Physiotherapy control circuit and method, storage medium, program product and physiotherapy equipment

Abstract

The invention discloses a physical therapy control circuit and method, a storage medium, a program product and physical therapy equipment, and relates to the field of physical therapy, and the method comprises the steps that the physical therapy control circuit is arranged in the physical therapy equipment, and the physical therapy control circuit comprises a physical therapy control module, a touch screen, a driving power supply, a constant current control module and a plurality of lamp groups, the plurality of lamp banks comprise at least two lamp banks with different wavelengths; the physiotherapy control module is connected with the touch screen, the driving power supply and the constant current control module, the constant current control module is connected with the driving power supply, the constant current control module is respectively connected with the plurality of lamp banks, and the plurality of lamp banks are respectively and independently arranged on the physiotherapy equipment; the physiotherapy control module is used for receiving a lamp group control instruction triggered by a user on the touch screen; and the constant current control module is used for adjusting the current output to the target lamp group based on the target lamp group in the lamp group control indication and the target brightness of the target lamp group. The technical problem that the adjustment flexibility of the physiotherapy equipment is low is solved.

Description

Technical Field

[0001] The embodiments of the present application relate to the technical field of physiotherapy, and particularly to a physiotherapy control circuit, method, storage medium, program product and physiotherapy device. Background Art

[0002] A physiotherapy device is a light therapy device that typically uses light therapy technology (such as infrared or red light) to irradiate the human body for treatment. Users can control the physiotherapy device and perform light control on it. However, when adjusting the physiotherapy device, users can usually only adjust the overall light emission effect of the physiotherapy device, and users cannot flexibly adjust the physiotherapy device based on different treatment needs or different body parts, thereby reducing the user experience. Therefore, there is currently a problem of low adjustment flexibility of physiotherapy devices.

[0003] The above content is only used to assist in understanding the technical solution of the embodiments of the present application, and does not represent an admission that the above content is prior art. Summary of the Invention

[0004] The main purpose of the embodiments of the present application is to provide a physiotherapy control circuit, method, storage medium, program product and physiotherapy device, aiming to solve the technical problem of low control flexibility of physiotherapy devices.

[0005] To achieve the above object, the embodiments of the present application provide a physiotherapy control circuit. The physiotherapy control circuit is provided in a physiotherapy device. The physiotherapy control circuit includes a physiotherapy control module, a touch screen, a driving power supply, a constant current control module, and a plurality of lamp groups, and at least two lamp groups with different wavelengths are included in the plurality of lamp groups; The physiotherapy control module is connected to the touch screen, the driving power supply, and the constant current control module. The constant current control module is connected to the driving power supply, and the constant current control module is respectively connected to a plurality of lamp groups. The plurality of lamp groups are respectively independently arranged in the physiotherapy device; The physiotherapy control module is configured to receive a lamp group control instruction triggered by a user on the touch screen; The constant current control module is configured to adjust the current output to the target lamp group based on the target lamp group in the lamp group control instruction and the target brightness of the target lamp group, so as to adjust the brightness of the target lamp group to the target brightness, where the target lamp group is any lamp group in the physiotherapy device.

[0006] In one embodiment, the physiotherapy device further includes an aluminum substrate, a temperature detection module, and a heat dissipation module; Each of the lamp groups is independently wired on the aluminum substrate, and the temperature detection module and the heat dissipation module are both connected to the physiotherapy control module; The temperature detection module is configured to detect the aluminum substrate temperature of the aluminum substrate; The physical therapy control module is further configured to find the target heat dissipation power corresponding to the temperature of the aluminum substrate in a preset temperature-power mapping relationship, and control the operation of the heat dissipation module according to the target heat dissipation power; The heat dissipation module is configured to operate based on the target heat dissipation power to dissipate heat from each lamp group disposed on the aluminum substrate.

[0007] In one embodiment, the multiple lamp groups include multiple infrared lamp groups and multiple red light lamp groups, the driving power supply includes a constant current driving power supply and a control driving power supply, the constant current control module includes a red light constant current unit and an infrared constant current unit, the red light constant current unit includes a red light control access port, a red light power supply port, and a preset number of red light ports, and the infrared constant current unit includes an infrared control access port, an infrared power supply port, and a preset number of infrared ports; Each red light lamp group is connected to one of the red light ports, each infrared lamp group is connected to one of the infrared ports, the red light control access port and the infrared control access port are both connected to the physical therapy control module, the infrared power supply port and the red light power supply port are both connected to the constant current driving power supply, and the control driving power supply is connected to the physical therapy control module.

[0008] In one embodiment, the red light constant current unit includes a red light expansion port, and the infrared constant current unit includes an infrared expansion port; The red light expansion port is configured to connect to the extended red light constant current unit when the physical therapy device includes the extended red light constant current unit; The infrared expansion port is configured to connect to the extended infrared constant current unit when the physical therapy device includes the extended infrared constant current unit.

[0009] In addition, to achieve the above object, the present application further provides a physical therapy control method applied to a physical therapy control circuit. The physical therapy control method includes: Responding to a lamp group control instruction triggered by a user on the touch screen of the physical therapy device, determining a target lamp group and a target brightness from the lamp group control instruction; Adjusting the current output by the constant current control module in the physical therapy device to the target lamp group according to the target brightness, so as to adjust the light emission brightness of the target lamp group to the target brightness.

[0010] In one embodiment, the step of adjusting the current output by the constant current control module in the physical therapy device to the target lamp group according to the target brightness, so as to adjust the light emission brightness of the target lamp group to the target brightness includes: Determining a current ratio corresponding to the target brightness; Calculating the product of the current ratio and the preset maximum current of the target lamp group to obtain a target current; Adjust the current output by the constant current control module in the physiotherapy device to the target current.

[0011] In one embodiment, the physiotherapy control method further includes: Obtain the temperature of the aluminum substrate detected by the temperature detection module in the physiotherapy device; Search for the target heat dissipation power of the target temperature range where the aluminum substrate temperature is located within the preset temperature-power mapping relationship; Control the operation of the heat dissipation module in the physiotherapy device according to the target heat dissipation power; Wherein, the preset temperature-power mapping relationship includes multiple temperature ranges, and each temperature range has its corresponding heat dissipation power.

[0012] In addition, to achieve the above object, an embodiment of the present application further provides a physiotherapy device, and the physiotherapy device includes the physiotherapy control circuit as described above.

[0013] In addition, to achieve the above object, an embodiment of the present application further provides a computer-readable storage medium, and a program for implementing the physiotherapy control method is stored on the computer-readable storage medium. When the program for the physiotherapy control method is executed by a processor, the steps of the physiotherapy control method as described above are implemented.

[0014] In addition, to achieve the above object, an embodiment of the present application further provides a computer program product, including a computer program. When the computer program is executed by a processor, the steps of the physiotherapy control method as described above are implemented.

[0015] One or more technical solutions proposed in the embodiments of the present application have at least the following technical effects: In the present application, the physiotherapy control circuit is arranged in the physiotherapy device. The physiotherapy control circuit includes a physiotherapy control module, a touch screen, a driving power supply, a constant current control module, and multiple lamp groups. At least two lamp groups with different wavelengths are included in the multiple lamp groups; the physiotherapy control module is connected to the touch screen, the driving power supply, and the constant current control module. The constant current control module is connected to the driving power supply, and the constant current control module is respectively connected to multiple lamp groups. The multiple lamp groups are respectively independently arranged in the physiotherapy device; the physiotherapy control module is used to receive the lamp group control instruction triggered by the user on the touch screen; the constant current control module is further used to adjust the current output to the target lamp group based on the target lamp group and the target brightness of the target lamp group in the lamp group control instruction, so as to adjust the brightness of the target lamp group to the target brightness, and the target lamp group is any lamp group in the physiotherapy device.

