Pulse and heating gasket

Abstract

The pulse and heating gasket comprises inner-layer cloth, an inner-layer adhesive film, an energy conducting film, an FPC circuit board, a middle-layer adhesive film, a battery, an outer-layer adhesive film and outer-layer cloth, the FPC circuit board comprises a pulse unit and a heating unit, and the pulse unit is covered in the energy conducting film; the FPC circuit board is arranged between the inner-layer adhesive film and the middle-layer adhesive film, and the energy conducting film penetrates through the inner-layer adhesive film and the inner-layer cloth to the outside of the inner-layer cloth; the battery is arranged between the middle-layer adhesive film and the outer-layer adhesive film, the outer-layer adhesive film is connected with the outer-layer cloth, and the inner-layer cloth is connected with the periphery of the outer-layer cloth, during application, the pulse unit generates a pulse loop, the heating unit generates a heating effect, and the energy conducting film transmits the pulse loop and the heating effect to a human body; the inner layer adhesive film and the middle layer adhesive film seal the FPC circuit board and the energy conducting film, and the middle layer adhesive film and the outer layer adhesive film seal the battery, so that the waterproof function is achieved. Therefore, the design can be washed by water, and is clean and sanitary.

Description

Technical Field

[0001] This utility model relates to a pad, belonging to the field of physiotherapy technology, and particularly to a pulse and heating pad. Background Technology

[0002] Hot compresses and pulse therapy are common physical therapy methods. Applying hot compresses or pulse therapy to parts of the body can promote blood circulation, improve metabolism in those areas, and help maintain health.

[0003] Chinese patent application number 201220364677.X, filed on July 26, 2012, discloses a silicone pulse electronic breast enhancement bra electrode plate, including an electrode plate disposed on the bra cup. The electrode plate is equipped with one or any combination of an infrared heating element, a magnetic patch, a massage unit, a vibration unit, and a percussion unit. An external power supply controller is connected to the electrode plate. Although this design offers multiple functions due to the physical magnetic oscillation massage, infrared heat therapy, acupuncture, and percussion effects generated by the infrared heating element, magnetic patch, massage unit, vibration unit, and percussion unit after being powered on, it still has the following drawbacks:

[0004] This design is not waterproofed, and if it is washed with water after being contaminated by sweat or other stains, the internal parts may be damaged. Therefore, the existing technology is not suitable for washing.

[0005] The information disclosed in this background section is intended only to enhance understanding of the overall background of this application and should not be construed as an admission or in any way implying that the information constitutes prior art known to those skilled in the art. Summary of the Invention

[0006] The purpose of this invention is to overcome the defects and problems of existing technologies that are not easy to wash with water, and to provide a washable pulse and heating pad.

[0007] To achieve the above objectives, the technical solution of this utility model is as follows:

[0008] A pulse and heating pad, the pad comprising, in sequence, an inner layer of cloth, an inner layer of adhesive film, a conductive film, an FPC circuit board, a middle layer of adhesive film, a battery, an outer layer of adhesive film, and an outer layer of cloth;

[0009] The FPC circuit board includes a middle part and two inclined arms on both sides. The bottom ends of the middle part are respectively connected to the bottom ends of one inclined arm. A pulse unit is provided on the top of the inclined arm. A heating unit is provided on the part of the inclined arm surrounding the pulse unit. The pulse unit is covered inside the energy-conducting film. The bottom of the energy-conducting film is connected to the top of the inclined arm.

[0010] The inner layer fabric has an inner layer hole corresponding to the energy-conducting film in the middle. The inner side of the inner layer fabric is bonded to one side of the inner layer adhesive film. The middle of the other side of the inner layer adhesive film is connected to the FPC circuit board. The FPC circuit board is located between the inner layer adhesive film and the middle layer adhesive film. The periphery of the other side of the inner layer adhesive film is connected to the periphery of one side of the middle layer adhesive film. The inner layer adhesive film has an adhesive film hole corresponding to the energy-conducting film. The energy-conducting film extends to the outside of the inner layer fabric by passing through the adhesive film hole and the inner layer hole in sequence.

