Processing method of environment-adaptive electrodeless lamp string and electrodeless lamp string

Abstract

The invention relates to the technical field of electrodeless lamp processing, and discloses an environment-adaptive electrodeless lamp string processing method and an electrodeless lamp string comprising a connecting wire, a magnetic coupler, a composite shielding module, a composite heat dissipation module, an environment sensor and a control center. The problem that in the prior art, environment self-adaptive cooperative adjustment of the light emitting effect and the shielding performance is lacked is mainly solved, self-adaptive adjustment of electromagnetic radiation is achieved through the synergistic effect of a composite shielding module and an environment sensor, and the magnetic coupling shielding assembly is matched through a parallel winding coil and a shielding coating film and is combined with a metal grid. The environment sensor monitors the environment around the electrodeless lamp string in real time, and the control center adjusts the light emitting effect and shielding performance of the electrodeless lamp string based on various data weights in the scene where the control center is located, so that self-adaptive adjustment is carried out according to the environment state; and the influence of electromagnetic radiation on a human body and other equipment is reduced to the greatest extent.

Description

Technical Field

[0001] The present invention relates to the technical field of electrodeless lamp processing, and particularly to a processing method and an electrodeless lamp string that are adaptable to the environment. Background Art

[0002] An electrodeless lamp is short for a high-frequency plasma discharge electrodeless lamp. It is a high-tech product developed by integrating the latest scientific and technological achievements in the fields of optics, power electronics, plasma science, magnetic materials science, etc. It is a new type of light source representing the future development direction of lighting technology with high luminous efficiency, long life, and high color rendering. Compared with traditional electric light sources, electrodeless lamps have no electrodes, so their service life is very long, and the light decay during the service life is very small due to the absence of the influence of electrode substances. Electrodeless lamps meet the requirements of high efficiency, energy conservation, and environmental protection. It is an inevitable trend to replace traditional electric light sources with electrodeless lamps. Currently, electrodeless lamps on the market are generally installed in lamps for use. Due to the operating frequency and power of electrodeless lamps, they have high electromagnetic radiation during operation. It is necessary to block the electromagnetic radiation during use to safely use electrodeless lamps. However, the existing method for blocking the electromagnetic radiation of electrodeless lamps is to set a metal wire mesh outside the lamp shell of the electrodeless lamp. The above processing method is difficult, and it cannot effectively block the electromagnetic radiation during use. At the same time, during use, multiple wire meshes will also affect the lighting effect of the electrodeless lamp string.

[0003] The publication number of the prior art is CN219087704U, which discloses an electrodeless lamp for preventing electromagnetic radiation leakage. Through a mounting seat, which is set as a rectangular plate structure, a limiting frame is installed inside the mounting seat, and one docking component is clamped at both ends of the limiting frame. The docking component is symmetrically clamped with an electrodeless lamp group inside, and the outer wall surface of the electrodeless lamp group is sleeved with a protection component. The inner wall of the mounting seat is symmetrically provided with absorbent cotton, and absorbent patches are pasted on the surface of the absorbent cotton. The outer surface of the mounting seat is clamped with a lamp shade component; the docking component includes: a docking tube installed on the inner wall surface of the groove of the mounting seat. This electrodeless lamp for preventing electromagnetic radiation leakage forms a double-layer protection structure through the protection component and the lamp shade component inside the device, reducing the radiation emitted outward by the electrodeless lamp tube during use. During use, the mounting seat and the lamp shade component are clamped and connected for positioning installation, realizing the electromagnetic radiation protection operation of the electrodeless lamp tube and reducing the impact on surrounding electronic devices.

[0004] Regarding the above and related prior arts, the inventor believes that the following defects often exist:

[0005] 1. The prior art only realizes electromagnetic radiation protection through static physical structures such as isolation covers, metal mesh sheets, and absorbing surfaces, which belongs to passive shielding and cannot dynamically adjust the protection efficiency according to the real-time changes of environmental parameters.

[0006] 2. The protection strategy of the prior art is a single fixed mode, without designing differentiated protection logics for different application scenarios. For example, in industrial scenarios, it is necessary to preferentially suppress radiation to avoid interfering with precision equipment, while in home scenarios, it is necessary to focus on brightness adaptive adjustment.

