smart sensors that associate some of the two adjacent smart sensor lights, can turn on the sensor lights in the adjacent area in advance, thus effectively solving the problem of long distance between two adjacent smart sensor lights or obstacles. Defects in such situations can effectively eliminate sensing blind spots and enhance user experience.

The linkage modes between the smart sensor lights in the same group of the present invention are divided into one-way linkage lighting mode and non-one-way linkage lighting mode. For situations where conference halls, studios, large classrooms, etc. need to turn on large area lighting at the same time, it can Instantly turn on all linked smart sensor lights to enhance user experience; for long and narrow area lighting such as corridors and stairs, one-way linkage lighting can be used to achieve the effect of gradually turning on and off, which can not only meet normal lighting needs but also maximize energy saving.

The present invention controls different groups of smart sensor lights by setting preset trigger strategies through the system. The trigger modes include timing trigger mode, satellite positioning trigger mode and light induction trigger mode. Each mode can be set independently and applied, or can be set in combination. Application; can be customized according to different actual application scenarios. While meeting the normal operating requirements of the sensor lamp, it effectively saves energy, improves the utilization rate of the sensor lamp in the operating environment of the sensor control system, reduces resource waste, and improves the efficiency of intelligent sensing. Modern management level of control system.

Description of drawings

Figure 1 is a schematic diagram of an intelligent sensing control method according to a specific embodiment of the present invention.

FIG. 2 is a schematic diagram of a validity review method for one-way linkage instructions in an embodiment of the present invention.

Among them: 1. Smart sensor light A; 2. Current smart sensor light; 3. Smart sensor light B; ▲ represents the signal of the target object; ⊙ represents the status of the smart sensor light when responding to the one-way linkage command; Indicates the status of the smart sensor light when it does not respond to the one-way linkage command; ← or → indicates the direction of the one-way linkage command, and its arrow points to the party being one-way linkage.

Detailed ways

The present invention will be described in detail below in conjunction with the accompanying drawings:

Example 1

Referring to Figure 1, the intelligent induction control method is based on an intelligent induction control system. The system includes an intelligent induction lamp and an intelligent sensor. The intelligent induction lamp includes a power supply module, a light emitting module, a controller, a wireless communication module, an induction module and an environmental monitoring module. , the power supply module, light emitting module, wireless communication module, induction module and environmental monitoring module of the smart sensor lamp are all electrically connected to its controller; the smart sensor also includes a power supply module, controller, wireless communication module, induction module and environment Monitoring module, the power supply module, wireless communication module, induction module and environmental monitoring module of the smart sensor are all electrically connected to its controller; the number of the smart sensor lights is n, n≥1, n smart sensor lights press The area or number is divided into N groups, N≥1, and the intelligent sensor lights in each group are connected through interactive wireless communication and present a linkage lighting mode; the linkage lighting mode includes a one-way linkage lighting mode and a non-unidirectional linkage lighting mode; any Two adjacent groups of intelligent sensor lights are in an associated lighting mode or a non-associated lighting mode. In the associated lighting mode, the sensing areas between the two adjacent groups of intelligent sensor lights do not overlap, and the two adjacent groups of intelligent sensor lights do not overlap. At least one smart sensor is provided, and at least one smart sensor lamp in each group of the two groups of smart sensor lamps is associated with the corresponding smart sensor through interactive wireless communication connections; in the non-associated lighting mode, the adjacent two groups of smart sensor lamps are The sensing areas between the lights partially overlap;

The specific intelligent sensing control method is:

S1. Pre-configure the preset triggering strategies of smart sensor lights and smart sensors;

If the current smart sensor light senses the signal of the target object, the controller of the current smart sensor light calls its preset trigger strategy and compares the preset trigger strategy with the monitoring data of its environmental monitoring module to determine the preset trigger Whether the strategy is established; if the triggering strategy is established and the triggering strategy in the non-unidirectional linkage lighting mode is triggered, then step S2 is executed; if the triggering strategy is established and the triggering strategy in the one-way linkage lighting mode is triggered, step S3 is executed; If not, jump back to step S1;