[0011] The other side of the middle adhesive film is connected to the perimeter of the outer adhesive film. The middle part of the inner side of the middle adhesive film is connected to one side of the battery. The other side of the battery is connected to the middle part of the inner side of the outer adhesive film. The battery is connected to one end of the flexible wire. The other end of the flexible wire passes through the middle adhesive film and is connected to the middle part of the bottom of the middle section.

[0012] The other side of the outer adhesive film is bonded to the outer fabric, and the perimeter of the inner fabric is connected to the perimeter of the outer fabric.

[0013] The energy-conducting membrane includes a bottom ring and an adhesive cap. The adhesive cap extends through the adhesive hole and the inner layer hole to the outside of the inner layer fabric. The bottom ring is sealed to the adhesive hole. A wire hole is provided in the middle of the middle layer adhesive film. A flexible wire is inserted into the wire hole. The flexible wire is located on the side wall inside the wire hole and is sealed to the wire hole.

[0014] The upper part of the middle section is a control chip, and the lower part of the middle section is a power management module. The control chip includes an MCU main controller, a Bluetooth module, an EMS pulse circuit, a temperature control circuit, and a power supply module. The MCU main controller is electrically connected to the Bluetooth module, the MCU main controller is signal-connected to the EMS pulse circuit, the MCU main controller is signal-connected to the temperature control circuit, and the MCU main controller is electrically connected to the power supply module. The power supply module is electrically connected to the power management module.

[0015] The EMS pulse circuit is electrically connected to the pulse unit, the temperature control circuit is electrically connected to the heating unit, and the bottom of the pulse unit is located at the top of the heating unit.

[0016] The heating unit includes a heating wire that reciprocates around the periphery of the inclined arm in a curved manner.

[0017] One end of the heating wire is connected to one end of another heating wire, and the other end of the heating wire is connected to the power management module.

[0018] The pulse unit has a circular structure, with one pulse unit connected to the control chip and the other pulse unit connected to the power management module.

[0019] The periphery of the middle layer adhesive film away from the FPC circuit board is bonded to the periphery of the molding sponge, and the periphery of the side of the molding sponge away from the middle layer adhesive film is bonded to the periphery of the outer layer adhesive film.

[0020] The shaped sponge includes a flat part and a protruding part. The protruding part is located in the lower middle part of the flat part. The protruding part includes an upper protruding part and a lower constricting part. The side wall of the upper protruding part is connected to the flat part, and the side wall of the lower constricting part is connected to the flat part. The bottom of the upper protruding part is connected to the top of the lower constricting part. The upper protruding part has a gradually protruding tendency in the direction towards the lower constricting part, and the lower constricting part has a gradually decreasing tendency in the direction away from the upper protruding part.

[0021] A battery slot is provided on the protrusion. The battery slot is a groove that opens in one direction toward the middle layer adhesive film, and the battery is located inside the battery slot.

[0022] The side of the middle adhesive film closest to the battery is bonded to one side of the shaping yarn, and the other side of the shaping yarn is bonded to the battery and the shaping sponge.

[0023] A charging port is provided in the middle of the outer fabric, and an outer port is provided in the middle of the outer adhesive film corresponding to the charging port.

[0024] A charging contact is provided inside the outer layer opening, and the side of the charging contact away from the outer layer opening is connected to one end of the battery via a wire.

[0025] The top of the inclined arm, away from the energy-conducting film, is connected to the EVA filler. The energy-conducting film and the EVA filler are bonded together with double-sided adhesive. The size of the EVA filler corresponds to the size of the energy-conducting film.

[0026] A thermally conductive copper plating is disposed next to the energy-conducting film, and a thermistor is disposed on the thermally conductive copper plating. The thermally conductive copper plating is connected to the MCU main controller.

