Physiotherapy waistband and control system for physiotherapy waistband

Abstract

The invention discloses a non-physiotherapy waistband and a control system for the physiotherapy waistband. The physiotherapy waistband comprises a physiotherapy waistband main body and a controller. The physiotherapy waistband comprises an installation main body and a pulse assembly. The pulse assembly is mounted on the mounting main body; the controller is configured to control the working mode of the physiotherapy waistband main body; the controller is configured to control the pulse assembly to generate pulses with the frequency smaller than or equal to 40 HZ and pulses with the frequency larger than 40 HZ.

Description

Technical Field

[0001] This application relates to the field of physiotherapy belts, and particularly to a physiotherapy belt and a control system for the physiotherapy belt. Background Technology

[0002] The waist plays a crucial role in the human body, bearing many important functions and responsibilities. Specifically, it is a key link between the upper and lower body, supporting the entire body's weight and maintaining stability and balance. The joints and muscles of the waist enable the body to perform a variety of complex movements, such as bending, rotating, and twisting. Many vital internal organs, such as the kidneys and part of the digestive system, are located around the waist, and the waist plays a protective role in these organs. The waist also provides fixation and protection for muscles. It is one of the important channels for the nervous system and blood circulation. The spinal cord passes through the waist into the pelvis and lower limbs; the blood vessels in the waist supply many important tissues and organs.

[0003] With increasing health awareness and attention to lower back health, lumbar physiotherapy products are becoming more and more widespread. These products aim to provide several functions and benefits, including pain relief, posture improvement, and rehabilitation. Many lumbar physiotherapy products are designed to relieve pain in the lower back and lumbar region, such as lumbar support belts, therapeutic pillows, and massagers, which alleviate pain through support, muscle relaxation, or direct massage. Some products are specifically designed to help improve posture and reduce the pressure and burden on the lower back from prolonged sitting or standing, such as lumbar correction belts or lumbar support belts. Other products aid in post-exercise rehabilitation or recovery from lower back muscle injuries, such as products that provide hot or cold compresses to the lower back.

[0004] Currently, therapeutic waist belts are popular due to their ease of wear, convenient operation, and diverse functions. Users can wear them while working, doing housework, or engaging in light exercise, protecting their lower back in daily life. However, current therapeutic waist belts have some problems. For example, there is a technological bias in the field: some believe that higher pulse frequencies, such as above 40Hz, may cause harm. Current therapeutic waist belts are mainly controlled by wires, with the controller connected to the belt via an electrical cable. This cable is prone to tangling and has a limited lifespan; furthermore, the cable can trip users or others. Summary of the Invention

[0005] One advantage of this application is that it provides a physiotherapy belt and a control system for the physiotherapy belt, wherein the physiotherapy belt is capable of generating pulses with a pulse frequency greater than 40 Hz, so that the physiotherapy belt can perform physiotherapy on the human body through pulses with a frequency higher than 40 Hz.

[0006] Another advantage of this application is that it provides a physiotherapy belt and a control system for the physiotherapy belt. In one embodiment, the physiotherapy belt can be wirelessly controlled to control its various components. Benefiting from its wireless control feature, the physiotherapy belt can avoid the controller occupying space in the main body of the physiotherapy belt, avoid setting electrical connection wires between the controller and the main body of the physiotherapy belt, and thus avoid problems such as tangled electrical connection wires, limited lifespan of electrical connection wires, and easy tripping.

[0007] Another advantage of this application is that it provides a physiotherapy belt and a control system for the physiotherapy belt, wherein the physiotherapy belt is capable of performing timed physiotherapy.

[0008] Another advantage of this application is that it provides a physiotherapy belt and a control system for the physiotherapy belt, wherein the physiotherapy belt can be adjusted in multiple levels to generate pulses of different frequencies or vibrations of different intensities.

[0009] Another advantage of this application is that it provides a physiotherapy belt and a control system for the physiotherapy belt, wherein the physiotherapy belt can automatically control the physiotherapy components to stop working when it is in a charging state, such as light therapy components, pulse components and vibration components.

[0010] To achieve at least one or more of the above advantages or other advantages and objectives, according to one aspect of this application, a physiotherapy belt is provided, comprising:

[0011] A physiotherapy belt body, the physiotherapy belt body including a mounting body and a pulse assembly; the pulse assembly is mounted on the mounting body; and

[0012] A controller configured to control the working mode of the main body of the physiotherapy belt;

[0013] The controller is configured to control the pulse component to generate pulses with a frequency less than or equal to 40 Hz and pulses with a frequency greater than 40 Hz.

[0014] According to one embodiment of this application, the controller is configured to control the pulse component to generate pulses with a frequency greater than or equal to 5 Hz and less than or equal to 40 Hz.

[0015] According to one embodiment of this application, the controller is configured to control the pulse component to generate pulses with frequencies of 10 Hz and 40 Hz.

[0016] According to one embodiment of this application, the controller is configured to control the pulse component to generate pulses with a frequency greater than 40 and less than or equal to 300 Hz.

[0017] According to one embodiment of this application, the controller is configured to control the pulse component to generate pulses with a frequency greater than 40 and less than or equal to 80 Hz, pulses with a frequency greater than 80 Hz and less than or equal to 150 Hz, and pulses with a frequency greater than 150 Hz and less than or equal to 300 Hz.

[0018] According to one embodiment of this application, the controller is configured to control the pulse component to generate pulses with frequencies of 73 Hz, 146 Hz, and 293 Hz.

[0019] According to one embodiment of this application, the controller is mounted on and supported on the main body of the physiotherapy belt.

[0020] According to one embodiment of this application, the main body of the physiotherapy belt further includes a phototherapy component and a vibration component, the phototherapy component and the vibration component being respectively installed on the main body; the controller is further configured to control the working mode of the phototherapy component and the vibration component.