[0016] Since each lamp group is independently arranged in the physiotherapy device, after the physiotherapy control module receives the lamp group control instruction, the constant current control module can separately adjust the brightness output to the target lamp group based on the target lamp group and the target brightness in the lamp group control instruction, so as to adjust the brightness of the target lamp group to the target brightness, thereby realizing the brightness adjustment of a single lamp group in the physiotherapy device. And since the constant current control module is respectively connected to multiple lamp groups, and each lamp group is independently arranged in the physiotherapy device, the constant current control module in the present application can realize the separate control of any lamp group, and further facilitate the differential adjustment of the brightness of each lamp group in the physiotherapy device. Also, since there are at least two lamp groups with different wavelengths among the multiple lamp groups, the physiotherapy device can also meet the user's requirements for different wavelengths. Therefore, in the present application, the physiotherapy device can support multiple different wavelengths, and can also control each lamp group separately, thereby facilitating the satisfaction of the user's differential requirements and improving the adjustment flexibility of the physiotherapy device. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] The accompanying drawings herein are incorporated into and constitute a part of this specification, showing embodiments consistent with the embodiments of the present application, and are used together with the specification to explain the principles of the embodiments of the present application.

[0018] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the following will briefly introduce the accompanying drawings required for use in the description of the embodiments or the prior art. Obviously, for those of ordinary skill in the art, other drawings can also be obtained based on these drawings without creative efforts.

[0019] Figure 1 It is a schematic diagram of module connections in an embodiment of the physiotherapy control circuit according to an embodiment of the present application; Figure 2 It is a schematic diagram of the interface for brightness adjustment displayed on the touch screen of the physiotherapy control circuit according to an embodiment of the present application; Figure 3 It is a schematic diagram of the interface for duration adjustment displayed on the touch screen of the physiotherapy control circuit according to an embodiment of the present application; Figure 4 It is a schematic diagram of module connections in the physiotherapy control circuit according to an embodiment of the present application, including a heat dissipation module and a temperature detection module; Figure 5 It is a schematic diagram of the specific module corresponding to the constant current control module in another embodiment of the physiotherapy control circuit according to an embodiment of the present application; Figure 6 It is a schematic diagram of the module in the physiotherapy control circuit according to an embodiment of the present application, including an extended red light constant current unit and an extended infrared constant current unit; Figure 7 It is a schematic diagram of the internal structure of the red light constant current unit and the infrared constant current unit in the physiotherapy control method according to an embodiment of the present application; Figure 8 This is a schematic flowchart of an embodiment of the physiotherapy control method according to an embodiment of the present application.

[0020] Explanation of the reference numerals in the accompanying drawings: 100, physiotherapy control module; 200, touch screen; 300, driving power supply; 400, constant current control module; D1~Dn, multiple lamp groups; 500, aluminum substrate; 600, temperature detection module; 700, heat dissipation module; 310, control driving power supply; 320, constant current driving power supply; 321, first constant current driving power supply; 322, second constant current driving power supply; 410, red light constant current unit; 420, infrared constant current unit; DC1, red light power port; L1, red light control access port; T1, red light extension port; DW1~DW2, multiple infrared lamp groups; DG1~DG2, multiple red light lamp groups; DC2, infrared power port; L2, infrared control access port; T2, infrared extension port; 430, extended red light constant current unit; 440, extended infrared constant current unit; L3, red light control access port of the extended red light constant current unit; T3, red light extension port of the extended red light constant current unit; L4, infrared control access port of the extended infrared constant current unit; T4, infrared extension port of the extended infrared constant current unit.

[0021] The implementation, functional features and advantages of the embodiments of the present application will be further described with reference to the embodiments and the accompanying drawings. Specific embodiments

[0022] It should be understood that the specific embodiments described herein are only used to explain the technical solutions of the embodiments of the present application, and are not used to limit the embodiments of the present application.

[0023] In order to better understand the technical solutions of the embodiments of the present application, the following will be described in detail with reference to the accompanying drawings of the specification and specific embodiments.

[0024] A physiotherapy lamp is a kind of lamp used in the fields of physiotherapy and beauty. It uses 630nm and 660nm red light and 810nm and 850nm infrared lamp beads to provide light energy, so as to play a physiotherapy role. 630nm, 660nm red light and 810nm, 850nm infrared light have a very high radiation frequency and good penetrability. It can stimulate cell activity, has a repair effect on cells, accelerates blood circulation, improves metabolism, reduces inflammation, sterilizes, and accelerates wound healing. It is often used in beauty lamps and physiotherapy lamps.

[0025] However, when users adjust physiotherapy equipment, they usually can only adjust the light-emitting effect of the physiotherapy equipment as a whole. Users cannot flexibly adjust the physiotherapy equipment according to different treatment needs or different body parts, thereby reducing the user experience. Therefore, there is currently a problem of low control flexibility of physiotherapy equipment.

[0026] Based on this, an embodiment of the present application provides a physiotherapy control circuit. Referring to Figure 1 , the physiotherapy device includes a physiotherapy control module 100, a touch screen 200, a driving power supply 300, a constant current control module 400, and multiple lamp groups, and at least two lamp groups with different wavelengths are included in the multiple lamp groups; The physiotherapy control module 100 is connected to the touch screen 200, the driving power supply 300, and the constant current control module 400. The constant current control module 400 is connected to the driving power supply 300, and the constant current control module 400 is respectively connected to multiple lamp groups, and the multiple lamp groups are respectively independently arranged on the physiotherapy device; The physiotherapy control module 100 is configured to receive a lamp group control instruction triggered by a user on the touch screen 200; The constant current control module 400 is configured to adjust the current output to the target lamp group based on the target lamp group in the lamp group control instruction and the target brightness of the target lamp group, so as to adjust the brightness of the target lamp group to the target brightness, where the target lamp group is any lamp group in the physiotherapy device.

[0027] It should be noted that the touch screen 200 can provide an interaction interface with the user, and the user can trigger a control instruction for the physiotherapy device on the touch screen 200. The driving power supply can be connected to the mains power, so that the driving power supply 300 can provide power for the constant current control module 400 and the physiotherapy control module 100 to ensure the normal use of the physiotherapy device. The physiotherapy device may include multiple lamp groups, and the wavelengths corresponding to different lamp groups may be the same or different, and at least two lamp groups with different wavelengths are included in the multiple lamp groups. In this embodiment, the multiple lamp groups can also be divided into multiple infrared lamp groups and multiple red light lamp groups. Each infrared lamp group can emit infrared light, and each red light lamp group can emit red light. The infrared light wavelengths corresponding to different infrared lamp groups may be different, and the red light wavelengths corresponding to different red light lamp groups may be the same or different. The multiple red light lamp groups include at least two infrared lamp groups with different wavelengths.

[0028] Each lamp group on the physiotherapy device is independently arranged, and the control signals between the lamp groups do not interfere with each other. The physiotherapy device may further include an aluminum substrate 500. Each lamp group can be independently arranged on the aluminum substrate 500, and each lamp group has its own corresponding copper foil circuit. The copper foil circuits of different lamp groups do not interfere with each other, and the copper foil circuits of each lamp group are arranged on the aluminum substrate 500. A plurality of lamp beads are evenly distributed on each lamp group, and the lamp beads on the same lamp group emit the same wavelength and the same brightness. For example, referring to Figure 1 , Figure 1 , multiple lamp groups D1~Dn are shown, n is a positive integer, and n can be determined according to the actual situation. For example, n can be 4, or 7 or 8, etc. This embodiment does not make specific limitations on this.