[0027] Compared with the prior art, the beneficial effects of this utility model are as follows:

[0028] 1. In a pulse and heating pad of this utility model, the pad includes, in sequence, an inner layer of cloth, an inner layer of adhesive film, a conductive film, an FPC circuit board, a middle layer of adhesive film, a battery, an outer layer of adhesive film, and an outer layer of cloth. The FPC circuit board includes a middle part and a slanted arm. A pulse unit and a heating unit are disposed on the slanted arm. The top end of the slanted arm is connected to the conductive film. The FPC circuit board and the conductive film are wrapped by the inner layer of adhesive film and the middle layer of adhesive film. The conductive film protrudes from the inner layer of cloth through the adhesive film holes of the inner layer of adhesive film and the inner layer holes provided on the inner layer of cloth. The battery is wrapped by the middle layer of adhesive film. The heating unit and pulse unit are wrapped by an inner and outer adhesive film. During application, the heating and pulse circuits generate heat and transmit it to the human body through a conductive film. The FPC circuit board and the conductive film are sealed by the inner and middle adhesive films, and the battery is sealed by the middle and outer adhesive films. This prevents liquid from entering the inner and outer adhesive films, making the device washable. The FPC circuit board is flexible and bendable, and the battery is small, resulting in good flexibility and easy washing. Washing keeps the device clean and improves user comfort. Therefore, this device is washable and hygienic.

[0029] 2. In this invention, a pulse and heating pad includes a control chip comprising an MCU main controller, a Bluetooth module, an EMS pulse circuit, a temperature control circuit, and a power supply module. The EMS pulse circuit is connected to the pulse unit, the temperature control circuit is connected to the heating unit, and the power supply module is connected to the power management module. During application, current flows from the battery to the power management module, then to the power supply module, and finally to other modules. The MCU main controller receives signals via the Bluetooth module and controls the EMS pulse circuit and temperature control circuit to turn on or off, thereby controlling the pulse unit and the heating unit. Therefore, this invention can achieve the functions of emitting pulse energy and generating heat.

[0030] 3. In this invention, a pulse heating pad is provided, in which the heating wires are distributed in an "arch" shape within the heating unit. During application, the heating wires are evenly and densely distributed, resulting in a better heating effect. There are gaps between the parallel heating wires, which are used for heat dissipation and also conserve heating wire resources. Therefore, this invention has a better heating effect.

[0031] 4. In this invention, a pulse and heating pad is provided, wherein there are two pulse units, which are circular pieces symmetrically distributed along an FPC circuit board. During application, pulse energy flows from one pulse unit into the human body and then from the human body into the other pulse unit, forming a pulse circuit. Therefore, this invention provides a better pulse stimulation effect.

[0032] 5. In this invention's pulse and heating pad, the battery is located inside a shaping sponge. The shaping sponge and the shaping yarn are connected and then sealed together by a middle layer adhesive film and an outer layer adhesive film. During application, the shaping sponge is very soft, further reducing the battery's hardness and achieving a better fit. The shaping yarn not only fixes the battery inside the shaping sponge but also further secures the FPC circuit board, preventing it from moving and affecting the pulse circuit and heating effect of the conductive film. Therefore, this invention provides a better fit.

[0033] 6. In this invention, a pulse and heating pad is provided with charging contacts on the outer layer of fabric. These charging contacts are connected to a battery. During application, when charging is required, the battery can be charged through these contacts. Compared to disposable products, this invention can be recharged and used multiple times. Therefore, this invention has a longer service life.

[0034] 7. In this invention, a pulse and heating pad has one side of the inclined arm connected to a conductive film and the other side connected to EVA filler. During application, the EVA filler helps the conductive film protrude better from the surface of the invention, allowing for better contact with the human body and thus achieving better pulse and heating effects. Therefore, this invention has better heating and pulse transmission effects.

[0035] 8. In this invention, a pulse and heating pad is provided, in which a thermally conductive copper layer is disposed next to one of the conductive films, and a thermistor is disposed on the thermally conductive copper layer. In application, the thermistor is used to measure the temperature near the conductive film and transmit the temperature to the circuit for processing, thus avoiding overheating. Therefore, this invention has a high level of safety.