If the current smart sensor senses the signal of the target object, the controller of the current smart sensor calls its preset trigger strategy and compares the preset trigger strategy with the monitoring data of its environmental monitoring module to determine whether the preset trigger strategy is Established; if yes, execute step S4; if not, jump back to step S1;

S2. The current smart sensor light sends linkage instructions to other smart sensor lights in the same group, notifying other smart sensor lights in the same group to perform the linkage action in the non-one-way linkage lighting mode;

S3. The current smart sensor light sends linkage instructions to other smart sensor lights in the same group adjacent to it, and notifies other smart sensor lights in the same group adjacent to it to perform the linkage action of the one-way linkage lighting mode;

S4. The current smart sensor sends an associated instruction to the smart sensor lamp associated with it, and notifies the smart sensor lamp associated with it to perform the associated action of the associated lighting mode.

In a preferred but non-limiting embodiment of the present invention, the linkage action of the non-unidirectional linkage lighting mode in step S2 includes the following steps:

S2.1. The current smart sensor lamp compares the monitoring data of its environmental monitoring module according to the preset triggering strategy, and controls the lighting scene mode of its light-emitting module through its controller based on the comparison results; at the same time, it sends a message to the current Other smart sensor lights in the same group of smart sensor lights send non-one-way linkage instructions;

S2.2. When other smart sensor lights in the same group of the current smart sensor light receive the non-one-way linkage instruction, they first determine whether they need to turn on the lighting scene mode based on the monitoring data of their own environmental monitoring modules. If not, they will not Respond to the linkage lighting request of the non-one-way linkage instruction. If so, respond to the linkage lighting request of the non-one-way linkage instruction and control the lighting scene mode of the light-emitting module through the respective controller according to the respective monitoring data.

In a preferred but non-limiting embodiment of the present invention, the linkage action of the one-way linkage lighting mode in step S3 specifically includes the following steps:

S3.1 The current smart sensor lamp compares the monitoring data of its environmental monitoring module according to the preset triggering strategy, and controls the lighting scene mode of its light-emitting module through its controller based on the comparison results; at the same time, it responds to it Send one-way linkage instructions to other smart sensor lights in the same neighboring group;

When other smart sensor lights in the same group adjacent to the current smart sensor light in S3.2 receive the one-way linkage command, they will first review the validity of the one-way linkage command. If the one-way linkage command is valid, then Each determines whether the lighting scene mode needs to be turned on based on the monitoring data of its own environmental monitoring module. If not, it will not respond to the linkage lighting request of the one-way linkage instruction. If so, it will respond to the linkage lighting request of the one-way linkage instruction and based on its respective monitoring data. Then, the respective controllers control the lighting scene modes of the light-emitting modules; if the one-way linkage instruction is invalid, the linkage lighting request of the one-way linkage instruction will not be responded to.

In a preferred but non-limiting embodiment of the present invention, referring to Figure 2, the validity review method of the one-way linkage instruction in step S3.2 is as follows: define the preset sensing duration of the current smart sensor lamp is T, the real-time sensing duration of the current smart sensor lamp is t; the smart sensor lamps defined as the same group and adjacent to the current smart sensor lamp include smart sensor lamp A and smart sensor lamp B, and smart sensor lamp A Not adjacent to smart sensor light B;

Assume that smart sensor light A senses the target object signal and effectively links the current smart sensor light in one direction;

If the real-time sensing duration of the current smart sensor lamp is t<T, when the current smart sensor lamp senses the signal of the target object, then the one-way linkage command sent by the current smart sensor lamp to the smart sensor lamp B is valid at this time, and the one-way linkage command sent to the smart sensor lamp B is valid. If the one-way linkage command sent by the sensor lamp A is invalid, it will be one-way linkage until the real-time sensing duration of the current smart sensor lamp reaches T. It should be noted that the one-way linkage of the present invention is time-sensitive. For example, if the smart sensor lamp Lamp A is effective in one-way linkage with the current smart sensor lamp. If t < T, when the current smart sensor lamp senses the target object signal again, the one-way linkage command sent by the current smart sensor lamp to smart sensor lamp A is invalid; the one-way linkage command is invalid. The linkage command counts down with T. Once the sensing duration T ends, the one-way linkage command sent by the current smart sensor light to smart sensor light A becomes valid again.