[0007] 3. The prior art only passively weakens radiation through the electromagnetic energy-thermal energy conversion of wave-absorbing materials, without introducing active electromagnetic suppression components, resulting in limited suppression ability of the device for high-frequency magnetic field leakage.

[0008] 4. The protection components and heat dissipation components of the prior art are designed independently of each other, and the performance of the shielding material may decline due to insufficient heat dissipation during high-power operation. Summary of the Invention

[0009] The technical problem to be solved by the present invention is that the prior art lacks the disadvantage of adaptively coordinating and adjusting the light-emitting effect and shielding performance according to the environment. For this reason, we propose a processing method and an electrodeless lamp string with environment adaptability.

[0010] To achieve the above object, the present application adopts the following technical solutions: An electrodeless lamp string with environment adaptability includes a connecting wire and a lamp shade. A magnetic coupler is arranged inside the lamp shade, and a composite shielding module is installed on the inner wall of the lamp shade and outside the magnetic coupler. An environment sensor is installed at one end of the electrodeless lamp string, and a control center is installed at the signal transmission end of the environment sensor. The control center dynamically adjusts the light-emitting parameters of the magnetic coupler and the shielding efficiency of the composite shielding module based on the environmental data collected by the environment sensor; the composite shielding module includes a magnetic coupling shielding component, a lamp shade shielding component, and a wire shielding component; the magnetic coupling shielding component is arranged outside the magnetic coupler, and the magnetic coupling shielding component includes a shielding coating and a parallel winding coil with a magnetic field direction opposite to that; the lamp shade shielding component is arranged inside the lamp shade, and the lamp shade shielding component includes a radiation-proof film arranged on the inner wall of the lamp shade and a metal grid arranged on the outside of the lamp shade; the wire shielding component is sleeved outside the connecting wire, and the wire shielding component includes an insulating layer arranged on the outside of the connecting wire, a shielding layer sleeved outside the insulating layer, and a rubber protection layer.

[0011] Preferably, a composite heat dissipation module is installed inside the magnetic coupler. The composite heat dissipation module includes a metal core rod, a magnetic core is installed inside the metal core rod, heat sinks are installed at both ends of the metal core rod, a heat conducting rod is installed at the center of the magnetic core, one end of the heat conducting rod is embedded inside the magnetic core, the other end of the heat conducting rod is fixedly connected to the heat sink, and a phase change heat storage layer is arranged between the metal core rod and the magnetic core.

[0012] Preferably, the outer diameter of the metal grid gradually expands from bottom to top, and a hydrophobic layer formed by radiation-proof paint is covered on the surface of the metal grid.

[0013] Preferably, the environmental sensor includes a brightness sensor, a temperature sensor, a radiation sensor, and an infrared sensor, and a relative light sensor is provided at the other end of the electrodeless lamp string.

[0014] Preferably, the control center adjusts the light emission and shielding performance through a scene weight algorithm, and the formula of the weight algorithm is: .

[0015] Among them, Bm is the target brightness, By is the reference brightness set by the current electrodeless lamp, α is the weight coefficient, Lmax is the maximum brightness value, Lnow is the current ambient light intensity, M is the human activity intensity, and β×Bup is the brightness increase.

[0016] A processing method for an environment-adaptive electrodeless lamp string, which is used to process the above-mentioned environment-adaptive electrodeless lamp string, includes the following steps:

[0017] S1: Coat the inner wall of the lamp shade with radiation-proof paint and cover it with a transparent protective layer, and set a sealing ring on the edge of the lamp shade;

[0018] S2: Sequentially set an insulating layer, a shielding layer, and a rubber protective layer on the outside of the connecting wire;

[0019] S3: Assemble the metal grid and immerse the formed metal grid in the radiation-proof paint;

[0020] S4: Sheath a metal core rod outside the magnetic core, set a phase change heat storage layer between the magnetic core and the metal core rod, embed a heat conduction rod in the magnetic core, and connect the heat conduction rod and the metal core rod through a heat sink;