[0021] According to one embodiment of this application, the controller is further configured to control the phototherapy component to generate light with a wavelength greater than 650 nm.

[0022] According to one embodiment of this application, the controller is further configured to control the phototherapy component to generate only light greater than 650nm and less than or equal to 840nm, or to generate only light greater than 840nm, or at least a portion of the structure generates light greater than 650nm and less than or equal to 840nm while at least a portion of the structure generates light greater than 840nm.

[0023] According to one embodiment of this application, the controller is further configured to control the phototherapy component to generate only 660nm light, or only 850nm light, or at least a portion of the structure generates 660nm light while at least a portion of the structure generates 850nm light.

[0024] According to one embodiment of this application, the controller is further configured to control the vibration component and the pulse component to operate simultaneously.

[0025] According to another aspect of this application, a control system for a physiotherapy belt is provided, comprising:

[0026] A wireless transmission module is provided, which is used to cooperate with the wireless communication module of the physiotherapy belt to realize wireless communication between the controller and the physiotherapy belt.

[0027] A phototherapy control module, wherein the phototherapy control module is used to control the phototherapy components of the physiotherapy belt based on control commands;

[0028] A vibration control module, the vibration control module being used to control the vibration component of the physiotherapy belt based on the control command; and

[0029] A pulse control module is provided, which is used to control the pulse component of the physiotherapy belt based on the control command.

[0030] According to one embodiment of this application, the phototherapy control module is further configured to control the phototherapy component to generate light of a preset wavelength band after the physiotherapy belt enters the power-on state for a first preset time interval.

[0031] According to one embodiment of this application, the phototherapy control module is further configured to control the phototherapy component to be in working state for a first preset countdown period after the phototherapy component enters working state.

[0032] According to one embodiment of this application, the phototherapy control module is further configured to control the phototherapy component to be in a working state during a second preset countdown period after the phototherapy component has been working continuously for a first preset countdown period.

[0033] According to one embodiment of this application, the pulse control module is further configured to control the pulse component to generate pulses with a first frequency, or a second frequency, or a third frequency, or a fourth frequency, or a fifth frequency, or a sixth frequency; wherein the fifth frequency is greater than the fourth frequency, the fourth frequency is greater than the third frequency, the third frequency is greater than the second frequency, and the second frequency is greater than the first frequency.

[0034] According to one embodiment of this application, the first frequency is greater than or equal to 5 Hz and less than or equal to 30 Hz, the second frequency is greater than or equal to 30 Hz and less than or equal to 40 Hz, the third frequency is greater than or equal to 40 Hz and less than or equal to 80 Hz, the fourth frequency is greater than 80 Hz and less than or equal to 150 Hz, the fifth frequency is greater than 150 Hz and less than or equal to 300 Hz, and the sixth frequency is greater than or equal to 5 Hz and less than or equal to 300 Hz.

[0035] According to one embodiment of this application, the control system for the physiotherapy waist belt further includes at least one power management module, which is used to detect the charging status of the physiotherapy waist belt; the phototherapy control module, the vibration control module, and the pulse control module are used to control the phototherapy component, the vibration component, and the pulse component to stop working respectively when the power management module detects that the physiotherapy waist belt is in a charging state.

[0036] According to one embodiment of this application, the control system for the physiotherapy belt generates the control command based on button information, or based on touch information, or based on voice information, or based on image information. Attached Figure Description

[0037] These and / or other aspects and advantages of this application will become clearer and more readily understood from the following detailed description of embodiments of this application taken in conjunction with the accompanying drawings, wherein:

[0038] Figure 1 A perspective view illustrating one embodiment of the physiotherapy waist belt according to an embodiment of this application is shown.

[0039] Figure 2 A block diagram illustrating one embodiment of the physiotherapy belt according to an embodiment of this application is shown.

[0040] Figure 3 This is another block diagram illustrating one embodiment of the physiotherapy waist belt according to the present application.

[0041] Figure 4 This is a perspective view illustrating another embodiment of the controller of a physiotherapy belt according to an embodiment of this application.

[0042] Figure 5 A block diagram illustrating another embodiment of the physiotherapy belt according to the present application is shown.

[0043] Figure 6 A perspective view illustrating yet another embodiment of the controller of the physiotherapy belt according to an embodiment of this application is shown.

[0044] Figure 7 This is a block diagram illustrating yet another embodiment of the physiotherapy belt according to an embodiment of this application.

[0045] Figure 8 This is a perspective view illustrating another embodiment of the controller of the physiotherapy belt according to an embodiment of this application.

[0046] Figure 9Another perspective view illustrating yet another embodiment of the controller of the physiotherapy belt according to an embodiment of this application.

[0047] Figure 10 A block diagram illustrating another embodiment of the physiotherapy belt according to an embodiment of this application is shown.

[0048] Figure 11 This is a perspective view illustrating another embodiment of the controller of the physiotherapy belt according to an embodiment of this application.

[0049] Figure 12 A block diagram illustrating another embodiment of the physiotherapy belt according to an embodiment of this application is shown.

[0050] Figure 13 This is a perspective view illustrating another embodiment of the controller of the physiotherapy belt according to an embodiment of this application.

[0051] Figure 14 A block diagram illustrating another embodiment of the physiotherapy belt according to an embodiment of this application is shown.

[0052] Figure 15 This is a perspective view of a terminal device adapted to be mounted in the control system for a physiotherapy belt according to an embodiment of this application.

[0053] Figure 16 A block diagram illustrating a control system for a physiotherapy belt according to an embodiment of this application is shown.

[0054] Figure 17 A flowchart illustrating a control method for a physiotherapy belt according to an embodiment of this application is shown.

[0055] Figure 18 This is a flowchart illustrating another embodiment of the control method for a physiotherapy belt according to an embodiment of this application.