[0029] The physiotherapy control module 100 can be connected to the touch screen 200, and the physiotherapy control module 100 can receive the lamp group control instruction triggered by the user on the touch screen 200. The lamp group control instruction is used to control the lamp group in the physiotherapy lamp. The lamp group control instruction includes a target lamp group and a target brightness. The target lamp group is the lamp group whose luminous brightness needs to be adjusted triggered by the user, and the target brightness is the brightness that the target lamp group needs to reach. In this embodiment, the target brightness can be a brightness ratio, and the brightness ratio can be used as a current ratio. The constant current control module 400 can determine the corresponding current ratio based on the target brightness. Different target brightnesses correspond to different current ratios. In this embodiment, for each lamp group, the maximum current required when the brightness of each lamp group reaches 100% is determined, and the current ratio corresponding to when the brightness of the lamp group reaches 100% is 1. When the user adjusts the brightness of the lamp group, the current ratio can be determined according to the brightness ratio of the target brightness, so as to adjust the brightness of the target lamp group according to the current ratio. For example, the product of the current ratio and the preset maximum current of the target lamp group can be calculated to obtain the target current, and the current of the target lamp group can be adjusted to the target current to achieve brightness adjustment. The preset maximum current is the maximum current that the target lamp group supports and can operate, and can be specifically determined based on the actual situation. This embodiment does not make specific limitations on this. For example, referring to Figure 2 , the brightness adjustment progress bar corresponding to each lamp group can be displayed on the touch screen 200. The multiple lamp groups include multiple infrared lamp groups and multiple red light lamp groups. The number of infrared lamp groups can be 4, and the number of red light lamp groups can also be 4. The wavelengths corresponding to different red light lamp groups can be: 480nm, 630nm, 660nm, and 660nm respectively. The wavelengths corresponding to different infrared lamp groups can be: 810nm, 830nm, 850nm, and 1060nm respectively. There can be two red light lamp groups with the same wavelength among the red light lamp groups. In Figure 2 , the two lamp groups with 660nm can share the same brightness adjustment progress bar. For example, the brightness of 480nm can be 75%, the brightness of 630nm can be 50%, the brightness of 660nm can be 75%, the brightness of 810nm can be 30%, the brightness of 830nm can be 35%, the brightness of 850nm can be 75%, and the brightness of 1060nm can be 100%. The user can adjust the brightness ratio of the lamp group by adjusting the brightness adjustment progress bar. For example, the confirmation button on the touch screen 200 can be clicked. For another example, when the brightness ratio is 50%, the corresponding current ratio is also 50%. In this embodiment, the current ratio and the brightness ratio can be the same. In this embodiment, the brightness adjustment accuracy of each lamp group can reach 1%, and each lamp group can achieve brightness adjustment from 0 to 100%.

[0030] In other embodiments, the physiotherapy control module 100 in this embodiment can also receive a brightness dynamic adjustment instruction, which includes a target dynamic adjustment lamp group, a target dynamic brightness, and a target dynamic duration. The constant current control module 400 can adjust the brightness of the target dynamic adjustment lamp group to the target dynamic brightness within the target dynamic duration. For example, the target dynamic adjustment lamp group can be lamp group 1, the target dynamic brightness can be 0, the current brightness can be 20%, and the target dynamic duration can be 10 minutes. The constant current control module 400 can adjust the brightness from 20% to 0 within 10 minutes. Thus, the brightness can be adjusted more smoothly without sudden brightness changes. For example, the brightness ratio difference can be determined based on the current brightness and the target dynamic brightness, the target dynamic duration can be divided into a first preset number of unit times, the ratio of the brightness ratio difference to the first preset number is obtained to get the unit brightness ratio that needs to be adjusted for each unit time, and the current ratio that the constant current control module 400 needs to change within the unit time is determined based on the unit brightness ratio to achieve smooth adjustment of the brightness.

[0031] In this embodiment, the constant current control module 400 supports independently controlling the current ratios of each target lamp group to independently control the brightness of each target lamp group. In this embodiment, since the copper foil circuits of each lamp group do not interfere with each other, each lamp group can be controlled separately. In addition to being able to independently control the brightness of each lamp group, the lighting duration of each lamp group can also be controlled. For example, the lighting duration of the lamp group can be controlled by controlling the energization duration of the current output by the constant current control module 400 to the lamp group. The user can independently control the lighting duration of different lamp groups according to their own needs. For example, a duration progress bar corresponding to each lamp group can be displayed on the touch screen 200, referring to Figure 3 , Figure 3 which shows the duration progress bars of lamp groups with wavelengths of 480nm, 630nm, 660nm, 810nm, 830nm, 850nm, and 1060nm respectively. The user can adjust each duration progress bar and can also click the minus and plus keys on the touch screen 200 to finely adjust the lighting duration, which is convenient for the user to operate. The user can adjust the duration progress bar on the touch screen 200 to adjust the lighting duration of the lamp group. For example, the user can trigger a duration setting instruction on the touch screen 200, determine the target setting lamp group and the target duration of the target setting lamp group from the duration setting instruction, and the constant current control module 400 can control the energization time of the target setting lamp group according to the target duration to adjust the duration of the target setting lamp group to the target duration. For example, Figure 3 also shows 20min (minutes) to indicate that the adjusted lighting duration is 20 minutes. This lighting duration can be any lighting duration determined by the user for any lamp group, and this embodiment does not make specific limitations.

[0032] In this embodiment, pulse control of infrared light can also be achieved. For example, a user can input a target pulse on the touch screen 200 to trigger a pulse control instruction. After receiving the pulse control instruction, the physiotherapy control module 100 can determine the target pulse from the pulse control instruction, and the constant current control module 400 can control the pulses of each infrared light group to be the target pulse.

[0033] Since each light group is independently arranged on the physiotherapy device, after the physiotherapy control module 100 receives the light group control instruction, the constant current control module 400 can separately adjust the brightness output to the target light group based on the target light group and the target brightness in the light group control instruction, so as to adjust the brightness of the target light group to the target brightness, thereby realizing the brightness adjustment of a single light group in the physiotherapy device. And because the constant current control module 400 is respectively connected to multiple light groups, and each light group is independently arranged on the physiotherapy device, the constant current control module 400 in this application can realize the separate control of any light group, and then facilitate the differential adjustment of the brightness of each light group in the physiotherapy device. Also, because there are at least two light groups with different wavelengths among the multiple light groups, the physiotherapy device can also meet the user's requirements for different wavelengths. Therefore, in this application, the physiotherapy device can support a variety of different wavelengths, and can also control each light group separately, thereby facilitating the satisfaction of the user's differential requirements and improving the adjustment flexibility of the physiotherapy device.

[0034] In a feasible embodiment, please refer to Figure 4 , the physiotherapy device further includes an aluminum substrate 500, a temperature detection module 600 and a heat dissipation module 700; Each light group is independently wired on the aluminum substrate 500, and the temperature detection module 600 and the heat dissipation module 700 are both connected to the physiotherapy control module 100; The temperature detection module 600 is used to detect the temperature of the aluminum substrate 500 of the aluminum substrate 500; The physiotherapy control module 100 is further used to find the target heat dissipation power corresponding to the aluminum substrate temperature in the preset temperature-power mapping relationship, and control the operation of the heat dissipation module 700 according to the target heat dissipation power; The heat dissipation module 700 is used to operate based on the target heat dissipation power to dissipate heat from each light group arranged on the aluminum substrate 500.

[0035] It should be noted that each light group is independently arranged on the aluminum substrate 500. Since the aluminum substrate 500 has good thermal conductivity, the aluminum substrate 500 can balance the heat of each light group and avoid local high temperature. The temperature detection module 600 can be a thermistor or a temperature sensor, etc. This embodiment does not specifically limit the temperature detection module 600. The temperature detection module 600 can be arranged in the center of the aluminum substrate 500 or in the blank of the aluminum substrate 500. For example, refer to Figure 4, Figure 4 The position where the temperature detection module 600 is arranged beside each lamp group of the aluminum substrate 500 is shown. Additionally, in this embodiment, the physiotherapy control module can also be connected to a switch, and the switch can be used to control the on / off of the physiotherapy device.