If the real-time sensing duration of the current smart sensor lamp is t<T, and the smart sensor lamp B senses the signal of the target object, then the one-way linkage command sent by the smart sensor lamp B to the current smart sensor lamp is still valid at this time;

If the real-time sensing duration of the current smart sensor light t ≥ T, when the current smart sensor light senses the signal of the target object, then the current smart sensor light sends a one-way linkage command to smart sensor light A and smart sensor light B at this time. All are valid.

In a preferred but non-limiting embodiment of the present invention, the associated action of associated lighting mode in step S4 includes the following steps:

S4.1. When the smart sensor compares the monitoring data of its environmental monitoring module according to the preset triggering strategy, and sends associated instructions to the smart sensor lights associated with it based on the comparison results;

S4.2. When the smart sensor lights associated with them receive the associated instructions, they first determine whether the lighting scene mode needs to be turned on based on the monitoring data of their own environmental monitoring modules. Otherwise, the associated lighting will not respond to the associated instructions. request, if so, respond to the associated lighting request of the associated instruction and control the lighting scene mode of its light-emitting module through the respective controller according to the respective monitoring data.

In a preferred but non-limiting embodiment of the present invention, the trigger mode of the preset trigger strategy is one or more of a timing trigger mode, a satellite positioning trigger mode and a light induction trigger mode;

If the triggering mode of the preset triggering strategy is the timing triggering mode, the timing time interval is set in advance. When the set timing start node and timing end node are reached, the controller of the smart sensor light or smart sensor controls the corresponding smart sensor. The lighting scene mode of the sensor light emitting module;

If the trigger mode of the preset trigger strategy is the satellite positioning trigger mode, the controller of the smart sensor light or smart sensor obtains the longitude and latitude information of the current area by receiving the satellite positioning information, and configures the sunrise and sunset schedule based on the longitude and latitude information. The controller of the smart sensor light or smart sensor controls the lighting scene mode of the corresponding smart sensor light emitting module according to the sunrise and sunset schedule;

If the trigger mode of the preset trigger strategy is a light induction trigger mode, then the controller of the smart sensor lamp or smart sensor controls the lighting scene mode of the corresponding smart sensor lamp light-emitting module according to the lighting conditions of the current area.

In a preferred but non-limiting embodiment of the present invention, the lighting scene mode includes four modes: light on, light off, customized dimming, and color temperature adjustment.

In a preferred but non-limiting embodiment of the present invention, the custom dimming includes linear dimming and fixed frame dimming. The custom dimming is that the lighting control unit controls each set of lights through a PWM signal or 0-10V. The output duty cycle of the lamp is realized.

In a preferred but non-limiting embodiment of the present invention, the sensing modules of the smart sensor lamp and the smart sensor each include one or more of a human body sensor, a light sensor, and a radar sensor.

In a preferred but non-limiting embodiment of the present invention, the environmental monitoring module includes a GPS satellite positioning element, an illumination element, a fog sensor element, a haze sensor element, a wind speed sensor element, a human body sensor element, a temperature sensor element, and a rain sensor. One or more of the components, speed sensing components, and radar detection components.

In a preferred but non-limiting embodiment of the present invention, it also includes a main control unit, which is interactively connected to each smart induction lamp and each smart sensor. The main control unit is configured to obtain the The operating status parameters of the smart sensor lights and smart sensors are stored, compared, analyzed, and processed to remotely monitor the smart sensor lights and smart sensors; the main control unit includes a storage server, a data server, and monitoring platform software.

