Colorful RGB intelligent LED panel lamp based on Internet of Things control

Abstract

The invention relates to the field of LED panel lamps, is used for solving the problem that the operation of an LED lamp is affected or the instruction control is abnormal due to the fact that a supervision and control system is not comprehensive enough in the use process of the intelligent LED panel lamp, and particularly relates to a colorful RGB intelligent LED panel lamp based on Internet of Things control, which comprises a lamp and a data acquisition port, a heat control unit, an operation fault supervision unit and a power consumption supervision unit; the control logic received by the LED panel lamp is analyzed, the analyzed control logic is compared with the actually collected operation logic, the control accuracy of the LED panel lamp is obtained according to the comparison overlap ratio, whether the dynamic change effect of the lamp bead matrix meets the signal input requirement or not during operation of the LED panel lamp is determined, and the control accuracy of the LED panel lamp is improved. Meanwhile, the proportional relation between the heating value and the power consumption is obtained according to different operation data of the lamp beads, evaluation is conducted by taking the proportional relation as an evaluation value, and comprehensive monitoring of the intelligent LED panel lamp during operation is achieved.

Description

Technical Field

[0001] The present invention relates to the field of LED panel lights, in particular to a colorful RGB intelligent LED panel light based on Internet of Things control. Background Art

[0002] LED light source is a light-emitting diode, which is a semiconductor device that can convert electrical energy into light energy. It uses solid-state semiconductor chips as light-emitting materials. When a forward voltage is applied to both ends, the carriers in the semiconductor recombine to cause photon emission and generate light. LEDs made of different materials will emit light of different wavelengths, thus forming different colors. LEDs have the characteristics of low energy consumption, small size, long life, no pollution, fast response, low driving voltage, strong shock resistance, and high color purity. They are known as a new generation of lighting sources and green light sources.

[0003] In recent years, with the development of science and technology, most scenes in people's life, work and leisure are no longer fixed functions, but are integrated with each other, and the functions can be switched according to the scene. Therefore, the intelligent lighting system combining automatic control technology and LED is quietly entering people's daily life. Intelligent lighting mainly connects various lamps together through the Internet of Things technology, and can remotely control home lamps and lighting to create different atmospheres and scenes.

[0004] At present, when existing LED lamps are remotely controlled through the Internet of Things technology, they are generally only used to realize the on / off control of lamps or simple heat threshold control. However, due to the increase in smart components inside smart lamps, in order to ensure the good operation of LED lamps, a more intelligent LED lamp monitoring and control system is needed to ensure the normal operation of smart LED lamps in the Internet of Things environment.

[0005] In view of the above technical problems, this application proposes a solution. Summary of the invention

[0006] The present invention analyzes the control logic received by the LED panel light, compares the analyzed control logic with the actually collected operation logic, obtains the control accuracy of the LED panel light according to the comparison overlap, and judges the accuracy, so as to determine whether the dynamic change effect of the lamp bead matrix of the LED panel light during operation meets the requirements of the signal input, realizes the dynamic monitoring of the intelligent LED panel light during operation, solves the problem that the supervision and control system of the intelligent LED panel light is not comprehensive during use, resulting in operation influence or command control abnormality of the LED lamp, and proposes a colorful RGB intelligent LED panel light based on Internet of Things control.

[0007] The purpose of the present invention can be achieved through the following technical solutions:

[0008] A colorful RGB smart LED panel light based on Internet of Things control, comprising a light board housing, a patch lamp bead matrix is ​​installed below the light board housing, an interconnected antenna is installed above the light board housing, at least two groups of the interconnected antennas are distributed at both ends of the light board housing, and a processing port is also installed above the light board housing;

[0009] The processing port is internally integrated with a processor, a storage, a data transceiver module and an operation module;

[0010] The operation module includes a data acquisition port, a heat control unit, an operation fault monitoring unit, and a power consumption monitoring unit;

[0011] The data acquisition port can collect the operating parameters of the LED panel light and process the collected parameters to obtain heating characteristics, operating characteristics and power consumption characteristics;

[0012] The heat control unit can monitor the heating characteristics of the LED panel light and generate a heat determination signal according to the monitoring result of the heating characteristics;

[0013] The power consumption supervision unit supervises the power consumption characteristics and generates a power consumption judgment signal according to the power consumption characteristics;

[0014] The operation fault monitoring unit performs a comprehensive analysis on the operation characteristics, the power consumption judgment signal and the heat judgment signal, and performs a predictive analysis on the operation faults of the LED panel lamp.