[0036] The heat dissipation module 700 is used to dissipate heat from the aluminum substrate 500, and thus can achieve heat dissipation for each lamp group. The heat dissipation module 700 can include multiple heat dissipation fans, not shown in the figure. For example, there can be 4, and the 4 fans can be evenly distributed on the aluminum substrate 500. The temperature of the aluminum substrate 500 is the temperature detected by the temperature detection module 600 in real time. When the temperature detection module 600 is a thermistor, the resistance value of the thermistor changes with the change of temperature. Due to the change of the resistance value, the voltage across the thermistor also changes. The physiotherapy control module 100 can obtain the temperature of the aluminum substrate 500 detected by the temperature detection module 600 in real time by monitoring the change of the voltage across the thermistor.

[0037] The preset temperature-power mapping relationship can be preset. The preset temperature-power mapping relationship includes multiple temperature intervals and the interval power corresponding to each of the multiple temperature intervals. The preset temperature-power mapping relationship can be shown in the form of a table, and this embodiment does not make specific limitations on this. In the preset temperature-power mapping relationship, each temperature interval can be sorted in ascending order of temperature. For example, the higher the temperature of the temperature interval, the greater the corresponding interval power, and the lower the temperature of the temperature interval, the smaller the corresponding interval power. For example, the preset temperature-power mapping relationship can include: the first temperature interval: (0, 30], the first interval power: 40%; the second temperature interval: (30, 40], the second interval power: 50%; the third temperature interval: (40, 45], the third interval power: 75%; the fourth temperature interval: (45, 50], the third interval power: 100%; the interval power can be expressed as a percentage. For example, when the interval power is 40%, it means that the heat dissipation module 700 dissipates heat with 40% power. The preset temperature-power mapping relationship can be specifically set based on the actual situation, and this embodiment does not make specific restrictions on this. The target heat dissipation power is the heat dissipation power corresponding to the calibrated temperature, and the operation of the heat dissipation module 700 can be controlled according to the target heat dissipation power.

[0038] In this embodiment, the interval power increases sequentially, so that heat can be dissipated by controlling the heat dissipation power before the aluminum substrate 500 overheats, thereby avoiding the temperature of the aluminum substrate 500 from being too high and avoiding faults of the physiotherapy device, which affects the user experience.

[0039] Furthermore, in a feasible embodiment, referring to Figure 5 and Figure 6, the multiple lamp groups include multiple infrared lamp groups and multiple red light lamp groups DG1~DG4, the driving power supply 300 includes a constant current driving power supply 320 and a control driving power supply 310, the constant current control module 400 includes a red light constant current unit 410 and an infrared constant current unit 420, the red light constant current unit 410 includes a red light control access port L1, a red light power supply port DC1, and a preset number of red light ports, and the infrared constant current unit 420 includes an infrared control access port L2, an infrared power supply port DC2, and a preset number of infrared ports; Each red light lamp group is connected to a red light port, each infrared lamp group is connected to an infrared port, the red light control access port L1 and the infrared control access port L2 are both connected to the physiotherapy control module 100, the infrared power supply port DC2 and the red light power supply port DC1 are both connected to the constant current driving power supply 320, and the control driving power supply 310 is connected to the physiotherapy control module 100.

[0040] In a feasible embodiment, the red light constant current unit includes a red light expansion port T1, and the infrared constant current unit includes an infrared expansion port T2; The red light expansion port T1 is used to connect to the extended red light constant current unit 430 when the physiotherapy device includes the extended red light constant current unit 430; The infrared expansion port T2 is used to connect to the extended infrared constant current unit 440 when the physiotherapy device includes the extended infrared constant current unit 440.

[0041] It should be noted that the multiple lamp groups include multiple infrared lamp groups and multiple red light lamp groups. The number of infrared lamp groups can be 4. For example, Figure 5 DW1~DW4 in are respectively 4 infrared lamp groups. The number of red light lamp groups can also be 4. For example, Figure 5 DG1~DG4 in are respectively 4 red light lamp groups. The wavelengths corresponding to the DG1~DG4 red light lamp groups can be: 480 nm (nanometers), 630 nm, 660 nm, and 660 nm respectively. The wavelengths corresponding to the DW1~DW4 infrared lamp groups can be: 810 nm, 830 nm, 850 nm, and 1060 nm respectively. There can be two red light lamp groups with the same wavelength in each red light lamp group. Two infrared lamp groups with the same wavelength can be connected to the same red light port or different red light ports. This embodiment does not make specific limitations on this. The wavelengths of each red light lamp group and each infrared lamp group can be specifically set based on the actual situation. This embodiment does not make specific limitations on this.

[0042] The constant current control module 400 may include a red light constant current unit 410 and an infrared constant current unit 420. The infrared constant current unit 420 is used to control the current ratio of each infrared lamp group respectively to control the brightness of each infrared lamp group; the red light constant current unit 410 is used to control the current ratio of each red light lamp group respectively to control the brightness of each red light lamp group. Specifically, reference can be made to Figure 7 , Figure 7 which shows the specific internal structures of the red light constant current unit 410 and the infrared constant current unit 420.

[0043] The infrared port is used to connect to the infrared lamp group. For example, the copper foil circuit of the infrared lamp group can be connected to the infrared port, and each infrared port can be connected to an infrared lamp group. The preset infrared number can be the same as the number of infrared lamp groups, for example, it can be 4, and the preset infrared number can also be greater than the number of infrared lamp groups. Refer to Figure 5 , and each infrared port can be W1~W4 respectively.

[0044] The red light port is used to connect to the red light lamp group. For example, the copper foil circuit of the red light lamp group can be connected to the red light port, and each red light port can be connected to a red light lamp group. The preset red light number can be the same as the number of red light lamp groups, for example, it can be 4, and the preset red light number can also be greater than the number of red light lamp groups. This embodiment does not make specific limitations on this. For example, refer to Figure 5 , and each red light port can be G1~G4 respectively.

[0045] The red light control access port L1 and the infrared control access port L2 are both connected to the physiotherapy control module 100, so that the infrared constant current unit 420 can receive signals from the physiotherapy control module 100, and the red light constant current unit 410 can also receive signals from the physiotherapy control module 100.

[0046] The drive power supply 300 includes a constant-current drive power supply 320 and a control drive power supply 310. The constant-current drive power supply 320 may include a first constant-current drive power supply 321 and a second constant-current drive power supply 322. The control drive power supply 310 is used to supply power to the physiotherapy control module 100. The control drive power supply 310 may be a 12V power supply. The first constant-current drive power supply 321 may be used to supply power to the infrared constant-current unit 420, and the second constant-current drive power supply 322 may be used to supply power to the red-light constant-current unit 410. Both the first constant-current drive power supply 321 and the second constant-current drive power supply 322 may be power supplies of 38.5 - 39V. Since there are multiple infrared lamp groups and multiple red-light lamp groups, the required drive voltage is relatively high. Therefore, the first constant-current drive power supply 321 and the second constant-current drive power supply 322 are needed to supply power to the red-light constant-current unit 410 and the infrared constant-current unit 420 respectively, so as to ensure that each red-light lamp group and infrared lamp group can have sufficient drive. The first constant-current drive power supply 321 may be connected to the red-light power supply port DC1 of the red-light constant-current unit 410, and the second constant-current drive power supply 322 may be connected to the infrared power supply port DC2 of the infrared constant-current unit 420.

[0047] The infrared constant-current unit 420 is used to connect multiple infrared lamp groups, and the red-light constant-current unit 410 is used to connect multiple red-light lamp groups, so that only two constant-current drive power supplies 320 for driving each lamp group are needed, without the need to provide a separate drive power supply 300 for each lamp group, reducing the power supply cost and saving the space of the physiotherapy device.