[0036] 9. In this pulse and heating pad, the overall weight of the pad is relatively light. When applied, if the pad is fixed to a part of the human body using medical tape or other methods, its light weight and overall softness allow it to remain in a fixed position without sliding. Therefore, this invention is easy to fix. Attached Figure Description

[0037] Figure 1 This is a schematic diagram of the structure of this utility model.

[0038] Figure 2 yes Figure 1 Exploded view.

[0039] Figure 3 yes Figure 1 A schematic diagram of the inner layer fabric.

[0040] Figure 4 yes Figure 1A schematic diagram of the structure of the FPC circuit board.

[0041] Figure 5 yes Figure 4 A schematic diagram of the control chip.

[0042] Figure 6 yes Figure 5 A schematic diagram of the structure of the pulse unit.

[0043] Figure 7 yes Figure 5 A schematic diagram of the heating unit.

[0044] Figure 8 yes Figure 1 A schematic diagram of the structure filled with EVA.

[0045] Figure 9 yes Figure 1 A schematic diagram of the structure of the medium-set yarn.

[0046] Figure 10 yes Figure 1 A schematic diagram of the structure of a shaped sponge.

[0047] Figure 11 yes Figure 8 A cross-sectional view of a shaped sponge.

[0048] Figure 12 yes Figure 1 A schematic diagram of the structure of the middle and outer adhesive film.

[0049] Figure 13 yes Figure 1 A schematic diagram of the structure of the middle and outer layers of fabric.

[0050] Figure 14 This is a schematic diagram of the application of this utility model to the chest.

[0051] Figure 15 This is a schematic diagram of the application of this utility model to the lower abdomen.

[0052] In the diagram: FPC circuit board 1, control chip 11, MCU main controller 111, Bluetooth module 112, EMS pulse circuit 113, temperature control circuit 114, heating unit 121, pulse unit 122, power supply module 123, heating wire 124, slanted arm 13, power management module 14, charging point 141, circuit protection film 15, EVA filling 16, double-sided adhesive 161, middle part 17, battery 2, inner layer fabric 31, inner layer hole 311, outer layer fabric 32, charging port 321, energy-conducting film 4, bottom ring 41, adhesive film cap 42, thermally conductive copper plating 43, inner layer adhesive film 5, adhesive film hole 51, middle layer adhesive film 6, wire hole 61, flexible wire 7, shaping sponge 8, flat part 81, protruding part 82, upper protruding part 83, lower converging part 84, battery slot 85, outer layer adhesive film 9, outer layer opening 91, charging contact 92, shaping yarn 10. Detailed Implementation

[0053] The present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments.

[0054] Please see Figure 1 — Figure 15 A pulse and heating pad, the pad comprising, in sequence, an inner layer cloth 31, an inner layer adhesive film 5, an energy-conducting film 4, an FPC circuit board 1, a middle layer adhesive film 6, a battery 2, an outer layer adhesive film 9, and an outer layer cloth 32.

[0055] The FPC circuit board 1 includes a middle part 17 and two inclined arms 13 on both sides. The bottom ends of the middle part 17 are respectively connected to the bottom ends of one inclined arm 13. A pulse unit 122 is provided on the top end of the inclined arm 13. A heating unit 121 is provided on the part of the inclined arm 13 surrounding the pulse unit 122. The pulse unit 122 is covered inside the energy-conducting film 4. The bottom of the energy-conducting film 4 is connected to the top end of the inclined arm 13.

[0056] The inner layer fabric 31 has an inner layer hole 311 corresponding to the energy-conducting film 4 in the middle. The inner side of the inner layer fabric 31 is attached to one side of the inner layer adhesive film 5. The middle of the other side of the inner layer adhesive film 5 is connected to the FPC circuit board 1. The FPC circuit board 1 is located between the inner layer adhesive film 5 and the middle layer adhesive film 6. The periphery of the other side of the inner layer adhesive film 5 is connected to the periphery of one side of the middle layer adhesive film 6. The inner layer adhesive film 5 has an adhesive film hole 51 corresponding to the energy-conducting film 4. The energy-conducting film 4 extends to the outside of the inner layer fabric 31 by passing through the adhesive film hole 51 and the inner layer hole 311 in sequence.

