Lighting control system and method for light therapy module

Abstract

The present invention relates to the technical field of phototherapy instruments, and in particular to a light control system and method for a phototherapy module, comprising an assembly carrier, a wiring assembly, a phototherapy assembly, a control assembly, a gravity sensing assembly, and a temperature sensing assembly, wherein the assembly carrier is provided with multiple, the phototherapy assembly comprises multiple, multiple phototherapy assemblies are sequentially connected in series, the wiring assembly is provided with multiple, multiple wiring assembly are sequentially connected in series, the phototherapy assembly is connected to the wiring assembly, the multiple wiring assembly is transversely arranged on the assembly carrier, the assembly carrier is provided with an assembly slot, multiple groups of phototherapy assemblies are arranged on the assembly slot, the control assembly comprises a phototherapy control module, a gravity receiving module, a temperature sensing receiving module, and a power supply module, and the phototherapy control module is connected to the phototherapy assembly via the wiring assembly to control the phototherapy assembly. The number of components can be flexibly increased or decreased, and the layout can be adjusted to accommodate a wider range of treatment scenarios and personalized needs.

Description

Technical Field

[0001] The present invention relates to the technical field of phototherapy instruments, and in particular to a light control system and method for a phototherapy module. Background Art

[0002] Phototherapy devices are medical devices that utilize light of a specific wavelength or spectral range for treatment and healthcare. Based on the principles of photobiology, they non-invasively convert light energy into a form absorbable by biological tissue, thereby promoting cellular metabolism, accelerating tissue repair, regulating immune function, and improving skin condition, among other physiological effects. Phototherapy technology is widely used in the medical, cosmetic, and rehabilitation fields and is a vital component of modern biomedical technology. As a modern device that integrates technology, medicine, and cosmetics, phototherapy devices, with their unique advantages and wide range of applications, are playing an increasingly important role in improving human health and quality of life. With advances in technology and in-depth clinical research, phototherapy technology will continue to develop, bringing benefits to more patients and consumers.

[0003] When used on phototherapy equipment, various phototherapy controls are required. Existing phototherapy control systems have shortcomings, particularly ineffective and targeted control. The control methods are too simplistic, so new improvements are needed to address these issues. Summary of the Invention

[0004] To address these issues, the present invention not only facilitates system installation and maintenance but also offers exceptional scalability. As treatment needs evolve or technology evolves, the lighting control system and method for phototherapy modules can flexibly increase or decrease the number of components and adjust the layout to accommodate a wider range of treatment scenarios and personalized needs.

[0005] The technical solution adopted by the present invention is: a lighting control system of a phototherapy module, including an assembly carrier, a wiring assembly, a phototherapy assembly, a control assembly, a gravity sensing assembly and a temperature sensing assembly, wherein the assembly carrier is provided with multiple, the phototherapy assembly is composed of multiple, multiple phototherapy assemblies are connected in series in sequence, the wiring assembly is provided with multiple, multiple wiring assemblies are connected in series in sequence, the phototherapy assembly is connected to the wiring assembly, multiple wiring assemblies are horizontally arranged on the assembly carrier, the assembly carrier is provided with an assembly groove, multiple groups of phototherapy assemblies are arranged on the assembly groove, the phototherapy assembly includes a phototherapy shell, a phototherapy wick arranged in the phototherapy shell and a focusing lens covered on the outside of the phototherapy wick; a fixing ring is provided on the assembly groove, the fixing ring is used to fix the focusing lens so that the focusing lens is exposed on the outer surface of the assembly carrier; the wiring assembly is connected to the control assembly.

[0006] A further improvement to the above scheme is that the gravity sensing component is arranged on the assembly carrier, and a regional gravity sensing unit is formed on the assembly carrier to sense the area where the assembly carrier is subjected to force; the temperature sensing component is arranged on the assembly carrier, and a regional temperature sensing unit is formed on the assembly carrier to sense the temperature within the regional temperature sensing unit of the assembly carrier.

[0007] A further improvement to the above scheme is that the control component includes a phototherapy control module, a gravity receiving module, a temperature sensing receiving module and a power supply module. The phototherapy control module is connected to the phototherapy component through a wiring hub component to control the phototherapy component. The gravity receiving module is used to connect to the gravity sensing component to receive the force conditions of the regional gravity sensing unit sensed by the gravity sensing component, and then control the light band and power of the phototherapy component according to the force conditions. The temperature sensing receiving module is used to receive the temperature of the temperature sensing unit in the sensing area to adjust the light band and power of the phototherapy component; the power supply module is connected to the phototherapy control module and supplies power to the phototherapy component.

[0008] A further improvement to the above scheme is that the assembly carrier includes a flexible backboard, a flexible panel, an edge strip and a fixed buckle, the flexible backboard is connected to the flexible panel, the assembly groove is arranged between the flexible backboard and the flexible panel, the edge strip is used to connect the flexible backboard and the edge of the flexible panel, and the fixed buckle is used to fix the flexible backboard and the flexible panel.

[0009] A further improvement to the above solution is that a wiring port is provided at one end of the line hub assembly, and the wiring port is connected to the control assembly via a connecting line to control the phototherapy assembly.

[0010] A further improvement to the above solution is that the fixing ring is riveted to the outside of the focusing lens, and the flexible panel is fixed by riveting, so that the focusing lens is exposed on the flexible panel.

[0011] A further improvement to the above scheme is that there are multiple assembly slots, a dividing strip is provided between two adjacent assembly slots, a dividing strip is provided inside the dividing strip, a flexible circuit board is provided in the dividing slot, the gravity sensing component and the temperature sensing component are both provided on the flexible circuit board, and one end of the flexible circuit board is electrically connected to the wiring hub component; the gravity sensing component includes multiple gravity sensing chips provided on the flexible circuit board, and the temperature sensing component includes multiple temperature sensing circuits provided on the flexible circuit board.

[0012] A further improvement to the above scheme is that a plurality of the phototherapy components are arranged in series longitudinally on the assembly groove, one end of the flexible circuit board extends along the series direction of the phototherapy components, a connecting component is arranged in series between two adjacent phototherapy components, the gravity sensing chip is opposite to the connecting component, and the temperature sensing circuit is opposite to the phototherapy component.

[0013] A further improvement to the above scheme is that the line hub component is provided with a connecting component, the line hub component is provided with a first interface, the phototherapy component is provided with a second interface and a third interface, the connecting component includes a connecting line and a first connector and a second connector provided at both ends of the connecting line, the first connector is connected to the first interface, and the second connector is connected to the second interface.