[0021] S5: Coat a shielding coating on the outer surface of the metal core rod and wind a reverse winding coil along the circumference;

[0022] S6: Weld the connecting wires of the individual electrodeless lamps to form an electrodeless lamp string, and install an environmental sensor and a relative light sensor at both ends of the electrodeless lamp string;

[0023] S7: Start the electrodeless lamp, detect the difference between the electromagnetic radiation amount El and the threshold value Ed. If El>Ed, it is determined to be unqualified; block the environmental sensor to verify the linkage response, and verify the coordinated adjustment of light emission and shielding by changing the environmental parameters.

[0024] Preferably, the environmental data weight of the electromagnetic radiation threshold value Ed in S7 is differentially allocated according to the factory and home environments.

[0025] Preferably, the temperature weight in the factory scenario is ≥0.4, and the radiation weight is ≥0.3; the brightness weight in the home scenario is ≥0.4, and the human activity weight is ≥0.3.

[0026] Preferably, in said S3, the environmental brightness, temperature and human activity intensity are changed to detect whether the coordinated adjustment of the luminous parameters of the electrodeless lamp and the shielding effectiveness of the composite shielding module is triggered.

[0027] Preferably, the composite shielding module is linked with the environmental sensor through a control center.

[0028] Technical effects and advantages of the present invention:

[0029] 1. The present invention collects environmental data in real time through multi-dimensional sensors such as brightness, temperature, radiation, and infrared, and the control center dynamically adjusts the luminous parameters and shielding effectiveness based on the scene weight algorithm. For example, when increased human activity is detected, the system simultaneously increases the brightness and enhances the reverse coil current of the magnetic coupling shielding component to offset the radiation increase caused by the increase in power, thereby achieving a dynamic balance between lighting and radiation safety. Different from traditional passive wave absorption designs, the present invention uses the reverse parallel coils of the magnetic coupling shielding component to generate a reverse electric field to offset common-mode interference, and combines the high-frequency magnetic field reflection capability of the shielding coating to form an active suppression mechanism to reduce radiation generation from the source.

[0030] 2. The composite shielding module forms a three-dimensional protection network through the collaboration of multiple components: the shielding coating and reverse coil of the magnetic coupling shielding component actively suppress the core radiation source, the inner wall radiation protection film and the outer gradient metal grid of the lampshade shielding component realize the spatial differentiation protection of near-field shielding and far-field heat dissipation, and the three-layer structure of the wire shielding component suppresses the conduction interference. At the same time, the composite heat dissipation module and the shielding component are deeply linked: the metal core rod has both magnetic field shielding and heat conduction functions, the phase change heat storage layer absorbs heat at high temperature, and the heat dissipation optimization design of the gradient metal grid is combined to avoid the shielding performance attenuation caused by insufficient heat dissipation of the traditional structure.

[0031] 3. The control center achieves differentiated functional adaptation through scenario-based weighting algorithms: industrial scenarios prioritize radiation suppression and temperature monitoring, while home scenarios focus on brightness adaptation and human activity response. Based on real-time environmental data, the system can dynamically choose between radiation suppression and lighting effects. For example, when increasing brightness in a dark environment, it can simultaneously calculate the radiation increment, achieve dual-target optimization by reducing the increment or enhancing the reflection efficiency of the shielding coating, and avoid the limitations of fixed shielding modes.

[0032] 4. The present invention establishes a multi-dimensional detection system, which ensures the reliability of the product in different scenarios through quantitative detection of electromagnetic radiation and environmental adaptability detection process. The detection steps include control logic verification, providing a technical basis for the functional consistency of mass-produced products and solving the problem of the lack of dynamic functional testing standards in the prior art. BRIEF DESCRIPTION OF THE DRAWINGS

[0033] The disclosure of the present invention will be described with reference to the accompanying drawings. It should be understood that the drawings are for illustrative purposes only and are not intended to limit the scope of protection of the present invention. In the drawings, the same reference numerals are used to refer to the same components:

[0034] Figure 1 is a schematic flow chart of the processing method of the present invention;

[0035] Figure 2 is a schematic flow chart of the environmental adaptability detection method of the present invention;

[0036] Figure 3 is a schematic plan view of a part of the present invention;

[0037] Figure 4 is a schematic plan view of the whole of the present invention;

[0038] Figure 5 is a schematic three-dimensional view of a part of the present invention;

[0039] Figure 6 is a schematic three-dimensional view of a part of the present invention.