[0015] As a preferred embodiment of the present invention, the data acquisition port can collect the continuous operation time of the LED panel lamp, and at the same time collect the upper and lower surface operation temperatures of the LED panel lamp. The data acquisition port performs arithmetic averaging on the collected upper and lower surface temperatures, and records the obtained temperature as the operation temperature.

[0016] The data acquisition port records the operating temperature, shutdown time, working time and the number of working lamp beads as heating characteristics and sends them to the heat control unit.

[0017] As a preferred implementation of the present invention, the data acquisition port acquires the continuous running time in the following manner:

[0018] The data acquisition port counts when the LED panel light is in the on state and records it as the working time. At the same time, the number of lamp beads in the running state in the LED panel light is recorded to obtain the number of working lamp beads. The off time maintained before the LED panel light is turned on is recorded as the off time.

[0019] As a preferred embodiment of the present invention, after obtaining the heating characteristics, the thermal control unit calculates through a formula to obtain a heating evaluation value. The thermal control unit compares the heating evaluation value with a set threshold value, and generates a heat excess signal or a heat normal signal according to the comparison result. The thermal control unit sends the heat normal signal or the heat excess signal through an interconnected antenna.

[0020] As a preferred implementation mode of the present invention, the data acquisition port selects a time period of a certain length as the detection time, and the lamp beads of the LED panel lamp are numbered as i, i=1, 2, 3, ..., n. The data acquisition port records the running time of each lamp bead as ti. The data acquisition port counts the real-time power of the LED panel lamp during the detection time, and calculates the energy consumption data of the LED panel lamp during the detection time through the real-time power and the detection time;

[0021] The data acquisition port sends the energy consumption data and the operating time ti of each lamp bead as power consumption characteristics to the power consumption monitoring unit.

[0022] As a preferred embodiment of the present invention, the power consumption monitoring unit generates a power consumption evaluation value through formula analysis, the power consumption monitoring unit compares the power consumption evaluation value with a set threshold value, generates an excessive power consumption signal or a normal power consumption signal according to the comparison result, and the power consumption monitoring unit sends the excessive power consumption signal or the normal power consumption signal through an interconnected antenna.

[0023] As a preferred implementation mode of the present invention, the data acquisition port obtains the control logic of the SMD lamp bead matrix in the LED panel lamp;

[0024] The data acquisition port collects data from the SMD lamp bead matrix once per second, records the operation status of the lamp bead collected each time as an operation frame, and combines all the collected operation frames to obtain the operation logic;

[0025] The operation fault monitoring unit compares the operation logic with the control logic for overlap. If the overlap between the operation logic and the control logic is greater than a set value, a normal operation signal is generated; otherwise, an operation fault signal is generated.

[0026] As a preferred implementation of the present invention, the method by which the operation fault monitoring unit compares the operation logic with the control logic is:

[0027] The operation fault monitoring unit compares the on / off states of the lamp beads at one position in the control frame and the operation frame at the same time, and if the on / off states of the lamp beads at the position in the control frame and the operation frame are the same, it is recorded as coincidence; if the on / off states of the lamp beads at the position in the control frame and the operation frame are different, it is recorded as non-coincidence;

[0028] The operation fault monitoring unit compares all control frames and operation frames at the same time, collects statistics on the comparison results, obtains the overlap of lamp beads in all positions at all times, calculates the proportion of the overlap times, and records the proportion of the overlap times as the overlap degree.

[0029] As a preferred embodiment of the present invention, after the operation fault monitoring unit generates the normal operation signal, if the normal power consumption signal and the normal heat signal are obtained at the same time, it is determined that the LED panel lamp is operating normally;

[0030] After the operation fault monitoring unit generates the normal operation signal, if it obtains any one of the abnormal power consumption signal or the excessive heat signal, it determines that the LED panel lamp is operating abnormally;

[0031] After generating the operation fault signal, the operation fault monitoring unit determines that the LED panel lamp is operating abnormally.