Example 2

The following will introduce the application scenarios of different trigger modes of the preset trigger strategy.

In the scheduled mode, such as the airport, between 18:30 in the evening and 1:00 in the morning, flights are busy coming in and out. You can pre-specify the smart sensor light in the operating area to start at 18:30, and adjust the brightness to 100%. Once the designated time is reached at this time, all designated smart sensor lights will automatically turn on to ensure normal and safe operations; during the time period from 1:30 am to 6:30 am, there are fewer flights, and the designated airport operation area can be pre-designated The brightness of the internal smart sensor light is adjusted to 50% to save energy and reduce consumption. During the time period from 6:30 in the morning to 18:30 in the evening, if the lighting meets the requirements, there is no need to turn on the lights. The smart sensor lights in the work area can be pre-specified to turn off the lights at 6:30.

In GPS mode, the system automatically calculates the sunrise and sunset times based on the GPS positioning system, automatically turns off the lights according to the sunrise time, and automatically turns on the lights according to the sunset time.

In light sensing mode, the smart sensor light controller will automatically determine whether the lights need to be turned on or off based on the current lighting conditions. For example, when facing rainy weather or haze during the day, resulting in insufficient light, the smart sensor light will sense the current The lighting is automatically turned on when the current situation occurs, and is turned off automatically after the current lighting is restored.

In mixed mode, that is, timing + GPS, timing + light sensing, timing + light sensing + GPS, etc., any combination of modes can achieve intelligent induction lighting.

Example 3

The following will introduce the application scenarios of one-way linkage lighting mode.

For example, in a large hotel corridor, which is long and narrow and has no light all year round, smart sensor lights can be distributed at intervals according to the structure of the corridor. Adjacent smart sensor lights can be linked in one direction. In order to ensure the visual effect of the corridor, the brightness can be set to low when no one is walking. In the lighting state, if the brightness is turned on at 10%, and the one-way mode is activated when it senses that people are walking, it will gradually turn on in the direction of pedestrians in the one-way linkage mode, and gradually turn off to low brightness mode in the direction away from pedestrians. Under the condition of ensuring the consumer experience, Achieve maximum energy saving.

The embodiments in the present invention are only used to illustrate the present invention and do not limit the scope of the claims. Other substantially equivalent substitutions that those skilled in the art can think of are within the protection scope of the present invention.

Claims (11)