[0040] Legend:

[0041] 1. Electrodeless lamp string; 2. Connecting wire; 3. Magnetic coupler; 4. Composite shielding module; 41. Magnetic coupling shielding component; 411. Parallel-wound coil; 412. Shielding coating; 42. Lamp cover shielding component; 421. Radiation-proof film; 422. Metal grid; 43. Wire shielding component; 431. Insulating layer; 432. Shielding layer; 433. Rubber protection layer; 5. Composite heat dissipation module; 51. Metal core rod; 52. Magnetic core; 53. Heat sink; 54. Heat conducting rod; 55. Phase change heat storage layer; 6. Environmental sensor; 7. Control center. Detailed implementation manners

[0042] It is easy to understand that according to the technical solution of the present invention, without changing the essence of the present invention, those of ordinary skill in the art can propose various interchangeable structural ways and implementation ways. Therefore, the following detailed implementation manners and the accompanying drawings are only illustrative descriptions of the technical solution of the present invention, and should not be regarded as the whole of the present invention or as a limitation or restriction on the technical solution of the present invention.

[0043] Referring to Figure 1 as shown, the present invention provides a technical solution: a processing method for an environmentally adaptive electrodeless lamp string, including the following steps:

[0044] S1. Configuration of radiation-proof paint: Based on the lighting environment of the electrodeless lamp, select a suitable radiation-proof film and configure it to form radiation-proof paint;

[0045] S2. Coating with anti-radiation paint: Coat a layer of anti-radiation paint on the inner wall of the lampshade, with the thickness of the paint being 50 - 75 μm, and apply a transparent protective layer on the surface of the paint after the anti-radiation paint solidifies, with the thickness of the protective layer being 0.1 - 0.3 mm;

[0046] S3. Sealing of the anti-radiation film: After the protective layer dries, set a sealing ring on the edge of the lampshade to prevent electromagnetic waves from leaking through the gaps;

[0047] S4. Sheathing the wire shielding assembly 43: Sheath an insulating layer 431, a shielding layer 432, and a rubber protective layer 433 on the outside of the connecting wire 2 in sequence;

[0048] S5. Forming the metal grid 422: Assemble the metal grid 422, and make the aperture of the metal grid 422 gradually increase from bottom to top, and form the metal grid 422 into a shape matching the outer wall of the lampshade;

[0049] S6. Adding a hydrophobic layer: Immerse the formed metal grid 422 into the anti-radiation paint in step S1 to form a hydrophobic layer on the outside of the metal grid 422;

[0050] S7. Processing the magnetic coupler 3: Sleeve and install a metal core rod 51 outside the magnetic core 52, make the metal core rod 51 concentric and coaxial with the magnetic core 52, and set a phase change heat storage layer 55 in the gap between the magnetic core 52 and the metal core rod 51;

[0051] S8. Connecting the heat dissipation structure: Embed a heat conducting rod 54 into the magnetic core 52 of the magnetic coupler 3, and connect the heat conducting rod 54 and the metal core rod 51 respectively through heat sinks 53;

[0052] S9. Installing the magnetic coupling shielding assembly 41: Coat a shielding coating 412 on the outer surface of the metal core rod 51, after the shielding coating 412 dries, evenly wind and coil 411 around the outer peripheral surface of the metal core rod 51 along a fixed direction, and the winding direction of the coiled coil 411 is opposite to the magnetic field direction of the magnetic coupler 3;

[0053] S10. Assembling the electrodeless lamp string 1: Assemble the processed components to form a single independent electrodeless lamp. At the same time, weld the connecting wires 2 of each electrodeless lamp to form an electrodeless lamp string 1, and weld an environmental sensor 6 and a relative light sensor to both ends of the electrodeless lamp string 1 respectively;