[0014] A further improvement to the above scheme is that the cable hub assembly includes a cable hub base, a cable hub upper shell and a cable hub plate, the cable hub upper shell is provided with a support frame, the cable hub plate is installed on the support frame, and serial connection ports are provided at both ends of the cable hub base, and the serial connection ports are used to connect the wiring harness to the cable hub plate.

[0015] A further improvement to the above scheme is that reinforcement seats are provided at both ends of the wiring hub base, the serial connection port is provided on the reinforcement seat, and the upper shell of the wiring hub is provided with a pressing groove, which is used to cooperate with the serial connection port to press and fix the wiring harness; the first interface is provided on the wiring hub board, and the upper shell of the wiring hub is provided with a through groove corresponding to the first interface; the support frame is provided with a positioning groove, and the positioning groove is used to position the first interface.

[0016] A further improvement to the above scheme is that the phototherapy shell includes a phototherapy bottom shell, a phototherapy upper shell and a phototherapy PCB board, the phototherapy bottom shell is provided with an assembly side panel, and the phototherapy upper shell is provided with a matching bracket and a positioning bracket, the matching bracket is used to match the assembly side panel to connect the phototherapy bottom shell with the phototherapy upper shell; the positioning bracket is used to fix the phototherapy wick, and the phototherapy wick is arranged on the phototherapy PCB board, the second interface and the third interface are respectively arranged on both sides of the phototherapy PCB board, and the first opening and the second opening are provided on both sides of the phototherapy upper shell, the first opening is used to fix the second interface, and the second opening is used to fix the third interface.

[0017] A further improvement to the above scheme is that the positioning frame is ring-shaped, the positioning frame is provided with a positioning slot, and the focusing lens is provided with a positioning block, the positioning block is used to cooperate with the positioning slot to fix the focusing lens on the positioning frame, and one end of the focusing lens extends to the surface of the phototherapy upper shell.

[0018] A further improvement to the above solution is that the focusing lens is provided with a lamp cavity, the focusing lens is arranged on the outside of the phototherapy lamp wick through a lamp cavity cover, and a hemispherical protrusion is provided on the side of the lamp cavity facing the phototherapy lamp wick.

[0019] A further improvement to the above solution is that the first interface includes a first socket, a first socket provided on the first socket, and a first socket terminal provided in the first socket; a first socket is provided on the upper side of the first socket.

[0020] A further improvement to the above solution is that the second interface includes a second socket, a second socket provided on the second socket, and a second socket terminal provided in the second socket; and a second socket card slot is provided on the upper side of the second socket.

[0021] A further improvement to the above solution is that the third interface includes a third plug socket, a third plug slot provided on the third plug socket, and a third plug terminal provided in the third plug slot; a third plug card slot is provided on the upper side of the third plug slot.

[0022] A further improvement to the above scheme is that the first connector is provided with a first plug socket, a first pair of slots provided in the first plug socket, and a first plug terminal provided in the first pair of slots, and one end of the first plug socket is provided with a first plug-in fixing piece; the second connector is provided with a second plug socket, a second pair of slots provided in the second plug socket, and a second plug terminal provided in the second pair of slots, and one end of the second plug socket is provided with a second plug-in fixing piece.

[0023] A light therapy light control method, including the light control system of the light therapy module;

[0024] The phototherapy light control method includes the following steps:

[0025] The regional gravity sensing unit includes gravity chip a1...gravity chip an;

[0026] The regional temperature sensing unit includes a temperature sensing circuit b1 ···temperature sensing circuit bn;

[0027] Place the assembly carrier at the part that needs phototherapy so that the phototherapy end of the phototherapy component contacts the phototherapy position. The control component controls the start of the phototherapy component through the phototherapy control module. At this time, the gravity receiving module judges the position and state of the assembly carrier for phototherapy based on the gravity detection information fed back by the gravity chip a1...gravity chip an in the regional gravity sensing unit. The phototherapy control module controls the light band and power of the phototherapy components at different positions according to the judged phototherapy position and state, so as to start different light bands and powers for phototherapy according to the gravity received at different positions. During the phototherapy process, the temperature sensing component senses the ambient temperature and feeds back the temperature detected at different positions to the phototherapy control module.

[0028] The beneficial effects of the present invention are:

[0029] Compared with the existing phototherapy light control system, the present invention adopts a modular design concept, and the modules such as the assembly carrier, wiring assembly, phototherapy assembly, control assembly, gravity sensing assembly and temperature sensing assembly are both independent of each other and work closely together.

[0030] By integrating a gravity-sensing component with a temperature-sensing component, the present invention enables the system to form precise regional gravity-sensing units and regional temperature-sensing units on an assembly carrier. The gravity-sensing component can monitor the forces acting on different areas of the assembly carrier in real time, which is particularly important for scenarios where phototherapy intensity needs to be adjusted based on changes in patient position or treatment area. The temperature-sensing component can accurately sense temperature changes within the treatment area, providing real-time feedback for adjusting phototherapy parameters, effectively avoiding the negative effects of overheating or overcooling on treatment effectiveness, and ensuring safety and comfort during treatment.

[0031] The phototherapy control module, gravity receiving module, and temperature sensing receiving module in the control assembly of the present invention work together to achieve intelligent control of the light wavelength and power of the phototherapy component. The gravity sensing data received by the gravity receiving module can guide the phototherapy control module to automatically adjust the light wavelength and power according to the force applied to the area, adapting to different treatment sites or changes in the patient's body shape, thereby improving the targetedness and effectiveness of the treatment. Simultaneously, the temperature sensing receiving module dynamically adjusts the phototherapy parameters based on the temperature changes of the regional temperature sensing unit, ensuring that the treatment process is carried out within the appropriate temperature range and protecting the patient from thermal damage.

[0032] In the present invention, the design of the phototherapy component fully considers the utilization efficiency and focusing effect of light energy. The phototherapy wick embedded in the phototherapy housing, combined with the focusing lens on the external cover, not only effectively reduces the loss of light energy, but also achieves precise focusing of the light, so that the phototherapy energy can act more concentratedly on the target area, enhancing the treatment effect. In addition, the fixing ring provided on the assembly groove not only stabilizes the position of the focusing lens, but also ensures that the focusing lens can be fully exposed to the outer surface of the assembly carrier, making it easier for light to directly irradiate the patient, further improving the convenience and efficiency of treatment.