[0056] Figure 19 This is a flowchart illustrating yet another embodiment of the control method for a physiotherapy belt according to an embodiment of this application.

[0057] Figure 20 This is a flowchart illustrating another embodiment of the control method for a physiotherapy belt according to an embodiment of this application.

[0058] Figure 21 This is a flowchart illustrating another embodiment of the control method for a physiotherapy belt according to an embodiment of this application. Detailed Implementation

[0059] The terms and words used in the following specification and claims are not limited to their literal meaning, but are used solely by the inventors to enable a clear and consistent understanding of this application. Therefore, it will be apparent to those skilled in the art that the following description of various embodiments of this application is provided for illustrative purposes only and not for the purpose of limiting this application as defined in the appended claims and their equivalents.

[0060] It is understood that the term "a" should be understood as "at least one" or "one or more", that is, in one embodiment, the number of an element can be one, while in another embodiment, the number of the element can be multiple, and the term "a" should not be understood as a limitation on the number.

[0061] While ordinal numbers such as "first," "second," etc., will be used to describe various components, there is no limitation on which components are used herein. The term is used only to distinguish one component from another. For example, a first component may be referred to as a second component, and similarly, a second component may be referred to as a first component, without departing from the teachings of this application. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

[0062] The terminology used herein is for the purpose of describing various embodiments only and is not intended to be limiting. As used herein, the singular form is intended to include the plural form as well, unless the context clearly indicates otherwise. It will also be understood that the terms “comprising” and / or “having” as used in this specification specify the presence of the described features, numbers, steps, operations, components, elements or combinations thereof, without excluding the presence or addition of one or more other features, numbers, steps, operations, components, elements or combinations thereof.

[0063] Refer to the accompanying drawings in this application specification. Figures 1 to 14 As shown, the physiotherapy belt 1 according to an embodiment of the present invention will be explained in the following description. In this embodiment, the physiotherapy belt 1 includes a physiotherapy belt body 10 and a controller 20. The controller 20 is connected to the physiotherapy belt body 10 and configured to control the working mode of the physiotherapy belt body 10. The physiotherapy belt body 10 includes a mounting body 11, a phototherapy component 12, a vibration component 13, and a pulse component 14. The phototherapy component 12, the vibration component 13, and the pulse component 14 are mounted on the mounting body 11. The controller 20 is configured to control the working mode of the physiotherapy belt body 10. The controller 20 is further configured to control the pulse component 13 to generate pulses with a frequency less than or equal to 40 Hz and a frequency greater than 40 Hz. Pulses with a frequency greater than 40 Hz can stimulate deeper human tissues, such as deep skin cells and muscles, which is beneficial for improving the sensitivity of human tissues.

[0064] In one embodiment of this application, the controller 20 is configured to control the pulse component to generate pulses with frequencies greater than or equal to 5 Hz and less than or equal to 40 Hz. In one example of this application, the controller 20 is configured to control the pulse component to generate pulses with frequencies of 10 Hz and 40 Hz.

[0065] In one embodiment of this application, the controller 20 is configured to control the pulse component to generate pulses with a frequency greater than 40 and less than or equal to 300 Hz. In one example of this application, the controller 20 is configured to control the pulse component to generate pulses with a frequency greater than 40 and less than or equal to 80 Hz, pulses with a frequency greater than 80 Hz and less than or equal to 150 Hz, and pulses with a frequency greater than 150 Hz and less than or equal to 300 Hz. For example, the controller 20 is configured to control the pulse component to generate pulses with frequencies of 73 Hz, 146 Hz, and 293 Hz, so that the controller 2020 can perform multi-level pulse adjustment on the waist belt therapy body 10.

[0066] The controller 20 is also configured to control the operating modes of the phototherapy component 12 and the vibration component 13.

[0067] In one embodiment of this application, the controller 20 is further configured to control the phototherapy component 12 to generate light with a wavelength greater than 650 nm. Further, the controller 20 is also configured to control the phototherapy component 12 to generate only light with a wavelength greater than 650 nm and less than or equal to 840 nm, or to generate only light with a wavelength greater than 840 nm, or for at least a portion of the structure to generate light with a wavelength greater than 650 nm and less than or equal to 840 nm while simultaneously generating light with a wavelength greater than 840 nm in at least a portion of the structure.

[0068] In one example of this application, the controller 20 is also configured to control the phototherapy component 12 to generate only 660nm light, or only 850nm light, or at least a portion of the structure generates 660nm light while at least a portion of the structure generates 850nm light.

[0069] In one embodiment of this application, the controller 20 is further configured to control the phototherapy component 12 and the vibration component 13 to operate simultaneously.

[0070] Specifically, the phototherapy component 12 includes at least one phototherapy light source 121 and at least one light source driver 122; at least one of the light source drivers 122 is electrically connected to the phototherapy light source 121; the vibration component 13 includes at least one vibration motor 131 and at least one vibration massage part 132; the vibration massage part 132 is electrically connected to the vibration motor 131; the pulse component 14 includes at least one pulse generator 141 and at least one electrode 142; the electrode 142 is electrically connected to the pulse generator 141.

[0071] It is worth mentioning that the electrode plate 142 can be attached to the vibrating massage part 132. Furthermore, the pulse component 14 and the vibration component 13 can work simultaneously to enhance the massage effect.

[0072] The controller 20 includes at least one operable element 21, a switch control module 23, a phototherapy control module 24, a vibration control module 25, and a pulse control module 26. The operable element 21 is operated by a user to generate control commands. The switch control module 23 controls the power on and off of the physiotherapy belt body 10 based on the control commands. The phototherapy control module 24 controls the phototherapy component 12 of the physiotherapy belt body 10 based on the control commands. The vibration control module 25 controls the vibration component 13 of the physiotherapy belt body 10 based on the control commands. The pulse control module 26 controls the pulse component 14 of the physiotherapy belt body 10 based on the control commands.