1. Intelligent induction control method, characterized in that: based on an intelligent induction control system, the system includes intelligent induction lights and intelligent sensors; The smart sensor lamp includes a power supply module, a light-emitting module, a controller, a wireless communication module, an induction module and an environmental monitoring module. The power supply module, light-emitting module, wireless communication module, sensor module and environmental monitoring module of the smart sensor lamp are all related to Controller electrical connection; The smart sensor also includes a power supply module, a controller, a wireless communication module, an induction module and an environmental monitoring module. The power supply module, wireless communication module, induction module and environmental monitoring module of the smart sensor are all electrically connected to its controller; The number of the smart sensor lights is n, n≥1, and the n smart sensor lights are divided into N groups according to area or quantity, N≥1, and the smart sensor lights in each group are connected through interactive wireless communication and are linked to lighting. model; The linkage lighting mode includes a one-way linkage lighting mode and a non-one-way linkage lighting mode; Any two adjacent groups of intelligent sensor lights are in an associated lighting mode or a non-associated lighting mode. In the associated lighting mode, the sensing areas between the two adjacent groups of intelligent sensor lights do not overlap, and the two adjacent groups of intelligent sensor lights do not overlap. There is at least one smart sensor between them, and each of the two groups of smart sensor lights has at least one smart sensor lamp that is associated with the corresponding smart sensor through interactive wireless communication connections; in the non-associated lighting mode, the two adjacent groups of smart sensor lights are The sensing areas between the sensor lights partially overlap; The specific intelligent sensing control method is: S1. Pre-configure the preset triggering strategies of smart sensor lights and smart sensors; If the current smart sensor light senses the signal of the target object, the controller of the current smart sensor light calls its preset trigger strategy and compares the preset trigger strategy with the monitoring data of its environmental monitoring module to determine the preset trigger Whether the strategy is established; if the triggering strategy is established and the triggering strategy in the non-unidirectional linkage lighting mode is triggered, then step S2 is executed; if the triggering strategy is established and the triggering strategy in the one-way linkage lighting mode is triggered, step S3 is executed; If not, jump back to step S1; If the current smart sensor senses the signal of the target object, the controller of the current smart sensor calls its preset trigger strategy and compares the preset trigger strategy with the monitoring data of its environmental monitoring module to determine whether the preset trigger strategy is Established; if yes, execute step S4; if not, jump back to step S1; S2. The current smart sensor light sends non-one-way linkage instructions to other smart sensor lights in the same group, notifying other smart sensor lights in the same group to perform the linkage action in the non-one-way linkage lighting mode; S3. The current smart sensor light sends a one-way linkage instruction to other smart sensor lights in the same group adjacent to it, and notifies other smart sensor lights in the same group adjacent to it to perform the linkage action of the one-way linkage lighting mode; S4. The current smart sensor sends an associated instruction to the smart sensor lamp associated with it, and notifies the smart sensor lamp associated with it to perform the associated action of the associated lighting mode. 2. The intelligent induction control method according to claim 1, characterized in that: the linkage action of the non-unidirectional linkage lighting mode in step S2 includes the following steps: S2.1. The current smart sensor lamp compares the monitoring data of its environmental monitoring module according to the preset triggering strategy, and controls the lighting scene mode of its light-emitting module through its controller based on the comparison results; at the same time, it sends a message to the current Other smart sensor lights in the same group of smart sensor lights send non-one-way linkage instructions; S2.2. When other smart sensor lights in the same group of the current smart sensor light receive the non-one-way linkage instruction, they first determine whether they need to turn on the lighting scene mode based on the monitoring data of their own environmental monitoring modules. If not, they will not Respond to the linkage lighting request of the non-one-way linkage instruction. If so, respond to the linkage lighting request of the non-one-way linkage instruction and control the lighting scene mode of the light-emitting module through the respective controller according to the respective monitoring data. 3. The intelligent induction control method according to claim 1, characterized in that: the linkage action of the one-way linkage lighting mode in step S3 specifically includes the following steps: S3.1 The current smart sensor lamp compares the monitoring data of its environmental monitoring module according to the preset triggering strategy, and controls the lighting scene mode of its light-emitting module through its controller based on the comparison results; at the same time, it responds to it Send one-way linkage instructions to other smart sensor lights in the same neighboring group; When other smart sensor lights in the same group adjacent to the current smart sensor light in S3.2 receive the one-way linkage command, they will first review the validity of the one-way linkage command. If the one-way linkage command is valid, then Each determines whether the lighting scene mode needs to be turned on based on the monitoring data of its own environmental monitoring module. If not, it will not respond to the linkage lighting request of the one-way linkage instruction. If so, it will respond to the linkage lighting request of the