[0033] In this invention, the power supply module, as the power source for the entire system, is crucial for its stability and safety. This system utilizes a power supply module that not only provides continuous and stable power to the phototherapy components but also incorporates multiple protection mechanisms, including overcurrent, overvoltage, and short circuit protection, effectively preventing safety incidents caused by circuit failures. Furthermore, the optimized design of the power supply module reduces energy consumption, extends the system's lifespan, and lowers operating costs.

[0034] This invention significantly enhances user experience and treatment outcomes through highly modular design, precise regional control, intelligent phototherapy regulation, efficient light energy utilization and focusing, and stable power supply. Patients can enjoy a more personalized, safe, and comfortable treatment process.

[0035] The phototherapy light control method utilizes a regional gravity sensing unit (composed of gravity chips a1 to an) to monitor the position and status of the assembly carrier at the treatment site in real time. This ensures precise alignment of the phototherapy components with the treatment area, avoiding the reduced efficacy caused by positional deviation in traditional phototherapy. The instant feedback of gravity detection information enables the system to quickly respond and adjust the layout of the phototherapy components, ensuring efficient and precise treatment. Secondly, the phototherapy control module analyzes gravity sensing data to achieve differentiated control of the light wavelength and power of phototherapy components in different locations. This design allows the system to intelligently adjust light output based on the specific needs of the treatment area, improving the targeted treatment effect while avoiding unnecessary energy waste and enhancing the energy efficiency of the treatment. Furthermore, the integrated regional temperature sensing unit (composed of temperature sensing circuits b1 to bn) continuously monitors the ambient temperature during phototherapy and provides real-time data feedback to the phototherapy control module. This function ensures temperature control during phototherapy, effectively preventing skin discomfort or damage caused by localized overheating, and enhancing treatment safety and patient comfort. This lighting control method and system utilizes precise gravity sensing and intelligent lighting control, combined with real-time temperature monitoring, to fully optimize the phototherapy process. This not only significantly enhances treatment effectiveness but also ensures safety and comfort during treatment. BRIEF DESCRIPTION OF THE DRAWINGS

[0036] Figure 1 is a three-dimensional schematic diagram of a light control system of a light therapy module of the present invention;

[0037] Figure 2 for Figure 1 Exploded diagram of the light control system of the phototherapy module;

[0038] Figure 3 for Figure 1 An exploded view of the light control system of the phototherapy module from another perspective;

[0039] Figure 4 for Figure 1 Schematic diagram of the structure of the light therapy components of the light control system of the light therapy module;

[0040] Figure 5 for Figure 1 A schematic diagram of the partial structure of the light therapy components of the light control system of the light therapy module;

[0041] Figure 6 for Figure 1 A schematic diagram of the partial structure of the light therapy components of the light control system of the light therapy module;

[0042] Figure 7 for Figure 1 An exploded diagram of the light therapy components of the light control system of the light therapy module;

[0043] Figure 8 for Figure 1 An exploded view of the light therapy components of the light control system of the light therapy module from another perspective;

[0044] Figure 9 This is a schematic diagram of the lighting control system of the light therapy module of the present invention in use;

[0045] Figure 10 This is a schematic diagram of another usage state of the light control system of the light therapy module of the present invention;

[0046] Figure 11 This is a schematic diagram of another usage state of the light control system of the light therapy module of the present invention;

[0047] Figure 12 Schematic diagram of the connection status of the light control system of the light therapy module of the present invention.

[0048] Explanation of the reference numerals: assembly carrier 1, assembly groove 11, fixing ring 111, flexible backboard 12, flexible panel 13, edge banding strip 14, fixing buckle 15, separator strip 16, flexible circuit board 161, line hub component 2, wiring port 21, first interface 22, first plug socket 221, first plug slot 222, first plug terminal 223, first plug card slot 224, line hub base 23, serial connection port 231, reinforcement seat 232, line hub shell 24, support frame 241, pressing groove 242, positioning groove 242, line hub board 25, phototherapy component 3, phototherapy shell 31, phototherapy bottom shell 311, phototherapy upper shell 312, first opening 3121, second opening 3122, phototherapy PCB board 313, assembly side panel 314, matching bracket 315, positioning frame 316, positioning card slot 31 61. Phototherapy lamp wick 32. Focusing lens 33. Positioning block 331. Lamp cavity 332. Hemispherical protrusion 333. Second interface 34. Third interface 35. Third socket 351. Third socket 352. Third socket terminal 353. Third socket card slot 354. Control component 4. Phototherapy control module 41. Gravity receiving module 42. Temperature sensing receiving module 43. Power supply module 44. Gravity sensing component 5. Temperature sensing component 6. Regional gravity sensing unit 7. Regional temperature sensing unit 8. Connection component 9. Connection line 91. First connector 92. First plug socket 921. First pair of slots 922. First plug terminal 923. First plug fixing plate 924. Second connector 93. Second plug socket 931. Second pair of slots 932. Second plug terminal 933. Second plug fixing plate 934. DETAILED DESCRIPTION

[0049] To facilitate understanding of the present invention, the present invention will be described more fully below with reference to the accompanying drawings. Preferred embodiments of the present invention are shown in the accompanying drawings. However, the present invention may be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to provide a more thorough and comprehensive understanding of the present disclosure.

[0050] It should be noted that when an element is referred to as being “fixed to” another element, it may be directly on the other element or there may be an intermediate element. When an element is referred to as being “connected to” another element, it may be directly connected to the other element or there may be an intermediate element.