[0054] S11. Effect detection: Detect the installed electrodeless lamp string 1. After starting the electrodeless lamp string 1, set the intensity value of the electromagnetic radiation of the electrodeless lamp string 1 with the current brightness as Ed, place an electromagnetic radiation sensor outside the lampshade, and the electromagnetic radiation sensor detects the radiation amount of the current electrodeless lamp string 1 as El. If El > Ed, it is judged that the radiation amount of the current electrodeless lamp string 1 is large and this electrodeless lamp string 1 is unqualified; otherwise, this electrodeless lamp string 1 is qualified.

[0055] Step S11 further includes environmental adaptability detection, and the environmental adaptability detection includes the following steps: S111. Block the environmental sensor 6 at one end of the electrodeless lamp string 1, set the relative light sensor at the other end of the electrodeless lamp string 1 in a high-brightness environment, and detect the light-emitting state of the electrodeless lamp string 1. If the electrodeless lamp string 1 emits light, it is determined that there is a problem with the current relative light sensor, and the relative light sensor part is repaired. Otherwise, it is determined that the electrodeless lamp string 1 is normal;

[0056] S112. Place the electrodeless lamp string 1 in an environment with lower brightness, and detect the light-emitting state of the electrodeless lamp string 1. If the electrodeless lamp string 1 emits light normally, it is determined that the brightness detection part of the environmental sensor 6 is normal, and jump to S113 for human activity detection. Otherwise, if the electrodeless lamp string 1 does not emit light, it is determined that there is a problem with the brightness detection part in the environmental sensor 6, and the current electrodeless lamp string 1 is sent back for repair;

[0057] S113. The electrodeless lamp string 1 continues to emit light, and at the same time, increase the human activity intensity in the environment on the periphery of the electrodeless lamp string 1. If the light-emitting brightness of the electrodeless lamp string 1 increases, it is determined that the human activity detection part in the environmental sensor 6 is normal, and jump to S114 for temperature detection. Otherwise, if the brightness of the electrodeless lamp string 1 remains unchanged, it is determined that there is a problem with the human activity detection part in the environmental sensor 6, and the current electrodeless lamp string 1 is sent back for repair;

[0058] S114. During the process of the electrodeless lamp string 1 emitting light, increase the temperature of the environment around the electrodeless lamp string 1. If the light-emitting brightness of the electrodeless lamp string 1 decreases, it is determined that the temperature detection part in the environmental sensor 6 is normal, and the electrodeless lamp string 1 is qualified. Otherwise, if the brightness of the electrodeless lamp string 1 remains unchanged, it is determined that there is a problem with the temperature detection part in the environmental sensor 6, and the current electrodeless lamp string 1 is sent back for repair.

[0059] Refer to Figures 3 - 6 As shown in the figure, the present invention provides an electrodeless lamp string produced based on the above processing method: an environment-adaptive electrodeless lamp string 1, including a connecting wire 2, the connecting wire 2 connects independent electrodeless lamps in series, a magnetic coupler 3 is installed inside the lamp shade of the electrodeless lamp, a composite shielding module 4 is installed on the inner wall of the lamp shade and outside the magnetic coupler 3, a composite heat dissipation module 5 is installed inside the magnetic coupler 3, an environmental sensor 6 is installed at one end of the electrodeless lamp string 1, and a control center 7 is installed at the signal transmission end of the environmental sensor 6.

[0060] Refer to Figure 5As shown, in this embodiment, the composite heat dissipation module 5 includes a metal core rod 51, a magnetic core 52 disposed within the metal core rod 51, heat sinks 53 disposed at both ends of the metal core rod 51, and a heat conducting rod 54 disposed at the center of the magnetic core 52. One end of the heat conducting rod 54 is embedded inside the magnetic core 52, and the other end is fixedly connected to the heat sink 53. A phase change heat storage layer 55 is further provided between the metal core rod 51 and the magnetic core 52.