[0057] The other side of the middle adhesive film 6 is connected to the periphery of the outer adhesive film 9. The middle part of the inner side of the middle adhesive film 6 is connected to one side of the battery 2. The other side of the battery 2 is connected to the middle part of the inner side of the outer adhesive film 9. The battery 2 is connected to one end of the flexible wire 7. The other end of the flexible wire 7 passes through the middle adhesive film 6 and is connected to the middle part of the bottom of the middle part 17.

[0058] The other side of the outer adhesive film 9 is bonded to the outer fabric 32, and the periphery of the inner fabric 31 is connected to the periphery of the outer fabric 32.

[0059] The energy-conducting membrane 4 includes a bottom ring 41 and an adhesive cap 42. The adhesive cap 42 extends through the adhesive hole 51 and the inner layer hole 311 to the outside of the inner layer fabric 31. The bottom ring 41 is sealed to the adhesive hole 51. The middle layer adhesive membrane 6 has a wire hole 61 in the middle. A flexible wire 7 is inserted into the wire hole 61. The flexible wire 7 is located on the side wall inside the wire hole 61 and is sealed to the wire hole 61.

[0060] The upper part of the middle section 17 is a control chip 11, and the lower part of the middle section 17 is a power management module 14. The control chip 11 includes an MCU main controller 111, a Bluetooth module 112, an EMS pulse circuit 113, a temperature control circuit 114, and a power supply module 123. The MCU main controller 111 is electrically connected to the Bluetooth module 112, the MCU main controller 111 is signal-connected to the EMS pulse circuit 113, the MCU main controller 111 is signal-connected to the temperature control circuit 114, and the MCU main controller 111 is electrically connected to the power supply module 123. The power supply module 123 is electrically connected to the power management module 14.

[0061] The EMS pulse circuit 113 is electrically connected to the pulse unit 122, the temperature control circuit 114 is electrically connected to the heating unit 121, and the bottom of the pulse unit 122 is located at the top of the heating unit 121.

[0062] The heating unit 121 includes a heating wire 124, which is wrapped around the periphery of the inclined arm 13 in a reciprocating curve.

[0063] One end of the heating wire 124 is connected to one end of another heating wire 124, and the other end of the heating wire 124 is connected to the power management module 14.

[0064] The pulse unit 122 has a circular structure. One pulse unit 122 is connected to the control chip 11, and the other pulse unit 122 is connected to the power management module 14.

[0065] The periphery of the middle layer adhesive film 6 away from the FPC circuit board 1 is bonded to the periphery of the molding sponge 8, and the periphery of the side of the molding sponge 8 away from the middle layer adhesive film 6 is bonded to the periphery of the outer layer adhesive film 9.

[0066] The shaped sponge 8 includes a flat portion 81 and a protruding portion 82. The protruding portion 82 is located in the lower middle part of the flat portion 81. The protruding portion 82 includes an upper protruding portion 83 and a lower converging portion 84. The sidewall of the upper protruding portion 83 is connected to the flat portion 81, and the sidewall of the lower converging portion 84 is connected to the flat portion 81. The bottom of the upper protruding portion 83 is connected to the top of the lower converging portion 84. The upper protruding portion 83 has a gradually protruding tendency in the direction towards the lower converging portion 84, and the lower converging portion 84 has a gradually decreasing tendency in the direction away from the upper protruding portion 83.

[0067] A battery groove 85 is provided on the protrusion 82. The battery groove 85 is a groove that opens in one direction toward the middle adhesive film 6, and the battery 2 is located in the battery groove 85.

[0068] The side of the middle adhesive film 6 closest to the battery 2 is bonded to one side of the shaping yarn 10, and the other side of the shaping yarn 10 is bonded to the battery 2 and the shaping sponge 8.