[0051] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by those skilled in the art to which the present invention pertains. The terms used in the specification of the present invention herein are only for the purpose of describing specific embodiments and are not intended to limit the present invention. Figures 1 to 12As shown, in one embodiment of the present invention, a lighting control system of a phototherapy module is involved, including an assembly carrier 1, a wiring assembly 2, a phototherapy assembly 3, a control assembly 4, a gravity sensing assembly 5 and a temperature sensing assembly 6, the assembly carrier 1 is provided with multiple, the phototherapy assembly 3 is composed of multiple, multiple phototherapy assemblies 3 are connected in series in sequence, the wiring assembly 2 is provided with multiple, multiple wiring assembly assemblies 2 are connected in series in sequence, the phototherapy assembly 3 is connected to the wiring assembly 2, multiple wiring assembly assemblies 2 are horizontally arranged on the assembly carrier 1, the assembly carrier 1 is provided with an assembly groove 11, multiple groups of phototherapy assemblies 3 are arranged on the assembly groove 11, the phototherapy assembly 3 includes a phototherapy shell 31, a phototherapy wick 32 arranged in the phototherapy shell 31 and a focusing lens 33 covered on the outside of the phototherapy wick 32; a fixing ring 111 is provided on the assembly groove 11, the fixing ring 111 is used to fix the focusing lens 33 so that the focusing lens 33 is exposed on the outer surface of the assembly carrier 1; the wiring assembly 2 is connected to the control assembly 4; the gravity sensing assembly 5 is provided with a temperature sensing assembly 6, the temperature sensing assembly 6 is provided with a temperature sensing assembly 6, the temperature sensing assembly 6 is provided with a temperature sensing assembly 6, the temperature sensing assembly 6 is provided with a temperature sensing assembly 6, the temperature sensing assembly 6 is provided with a temperature sensing assembly 6, the temperature sensing assembly 6 is provided with a temperature sensing assembly 6, the temperature sensing assembly 6 is provided with a temperature sensing assembly 6, the temperature sensing assembly 6 is provided with a temperature sensing assembly 6, the temperature sensing assembly 6 is provided with a temperature sensing assembly 6 The response component 5 is arranged on the assembly carrier 1, and a regional gravity sensing unit 7 is formed on the assembly carrier 1 to sense the area where the assembly carrier 1 is subjected to force; the temperature sensing component 6 is arranged on the assembly carrier 1, and a regional temperature sensing unit 8 is formed on the assembly carrier 1 to sense the temperature inside the regional temperature sensing unit 8 of the assembly carrier 1; the control component 4 includes a phototherapy control module 41, a gravity receiving module 42, a temperature sensing receiving module 43 and a power supply module 44. The phototherapy control module 41 is connected to the phototherapy component 3 through the wiring component 2 to control the phototherapy component 3. The gravity receiving module 42 is used to connect to the gravity sensing component 5 to receive the force condition of the regional gravity sensing unit 7 sensed by the gravity sensing component 5, and then control the light band and power of the phototherapy component 3 according to the force condition. The temperature sensing receiving module 43 is used to receive the temperature of the sensing regional temperature sensing unit 8 to adjust the light band and power of the phototherapy component 3; the power supply module 44 is connected to the phototherapy control module 41 and supplies power to the phototherapy component 3. This embodiment utilizes a modular design approach, with each module—the assembly carrier 1, cable management component 2, phototherapy component 3, control component 4, gravity sensor component 5, and temperature sensor component 6—working independently yet closely together. This not only facilitates system installation and maintenance but also provides high scalability. As treatment needs evolve or technology upgrades, the number of components can be flexibly increased or decreased, and the layout adjusted to accommodate a wider range of treatment scenarios and personalized needs.

[0052] In this embodiment, through the integration of gravity sensing component 5 and temperature sensing component 6, the system can form precise regional gravity sensing units 7 and regional temperature sensing units 8 on the assembly carrier 1. Gravity sensing component 5 can monitor the forces acting on different areas of the assembly carrier 1 in real time, which is particularly important for scenarios where phototherapy intensity needs to be adjusted based on changes in patient position or treatment area. The temperature sensing component 6 can accurately sense temperature changes within the treatment area, providing real-time feedback for adjusting phototherapy parameters, effectively preventing the negative impact of overheating or overcooling on treatment effectiveness, and ensuring safe and comfortable treatment.

[0053] In this embodiment, the phototherapy control module 41, gravity receiving module 42, and temperature sensing module 43 in the control component 4 work together to achieve intelligent control of the light wavelength and power of the phototherapy component 3. The gravity sensing data received by the gravity receiving module 42 can guide the phototherapy control module 41 to automatically adjust the light wavelength and power according to the force applied to the area, adapting to different treatment sites or changes in the patient's body shape, thereby improving the targetedness and effectiveness of the treatment. Simultaneously, the temperature sensing module 43 dynamically adjusts the phototherapy parameters based on the temperature changes of the regional temperature sensing unit 8, ensuring that the treatment process is carried out within the appropriate temperature range and protecting the patient from thermal damage.

[0054] In this embodiment, the design of the phototherapy component 3 fully considers the utilization efficiency and focusing effect of light energy. The phototherapy wick 32 embedded in the phototherapy housing 31, combined with the focusing lens 33 on the outside, not only effectively reduces the loss of light energy, but also achieves precise focusing of the light, so that the phototherapy energy can act more concentratedly on the target area, thereby enhancing the treatment effect. In addition, the fixing ring 111 provided on the assembly groove 11 not only stabilizes the position of the focusing lens 33, but also ensures that the focusing lens 33 can be fully exposed to the outer surface of the assembly carrier 1, so that the light can be directly irradiated on the patient, further improving the convenience and efficiency of treatment.

[0055] In this embodiment, power supply module 44 serves as the power source for the entire system, and its stability and safety are crucial. This system utilizes power supply module 44, which not only provides continuous and stable power to phototherapy component 3 but also incorporates multiple protection mechanisms, including overcurrent, overvoltage, and short circuit protection, effectively preventing safety incidents caused by circuit failures. Furthermore, the optimized design of power supply module 44 reduces energy consumption, extends the system's service life, and lowers operating costs.

[0056] This embodiment significantly enhances user experience and treatment effectiveness through highly modular design, precise regional control, intelligent phototherapy regulation, efficient light energy utilization and focusing, and stable power supply. Patients can enjoy a more personalized, safe, and comfortable treatment process.

[0057] The assembly carrier 1 includes a flexible back panel 12, a flexible panel 13, an edge banding 14, and a fixed buckle 15. The flexible back panel 12 is connected to the flexible panel 13, and the assembly slot 11 is provided between the flexible back panel 12 and the flexible panel 13. The edge banding 14 is used to connect the flexible back panel 12 and the flexible panel 13 at their edges, and the fixed buckle 15 is used to securely fasten the flexible back panel 12 and the flexible panel 13. In this embodiment, the ingenious combination of the flexible back panel 12 and the flexible panel 13 not only ensures that the phototherapy device has a high degree of flexibility and adaptability, and can adapt to treatment areas of different shapes and curves, but also that the flexible back panel 12 and the flexible panel 13 are textile panels, thereby improving the accuracy and effectiveness of phototherapy. This flexible design also reduces the discomfort caused by direct contact between the hard edge of the device and the patient's skin, enhancing the comfort of the treatment process. The assembly slot 11 is provided between the flexible back panel 12 and the flexible panel 13, providing a stable and flexible platform for the integration of the phototherapy component 3. This not only facilitates the precise installation and adjustment of the phototherapy components, but also promotes the effective dissipation of heat, avoids potential damage to the patient's skin due to overheating, and ensures the safety of the treatment process. The edge banding 14 serves as a connecting structure between the edges of the flexible back panel 12 and the flexible panel 13. It not only enhances the overall stability of the structure, but the sealing design of the edge banding 14 also helps prevent external impurities from entering the interior of the device, thereby extending the service life of the phototherapy system. The fixed buckle 15 serves as a component for fixing the connection between the flexible back panel 12 and the flexible panel 13, ensuring the integrity of the flexible back panel 12 and the flexible panel 13.