[0061] Referring to Figures 3 - 6 As shown, in this embodiment, the composite shielding module 4 includes a magnetic coupling shielding component 41 disposed on the magnetic coupler 3, a lamp cover shielding component 42 disposed inside the lamp cover, and a wire shielding component 43 disposed on the connecting wire 2.

[0062] The magnetic coupling shielding component 41 includes a parallel winding coil 411 disposed along the circumferential direction of the metal core rod 51, and a shielding coating 412 disposed on the outer surface of the metal core rod 51. The lamp cover shielding component 42 includes a radiation protection film 421 disposed on the inner wall of the lamp cover, and a metal grid 422 disposed on the outer side of the lamp cover. The aperture of the metal grid 422 gradually expands from the bottom of the lamp cover along the length direction of the lamp cover to the top of the lamp cover. A hydrophobic layer is further provided on the surface of the metal grid 422. The wire shielding component 43 includes an insulating layer 431 disposed on the outer side of the connecting wire 2, a shielding layer 432 sleeved on the outer side of the insulating layer 431, and a rubber protection layer 433.

[0063] An environmental sensor 6 is installed at one end of the electrodeless lamp string 1 by welding, and a relative light sensor is installed at the other end of the electrodeless lamp string 1 by welding. The signal transmission end of the environmental sensor 6 is electrically connected and installed with a control center 7. The environmental sensor 6 includes a brightness sensor, a temperature sensor, a radiation sensor, and an infrared sensor.

[0064] The integration of each shielding component within the composite shielding module 4 and the synergistic effect with the environmental sensor 6 achieve the adaptive adjustment of the electromagnetic radiation within the electrodeless lamp string 1. The magnetic coupling shielding component 41 cooperates with the parallel winding coil 411 and the shielding coating 412, and combines with the gradient metal grid 422 on the outer side of the lamp cover, improving the electromagnetic radiation protection effect of the electrodeless lamp. At the same time, the environmental sensor 6 can detect the environment around the electrodeless lamp string 1 in real time, and adjust the light emission effect and shielding performance of the electrodeless lamp string 1 based on the data weights of various items in the current scenario through the control center 7, enabling the electrodeless lamp string 1 to balance protection, energy consumption, and response speed in different environments.

[0065] By combining multiple detection data from a brightness sensor, a radiation sensor, an infrared sensor, etc., and assigning weight to each parameter according to the lighting position where the electrodeless lamp string 1 is located, the electrodeless lamp string 1 can perform adaptive brightness regulation according to the current environmental state. For example, when the position where the electrodeless lamp is located is a factory environment, since most factories are for mechanical automatic processing and the intensity of human activities is small, it is necessary to detect the working temperature of the electrodeless lamp string 1 in real time to prevent safety accidents. At the same time, it is necessary to ensure that the radiation intensity of the electrodeless lamp string 1 is maintained at a small value to prevent the electrodeless lamp string 1 from affecting the production machinery. Therefore, in the factory environment, the temperature weight of the electrodeless lamp string 1 needs to be set to 0.4, and the radiation weight needs to be set to 0.3. On the contrary, when the working environment of the electrodeless lamp string 1 is set to home lighting, it is necessary to ensure that the light brightness of the electrodeless lamp string 1 can be adjusted based on the environmental brightness and can be automatically adjusted according to the intensity of human activities in the current environment. Therefore, when performing home lighting, the brightness weight of the electrodeless lamp needs to be set to 0.4, and the weight of human activities needs to be set to 0.3. The setting of the above weights can achieve the adaptive and refined adjustment of the brightness of the electrodeless lamp string 1. For example, when any one of the sensors in the environmental sensor 6 detects that a certain parameter exceeds the threshold, the control center 7 can automatically adjust the brightness of the electrodeless lamp string 1, so that the brightness, radiation amount, and temperature of the electrodeless lamp string 1 can be reduced, and problems such as too high temperature, too large radiation amount, and too strong lighting brightness can be prevented at the same time. The above control mechanism improves the overall energy-saving efficiency while ensuring safety.