[0032] Compared with the prior art, the present invention has the following beneficial effects:

[0033] 1. In the present invention, dynamic monitoring of the intelligent LED panel light during operation is realized. The control logic received by the LED panel light is analyzed, and the analyzed control logic is compared with the actual collected operation logic. The control accuracy of the LED panel light is obtained according to the comparison overlap, and the accuracy is judged to determine whether the dynamic change effect of the lamp bead matrix of the LED panel light during operation meets the requirements of the signal input, thereby realizing intelligent monitoring of the LED panel light.

[0034] 2. In the present invention, a flexible judgment of the operating power consumption and heat generation of the LED panel lamp is realized. By collecting the operating status of the LED panel lamp at different times, including data such as the number of lamp beads in operation and the operating time, the proportional relationship between the heat generation and the power consumption is obtained according to the different operating data of the lamp beads, and the proportional relationship is used as the evaluation value for evaluation, thereby improving the accuracy of the judgment of the power consumption and heat generation during the operation of the LED panel lamp. BRIEF DESCRIPTION OF THE DRAWINGS

[0035] In order to facilitate understanding by those skilled in the art, the present invention is further described below with reference to the accompanying drawings.

[0036] Figure 1 It is a schematic diagram of the main structure of the present invention;

[0037] Figure 2 This is a schematic diagram of the SMD lamp bead matrix structure of the present invention;

[0038] Figure 3 It is a system flow chart of the present invention.

[0039] In the figure: 1. Light board housing; 2. Interconnect antenna; 3. Processing port; 4. SMD lamp bead matrix. DETAILED DESCRIPTION

[0040] The technical scheme of the present invention will be described clearly and completely in conjunction with the embodiments below. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0041] Embodiment 1:

[0042] See also Figure 1 - Figure 3 As shown, a colorful RGB intelligent LED panel light based on Internet of Things control includes a light board housing 1, a patch lamp bead matrix 4 is installed below the light board housing 1, an interconnection antenna 2 is installed above the light board housing 1, at least two groups of interconnection antennas 2 are distributed at both ends of the light board housing 1, and information is transmitted to the outside through the interconnection antenna 2 to realize data transmission and reception of the LED panel light. A processing port 3 is also installed above the light board housing 1;

[0043] The processing port 3 integrates a processor, a storage, a data transceiver module and an operation module;

[0044] The operation module includes a data acquisition port, a heat control unit, an operation fault unit, and a power consumption supervision unit;

[0045] The data acquisition port can collect the continuous running time of the LED panel light, and the continuous running time is obtained in the following way:

[0046] The data acquisition port counts when the LED panel light is in the on state and records it as the working time. At the same time, the number of lamp beads in the running state in the LED panel light is recorded to obtain the number of working lamp beads. The off time maintained before the LED panel light is turned on is recorded as the off time.

[0047] The data acquisition port collects the operating temperature of the LED panel light, wherein the operating temperature is collected through the SMD temperature sensors distributed on the lamp bead surface and the lampshade surface of the LED panel light. The data acquisition port performs arithmetic averaging on the temperatures collected by the SMD temperature sensors and records the obtained temperature as the operating temperature;

[0048] The data acquisition port records the operating temperature, shutdown time, working time and number of working lamp beads as heating characteristics and sends them to the heat control unit;

[0049] After the heat control unit obtains the heat characteristics, it calculates through the formula to obtain the heat evaluation value QF. Wherein T is the operating temperature, s1 is the working time, s2 is the shutdown time, Q is the number of working lamp beads, and the thermal control unit compares the heat evaluation value QF with the set threshold. If the heat evaluation value QF is greater than the set threshold, a heat excess signal is generated. If the heat evaluation value QF is not greater than the set threshold, a heat normal signal is generated. The thermal control unit sends the heat normal signal or the heat excess signal through the interconnected antenna 2.