[0048] Refer to Figure 6 , the specific internal structure of the extended red-light constant-current unit 430 is the same as that of the red-light constant-current unit 410. The specific structure of the extended red-light constant-current unit 430 is not specifically shown in Figure 6 . The extended red-light constant-current unit 430 also includes a red-light extension port, a red-light control access port, a red-light power supply port, and a preset number of red-light ports. The red-light extension port T1 in the red-light constant-current unit 410 is connected to the red-light access port L3 in the extended red-light constant-current unit 430, where Figure 6T3 in it is the extended red light constant current interface in the extended red light constant current unit 430. It can be understood that when there are multiple red light constant current units 410 in the physiotherapy device, any one of the red light constant current units 410 can be determined to be connected to the physiotherapy control module 100, and the other red light constant current units 410 are all extended red light constant current units 430. The red light expansion port T1 in the red light constant current unit 410 connected to the physiotherapy control module 100 is connected to the red light control access port L1 in any one of the extended red light constant current units 430, and the red light expansion port T1 in the extended red light constant current unit 430 is connected to the red light control access port L1 in other extended red light constant current units 430. Thus, it can be realized to simultaneously control multiple red light constant current units 410 through the physiotherapy control module 100, better meeting the different needs of users, improving the usage experience, and the addition of the red light constant current unit 410 can be achieved through the red light expansion port T1, reducing the complexity of adding the red light lamp group. The extended red light constant current unit 430 can be connected to the same power supply as the red light constant current unit 410, or can be connected to different power supplies. This embodiment does not make specific limitations on this.

[0049] Refer to Figure 6 , the specific internal structure of the extended infrared constant current unit 440 is the same as that of the infrared constant current unit 420. The specific structure of the extended infrared constant current unit 440 is not specifically shown in Figure 6 . The extended infrared constant current unit 440 has the same structure as the infrared constant current unit 420. The extended infrared constant current unit 440 also includes an infrared expansion port, an infrared control access port, an infrared power port, and a preset number of infrared ports. The infrared expansion port T2 in the infrared constant current unit 420 is connected to the infrared access port L4 in the extended infrared constant current unit 440. Among them, Figure 6 T4 in it is the extended infrared interface in the extended infrared constant current unit 440. It can be understood that when there are multiple infrared constant current units 420 in the physiotherapy device, any one of the infrared constant current units 420 can be determined to be connected to the physiotherapy control module 100, and the other infrared constant current units 420 are all extended infrared constant current units 440. The infrared expansion port T2 in the infrared constant current unit 420 connected to the physiotherapy control module 100 is connected to the infrared control access port L2 in any one of the extended infrared constant current units 440, and the infrared expansion port T2 in the extended infrared constant current unit 440 is connected to the infrared control access port L2 in other extended infrared constant current units 440. Thus, it can be realized to simultaneously control multiple infrared constant current units 420 through the physiotherapy control module 100, better meeting the different needs of users, improving the usage experience, and the addition of the infrared constant current unit 420 can be achieved through the infrared expansion port T2, reducing the complexity of adding the infrared lamp group. The extended infrared constant current unit 440 can be connected to the same power supply as the infrared constant current unit 420, or can be connected to different power supplies. This embodiment does not make specific limitations on this.

[0050] Furthermore, based on the above embodiments of the present application, in another embodiment of the present application, the same or similar content as the above embodiments can be referred to the above introduction and will not be repeated hereinafter. On this basis, referring to Figure 8 , an embodiment of the present application further provides a physiotherapy control method, which is applied to a physiotherapy control circuit. The control method includes steps S10 to S20: Step S10: Respond to the lamp group control instruction triggered by the user on the touch screen of the physiotherapy device, and determine the target lamp group and the target brightness from the lamp group control instruction; Step S20: Adjust the current output by the constant current control module in the physiotherapy device to the target lamp group according to the target brightness, so as to adjust the light emission brightness of the target lamp group to the target brightness.

[0051] It should be noted that the touch screen can be a color display screen. An operation interface can be displayed on the touch screen, and the user can trigger a lamp group control instruction on the operation interface of the touch screen. The lamp group control instruction is used to control the lamp group in the physiotherapy lamp. The lamp group control instruction includes a target lamp group and a target brightness. The target lamp group is the lamp group whose light emission brightness needs to be adjusted triggered by the user, and the target brightness is the brightness that the target lamp group needs to reach. In this embodiment, the target brightness can be a brightness ratio.

[0052] The corresponding current ratio can be determined based on the target brightness. Different target brightnesses correspond to different current ratios. In this embodiment, for each lamp group, the current ratio corresponding to the maximum current required when the brightness of each lamp group reaches 100% is determined as 1. When the user adjusts the brightness of the lamp group, the current ratio can be determined according to the brightness ratio of the target brightness, so as to adjust the brightness of the target lamp group according to the current ratio. For example, a brightness adjustment progress bar corresponding to each lamp group can be displayed on the touch screen, and the user can adjust the brightness ratio of the lamp group by adjusting the brightness adjustment progress bar. For example, when the brightness ratio is 50%, the corresponding current ratio is also 50%. In this embodiment, the current ratio and the brightness ratio can be the same. In this embodiment, each lamp group can achieve brightness adjustment from 0 to 100%, and the brightness adjustment range of each lamp group can be specific to 1%, so as to meet more customized usage requirements and scenarios of users, make the physiotherapy device more intelligent, and allow users to obtain precise physiotherapy.

[0053] Exemplarily, respond to the lamp group control instruction triggered by the user on the touch screen of the physiotherapy device, and determine the target lamp group and the target brightness from the lamp group control instruction; determine the target current ratio output by the constant current control module to the target lamp group according to the target brightness, and adjust the current ratio output by the constant current control module to the target lamp group to the target current ratio, so as to adjust the light emission brightness of the target lamp group to the target brightness.

[0054] In other embodiments, the physiotherapy control module in this embodiment can also receive an indication for dynamic brightness adjustment. The indication for dynamic brightness adjustment includes a target dynamically adjustable lamp group, a target dynamic brightness, and a target dynamic duration. The constant current control module can adjust the brightness of the target dynamically adjustable lamp group to the target dynamic brightness within the target dynamic duration. For example, the target dynamically adjustable lamp group can be Lamp Group 1, the target dynamic brightness can be 0, the current brightness can be 20%, and the target dynamic duration can be 10 minutes. The constant current control module can adjust the brightness from 20% to 0 within 10 minutes. Thus, the brightness can be adjusted more smoothly without sudden brightness changes. For example, the brightness ratio difference can be determined based on the current brightness and the target dynamic brightness, the target dynamic duration can be divided into a first preset number of unit times, the ratio of the brightness ratio difference to the first preset number is obtained to get the unit brightness ratio to be adjusted for each unit time, and the current ratio that the constant current control module needs to change within the unit time is determined based on the unit brightness ratio to achieve smooth adjustment of the brightness.

[0055] In the physiotherapy device, the current ratios of each target lamp group can be independently controlled to independently control the brightness of each target lamp group. In this embodiment, since the copper foil circuits of each lamp group do not interfere with each other, each lamp group can be controlled separately. In addition to independently controlling the brightness of each lamp group, the light emission duration of each lamp group can also be controlled. For example, the light emission duration of the lamp group can be controlled by controlling the energization duration of the current output from the constant current control module to the lamp group. The user can independently control the light emission duration of different lamp groups according to their own needs. A duration progress bar corresponding to each lamp group can be displayed on the touch screen, and the user can adjust the duration progress bar on the touch screen to adjust the light emission duration of the lamp group. For example, the user can trigger a duration setting indication on the touch screen, determine the target setting lamp group and the target duration of the target setting lamp group from the duration setting indication, and the constant current control module can control the energization time of the target setting lamp group according to the target duration to adjust the duration of the target setting lamp group to the target duration.