[0073] The implementation of the operable element 21 is not limited to this application. The operable element 21 can be implemented as a structure that can be operated by a user, such as a button 210, a toggle switch 220, a joystick 230, a touch screen 240, etc.

[0074] When the operable element is button 210, after button 210 is pressed, the circuit corresponding to button 210 generates an electrical signal, which in turn forms a corresponding control command. When the operable element is toggle switch 220, after toggle switch 220 is toggled to a specific position, the circuit is turned on, generating an electrical signal, which in turn forms a corresponding control command; after toggle switch 220 is toggled to another specific position, the circuit is turned off, which in turn forms a corresponding control command; when the operable element is joystick 230, after joystick 230 is rocked, the corresponding sensor generates a corresponding electrical signal, which in turn forms a control command.

[0075] The specific control mode is not limited to this application. More specifically, the specific response method of control implemented through the operable element 21 is not limited to this application. For example, in one example of this application, the operable element includes a button 210. In response to the button 210 being pressed for the first time, the pulse component 14 is controlled to generate a pulse with a first frequency. In response to the button 210 being pressed for the second time, the pulse component 14 is controlled to generate a pulse with a second frequency. In other examples, the operable element includes a button 210, and the response method is implemented as follows: in response to the button 210 being pressed once within a preset time, the pulse component 14 is controlled to generate a pulse with a first frequency. In response to the button 210 being pressed twice consecutively within a preset time, the pulse component 14 is controlled to generate a pulse with a second frequency.

[0076] The control mode will now be illustrated through specific implementation methods.

[0077] In one embodiment of this application, such as Figures 1 to 3 As shown, the controller 20 includes at least three operable elements 21, namely a first button 211, a second button 212, and a third button 213; the first button 211 is pressed by the user to generate a power-on / off control command, which controls the physiotherapy belt body 10 to switch between power on and power off; the second button 212 is pressed by the user to generate a pulse control command, which controls the working state of the pulse component 14; the third button 213 is pressed by the user to generate a vibration control command, which controls the working mode of the vibration component 13.

[0078] When the physiotherapy belt body 10 is in the off state, after the first button 211 is continuously pressed for a preset power-on time, the controller 20 generates a power-on control command and controls the physiotherapy belt body 10 to switch from the off state to the power-on state through the switch control module 23; when the physiotherapy belt body 10 is in the power-on state, after the first button 211 is continuously pressed for a preset power-off time, the controller 20 generates a power-off control command and controls the physiotherapy belt body 10 to switch from the power-on state to the power-off state through the switch control module 23. The preset power-on time and the preset power-off time may be the same or different.

[0079] The first button 211 is also used by the user to press to generate a light therapy control command, which is used to control the working mode of the light therapy component 12.

[0080] The controller 20 automatically generates a phototherapy control command after the physiotherapy belt body 10 enters the power-on state for a first preset time interval, and controls the phototherapy component 12 to generate light of a preset wavelength through the phototherapy control module 24.

[0081] After the phototherapy component 12 enters the working state, the controller 20 controls the phototherapy component 12 to be in the working state for a first preset countdown period.

[0082] In response to the first button 211 not being pressed after the phototherapy component 12 has been working continuously for a first preset countdown period, the controller 20 controls the phototherapy component 12 to continue working for a first preset countdown period, and then automatically generates a phototherapy control command after a second preset time interval, and controls the phototherapy component 12 to be in working state during the second preset countdown period through the phototherapy control module 24.

[0083] In response to the second button 212 being pressed a first preset pulse operation count after the physiotherapy belt body 10 has entered the power-on state, the controller 20 generates a first pulse control command and controls the pulse component 14 to generate a pulse with a first frequency through the pulse control module 26; in response to the second button 212 being pressed a second preset pulse operation count after the physiotherapy belt body 10 has entered the power-on state, the controller 20 generates a second pulse control command and controls the pulse component 14 to generate a pulse with a second frequency through the pulse control module 26; in response to the second button 212 being pressed a third preset pulse operation count after the physiotherapy belt body 10 has entered the power-on state, the controller 20 generates a third pulse control command and controls the pulse component 14 to generate a pulse with a third frequency through the pulse control module 26. In response to the second button 212 being pressed a fourth preset pulse operation count after the physiotherapy belt body 10 has entered the power-on state, the controller 20 generates a fourth pulse control command and controls the pulse component 14 to generate a pulse with a fourth frequency through the pulse control module 26; in response to the second button 212 being pressed a fifth preset pulse operation count after the physiotherapy belt body 10 has entered the power-on state, the controller 20 generates a fifth pulse control command and controls the pulse component 14 to generate a pulse with a fifth frequency through the pulse control module 26; in response to the second button 212 being pressed a sixth preset pulse operation count after the physiotherapy belt body 10 has entered the power-on state, the controller 20 generates a sixth pulse control command and controls the pulse component 14 to generate a pulse with a sixth frequency through the pulse control module 26.

[0084] The first preset pulse operation count is equal to 1 or 1+6.i The second preset pulse operation count is equal to 2 or 2+6. i The third preset pulse operation count is equal to 3 or 3+6. i The fourth preset pulse operation count is equal to 4 + 6. i The fifth preset pulse operation count is equal to 5 + 6. i The sixth preset pulse operation count is equal to 6. i i is a positive integer; the fifth frequency is greater than the fourth frequency, the fourth frequency is greater than the third frequency, the third frequency is greater than the second frequency, and the second frequency is greater than the first frequency.

[0085] In one embodiment of this application, the first frequency is greater than or equal to 5 Hz and less than or equal to 30 Hz, the second frequency is greater than or equal to 30 Hz and less than or equal to 40 Hz, the third frequency is greater than or equal to 40 Hz and less than or equal to 80 Hz, the fourth frequency is greater than 80 Hz and less than or equal to 150 Hz, the fifth frequency is greater than 150 Hz and less than or equal to 300 Hz, and the sixth frequency is greater than or equal to 5 Hz and less than or equal to 300 Hz.