[0050] Embodiment 2:

[0051] See also Figure 1 - Figure 3 As shown, the data acquisition port selects a certain length of time period as the detection time, and numbers the lamp beads of the LED panel lamp as i, i=1, 2, 3..., n. The data acquisition port records the running time of each lamp bead as ti. The data acquisition port counts the real-time power of the LED panel lamp during the detection time, and calculates the energy consumption data w of the LED panel lamp during the detection time through the real-time power and the detection time;

[0052] The data acquisition port sends the energy consumption data and the operating time ti of each lamp bead as power consumption characteristics to the power consumption supervision unit;

[0053] The power consumption supervision unit generates the power consumption evaluation value QW through formula analysis. Wherein p is the operating power of each lamp bead. The power consumption monitoring unit compares the power consumption evaluation value QW with the set threshold value. If the power consumption evaluation value is greater than the set threshold value, a high power consumption signal is generated. If the power consumption evaluation value is not greater than the set threshold value, a normal power consumption signal is generated. The power consumption monitoring unit sends the high power consumption signal or the normal power consumption signal through the interconnected antenna 2.

[0054] Embodiment three:

[0055] See also Figure 1 - Figure 3 As shown, the data acquisition port sorts the signals received by the interconnected antenna 2, performs analysis and processing according to the received signals, and obtains the control logic of the SMD lamp bead matrix 4 in the LED panel light;

[0056] During the operation of the SMD lamp bead matrix 4, the data acquisition port records the lamp beads in the SMD lamp bead matrix 4 that are in operation, and collects data once per second, records the operation status of the lamp beads collected each time as an operation frame, and combines all the collected operation frames to obtain the operation logic;

[0057] The operation fault supervision unit compares the operation logic with the control logic. If the degree of coincidence between the operation logic and the control logic is greater than the set value, a normal operation signal is generated. If the degree of coincidence between the operation logic and the control logic is not greater than the set value, an operation fault signal is generated.

[0058] The method by which the operation fault supervision unit compares the operation logic with the control logic is:

[0059] The operation fault monitoring unit decomposes the control logic into frames, converts the control logic into a control frame per second, arranges the control frames in chronological order, and arranges the operation frames in chronological order, and records the control frames and operation frames with the same sequence number in the arrangement as the same time;

[0060] The operation fault monitoring unit compares the on / off status of the lamp bead at one position in the control frame and the operation frame at the same time. If the on / off status of the lamp bead at this position in the control frame and the operation frame is the same, it is recorded as coincidence. If the on / off status of the lamp bead at this position in the control frame and the operation frame is different, it is recorded as non-coincidence.

[0061] The operation fault supervision unit compares all control frames and operation frames at the same time, statistics the comparison results, obtains the overlap of lamp beads in all positions at all times, calculates the proportion of overlap times, and records the proportion of overlap times as the overlap degree.

[0062] After generating a normal operation signal, the operation fault monitoring unit communicates data through the heat control unit and the power consumption monitoring unit. If both the power consumption normal signal and the heat normal signal are obtained at the same time, it is determined that the LED panel light is operating normally.

[0063] After the operation fault monitoring unit generates a normal operation signal, if it obtains any one of an abnormal power consumption signal or an excessive heat signal, it determines that the LED panel light is operating abnormally;

[0064] After the operation fault monitoring unit generates an operation fault signal, it determines that the LED panel light is operating abnormally;

[0065] The operating fault monitoring unit generates an alarm reminder for the abnormal result of the LED panel light and sends it through the interconnected antenna 2.

[0066] The preferred embodiments of the present invention disclosed above are only used to help explain the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to only specific implementation methods. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. The colorful RGB smart LED panel light based on IoT control is characterized by: It comprises a light board housing (1), a SMD lamp bead matrix (4) is installed below the light board housing (1), an interconnection antenna (2) is installed above the light board housing (1), at least two groups of the interconnection antennas (2) are distributed at both ends of the light board housing (1), and a processing port (3) is also installed above the light board housing (1); The processing port (3) internally integrates a processor, a storage, a data transceiver module and an operation module; The operation module includes a data acquisition port, a heat control unit, an operation fault monitoring unit, and a power consumption monitoring unit; The data acquisition port can collect the operating parameters of the LED panel light and process the collected parameters to obtain heating characteristics, operating characteristics and power consumption characteristics; The heat control unit can monitor the heating characteristics of the LED panel light and generate a heat determination signal according to the monitoring result of the heating characteristics; The power consumption supervision unit supervises the power consumption characteristics and generates a power consumption judgment signal according to the power consumption characteristics; The operation fault monitoring unit performs a comprehensive analysis on the operation characteristics, the power consumption judgment signal and the heat judgment signal, and performs a predictive analysis on the operation faults of the LED panel lamp.