[0058] See Figures 4 to 6 As shown, one end of the line hub component 2 is provided with a wiring port 21, and the wiring port 21 is connected to the control component 4 via a connecting line to control the light therapy component 3. The design of the wiring port 21 facilitates the connection of the connecting line to the control component 4 to achieve power connection and control connection. The power supply module 44 is provided in the control component 4, which also makes the present application easy to carry and use, and can be used in any scenario. Furthermore, the power supply component of the control component 4 can also be used as a power bank, which is easy to carry and can also charge mobile terminals such as mobile phones.

[0059] See Figure 7-Figure 8 As shown, the fixing ring 111 is riveted to the outside of the focusing lens 33 and the flexible panel 13 is riveted to secure it, so that the focusing lens 33 is exposed on the flexible panel 13. In this embodiment, the riveted connection ensures a secure connection between the focusing lens 33 and the flexible panel 13, effectively preventing loosening due to vibration or long-term use, thereby ensuring the precise focusing and stable transmission of light during phototherapy. The exposed design of the focusing lens 33 allows light to be projected directly to the target area without obstruction, maximizing the phototherapy effect and ensuring that the treatment area receives uniform, high-intensity light.

[0060] There are multiple assembly slots 11, and a dividing bar 16 is provided between two adjacent assembly slots 11. A dividing slot is provided in the dividing bar 16, and a flexible circuit board 161 is provided in the dividing slot. The gravity sensing component 5 and the temperature sensing component 6 are both provided on the flexible circuit board 161, and one end of the flexible circuit board 161 is electrically connected to the wiring assembly 2; the gravity sensing component 5 includes a plurality of gravity sensing chips 51 provided on the flexible circuit board 161, and the temperature sensing component 6 includes a plurality of temperature sensing circuits 61 provided on the flexible circuit board 161. In this embodiment, the use of the dividing slots embedded in the dividing bar 16 and the flexible circuit board 161, with their flexibility and bendability, effectively solves the limitations of traditional rigid board circuits in complex layouts, allowing the gravity sensing component 5 and the temperature sensing component 6 to be flexibly arranged in a small space while maintaining high signal transmission efficiency and reliability. This optimizes the internal layout of the device, reduces wiring difficulty, and improves overall integration.

[0061] Multiple phototherapy components 3 are arranged longitudinally in series on the assembly slot 11. One end of the flexible circuit board 161 extends along the direction of the series connection of the phototherapy components 3. A connecting component 9 is arranged in series between two adjacent phototherapy components 3. The gravity sensing chip 51 faces the connecting component 9, and the temperature sensing circuit 61 faces the phototherapy components 3. In this embodiment, this layout optimizes space utilization, making the phototherapy device more compact, easy to carry and install, and particularly suitable for scenarios requiring flexible configuration of treatment areas. By connecting in series, the phototherapy coverage area is continuously expanded, ensuring uniform illumination of the treatment area and improving the consistency and stability of the treatment effect. The design of the flexible circuit board 161 further enhances the flexibility and reliability of the system. With one end extending along the direction of the series connection of the phototherapy components 3, it not only simplifies circuit connections and reduces circuit complexity, but also avoids the space limitations and installation difficulties that may be associated with traditional rigid circuit boards. This allows for smoother electrical signal transmission between the phototherapy components 3, reduces signal attenuation and interference, and ensures precise control of the phototherapy process. The connecting component 9 between two adjacent phototherapy components 3 not only achieves a physically stable connection, but also ensures the stability and safety of the electrical connection. This design makes the replacement and maintenance of the phototherapy component 3 more convenient. When a component fails, it can be quickly located and replaced, reducing downtime and maintenance costs. The relative layout of the gravity sensing chip 51 and the connecting component 9 adds intelligent sensing capabilities to the system. The gravity sensing chip 51 can monitor the posture changes of the equipment in real time, such as tilting, flipping, etc., thereby triggering corresponding protection measures or adjusting the phototherapy parameters to ensure the safety and effectiveness of the treatment process. It reflects the careful consideration of user experience and improves the overall intelligence level of the phototherapy system. The relative layout of the temperature sensing circuit 61 and the phototherapy component 3 realizes the accurate monitoring of the temperature during the phototherapy process. By real-time monitoring of the temperature changes of the phototherapy component 3 and the surrounding environment, the working parameters can be adjusted in time to prevent overheating and protect the patient's skin from damage, while also extending the service life of the phototherapy component 3.

[0062] The line hub component 2 is provided with a connection component 9, and the line hub component 2 is provided with a first interface 22, and the phototherapy component 3 is provided with a second interface 34 and a third interface 35. The connection component 9 includes a connection line 91 and a first connector 92 and a second connector 93 provided at both ends of the connection line 91, the first connector 92 is connected to the first interface 22, and the second connector 93 is connected to the second interface 34. Specifically, the line hub component 2 includes a line hub base 23, a line hub upper shell 24 and a line hub board 25, the line hub upper shell 24 is provided with a support frame 241, the line hub board 25 is installed on the support frame 241, and serial connection interfaces 231 are provided at both ends of the line hub base 23, and the serial connection interfaces 231 are used to connect the wiring harness to the line hub board 25. In this embodiment, the first interface 22 built into the line hub component 2 is seamlessly connected with the first connector 92 of the connection component 9, thereby realizing centralized management and efficient transmission of the internal circuits of the phototherapy device. This design not only simplifies the circuit layout and effectively reduces the risk of failure caused by cluttered lines, but also improves the stability and reliability of signal transmission, providing a solid electrical foundation for the phototherapy treatment process. The connection component 9 is connected to the second interface 34 of the phototherapy component 3 through the second connector 93, ensuring immediate response and precise control between the phototherapy light source and the control system. The direct and efficient connection method makes the adjustment of phototherapy parameters faster and more accurate, providing strong support for the implementation of personalized treatment plans. The modular design of the wiring hub component 2, including the combination of the wiring hub base 23, the wiring hub upper shell 24 and the wiring hub plate 25, is not only convenient for installation and maintenance, but also enhances the scalability of the system. The support frame 241 design of the wiring hub upper shell 24 provides a stable support platform for the wiring hub plate 25, ensuring the stability of the wiring harness connection; and the serial connection ports 231 at both ends of the wiring hub base 23 further simplify the connection process between the wiring harness and the wiring hub plate 25, thereby improving assembly efficiency.