[0086] In one example of this application, the first frequency is 10 Hz, the second frequency is 40 Hz, the third frequency is 73 Hz, the fourth frequency is 146 Hz, and the fifth frequency is 293 Hz.

[0087] It should be understood that the first frequency, the second frequency, the third frequency, the fourth frequency, and the fifth frequency may also be other values.

[0088] In response to the second button 212 being pressed and not being pressed within a third preset time interval, the controller 20 controls the pulse component 14 to be in working state within a third preset countdown period through the pulse control module 26.

[0089] In response to the third button 213 being pressed a first preset vibration operation count after the physiotherapy belt body 10 has entered the power-on state, the controller 20 generates a first vibration control command and controls the vibration component 13 to enter a first vibration working mode through the vibration control module 25; in response to the third button 213 being pressed a second preset vibration operation count after the physiotherapy belt body 10 has entered the power-on state, the controller 20 generates a second vibration control command and controls the vibration component 13 to enter a second vibration working mode through the vibration control module 25; in response to the third button 213 being pressed a third preset vibration operation count after the physiotherapy belt body 10 has entered the power-on state, the controller 20 generates a third vibration control command and controls the vibration component 13 to stop working through the vibration control module 25.

[0090] The vibration intensity of the vibration component 13 in the first vibration operating mode is greater than its vibration intensity in the second vibration operating mode; the first preset vibration operation count is equal to 1 or 1+3. i The second preset vibration operation count is equal to 2 or 2+3. i The third preset vibration operation count is equal to 3 or 3. i i is a positive integer.

[0091] The controller 20 further includes at least one power management module 27, which is used to detect the charging status of the physiotherapy belt body 10; in response to the power management module 27 detecting that the physiotherapy belt body 10 is in a charging state, the controller 20 controls the phototherapy component 12, the vibration component 13 and the pulse component 14 to stop working by controlling the phototherapy control module 24, the vibration control module 25 and the pulse control module 26.

[0092] The physiotherapy waist belt body 10 also includes multiple indicator lights 16, which are mounted on the mounting body 11. The multiple indicator lights 16 include a first vibration indicator light 161, a second vibration indicator light 162, a pulse frequency indicator light 163, a phototherapy indicator light 164, and a charging / discharging indicator light 165. The controller 20 also includes an indicator light management module 28, which controls the indicator lights 16 of the physiotherapy waist belt body 10. In response to the vibration component 13 being in a first vibration mode, the controller 20 controls the indicator light management module 28 to turn on the first vibration indicator light 161. In response to the vibration component 13 being in a second vibration mode, the controller 20 controls the indicator light management module 28 to turn on the second vibration indicator light 162. In response to the vibration component 13 being in a stopped working state, the controller 20 controls the indicator light management module 28 to turn off either the first vibration indicator light 161 or the second vibration indicator light 162. When the pulse component 14 is in a working state, the controller 20 controls the pulse frequency indicator 163 to be in an on state by controlling the indicator management module 28; when the pulse component 14 is in a stopped working state, the controller 20 controls the pulse frequency indicator 163 to be in a stopped working state by controlling the indicator management module 28; when the phototherapy component 12 is in a working state, the controller 20 controls the phototherapy indicator 164 to be in an on state by controlling the indicator management module 28; when the phototherapy component 12 is in a stopped working state, the controller 20 controls the phototherapy indicator 164 to be in a stopped working state by controlling the indicator management module 28; when the physiotherapy belt body 10 is in a charging state, the controller 20 controls the charging and discharging indicator 165 to be in a flashing state by controlling the indicator management module 28; when the physiotherapy belt body 10 is fully charged, the controller 20 controls the charging and discharging indicator 165 to be in a constantly lit state by controlling the indicator management module 28.

[0093] The controller 20 includes a display screen 201, which is used to display the working status information of the physiotherapy waist belt body 10. The working status information of the physiotherapy waist belt body 10 includes a phototherapy countdown time, a pulse frequency, and a pulse countdown time.

[0094] The preset power-on duration, preset power-off duration, first preset time interval, first preset countdown period, second preset time interval, second preset countdown period, third preset time interval, and third preset countdown period can be set according to requirements.

[0095] In one example of this application, the preset power-on duration is 2 seconds, and the preset power-off duration is 2 seconds. The first preset time interval is 5 seconds. The first preset countdown period is 15 minutes. The second preset time interval is 3 seconds, and the second preset countdown period is 15 minutes. The third preset time interval is 3 seconds, and the third preset countdown period is 15 minutes.

[0096] Accordingly, in this example, in response to the physiotherapy belt body 10 being in the off state, after the first button 211 is pressed continuously for 2 seconds, the controller 20 generates a power-on control command and controls the physiotherapy belt body 10 to switch from the off state to the power-on state through the switch control module 23; in response to the physiotherapy belt body 10 being in the power-on state, after the first button 211 is pressed continuously for 2 seconds, the controller 20 generates a power-off control command and controls the physiotherapy belt body 10 to switch from the power-on state to the power-off state through the switch control module 23.

[0097] The controller 20 automatically generates a phototherapy control command 5 seconds after the main body 10 of the physiotherapy belt enters the power-on state, and controls the phototherapy component 12 to generate light of a preset wavelength through the phototherapy control module 24.

[0098] The controller 20 controls the phototherapy component 12 to be in working state for 15 minutes after the phototherapy component 12 enters working state.

[0099] In response to the first button 211 not being pressed after the phototherapy component 12 has been working continuously for a first preset countdown period, the controller 20 controls the phototherapy component 12 to work continuously for 15 minutes, and then automatically generates a phototherapy control command after 3 seconds, and controls the phototherapy component 12 to be in working state for 15 minutes through the phototherapy control module 24.