2. The colorful RGB intelligent LED panel light based on Internet of Things control according to claim 1 is characterized in that: The data acquisition port can collect the continuous operation time of the LED panel lamp, and at the same time collect the upper and lower surface operation temperatures of the LED panel lamp. The data acquisition port performs arithmetic averaging on the collected upper and lower surface temperatures, and records the obtained temperature as the operation temperature. The data acquisition port records the operating temperature, shutdown time, working time and the number of working lamp beads as heating characteristics and sends them to the heat control unit.

3. The colorful RGB intelligent LED panel light based on Internet of Things control according to claim 2 is characterized in that: The method for the data acquisition port to obtain the continuous running time is: The data acquisition port counts when the LED panel light is in the on state and records it as the working time. At the same time, the number of lamp beads in the running state in the LED panel light is recorded to obtain the number of working lamp beads. The off time maintained before the LED panel light is turned on is recorded as the off time.

4. The colorful RGB intelligent LED panel light based on Internet of Things control according to claim 2 is characterized in that: After obtaining the heating characteristics, the heat control unit calculates through a formula to obtain a heating evaluation value. The heat control unit compares the heating evaluation value with a set threshold value, and generates a heat excess signal or a heat normal signal according to the comparison result. The heat control unit sends the heat normal signal or the heat excess signal through the interconnected antenna (2).

5. The colorful RGB intelligent LED panel light based on Internet of Things control according to claim 1 is characterized in that: The data acquisition port selects a time period of a certain length as the detection time, and numbers the lamp beads of the LED panel lamp as i, i=1, 2, 3, ..., n. The data acquisition port records the running time of each lamp bead as ti. The data acquisition port counts the real-time power of the LED panel lamp during the detection time, and calculates the energy consumption data of the LED panel lamp during the detection time through the real-time power and the detection time; The data acquisition port sends the energy consumption data and the operating time ti of each lamp bead as power consumption characteristics to the power consumption supervision unit.

6. The colorful RGB intelligent LED panel light based on Internet of Things control according to claim 5 is characterized in that: The power consumption monitoring unit generates a power consumption evaluation value through formula analysis, compares the power consumption evaluation value with a set threshold value, generates an excessive power consumption signal or a normal power consumption signal according to the comparison result, and sends the excessive power consumption signal or the normal power consumption signal through the interconnected antenna (2).

7. The colorful RGB intelligent LED panel light based on Internet of Things control according to claim 1 is characterized in that: The data acquisition port acquires the control logic of the chip lamp bead matrix (4) in the LED panel lamp; The data acquisition port acquires data from the SMD lamp bead matrix (4) once per second, records the operation status of the lamp beads acquired each time as an operation frame, and combines all the acquired operation frames to obtain the operation logic; The operation fault monitoring unit compares the operation logic with the control logic for overlap. If the overlap between the operation logic and the control logic is greater than a set value, a normal operation signal is generated; otherwise, an operation fault signal is generated.

8. The colorful RGB intelligent LED panel light based on Internet of Things control according to claim 7 is characterized in that: The method by which the operation fault monitoring unit compares the operation logic with the control logic is: The operation fault monitoring unit compares the on / off states of the lamp beads at one position in the control frame and the operation frame at the same time, and if the on / off states of the lamp beads at the position in the control frame and the operation frame are the same, it is recorded as coincidence; if the on / off states of the lamp beads at the position in the control frame and the operation frame are different, it is recorded as non-coincidence; The operation fault monitoring unit compares all control frames and operation frames at the same time, collects statistics on the comparison results, obtains the overlap of lamp beads in all positions at all times, calculates the proportion of the overlap times, and records the proportion of the overlap times as the overlap degree.

9. The colorful RGB intelligent LED panel light based on Internet of Things control according to claim 7, characterized in that: After the operation fault monitoring unit generates the normal operation signal, if the normal power consumption signal and the normal heat signal are obtained at the same time, it is determined that the LED panel lamp is operating normally; After the operation fault monitoring unit generates the normal operation signal, if it obtains any one of the abnormal power consumption signal or the excessive heat signal, it determines that the LED panel lamp is operating abnormally; After generating the operation fault signal, the operation fault monitoring unit determines that the LED panel lamp is operating abnormally.

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