[0069] A charging port 321 is provided in the middle of the outer fabric 32, and an outer port 91 is provided in the middle of the outer adhesive film 9 corresponding to the charging port 321.

[0070] A charging contact 92 is provided inside the outer opening 91, and the side of the charging contact 92 away from the outer opening 91 is connected to one end of the battery 2 via a wire.

[0071] The top of the inclined arm 13, away from the energy-conducting film 4, is connected to the EVA filler 16. The energy-conducting film 4 and the EVA filler 16 are bonded together by double-sided adhesive tape 161. The size of the EVA filler 16 corresponds to the size of the energy-conducting film 4.

[0072] A thermally conductive copper cladding 43 is disposed next to the energy-conducting film 4, and a thermistor is disposed on the thermally conductive copper cladding 43. The thermally conductive copper cladding 43 is connected to the MCU main controller 111.

[0073] The supplementary description of this utility model is as follows:

[0074] The application of this utility model is as follows: The user sends a command to the Bluetooth module 112 via a WeChat mini-program (or software). The Bluetooth module 112 then instructs the MCU main controller 111 to process the signal, causing the pulse unit 122 and the heating unit 121 to operate. The pulse unit 122 and the heating unit 121 can operate independently or simultaneously. Both the pulse unit 122 and the heating unit 121 are steplessly adjustable, allowing the user to adjust them according to their needs. When the pulse unit 122 and the heating unit 121 are operating, each beat is 20 minutes, and multiple beats can be performed continuously or intermittently each day. The operating temperature of unit 121 is approximately 35 to 48 degrees Celsius, and a thermally conductive copper plating 43 monitors the temperature to prevent low-temperature burns to the user. Specifically, if the temperature of heating unit 121 exceeds 45 degrees Celsius for 20 minutes, the MCU main control 111 automatically lowers the temperature of heating unit 121 to 42 degrees Celsius. The pulse energy of pulse unit 122 is approximately 0.036 amps, and the single discharge time is 70 microseconds. The current magnitude and stimulation time are strictly controlled to prevent damage to the human body. Both the inner layer fabric 31 and the outer layer fabric 32 are made of skin-friendly materials, so this invention provides good comfort when in contact with the human body.

[0075] The energy-conducting film of this invention has good thermal conductivity and pulse conduction properties, and is preferably made of TPU material. Example

[0076] Please see Figure 1 — Figure 15A pulse and heating pad, comprising, in sequence, an inner layer fabric 31, an inner layer adhesive film 5, a conductive film 4, an FPC circuit board 1, a middle layer adhesive film 6, a battery 2, an outer layer adhesive film 9, and an outer layer fabric 32; the FPC circuit board 1 includes a middle portion 17 and two inclined arms 13 on both sides, the bottom ends of the middle portion 17 are respectively connected to the bottom ends of one inclined arm 13, a pulse unit 122 is provided on the top end of the inclined arm 13, and a heating unit 121 is provided on the inclined arm 13 surrounding the pulse unit 122, the pulse unit 122 is covered inside the conductive film 4, and the bottom of the conductive film 4 is connected to the top end of the inclined arm 13; the middle of the inner layer fabric 31 has an inner layer hole 311 corresponding to the conductive film 4, the inner side of the inner layer fabric 31 is attached to one side of the inner layer adhesive film 5, and the middle of the other side of the inner layer adhesive film 5 is connected to the FPC circuit. The FPC circuit board 1 is located between the inner adhesive film 5 and the middle adhesive film 6. The periphery of the other side of the inner adhesive film 5 is connected to the periphery of one side of the middle adhesive film 6. The inner adhesive film 5 has adhesive film holes 51 corresponding to the energy-conducting film 4. The energy-conducting film 4 passes through the adhesive film holes 51 and the inner layer holes 311 in sequence and extends to the outside of the inner layer fabric 31. The other side of the middle adhesive film 6 is connected to the periphery of the outer adhesive film 9. The middle part of the inner side of the middle adhesive film 6 is connected to one side of the battery 2. The other side of the battery 2 is connected to the middle part of the inner side of the outer adhesive film 9. The battery 2 is connected to one end of the flexible wire 7. The other end of the flexible wire 7 passes through the middle adhesive film 6 and is connected to the middle part of the bottom end of the middle part 17. The other side of the outer adhesive film 9 is bonded to the outer layer fabric 32, and the periphery of the inner layer fabric 31 is connected to the periphery of the outer layer fabric 32. The energy-conducting membrane 4 includes a bottom ring 41 and an adhesive cap 42. The adhesive cap 42 extends through the adhesive hole 51 and the inner layer hole 311 to the outside of the inner layer fabric 31. The bottom ring 41 is sealed to the adhesive hole 51. The middle layer adhesive membrane 6 has a wire hole 61 in the middle. A flexible wire 7 is inserted into the wire hole 61. The flexible wire 7 is located on the side wall inside the wire hole 61 and is sealed to the wire hole 61.