[0063] Reinforcement seats 232 are provided at both ends of the wiring hub base 23, the serial connection port 231 is provided on the reinforcement seat 232, and the wiring hub upper shell 24 is provided with a pressing groove 242, and the pressing groove 242 is used to cooperate with the serial connection port 231 to press and fix the wiring harness; the first interface 22 is provided on the wiring hub plate 25, and the wiring hub upper shell 24 is provided with a through groove corresponding to the first interface 22; the support frame 241 is provided with a positioning groove 243, and the positioning groove 243 is used to position the first interface 22; in this embodiment, the reinforcement seat 232 is provided at both ends of the wiring hub base 23, which not only provides a solid support platform for the serial connection port 231, but also effectively disperses the stress generated when the wiring harness is connected, reducing the risk of loosening or damage to the interface due to long-term use or external force. This reinforcement measure ensures the stable operation of the phototherapy equipment in complex environments and extends the service life of the equipment. The built-in pressing groove 242 design of the wiring hub upper shell 24 is closely matched with the serial connection port 231 to achieve efficient compression and fixation of the wiring harness. This not only simplifies the wiring harness organization and securing process, but also significantly improves the reliability and safety of the wiring harness connection, avoiding signal interruptions or electrical failures caused by loose wiring harnesses, and ensuring the continuity and effectiveness of the phototherapy treatment process. The precise layout of the first interface 22 on the wiring hub 25 and the corresponding through-slot provided on the wiring hub upper shell 24 provide clear and convenient access for internal and external connections of the phototherapy system. This design facilitates technical personnel in debugging and maintaining the equipment, while also leaving room for system upgrades and expansions, enhancing the flexibility and scalability of the phototherapy system.

[0064] The phototherapy shell 31 includes a phototherapy bottom shell 311, a phototherapy upper shell 312 and a phototherapy PCB board 313. The phototherapy bottom shell 311 is provided with an assembly side panel 314, and the phototherapy upper shell 312 is provided with a matching bracket 315 and a positioning bracket 316. The matching bracket 315 is used to match the assembly side panel 314 to connect the phototherapy bottom shell 311 with the phototherapy upper shell 312; the positioning bracket 316 is used to fix the phototherapy wick 32, and the phototherapy wick 32 is provided on the phototherapy PCB board 313. The second interface 34 and the third interface 316 are connected to each other. The interfaces 35 are respectively arranged on both sides of the phototherapy PCB board 313, and the first opening 3121 and the second opening 3122 are provided on both sides of the phototherapy upper shell 312. The first opening 3121 is used to fix the second interface 34, and the second opening 3122 is used to fix the third interface 35. In this embodiment, the assembly side panel 314 equipped with the phototherapy bottom shell 311 is tightly combined with the matching bracket 315 of the phototherapy upper shell 312, which not only ensures the overall stability of the phototherapy outer shell 31, but also simplifies the installation process and improves assembly efficiency. This design effectively avoids light energy leakage or structural damage caused by loose components, thereby ensuring the safety and effectiveness of the phototherapy process. The built-in positioning frame 316 of the phototherapy upper shell 312 is specially designed for the phototherapy wick 32, which realizes the precise positioning and fixation of the wick. This customized fixing method ensures that the phototherapy wick 32 can maintain a stable luminous state during operation, avoids light spot offset or light scattering, and improves the consistency and uniformity of the phototherapy effect. The phototherapy PCB 313, serving as the core control component, features a second port 34 and a third port 35 on either side, secured through corresponding first and second openings 3121 and 3122 on the phototherapy upper housing 312. This facilitates connection to external devices or a power source while protecting the ports from external interference, extending their service life. This layout also optimizes the internal circuit layout, reduces electromagnetic interference, and improves the overall stability of the system.

[0065] The positioning frame 316 is annular and is provided with a positioning slot 3161. The focusing lens 33 is provided with a positioning block 331. The positioning block 331 is used to cooperate with the positioning slot 3161 to fix the focusing lens 33 on the positioning frame 316. One end of the focusing lens 33 extends to the surface of the phototherapy upper shell 312. In this embodiment, the design of the annular positioning frame 316 optimizes the spatial layout, allowing the focusing lens 33 to be firmly installed inside the system, effectively preventing lens displacement due to vibration or misoperation, and ensuring the stability and consistency of the light beam during the phototherapy process. This design also facilitates subsequent maintenance and replacement, reducing maintenance costs and time. The precise coordination between the positioning slot 3161 and the positioning block 331 achieves seamless docking of the focusing lens 33, reduces light scattering and loss, and improves the light energy utilization rate of the phototherapy system. As one of the core components of the phototherapy system, the precise installation of the focusing lens 33 is crucial for focusing light and enhancing the treatment effect. This ensures that light is precisely projected onto the target area along a predetermined path, enhancing the reliability and predictability of treatment outcomes. One end of the focusing lens 33 extends to the surface of the phototherapy upper housing 312. This design cleverly shortens the optical path and reduces light attenuation during transmission, resulting in a more concentrated and intense phototherapy energy. This layout also facilitates adjustment of the phototherapy angle and range, meeting the needs of different treatment areas and conditions, and increasing the flexibility and applicability of the phototherapy system.

[0066] The focusing lens 33 is provided with a lamp cavity 332, and the focusing lens 33 is provided on the outside of the phototherapy wick 32 through the lamp cavity 332. The lamp cavity 332 is provided with a hemispherical protrusion 333 on the side facing the phototherapy wick 32. In this embodiment, the lens shape of the hemispherical protrusion 333 can effectively converge the originally divergent light to form a more concentrated light beam with higher energy density. This highly directional light beam can act on the target area more accurately, improve treatment efficiency, and reduce the waste of light energy, thereby reducing energy consumption while ensuring the treatment effect. It not only helps to reduce the reflection and scattering loss of light inside the lamp cavity 332, but also can perform secondary focusing or fine-tuning on the light through its unique geometric shape, ensuring that the light leaves the lamp cavity 332 in the most optimized way and reaches the treatment area directly.