[0056] In this embodiment, pulse control of infrared light can also be achieved. For example, the user can input a target pulse on the touch screen to trigger a pulse control indication. After receiving the pulse control indication, the physiotherapy control module can determine the target pulse from the pulse control indication, and the constant current control module can control the pulses of each infrared lamp group to be the target pulse.

[0057] Since each lamp group is independently arranged on the physiotherapy device, after the physiotherapy control module receives the lamp group control instruction, the constant current control module can separately adjust the brightness output to the target lamp group based on the target lamp group and the target brightness in the lamp group control instruction, so as to adjust the brightness of the target lamp group to the target brightness, thereby realizing the brightness adjustment of a single lamp group in the physiotherapy device. And because the constant current control module is respectively connected to multiple lamp groups, and each lamp group is independently arranged on the physiotherapy device, so the constant current control module in this application can realize the separate control of any lamp group, and then it is convenient to differentially adjust the brightness of each lamp group in the physiotherapy device. Also, because there are at least two lamp groups with different wavelengths among the multiple lamp groups, the physiotherapy device can also meet the user's needs for different wavelengths. Therefore, in this application, the physiotherapy device can support a variety of different wavelengths, and can also control each lamp group separately, which is convenient to meet the user's differential needs and improve the adjustment flexibility of the physiotherapy device.

[0058] In a feasible embodiment, step S20 further includes steps S21 to S23: Step S21, determining the current ratio corresponding to the target brightness; Step S22, calculating the product of the current ratio and the preset maximum current of the target lamp group to obtain the target current; Step S23, adjusting the current output by the constant current control module in the physiotherapy device to the lamp group to the target current.

[0059] It should be noted that the brightness ratio can be determined based on the target brightness. Since the brightness adjustment progress bars of each lamp group are displayed on the touch screen, and the brightness adjustment progress bar supports brightness adjustment from 0 to 100%, so when receiving the lamp group control instruction, the target brightness in the lamp group control instruction can be the brightness ratio. Therefore, the brightness ratio can be used as the current ratio.

[0060] The preset maximum current of the target lamp group is the maximum current that the target lamp group supports for operation. The product of the preset maximum current and the current ratio can be calculated to obtain the target current, and then the current of the target lamp group can be adjusted to the target current to realize adjusting the brightness of the target lamp group to the target brightness.

[0061] Exemplarily, the brightness ratio of the target brightness can be used as the current ratio, calculate the product of the current ratio and the preset maximum current of the target lamp group to obtain the target current, and adjust the current of the target lamp group to the target current to adjust the brightness of the target lamp group to the target brightness. This embodiment realizes the adjustment of brightness.

[0062] Furthermore, in a feasible embodiment, the physiotherapy control method further includes steps A10 to A30: Step A10: Obtain the temperature of the aluminum substrate detected by the temperature detection module in the physiotherapy device; Step A20: Search for the target heat dissipation power in the target temperature range where the aluminum substrate temperature is located within the preset temperature-power mapping relationship; Step A30: Control the operation of the heat dissipation module in the physiotherapy device according to the target heat dissipation power; Among them, the preset temperature-speed range includes multiple temperature ranges, and each temperature range has its corresponding heat dissipation power.

[0063] It should be noted that the aluminum substrate temperature is the real-time temperature detected by the temperature detection module. The heat dissipation module is used to dissipate heat from the aluminum substrate, and thus can achieve heat dissipation for each lamp group. The heat dissipation module can include multiple heat dissipation fans, for example, it can be 4, and the 4 fans can be evenly distributed on the aluminum substrate.

[0064] The preset temperature-power mapping relationship can be preset. The preset temperature-power mapping relationship includes multiple temperature ranges and the interval powers corresponding to the multiple temperature ranges respectively. In the preset temperature-power mapping relationship, the temperature ranges can be sorted in ascending order of temperature. For example, the higher the temperature range, the greater the corresponding interval power, and the lower the temperature range, the smaller the corresponding interval power. In this embodiment, the interval powers increase sequentially, so that the heat dissipation power can be controlled for heat dissipation before the aluminum substrate overheats, thereby avoiding too high temperature of the aluminum substrate and preventing the failure of the physiotherapy device and affecting the user experience.

[0065] Exemplarily, obtain the real-time detected aluminum substrate temperature, search for the target heat dissipation power in the target temperature range where the aluminum substrate temperature is located in the preset temperature-power mapping relationship, and control the operation of the heat dissipation module according to the target heat dissipation power. This embodiment can effectively dissipate heat from the aluminum substrate, thereby avoiding overheating of the physiotherapy device, ensuring the continuous operation of the physiotherapy device, and improving the user experience. This embodiment can also calibrate the aluminum substrate temperature to obtain a calibrated temperature, and then facilitate searching for the corresponding target heat dissipation power according to the calibrated temperature to improve the heat dissipation effect of the physiotherapy device. For example, a preset calibration coefficient can be determined, and the product of the preset calibration coefficient and the aluminum substrate temperature can be calculated to obtain the calibrated temperature.

[0066] Further, in another embodiment, controlling the operation of the heat dissipation module in the physiotherapy device according to the target heat dissipation power may specifically further include steps a to c: Step a: Determine the heat dissipation area of each heat dissipation fan in the heat dissipation module; Step b: For each heat dissipation area, accumulate the lamp group temperatures of each target heat dissipation lamp group in the heat dissipation area to obtain the area temperature, and use the ratio of the area temperature to the total lamp group temperature as the heat dissipation ratio of the heat dissipation area, where the total lamp group temperature is the sum of the lamp group temperatures of all lamp groups in the physiotherapy device; It should be noted that the number of cooling fans can be four, and the cooling fans can be evenly distributed on the aluminum substrate. For example, four cooling fans can be arranged in the horizontal direction of the aluminum substrate, and the intervals between two adjacent cooling fans are the same. They can also be arranged in other positions, and this embodiment does not make specific limitations in this regard. Each cooling fan can be divided into a corresponding heat dissipation area on the aluminum substrate. When the cooling fan dissipates heat from the heat dissipation area, the temperature of the corresponding aluminum substrate will also decrease accordingly, thereby playing a role in reducing the temperature of the aluminum substrate.

[0067] The target heat dissipation lamp group is the lamp group located in the heat dissipation area. There can be multiple target heat dissipation lamp groups in the heat dissipation area, and the area temperature can be the sum of the temperatures of each lamp group in the same heat dissipation area. The target heat dissipation lamp groups in different heat dissipation areas can be the same or different. The same lamp group can be in the same heat dissipation area. In other embodiments, the lamp group can also span multiple heat dissipation areas, and this embodiment does not make specific limitations in this regard. The total lamp group temperature is the sum of the lamp group temperatures of all lamp groups in the physiotherapy device. The heat dissipation ratio can reflect the temperature situation of the heat dissipation area. The higher the heat dissipation ratio, the more temperature needs to be reduced, and the higher the temperature of the heat dissipation area. The lower the heat dissipation ratio, the lower the temperature of the heat dissipation area, and the less temperature needs to be reduced.

[0068] Step c: Allocate the target heat dissipation power according to the heat dissipation ratio of each heat dissipation area to obtain the area heat dissipation power corresponding to each heat dissipation area; for each heat dissipation area, control the operation of the cooling fan corresponding to the heat dissipation area according to the area heat dissipation power of the heat dissipation area.