[0100] In response to the second button 212 being pressed and not being pressed within 3 seconds, the controller 20 controls the pulse component 14 to be in working state for 15 minutes via the pulse control module 26.

[0101] It should be understood that in other embodiments, the number of buttons 210 may be greater than 3, and the response mode of each button 210 may be implemented in other ways.

[0102] In another embodiment of this application, such as Figure 4 and Figure 5 As shown, the operable element 21 is implemented as a toggle switch 220. Accordingly, the toggle switch 220 is operated by the user to generate control commands.

[0103] In yet another embodiment of this application, such as Figure 6 and Figure 7 As shown, the operable element 21 is implemented as a joystick 230. Accordingly, the joystick 230 is used by the user to generate control commands.

[0104] In yet another embodiment of this application, such as Figures 8 to 10 As shown, the operable element 21 is implemented as a touch screen 240. The touch screen 240 displays an operation interface 241, which is accessible to a user or stylus for contact, and through contact with the displayed operation interface 241, the user generates the control commands. The touch screen 240 also displays a working status interface 242, which displays the working status information of the physiotherapy belt body 10. The working status information of the physiotherapy belt body 10 includes a phototherapy countdown time, a pulse frequency, and a pulse countdown time. It should be understood that the working status information of the physiotherapy belt body 10 may also include other working status information, such as the working status of the phototherapy component 12 and the working status of the vibration component 13.

[0105] The operable element 21 is communicatively connected to the switch control module 23. The switch control module 23, the phototherapy control module 24, the vibration control module 25, the pulse control module 26, the power management module 27, and the indicator light management module 28 are each communicatively connected to the controller 20.

[0106] In one example of this application, the controller 20 further includes a microcontroller 29. The switch control module 23, the phototherapy control module 24, the vibration control module 25, the pulse control module 26, the power management module 27, and the indicator light management module 28 are communicatively connected to the microcontroller 29.

[0107] In yet another embodiment of this application, such as Figure 11 and Figure 12As shown, the controller 20 includes at least one voice recognition module 250, one switch control module 23, one phototherapy control module 24, one vibration control module 25, and one pulse control module 26. The voice recognition module 250 is used to recognize voice information to generate control commands; the switch control module 23 is used to control the power on and off of the physiotherapy belt body 10 based on the control commands; the phototherapy control module 24 is used to control the phototherapy component 12 of the physiotherapy belt body 10 based on the control commands; the vibration control module 25 is used to control the vibration component 13 of the physiotherapy belt body 10 based on the control commands; and the pulse control module 26 is used to control the pulse component 14 of the physiotherapy belt body 10 based on the control commands.

[0108] In one example of this application, the controller 20 further includes a microcontroller 29. The voice recognition module 250, the switch control module 23, the phototherapy control module 24, the vibration control module 25, the pulse control module 26, the power management module 27, and the indicator light management module 28 are communicatively connected to the microcontroller 29.

[0109] In yet another embodiment of this application, such as Figure 13 and Figure 14 As shown, the controller 20 includes at least one camera module 260, one switch control module 23, one phototherapy control module 24, one vibration control module 25, and one pulse control module 26. The camera module 260 is used to recognize gestures to generate control commands; the switch control module 23 is used to control the power on and off of the physiotherapy belt body 10 based on the control commands; the phototherapy control module 24 is used to control the phototherapy component 12 of the physiotherapy belt body 10 based on the control commands; the vibration control module 25 is used to control the vibration component 13 of the physiotherapy belt body 10 based on the control commands; and the pulse control module 26 is used to control the pulse component 14 of the physiotherapy belt body 10 based on the control commands.

[0110] It should be understood that the camera module 260 can also generate control commands by recognizing other objects, such as images.

[0111] In one example of this application, the controller 20 further includes a microcontroller 29. The camera module 260, the switch control module 23, the phototherapy control module 24, the vibration control module 25, the pulse control module 26, the power management module 27, and the indicator light management module 28 are communicatively connected to the microcontroller 29.

[0112] The controller 20 can be connected to the physiotherapy belt body 10 via an electrical connection cable. The controller 20 can be supported on the physiotherapy belt body 10 or can be independent of the physiotherapy belt body 10.

[0113] The controller 20 can be implemented as a wireless controller. When the controller 20 is implemented as a wireless controller, it is adapted to control the working mode of the physiotherapy belt body 10 via wireless communication. Specifically, the physiotherapy belt body 10 includes a wireless communication module. The wireless communication module is installed on the mounting body 11. The controller 20 includes a wireless transmission module. The wireless transmission module is used to cooperate with the wireless communication module of the physiotherapy belt body 10 to realize wireless communication between the controller 20 and the physiotherapy belt body 10. The wireless transmission module can be a Bluetooth communication module, or a Wi-Fi communication module, or an infrared communication module, or other modules capable of wireless communication.

[0114] The physiotherapy belt 1 benefits from its wireless control feature, which avoids the controller occupying the space of the physiotherapy belt body 10 and avoids the need to install electrical connection wires between the controller 20 and the physiotherapy belt body 10. This avoids problems such as tangled electrical connection wires, limited lifespan of electrical connection wires, and the risk of tripping over them.

[0115] Accordingly, such as Figure 15 and Figure 16 As shown, this application proposes a control system 2 for a physiotherapy belt, which is suitable for installation in a terminal device 3, such as a mobile phone 310. The physiotherapy belt body 10 can be controlled via the terminal device 3.