[0066] At the same time, in order to improve the suppression and shielding effect of the electromagnetic radiation of the electrodeless lamp string 1, the parallel winding coil 411 in the magnetic coupler 3 can generate a reverse electric field to cancel the magnetic field common-mode interference in the magnetic coupler 3. At the same time, the shielding coating 412 outside the metal core rod 51 can effectively suppress the leakage of high-frequency magnetic fields. The anti-radiation film 421 on the inner wall of the lamp cover is an alumina coating. The alumina coating has high stability in a high-dose radiation environment. It is not easy to embrittle in the radiation environment and will increase the mechanical strength due to the reorganization of the lattice structure. At the same time, while maintaining a very high light transmittance, the alumina coating can also effectively reflect or absorb the ultraviolet band, so that it can transmit visible light for lighting and can selectively shield ultraviolet rays, and the alumina coating still has the structural and functional stability at high temperatures. The thermal stability enables the alumina coating to block ultraviolet rays after heating during the operation of the electrodeless lamp and can also avoid the cracking or failure of the coating caused by temperature rise; the wire shielding assembly 43 combines the shielding layer 432 and the rubber protection layer 433 to ensure the flexibility of the connecting wire 2 while having a high anti-magnetic field interference ability and suppressing the conduction interference rate.

[0067] To prevent the phenomenon that the temperature of the electrodeless lamp string 1 rises too fast during operation, the composite heat dissipation module 5 is provided with a composite heat conduction path of the metal core rod 51 and the heat conduction rod 54, so that the heat in the magnetic coupler 3 can be conducted through the metal core rod 51 and the heat conduction rod 54 and cooled by the heat sink 53. The phase change material of the phase change heat storage layer 55 can absorb heat at 70°C - 80°C and cooperate with the metal core rod 51 and the heat conduction rod 54 for heat dissipation, thereby improving the overall heat dissipation effect. At the same time, the insulating layer 431 on the surface of the metal grid 422 can preferably be set as a polytetrafluoroethylene coating. The polytetrafluoroethylene coating can maintain the stability of physical and chemical properties within a large temperature range. At the same time, the polytetrafluoroethylene coating will not release volatile substances in a high-temperature and high-humidity environment, which can ensure the insulation performance of the metal grid 422. At the same time, the polytetrafluoroethylene coating has high hydrophobicity, preventing pollutants from adhering to the pores of the metal grid 422, resulting in local electric field distortion or heat dissipation obstruction.

[0068] As an optimization of the control method, after detecting the change in human activity intensity, the brightness needs to be adjusted. The increase in brightness needs to be based on the human activity intensity in the current area. Specifically, the increase in brightness is triggered synchronously with the increase in human activity, and the increase ratio of the two is 1:1. Then the following formula can be obtained: 。

[0069] Where, Bm is the target brightness to be adjusted, By is the reference brightness set for the current electrodeless lamp, α is the weight coefficient assigned to the human activity intensity, Lmax is the maximum brightness value set, Lnow is the current ambient light intensity, M is the currently detected human activity intensity, and β×Bup is the brightness increase triggered synchronously with the human activity intensity.

[0070] The technical scope of the present invention is not limited to the content described above. Those skilled in the art can make various deformations and modifications to the above embodiments without departing from the technical idea of the present invention, and these deformations and modifications should all fall within the protection scope of the present invention.

Claims

1. An environment-adaptive electrodeless lamp string, characterized in that, It includes connecting wires and a lamp shade. A magnetic coupler is provided inside the lamp shade. A composite shielding module is installed on the inner wall of the lamp shade and outside the magnetic coupler. One end of the electrodeless lamp string is equipped with an environmental sensor. The signal transmission end of the environmental sensor is installed with a control center. The control center dynamically adjusts the light-emitting parameters of the magnetic coupler and the shielding effectiveness of the composite shielding module based on the environmental data collected by the environmental sensor. The composite shielding module includes a magnetic coupling shielding component, a lamp shade shielding component, and a wire shielding component. The magnetic coupling shielding component is arranged outside the magnetic coupler. The magnetic coupling shielding component includes a shielding coating and a parallel winding coil with a direction opposite to the magnetic field direction. The lamp shade shielding component is arranged inside the lamp shade. The lamp shade shielding component includes a radiation-proof film arranged on the inner wall of the lamp shade and a metal grid arranged on the outer side of the lamp shade. The wire shielding component is sleeved outside the connecting wire. The wire shielding component includes an insulating layer arranged outside the connecting wire, a shielding layer sleeved outside the insulating layer, and a rubber protection layer.