[0067] The first interface 22 includes a first socket 221, a first plug-in slot 222 provided on the first socket 221, and a first plug-in terminal 223 provided on the first plug-in slot 222; a first plug-in card slot 224 is provided on the upper side of the first plug-in slot 222; the second interface 34 includes a second socket, a second plug-in slot provided on the second socket, and a second plug-in terminal provided on the second socket; a second plug-in card slot is provided on the upper side of the second socket; the third interface 35 includes a third socket 351, a third plug-in slot 352 provided on the third socket 351, and a third plug-in terminal provided on the third plug-in slot 352. Terminal 353; a third plug-in card slot 354 is provided on the upper side of the third plug-in slot 352; the first connector 92 is provided with a first plug socket 921, a first pair of slots 922 provided in the first plug socket 921, and a first plug terminal 923 provided in the first pair of slots 922, with a first plug-in fixing plate 924 provided at one end of the first plug socket 921; the second connector 93 is provided with a second plug socket 931, a second pair of slots 932 provided in the second plug socket 931, and a second plug terminal 933 provided in the second pair of slots 932, with a second plug-in fixing plate 934 provided at one end of the second plug socket 931. In this embodiment, the plug-in slots and plug-in terminals of the first, second, and third interfaces 35, respectively, ensure the stability and accuracy of data transmission and power supply, which is crucial for precisely controlling the intensity, wavelength, and duration of light during phototherapy. The provision of the plug-in card slot not only facilitates quick positioning and alignment of the connector, but also effectively prevents accidental detachment due to misoperation or external force through a physical locking mechanism, thereby improving the safety of the treatment process. The plug sockets and plug terminals of the first and second connectors 93 are designed to perfectly match the aforementioned interfaces, achieving seamless docking. The slot design on the plug socket facilitates quick insertion of the plug while ensuring stable signal and power transmission through close contact. In particular, the introduction of the plug-in fixing plate further enhances the robustness of the connection, maintaining connection stability even under prolonged use or in vibration environments, and reducing the risk of performance degradation or failure due to poor contact. In this embodiment, the structure of the second interface 34 is the same as that of the third interface 35. For specific lower-level feature numbers, refer to the structure of the third interface 35.

[0068] like Figures 1 to 12As shown, a method for controlling phototherapy lighting includes the aforementioned light control system for the phototherapy module. The method includes the following steps: A regional gravity sensing unit 7 includes gravity chips a1...gravity chips an; the gravity chips a1...gravity chips an are arranged in a linear array to form a matrix gravity sensing unit, thereby sensing regional gravity through the matrix gravity sensing unit. A regional temperature sensing unit 8 includes temperature sensing circuits b1...temperature sensing circuits 61bn; the temperature sensing circuits b1...temperature sensing circuits bn are used to sense the temperature within the matrix gravity sensing unit. The assembly carrier 1 is placed at the location requiring phototherapy, so that the phototherapy end of the phototherapy component 3 contacts the phototherapy location. The control component 4 activates the phototherapy component 3 via the phototherapy control module 41. At this point, the gravity receiving module 42 determines the phototherapy location and state of the assembly carrier 1 based on the gravity detection information fed back by the gravity chips a1 through an in the regional gravity sensing unit 7. The phototherapy control module 41 then controls the light wavelength and power of the phototherapy components 3 at different locations based on the determined phototherapy location and state, activating different light wavelengths and powers based on the gravity received at different locations. During the phototherapy process, the temperature sensing component 6 senses the ambient temperature and provides feedback to the phototherapy control module 41 based on the detected temperature at different locations. This phototherapy light control method utilizes the regional gravity sensing unit 7 (composed of gravity chips a1 through an) to monitor the position and state of the assembly carrier 1 at the phototherapy location in real time, ensuring that the phototherapy component 3 is precisely aligned with the treatment area, avoiding the problem of reduced efficacy caused by positional offset in traditional phototherapy. The instant feedback of gravity detection information enables the system to quickly respond and adjust the layout of the phototherapy components 3, ensuring efficient and accurate treatment. Secondly, the analysis of gravity sensing data by the phototherapy control module 41 enables differentiated control of the light wavelength and power of the light therapy components 3 at different locations. This design allows the system to intelligently adjust light output based on the specific needs of the treatment area, not only improving the targeted treatment effect but also avoiding unnecessary energy waste and enhancing the energy efficiency of the treatment. Furthermore, the integrated regional temperature sensing unit 8 (composed of temperature sensing circuits b1 to bn) continuously monitors the ambient temperature during the phototherapy process and feeds real-time data back to the phototherapy control module 41. This function ensures temperature control during phototherapy, effectively preventing skin discomfort or damage caused by localized overheating, and enhancing treatment safety and patient comfort. This lighting control method and system, through precise gravity sensing and intelligent lighting control combined with real-time temperature monitoring, achieves comprehensive optimization of the phototherapy treatment process. This not only significantly improves treatment effectiveness but also ensures safety and comfort during treatment.

[0069] The above embodiments merely illustrate several implementations of the present invention, and while their descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the present invention. It should be noted that a person skilled in the art would be able to make numerous modifications and improvements without departing from the spirit of the present invention, all of which fall within the scope of protection of the present invention. Therefore, the scope of protection of the present invention shall be determined by the appended claims.