[0116] The control system 2 for the physiotherapy waist belt includes: a wireless transmission module 22, a phototherapy control module 24, a vibration control module 25, and a pulse control module 26; the wireless transmission module 22 is used to cooperate with the wireless communication module 15 of the physiotherapy waist belt body 10 to realize wireless communication between the controller 20 and the physiotherapy waist belt body 10; the phototherapy control module 24 is used to control the phototherapy component 12 of the physiotherapy waist belt body 10 based on control commands; the vibration control module 25 is used to control the vibration component 13 of the physiotherapy waist belt body 10 based on the control commands; and the pulse control module 26 is used to control the pulse component 14 of the physiotherapy waist belt body 10 based on the control commands.

[0117] The phototherapy control module 24 is further configured to control the phototherapy component 12 to generate light of a preset wavelength after the main body 10 of the physiotherapy belt enters the power-on state for a first preset time interval. The phototherapy control module 24 is further configured to control the phototherapy component 12 to remain in the working state for a first preset countdown period after it enters the working state. The phototherapy control module 24 is further configured to control the phototherapy component 12 to remain in the working state for a second preset countdown period after the phototherapy component 12 has been continuously working for a first preset countdown period.

[0118] The pulse control module 26 is further configured to control the pulse component 14 to generate pulses with a first frequency, or a second frequency, or a third frequency, or a fourth frequency, or a fifth frequency, or a sixth frequency; wherein the fifth frequency is greater than the fourth frequency, the fourth frequency is greater than the third frequency, the third frequency is greater than the second frequency, and the second frequency is greater than the first frequency. The pulse control module 26 is further configured to control the pulse component 14 to be in a working state during a third preset countdown period.

[0119] The vibration component 13 is further used to control the vibration component 13 to enter a first vibration working mode or a second vibration working mode; the vibration component 13 is further used to control the vibration component 13 to stop working; the vibration intensity of the vibration component 13 in the first vibration working mode is greater than its vibration intensity in the second vibration working mode.

[0120] The control system 2 for the physiotherapy waist belt also includes a switch control module 23, which is used to control the power on and power off of the physiotherapy waist belt body 10 based on the control command.

[0121] The control system 2 for the physiotherapy waist belt further includes at least one power management module 27, which is used to detect the charging status of the physiotherapy waist belt body 10; the phototherapy control module 24, the vibration control module 25 and the pulse control module 26 are used to control the phototherapy component 12, the vibration component 13 and the pulse component 14 to stop working respectively when the power management module 27 detects that the physiotherapy waist belt body 10 is in a charging state.

[0122] The control system 2 for the physiotherapy waist belt also includes at least one indicator light management module 28, which is used to control the state of the indicator light 16 on the main body 10 of the physiotherapy waist belt.

[0123] The control system 2 for the physiotherapy belt generates the control command based on button information, or based on touch information, or based on voice information, or based on image information.

[0124] Based on the aforementioned physiotherapy belt 1 and control system 2 for the physiotherapy belt, this application proposes a control method for the physiotherapy belt. For example... Figure 17 As shown, the control method for the physiotherapy waist belt includes the following steps: S110, establishing a wireless communication channel between the controller 20 and the physiotherapy waist belt body 10 through the wireless transmission module 22 of the control system and the wireless communication module 15 of the physiotherapy waist belt body 10; S120, controlling the phototherapy component 12 of the physiotherapy waist belt body 10 through wireless communication based on the control command; S130, controlling the vibration component 13 of the physiotherapy waist belt body 10 through wireless communication based on the control command; and S140, controlling the pulse component 14 of the physiotherapy waist belt body 10 through wireless communication based on the control command.

[0125] In one embodiment of this application, during the process of controlling the phototherapy component 12 of the physiotherapy belt body 10 via wireless communication, after the physiotherapy belt body 10 enters the power-on state for a first preset time interval, the phototherapy component 12 is controlled to generate light of a preset wavelength. After the phototherapy component 12 enters the working state, the phototherapy component 12 is controlled to be in the working state for a first preset countdown period. After the phototherapy component 12 continues to work for a first preset countdown period, the phototherapy component 12 is controlled to be in the working state for a second preset countdown period.

[0126] During the process of controlling the pulse component 14 of the physiotherapy waist belt body 10 via wireless communication, the pulse component 14 is controlled to generate pulses with a first frequency, or a second frequency, or a third frequency, or a fourth frequency, or a fifth frequency, or a sixth frequency; wherein the fifth frequency is greater than the fourth frequency, the fourth frequency is greater than the third frequency, the third frequency is greater than the second frequency, and the second frequency is greater than the first frequency. During the process of controlling the pulse component 14 of the physiotherapy waist belt body 10 via wireless communication, the pulse component 14 is controlled to be in working state during a third preset countdown period.

[0127] During the process of controlling the vibration component 13 of the physiotherapy belt body 10 via wireless communication, the vibration component 13 is further used to control the vibration component 13 to enter a first vibration working mode or a second vibration working mode; the vibration component 13 is further used to control the vibration component 13 to stop working; the vibration intensity of the vibration component 13 in the first vibration working mode is greater than its vibration intensity in the second vibration working mode.

[0128] like Figure 18 As shown, the control method for the physiotherapy waist belt further includes the step: S150, based on the control command, controlling the power on and power off of the physiotherapy waist belt body 10 via wireless communication.

[0129] like Figure 19 As shown, the control method for the physiotherapy waist belt further includes the following steps: S160, detecting the charging state of the physiotherapy waist belt body 10; and controlling the phototherapy component 12, the vibration component 13 and the pulse component 14 to stop working when the physiotherapy waist belt body 10 is detected to be in a charging state.

[0130] like Figure 20 As shown, the control method for the physiotherapy waist belt further includes the step: S170, controlling the state of the indicator light 16 of the physiotherapy waist belt body 10 through wireless communication based on the control command.

[0131] like Figure 21 As shown, the control method for the physiotherapy belt further includes the step of: S180, generating the control command based on button information, or touch information, or voice information, or image information.