2. The electrodeless lamp string adaptable to environment according to claim 1, wherein A composite heat dissipation module is installed inside the magnetic coupler. The composite heat dissipation module includes a metal core rod. A magnetic core is installed inside the metal core rod. Heat sinks are installed at both ends of the metal core rod. A heat conducting rod is installed at the center of the magnetic core. One end of the heat conducting rod is embedded inside the magnetic core, and the other end of the heat conducting rod is fixedly connected to the heat sink. A phase change heat storage layer is provided between the metal core rod and the magnetic core.

3. An electrodeless lamp string with environmental adaptability according to claim 1, characterized in that The outer aperture of the metal grid gradually expands from bottom to top. The surface of the metal grid is covered with a hydrophobic layer formed by a radiation-proof paint.

4. An electrodeless lamp string with environment adaptability according to claim 1, characterized in that, The environmental sensor includes a brightness sensor, a temperature sensor, a radiation sensor, and an infrared sensor. A relative light sensor is provided at the other end of the electrodeless lamp string.

5. An electrodeless lamp string adaptable to the environment according to any one of claims 1-4, characterized in that The control center adjusts the light emission and shielding performance through a scene weight algorithm, and the formula of the weight algorithm is: ; Among them, Bm is the target brightness, By is the reference brightness set by the current electrodeless lamp, α is the weight coefficient, Lmax is the maximum brightness value, Lnow is the current ambient light intensity, M is the human activity intensity, and β×Bup is the brightness increase.

6. A processing method for an environment-adaptive electrodeless lamp string, which is used to process the environment-adaptive electrodeless lamp string according to any one of claims 1-5, characterized in that, It includes the following steps: S1: Coat a radiation-proof paint on the inner wall of the lamp shade and cover it with a transparent protective layer. A sealing ring is sleeved on the edge of the lamp shade. S2: Sleeve an insulating layer, a shielding layer, and a rubber protection layer on the outside of the connecting wire in sequence. S3: Assemble the metal grid and immerse the formed metal grid in the radiation-proof paint. S4: Sleeve a metal core rod outside the magnetic core. A phase change heat storage layer is provided between the magnetic core and the metal core rod. A heat conducting rod is embedded in the magnetic core and the heat conducting rod is connected to the metal core rod through a heat sink. S5: Coat a shielding coating on the outer surface of the metal core rod and wind a reverse parallel winding coil along the circumference. S6: Weld the connecting wires of individual electrodeless lamps to form an electrodeless lamp string. Install an environmental sensor and a relative light sensor at both ends of the electrodeless lamp string. S7: Start the electrodeless lamp, detect the difference between the electromagnetic radiation amount El and the threshold value Ed. If El>Ed, it is determined as unqualified; block the environmental sensor to verify the linkage response, and verify the coordinated adjustment of light emission and shielding by changing the environmental parameters.

7. The processing method of an environment-adaptive electrodeless lamp string according to claim 6, characterized in that, In step S7, the environmental data weight of the electromagnetic radiation threshold value Ed is differentially allocated according to the factory and home environments.

8. The processing method of an environment-adaptive electrodeless lamp string according to claim 7, characterized in that, The temperature weight of the factory scenario is ≥ 0.4, and the radiation weight is ≥ 0.3; The brightness weight of the home scenario is ≥ 0.4, and the human activity weight is ≥ 0.

3.

9. The processing method of an environment-adaptive electrodeless lamp string according to claim 6, wherein In S3, by changing the environmental brightness, temperature, and human activity intensity, it is detected whether the coordinated adjustment of the light-emitting parameters of the electrodeless lamp and the shielding efficiency of the composite shielding module is triggered.

10. The processing method of an environment-adaptive electrodeless lamp string according to claim 1, characterized in that, The composite shielding module and the environmental sensor are linked through the control center.

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