[0069] It should be noted that the area heat dissipation power of each heat dissipation area is positively correlated with the heat dissipation ratio, and the sum of the area heat dissipation powers of all areas is equal to the target heat dissipation power. The higher the heat dissipation ratio, the higher the allocated area heat dissipation power. Since the higher the heat dissipation ratio, the more heat is dissipated from the heat dissipation area, the area heat dissipation power corresponding to the area with a higher heat dissipation ratio can be relatively higher than that of the area with a lower heat dissipation ratio. Also, since the target heat dissipation power of the heat dissipation module can be maintained unchanged, it is possible to take into account a high heat dissipation effect while not consuming too much energy. Exemplarily, for each heat dissipation area, the product of the heat dissipation ratio of the heat dissipation area and the target heat dissipation power can be used as the area heat dissipation power, and according to this area heat dissipation power, control the operation of the cooling fan corresponding to the heat dissipation area, so as to dissipate heat from different areas on the aluminum substrate in a differentiated manner. Further, if the area heat dissipation power is greater than or equal to the rated power of the cooling fan, the rated power is used as the area heat dissipation power. If the area heat dissipation power is less than the rated power of the cooling fan, it is determined to operate according to the area heat dissipation power.

[0070] In other embodiments, the heat dissipation power may not be allocated according to the heat dissipation ratio, and the power of each heat dissipation fan may be the ratio of the target heat dissipation power to the number of heat dissipation fans. That is, the power of each heat dissipation fan may also be the same. This embodiment does not make specific limitations on this. This embodiment dissipates heat through the heat dissipation fan, thereby avoiding the overheating of the physiotherapy device during use, reducing the user experience, and reducing the probability of faults in the physiotherapy device. It can also improve the flexibility of heat dissipation, and then improve the overall flexibility of the physiotherapy device.

[0071] The steps for determining the temperature of the lamp group may include: obtaining the initial temperature of the physiotherapy device when none of the lamp groups are turned on through the temperature detection module in the physiotherapy device; for each lamp group, determining the temperature of the lamp group at the initial temperature, luminous brightness, and luminous duration through a preset temperature prediction model. It should be noted that the initial temperature is the temperature when none of the lamp groups in the physiotherapy device are turned on. The initial temperature may be the ambient temperature detected by the temperature detection module, which is convenient for predicting the temperature of the lamp group in combination with the ambient temperature later to improve the accuracy of predicting the temperature of the lamp group.

[0072] The initial temperature, luminous brightness, and luminous duration all affect the temperature of the lamp group. Therefore, it is necessary to determine the temperature of the lamp group at the initial temperature, luminous brightness, and luminous duration. And because the wavelengths of the lamp groups are different, the heat generated at the same luminous brightness and / or the same luminous duration may not be the same. Therefore, when determining the temperature of the lamp group through the preset temperature prediction model, it is necessary to input the wavelength of the lamp group, the initial temperature of the lamp group, the luminous brightness, and the luminous duration into the preset temperature prediction model to determine the temperature of the lamp group.

[0073] The preset temperature prediction model may be pre-trained. The preset temperature prediction model is obtained by training the initial temperature prediction model based on the preset temperature training sample set of the lamp group. The preset temperature training sample set includes the training lamp group wavelength, training initial temperature, training luminous brightness, training luminous duration, and lamp group temperature training label.

[0074] The preset temperature training sample set may include multiple training sub-samples. Each training sub-sample includes the training lamp group wavelength, training initial temperature, training luminous brightness, training luminous duration, and lamp group temperature training label. The training lamp group wavelength, training initial temperature, training luminous brightness, training luminous duration, and lamp group temperature training label within the same training sub-sample are obtained through experiments on the same lamp group.

[0075] The initial temperature prediction model can be a neural network model or a large language model, and this embodiment does not make specific limitations on this. The training lamp group wavelength is the wavelength of the lamp group for the experiment, the training initial temperature is the temperature when the lamp group is detected to be off during the experiment, the training luminous brightness can be the luminous brightness of the lamp group set during the experiment, the training luminous duration can be the duration for which the lamp group emits light at the training luminous brightness set during the experiment, and the lamp group temperature training label can be the actual temperature of the lamp group detected under the training initial temperature, training luminous brightness, and training luminous duration. Furthermore, the actual temperature can be used as the lamp group temperature training label. Further, the training luminous duration can also include multiple luminous sub - durations, and the training luminous brightness can include multiple luminous sub - brightnesses. The luminous sub - brightnesses corresponding to different luminous sub - durations can be different. Thus, the actual lamp group temperature corresponding to the lamp group when the luminous brightness is different within the luminous duration can be trained, thereby improving the accuracy of determining the lamp group temperature.

[0076] Exemplarily, the training process of the preset temperature prediction model can include inputting the training lamp group wavelength, training initial temperature, training luminous brightness, and training luminous duration into the initial temperature prediction model. The initial temperature prediction model outputs the predicted lamp group temperature, calculates the difference between the predicted lamp group temperature and the lamp group temperature training label to obtain the training loss. If the training loss is less than the preset loss threshold, the initial temperature prediction model is used as the preset temperature prediction model. If the training loss is greater than or equal to the preset loss threshold, a training sub - sample is re - obtained to train the initial temperature prediction model until the training loss is less than the preset loss threshold.

[0077] In this embodiment, for each lamp group, the wavelength, initial temperature, luminous brightness, and luminous duration of the lamp group are input into the preset temperature prediction model. Through the preset temperature prediction model, the lamp group temperature of the lamp group with this wavelength under the initial temperature, luminous brightness, and luminous duration can be predicted. In this embodiment, the initial temperature prediction model is trained with the samples obtained from the experimental data, so that the trained preset temperature prediction model can more accurately predict the temperature of the lamp group, and thus facilitate more accurate determination of the temperature at the location of the temperature detection module subsequently.

[0078] This application provides a physiotherapy device, which includes the above - mentioned physiotherapy control circuit; the physiotherapy device can also implement the physiotherapy control method in the above - mentioned embodiment.

[0079] The physiotherapy device provided by this application adopts the physiotherapy control method in the above - mentioned embodiment, which can solve the technical problem of low adjustment flexibility of the physiotherapy device. Compared with the prior art, the beneficial effects of the physiotherapy device provided by this application are the same as those of the physiotherapy control method provided by the above - mentioned embodiment, and the other technical features in this physiotherapy device are the same as those disclosed in the method of the previous embodiment, so they will not be elaborated here.

[0080] It should be understood that each part disclosed in this application can be implemented by hardware, software, firmware or a combination thereof. In the description of the above embodiments, specific features, structures, materials or characteristics can be combined in a suitable manner in any one or more embodiments or examples.

[0081] The above are only the specific embodiments of this application, but the protection scope of this application is not limited thereto. Any person skilled in the art can easily think of changes or substitutions within the technical scope disclosed in this application, and all of them should be covered by the protection scope of this application. Therefore, the protection scope of this application should be subject to the protection scope of the claims.

[0082] This embodiment provides a computer-readable storage medium having computer-readable program instructions stored thereon, and the computer-readable program instructions are used to execute the physiotherapy control method in the first embodiment above.

[0083] The computer-readable storage medium provided by the embodiments of this application can be, for example, a USB flash drive, but is not limited to electrical, magnetic, optical, electromagnetic, infrared, or semiconductor devices, devices or components, or any combination of the above. More specific examples of the computer-readable storage medium may include, but are not limited to: an electrical connection having one or more wires, a portable computer disk, a hard disk, a random access memory (RAM), a read-only memory (ROM), an erasable programmable EPROM (Electrical Programmable Read Only Memory), or a flash memory, an optical fiber, a portable compact disk CD-ROM (compact disk read-only memory), an optical storage device, a magnetic storage device, or any suitable combination of the above. In this embodiment, the computer-readable storage medium can be any tangible medium that contains or stores a program, and the program can be used by or in combination with an instruction execution device, device or component. The program code contained on the computer-readable storage medium can be transmitted by any suitable medium, including but not limited to: wires, optical cables, RF (Radio Frequency), etc., or any suitable combination of the above.

[0084] The above computer-readable storage medium can be included in the physiotherapy device; it can also exist separately and not be assembled into the physiotherapy device.