one-way linkage instruction and based on its respective monitoring data. Then, the respective controllers control the lighting scene modes of the light-emitting modules; if the one-way linkage instruction is invalid, the linkage lighting request of the one-way linkage instruction will not be responded to. 4. The intelligent induction control method according to claim 3, characterized in that: the validity review method of the linkage instruction in step S3.2 is as follows: Define the preset sensing duration of the current smart sensor lamp as T, and the real-time sensing duration of the current smart sensor lamp as t; The smart sensor lights defined as the same group and adjacent to the current smart sensor lights include smart sensor light A and smart sensor light B, but smart sensor light A and smart sensor light B are not adjacent; Assume that smart sensor light A senses the target object signal and effectively links the current smart sensor light; If the real-time sensing duration of the current smart sensor lamp is t<T, when the current smart sensor lamp senses the signal of the target object, then the linkage command sent by the current smart sensor lamp to the smart sensor lamp B is valid at this time, and the linkage command sent to the smart sensor lamp B is valid. If the linkage command sent by A is invalid, it is a one-way linkage until the real-time sensing duration of the current smart sensor light reaches T; If the real-time sensing duration of the current smart sensor light is t<T, and the smart sensor light B senses the signal of the target object, then the linkage command sent by the smart sensor light B to the current smart sensor light is still valid at this time; If the real-time sensing duration of the current smart sensor light t ≥ T, when the current smart sensor light senses the signal of the target object, then the linkage instructions sent by the current smart sensor light to smart sensor light A and smart sensor light B are valid at this time. . 5. The intelligent induction control method according to claim 1, characterized in that: the associated action of associated lighting mode in step S4 includes the following steps: S4.1. When the smart sensor compares the monitoring data of its environmental monitoring module according to the preset triggering strategy, and sends associated instructions to the smart sensor lights associated with it based on the comparison results; S4.2. When the smart sensor lights associated with them receive the associated instructions, they first determine whether they need to turn on the lighting scene mode based on the monitoring data of their own environmental monitoring modules. Otherwise, the associated lighting will not respond to the associated instructions. request, if so, respond to the associated lighting request of the associated instruction and control the lighting scene mode of its light-emitting module through the respective controller according to the respective monitoring data. 6. The intelligent induction control method according to claim 1, characterized in that: the trigger mode of the preset trigger strategy is one or more of a timing trigger mode, a satellite positioning trigger mode and a light induction trigger mode; If the triggering mode of the preset triggering strategy is the timing triggering mode, the timing time interval is set in advance. When the set timing start node and timing end node are reached, the controller of the smart sensor light or smart sensor controls the corresponding smart sensor. The lighting scene mode of the sensor light emitting module; If the trigger mode of the preset trigger strategy is the satellite positioning trigger mode, the controller of the smart sensor light or smart sensor obtains the longitude and latitude information of the current area by receiving the satellite positioning information, and configures the sunrise and sunset schedule based on the longitude and latitude information. The controller of the smart sensor light or smart sensor controls the lighting scene mode of the corresponding smart sensor light emitting module according to the sunrise and sunset schedule; If the trigger mode of the preset trigger strategy is a light induction trigger mode, then the controller of the smart sensor lamp or smart sensor controls the lighting scene mode of the corresponding smart sensor lamp light-emitting module according to the lighting conditions of the current area. 7. The intelligent induction control method according to any one of claims 2, 3, 5 or 6, characterized in that: the lighting scene mode includes four modes: light on, light off, customized dimming and color temperature adjustment. . 8. The intelligent induction control method according to claim 7, characterized in that: the customized dimming includes linear dimming and fixed frame dimming, and the customized dimming is achieved by the lighting control unit through PWM signal or 0-10V. Control the output duty cycle of each set of lamps. 9. The intelligent induction control method according to claim 1, characterized in that: the induction modules of the intelligent induction lamp and the intelligent sensor each include one or more of a human body sensor, a light sensor, and a radar sensor. 10. The intelligent sensing control method according to claim 1, characterized in that: the environment monitoring module includes a GPS satellite positioning element, an illumination element, a fog sensor element, a haze sensor element, a wind speed sensor element, a human body sensor element, and a temperature sensor. One or more of a sensing element, a rain sensing element, a speed sensing element, and a radar detection element. 11. The intelligent induction control method according to claim 1, characterized in that: it further includes a main control unit, the main control unit is interactively connected to each intelligent induction lamp and each intelligent sensor, and the main control unit is interactively connected to each intelligent induction lamp and each intelligent sensor. Used to store, compare, analyze, and process the acquired operating status parameters of smart sensor lights and smart sensors to remotely monitor smart sensor lights and smart sensors; the main control unit includes a storage server, a data server, and a monitoring platform software.