Claims

1. A light control system for a light therapy module, characterized by: It includes an assembly carrier, a wire collection component, a phototherapy component, a control component, a gravity sensing component and a temperature sensing component. The assembly carrier is provided with multiple, the phototherapy components are composed of multiple, multiple phototherapy components are connected in series in sequence, the wire collection component is provided with multiple, multiple wire collection components are connected in series in sequence, the phototherapy component is connected to the wire collection component, multiple wire collection components are arranged horizontally on the assembly carrier, the assembly carrier is provided with an assembly groove, multiple groups of phototherapy components are arranged on the assembly groove, the phototherapy component includes a phototherapy shell, a phototherapy wick arranged in the phototherapy shell and a focusing lens covered on the outside of the phototherapy wick; a fixing ring is provided on the assembly groove, and the fixing ring is used to fix the focusing lens; the wire collection component is connected to the control component; The gravity sensing component is arranged on the assembly carrier, and forms a regional gravity sensing unit on the assembly carrier to sense the area where the assembly carrier is subjected to force; the temperature sensing component is arranged on the assembly carrier, and forms a regional temperature sensing unit on the assembly carrier to sense the temperature within the regional temperature sensing unit of the assembly carrier; The control component includes a phototherapy control module, a gravity receiving module, a temperature sensing receiving module and a power supply module. The phototherapy control module is connected to the phototherapy component through a wiring assembly to control the phototherapy component. The gravity receiving module is used to connect to the gravity sensing component to receive the force of the regional gravity sensing unit sensed by the gravity sensing component, and then control the light band and power of the phototherapy component according to the force. The temperature sensing receiving module is used to receive the temperature of the temperature sensing unit in the sensing area to adjust the light band and power of the phototherapy component. The power supply module is connected to the phototherapy control module and supplies power to the phototherapy component. The assembly carrier includes a flexible backboard, a flexible panel, an edge banding and a fixed buckle, the flexible backboard is connected to the flexible panel, the assembly groove is provided between the flexible backboard and the flexible panel, the edge banding is used to connect the flexible backboard and the flexible panel at the edge, and the fixed buckle is used to fix the flexible backboard and the flexible panel together; The fixing ring is riveted to the outside of the condenser lens, and the flexible panel is fixed by riveting, so that the condenser lens is exposed on the flexible panel; The line hub assembly is provided with a connecting assembly, the line hub assembly is provided with a first interface, the light therapy assembly is provided with a second interface and a third interface, the connecting assembly includes a connecting line and a first connector and a second connector provided at both ends of the connecting line, the first connector is connected to the first interface, and the second connector is connected to the second interface; The line hub assembly includes a line hub base, a line hub upper shell and a line hub plate. The line hub upper shell is provided with a support frame, the line hub plate is installed on the support frame, and serial connection ports are provided at both ends of the line hub base. The serial connection ports are used to connect the wiring harness to the line hub plate.

2. The light control system of the light therapy module according to claim 1, characterized in that: One end of the line collection component is provided with a wiring port, and the wiring port is connected to the control component via a connecting line to control the phototherapy component.

3. The light control system of the light therapy module according to claim 1, characterized in that: There are multiple assembly slots, a dividing strip is provided between two adjacent assembly slots, a dividing strip is provided inside the dividing strip, a flexible circuit board is provided in the dividing slot, the gravity sensing component and the temperature sensing component are both provided on the flexible circuit board, one end of the flexible circuit board is electrically connected to the wiring hub component; the gravity sensing component includes multiple gravity sensing chips provided on the flexible circuit board, and the temperature sensing component includes multiple temperature sensing circuits provided on the flexible circuit board.

4. The light control system of the light therapy module according to claim 3, characterized in that: Multiple phototherapy components are arranged in series longitudinally on the assembly groove, one end of the flexible circuit board extends along the series direction of the phototherapy components, a connecting component is arranged in series between two adjacent phototherapy components, the gravity sensing chip is opposite to the connecting component, and the temperature sensing circuit is opposite to the phototherapy component.

5. The light control system of the light therapy module according to claim 1, characterized in that: Reinforcement seats are provided at both ends of the line hub base, the serial connection port is provided on the reinforcement seat, and a pressing groove is provided on the line hub shell, which is used to cooperate with the serial connection port to press and fix the wiring harness; the first interface is provided on the line hub board, and a through groove is provided on the line hub shell corresponding to the first interface; the support frame is provided with a positioning groove, and the positioning groove is used to position the first interface; The phototherapy housing includes a phototherapy bottom shell, a phototherapy upper shell and a phototherapy PCB board. The phototherapy bottom shell is provided with an assembly side panel, and the phototherapy upper shell is provided with a matching bracket and a positioning bracket. The matching bracket is used to match the assembly side panel to connect the phototherapy bottom shell with the phototherapy upper shell; the positioning bracket is used to fix the phototherapy wick, and the phototherapy wick is provided on the phototherapy PCB board. The second interface and the third interface are respectively provided on both sides of the phototherapy PCB board. A first opening and a second opening are provided on both sides of the phototherapy upper shell. The first opening is used to fix the second interface, and the second opening is used to fix the third interface. The positioning frame is annular and is provided with a positioning slot. The focusing lens is provided with a positioning block. The positioning block is used to cooperate with the positioning slot to fix the focusing lens on the positioning frame. One end of the focusing lens extends to the surface of the phototherapy upper shell.

6. The light control system of the light therapy module according to claim 1, characterized in that: The focusing lens is provided with a lamp cavity, and the focusing lens is arranged on the outside of the phototherapy lamp core through a lamp cavity cover. The side of the lamp cavity facing the phototherapy lamp core is provided with a hemispherical protrusion.

7. The light control system of the light therapy module according to claim 1, characterized in that: The first interface includes a first plug-in socket, a first plug-in slot provided on the first plug-in socket, and a first plug-in terminal provided in the first plug-in slot; a first plug-in card slot is provided on the upper side of the first plug-in slot; The second interface includes a second plug-in socket, a second plug-in slot provided on the second plug-in socket, and a second plug-in terminal provided in the second plug-in slot; a second plug-in card slot is provided on the upper side of the second plug-in slot; The third interface includes a third plug socket, a third plug slot provided on the third plug socket, and a third plug terminal provided in the third plug slot; a third plug card slot is provided on the upper side of the third plug slot; The first connector is provided with a first plug socket, a first pair of slots provided in the first plug socket, and a first plug terminal provided in the first pair of slots, and a first plug fixing piece is provided at one end of the first plug socket; the second connector is provided with a second plug socket, a second pair of slots provided in the second plug socket, and a second plug terminal provided in the second pair of slots, and a second plug fixing piece is provided at one end of the second plug socket.

8. A method for controlling light therapy, characterized in that: A lighting control system comprising the light therapy module according to any one of claims 1 to 7; Multiple light therapy components The phototherapy light control method includes the following steps: The regional gravity sensing unit includes gravity chip a1...gravity chip an; The regional temperature sensing unit includes a temperature sensing circuit b1 ···temperature sensing circuit bn; Place the assembly carrier at the part that needs phototherapy so that the phototherapy end of the phototherapy component contacts the phototherapy position. The control component controls the start of the phototherapy component through the phototherapy control module. At this time, the gravity receiving module judges the position and state of the assembly carrier for phototherapy based on the gravity detection information fed back by the gravity chip a1...gravity chip an in the regional gravity sensing unit. The phototherapy control module controls the light band and power of the phototherapy components at different positions according to the judged phototherapy position and state, so as to start different light bands and powers for phototherapy according to the gravity received at different positions. During the phototherapy process, the temperature sensing component senses the ambient temperature and feeds back the temperature detected at different positions to the phototherapy control module.

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