[0085] The above computer-readable storage medium carries one or more programs, which, when executed by the physiotherapy device, cause the physiotherapy device to: in response to a lamp group control instruction triggered by a user on the touch screen of the physiotherapy device, determine a target lamp group and a target brightness from the lamp group control instruction; and adjust the current output by the constant current control module in the physiotherapy device to the target lamp group according to the target brightness, so as to adjust the light-emitting brightness of the target lamp group to the target brightness.

[0086] Computer program code for performing the operations of the present disclosure may be written in one or more programming languages or combinations thereof. The programming languages include object-oriented programming languages such as Java, Smalltalk, C++, and also include conventional procedural programming languages such as the "C" language or similar programming languages. The program code may be executed entirely on the user's computer, partially on the user's computer, executed as a stand-alone software package, partially on the user's computer and partially on a remote computer, or entirely on the remote computer or server. In the case of a remote computer, the remote computer may be connected to the user's computer through any type of network, including a LAN (local area network) or a WAN (Wide Area Network), or may be connected to an external computer (for example, by connecting through an Internet service provider via the Internet).

[0087] The flowcharts and block diagrams in the accompanying drawings illustrate the possible architectures, functions, and operations of the devices, methods, and computer program products according to various embodiments of the present application. In this regard, each block in the flowchart or block diagram may represent a module, a program segment, or a part of code that contains one or more executable instructions for implementing a specified logical function. It should also be noted that, in some alternative implementations, the functions marked in the blocks may occur in a different order from that marked in the accompanying drawings. For example, two consecutive blocks shown may actually be executed substantially in parallel, and they may sometimes be executed in the reverse order, depending on the functions involved. It should also be noted that each block in the block diagram and / or flowchart, and the combinations of blocks in the block diagram and / or flowchart, may be implemented by a dedicated hardware-based device for performing the specified functions or operations, or may be implemented by a combination of dedicated hardware and computer instructions.

[0088] The modules described in the embodiments of the present disclosure may be implemented in software or in hardware. In some cases, the name of the module does not constitute a limitation on the unit itself.

[0089] The computer-readable storage medium provided by the embodiment of the present application stores computer-readable program instructions for executing the above-mentioned physiotherapy control method, aiming to solve the technical problem of low adjustment flexibility of physiotherapy devices. Compared with the prior art, the beneficial effects of the computer-readable storage medium provided by the embodiment of the present application are the same as those of the physiotherapy control method provided by the above embodiment, and will not be elaborated here.

[0090] The embodiment of the present application also provides a computer program product, including a computer program, which realizes the steps of the physiotherapy control method as described above when executed by a processor.

[0091] The computer program product provided by the embodiment of the present application aims to solve the technical problem of low adjustment flexibility of physiotherapy devices. Compared with the prior art, the beneficial effects of the computer program product provided by the embodiment of the present application are the same as those of the physiotherapy control method provided by the above embodiment, and will not be elaborated here.

[0092] The above are only the preferred embodiments of the embodiments of the present application, and do not limit the patent scope of the embodiments of the present application. Any equivalent structure or equivalent process transformation made by using the specification and drawings of the embodiments of the present application, or directly or indirectly applied to other related technical fields, shall be equally included in the patent scope of the embodiments of the present application.

Claims

1. A physical therapy control circuit, characterized in that: The physiotherapy control circuit is arranged in the physiotherapy device, and the physiotherapy control circuit comprises a physiotherapy control module, a touch screen, a driving power supply, a constant current control module and a plurality of lamp groups, wherein the plurality of lamp groups comprises at least two lamp groups with different wavelengths; The physiotherapy control module is connected to the touch screen, the driving power supply and the constant current control module, the constant current control module is connected to the driving power supply, the constant current control module is respectively connected to a plurality of light groups, and the plurality of light groups are respectively and independently arranged on the physiotherapy device; The physiotherapy control module is used to receive a light group control instruction triggered by a user on the touch screen; The constant current control module is used to adjust the current output to the target light group based on the target light group in the light group control indication and the target brightness of the target light group, so as to adjust the brightness of the target light group to the target brightness, wherein the target light group is any light group in the physiotherapy equipment.

2. The physical therapy control circuit according to claim 1, characterized in that: The physiotherapy device also includes an aluminum substrate, a temperature detection module and a heat dissipation module; Each of the lamp groups is independently wired on the aluminum substrate, and the temperature detection module and the heat dissipation module are both connected to the physical therapy control module; The temperature detection module is used to detect the aluminum substrate temperature of the aluminum substrate; The physiotherapy control module is also used to find the target heat dissipation power corresponding to the temperature of the aluminum substrate in the preset temperature-power mapping relationship, and control the operation of the heat dissipation module according to the target heat dissipation power; The heat dissipation module is used to operate based on the target heat dissipation power to dissipate heat for each lamp group arranged on the aluminum substrate.

3. The physical therapy control circuit according to claim 1, characterized in that: The multiple lamp groups include multiple infrared lamp groups and multiple red light lamp groups, the driving power supply includes a constant current driving power supply and a control driving power supply, the constant current control module includes a red light constant current unit and an infrared constant current unit, the red light constant current unit includes a red light control access port, a red light power supply port, and a preset number of red light ports, the infrared constant current unit includes an infrared control access port, an infrared power supply port, and a preset number of infrared ports; Each of the red light lamp groups is connected to a red light port, each of the infrared lamp groups is connected to an infrared port, the red light control access port and the infrared control access port are both connected to the physical therapy control module, the infrared power port and the red light power port are both connected to the constant current drive power supply, and the control drive power supply is connected to the physical therapy control module.

4. The physical therapy control circuit according to claim 3, characterized in that: The red light constant current unit includes a red light extension port, and the infrared constant current unit includes an infrared extension port; The red light extension port is used to connect the extended red light constant current unit when the physiotherapy device includes the extended red light constant current unit; The infrared extension port is used to connect the extended infrared constant current unit when the physiotherapy device includes the extended infrared constant current unit.

5. A physical therapy control method, characterized in that: Applied to a physical therapy control circuit, the control method includes: In response to a light group control indication triggered by a user on a touch screen of a physical therapy device, a target light group and a target brightness are determined from the light group control indication; According to the target brightness, the current output by the constant current control module in the physiotherapy device to the target lamp group is adjusted to adjust the luminous brightness of the target lamp group to the target brightness.

6. The physical therapy control method according to claim 5, characterized in that: The step of adjusting the current output by the constant current control module in the physiotherapy device to the target lamp group according to the target brightness to adjust the luminous brightness of the target lamp group to the target brightness includes: Determine the current ratio corresponding to the target brightness; Calculating the product of the current ratio and the preset maximum current of the target lamp group to obtain a target current; The current output by the constant current control module in the physiotherapy device to the lamp group is adjusted to the target current.

7. The physical therapy control method according to claim 5, characterized in that: The physical therapy control method also includes: Obtaining the temperature of the aluminum substrate detected by the temperature detection module in the physical therapy device; Searching for a target heat dissipation power in a target temperature range where the temperature of the aluminum substrate is located within a preset temperature-power mapping relationship; According to the target heat dissipation power, controlling the operation of the heat dissipation module in the physiotherapy device; The preset temperature-power mapping relationship includes a plurality of temperature intervals, and each temperature interval has its own corresponding heat dissipation power.

8. A storage medium, characterized in that: The storage medium is a computer-readable storage medium, on which is stored a program for implementing the physiotherapy control method. The program for implementing the physiotherapy control method is executed by a processor to implement the steps of the physiotherapy control method as described in any one of claims 5 to 7.

9. A program product, characterized in that The program product is a computer program product, which includes a computer program. When the computer program is executed by a processor, the steps of the physiotherapy control method as described in any one of claims 5 to 7 are implemented.

10. A physical therapy device, characterized in that: The physiotherapy device comprises a physiotherapy control circuit as claimed in any one of claims 1 to 3.

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