[0132] The basic principles of this application have been described above with reference to specific embodiments. However, it should be noted that the advantages, benefits, and effects mentioned in this application are merely examples and not limitations, and should not be considered as essential features of each embodiment of this application. Furthermore, the specific details disclosed above are for illustrative and facilitative purposes only, and are not limitations. These details do not restrict the application from being implemented using the specific details described above. The functional and structural principles of this application have been demonstrated and explained in the embodiments. Without departing from the described principles, the implementation of this invention can have any variations or modifications.

Claims

1. A physiotherapy waist belt, characterized in that, include: A physiotherapy waist belt body, the physiotherapy waist belt body including a mounting body and a pulse assembly; the pulse assembly is mounted on the mounting body; and A controller configured to control the working mode of the main body of the physiotherapy belt; The controller is configured to control the pulse component to generate pulses with a frequency less than or equal to 40 Hz and pulses with a frequency greater than 40 Hz.

2. The physiotherapy belt according to claim 1, wherein, The controller is configured to control the pulse component to generate pulses with a frequency greater than or equal to 5 Hz and less than or equal to 40 Hz.

3. The physiotherapy belt according to claim 2, wherein, The controller is configured to control the pulse component to generate pulses with frequencies of 10 Hz and 40 Hz.

4. The physiotherapy belt according to claim 2, wherein, The controller is configured to control the pulse component to generate pulses with a frequency greater than 40 and less than or equal to 300 Hz.

5. The physiotherapy belt according to claim 4, wherein, The controller is configured to control the pulse component to generate pulses with frequencies greater than 40 and less than or equal to 80 Hz, pulses with frequencies greater than 80 Hz and less than or equal to 150 Hz, and pulses with frequencies greater than 150 Hz and less than or equal to 300 Hz.

6. The physiotherapy belt according to claim 5, wherein, The controller is configured to control the pulse component to generate pulses with frequencies of 73 Hz, 146 Hz, and 293 Hz.

7. The physiotherapy belt according to claim 1, wherein, The controller is mounted on and supported on the main body of the physiotherapy belt.

8. The physiotherapy belt according to claim 1, wherein, The main body of the physiotherapy belt also includes a phototherapy component and a vibration component, which are respectively installed on the main body; the controller is also configured to control the working mode of the phototherapy component and the vibration component.

9. The physiotherapy belt according to claim 8, wherein, The controller is also configured to control the phototherapy component to generate light with a wavelength greater than 650 nm.

10. The physiotherapy belt according to claim 9, wherein, The controller is also configured to control the phototherapy component to generate only light greater than 650nm and less than or equal to 840nm, or to generate only light greater than 840nm, or for at least a portion of the structure to generate light greater than 650nm and less than or equal to 840nm while at least a portion of the structure generates light greater than 840nm.

11. The physiotherapy belt according to claim 10, wherein, The controller is also configured to control the phototherapy component to generate only 660nm light, or only 850nm light, or at least a portion of the structure generates 660nm light while at least a portion of the structure generates 850nm light.

12. The physiotherapy belt according to claim 8, wherein, The controller is also configured to control the vibration component and the pulse component to operate simultaneously.

13. A control system for a physiotherapy belt, characterized in that it comprises: A wireless transmission module is provided, which is used to cooperate with the wireless communication module of the physiotherapy belt to realize wireless communication between the wireless controller and the physiotherapy belt. A phototherapy control module, wherein the phototherapy control module is used to control the phototherapy components of the physiotherapy belt based on control commands; A vibration control module, the vibration control module being used to control the vibration component of the physiotherapy belt based on the control command; and A pulse control module is provided, which is used to control the pulse component of the physiotherapy belt based on the control command.

14. The control system for a physiotherapy belt according to claim 13, wherein, The phototherapy control module is further used to control the phototherapy component to generate light of a preset wavelength after the physiotherapy belt enters the power-on state for a first preset time interval.

15. The control system for a physiotherapy belt according to claim 14, wherein, The phototherapy control module is further used to control the phototherapy component to be in working state for a first preset countdown period after the phototherapy component enters working state.

16. The control system for a physiotherapy belt according to claim 15, wherein, The phototherapy control module is further configured to control the phototherapy component to be in working state during a second preset countdown period after the phototherapy component has been working continuously for a first preset countdown period.

17. The control system for a physiotherapy belt according to claim 13, wherein, The pulse control module is further configured to control the pulse component to generate pulses with a first frequency, or a second frequency, or a third frequency, or a fourth frequency, or a fifth frequency, or a sixth frequency; wherein the fifth frequency is greater than the fourth frequency, the fourth frequency is greater than the third frequency, the third frequency is greater than the second frequency, and the second frequency is greater than the first frequency.

18. The control system for a physiotherapy belt according to claim 17, wherein, The first frequency is greater than or equal to 5 Hz and less than or equal to 30 Hz; the second frequency is greater than or equal to 30 Hz and less than or equal to 40 Hz; the third frequency is greater than or equal to 40 Hz and less than or equal to 80 Hz; the fourth frequency is greater than 80 Hz and less than or equal to 150 Hz; the fifth frequency is greater than 150 Hz and less than or equal to 300 Hz; and the sixth frequency is greater than or equal to 5 Hz and less than or equal to 300 Hz.

19. The control system for a physiotherapy belt according to claim 13, wherein, The control system for the physiotherapy waist belt further includes at least one power management module, which is used to detect the charging status of the physiotherapy waist belt; the phototherapy control module, the vibration control module, and the pulse control module are used to control the phototherapy component, the vibration component, and the pulse component to stop working respectively when the power management module detects that the physiotherapy waist belt is in a charging state.

20. The control system for a physiotherapy belt according to claim 13, wherein, The control system for the physiotherapy belt generates the control commands based on button information, or based on touch information, or based on voice information, or based on image information.

Images