[0077] Preferably, the surface of the FPC circuit board 1 is covered by a circuit protection film 15, and both the pulse circuit and the heating effect can be transmitted to the human body through the circuit protection film 15.

[0078] A method for applying a pulse and heating pad, the method comprising any one or any combination of the following:

[0079] Method 1: First, place the pad between the breast and the bra, then connect the energy-conducting membrane 4 to the breast, then connect the outer fabric 32 to the bra, and then activate the FPC circuit board 1 to make the pulse unit 122 form a pulse circuit, or make the heating unit 121 generate a heating effect, or make the pulse circuit and the heating effect occur simultaneously; the pulse circuit process is as follows: one pulse unit 122 first emits pulse energy, then the pulse energy flows into the breast through the energy-conducting membrane 4 connected to the pulse unit 122, then the pulse energy flows from the breast to another energy-conducting membrane 4, and then the pulse energy flows through the energy-conducting membrane 4 to the pulse unit 122 connected to the energy-conducting membrane 4; the heating effect is as follows: the heating unit 121 generates heat, and the heat is transferred to the breast through the energy-conducting membrane 4, the inner adhesive membrane 5 and the inner fabric 31; after the FPC circuit board 1 has been activated for a certain period of time, turn off the FPC circuit board 1 to turn off the pulse unit 122 and the heating unit 121, and then remove the pad from between the breast and the bra;

[0080] The second method: First, place the pad on the painful area of ​​the shoulder and neck, then connect the energy-conducting membrane 4 to the middle of the painful area, and then fix the pad in place. Then, activate the FPC circuit board 1 to make the pulse unit 122 form a pulse circuit, or make the heating unit 121 generate a heating effect, or make the pulse circuit and the heating effect occur simultaneously. The pulse circuit process is as follows: one pulse unit 122 first emits pulse energy, and then the pulse energy flows into the painful area of ​​the shoulder and neck through the energy-conducting membrane 4 connected to the pulse unit 122. The pulse energy then flows from the painful area of ​​the shoulder and neck to another energy-conducting membrane 4, and then the pulse energy flows through the energy-conducting membrane 4 to the pulse unit 122 connected to the energy-conducting membrane 4. The heating effect is as follows: the heating unit 121 generates heat, and the heat is transmitted to the painful area of ​​the shoulder and neck through the energy-conducting membrane 4, the inner adhesive membrane 5, and the inner cloth 31. After the FPC circuit board 1 has been activated for a certain period of time, turn off the FPC circuit board 1 to turn off the pulse unit 122 and the heating unit 121, and then remove the pad from the painful area of ​​the shoulder and neck.

[0081] The third method: First, place the pad on the area of ​​lower abdominal pain, then connect the energy-conducting membrane 4 to the middle of the area of ​​lower abdominal pain, and then fix the pad in place. Then, activate the FPC circuit board 1 to make the pulse unit 122 form a pulse circuit, or make the heating unit 121 generate a heating effect, or make the pulse circuit and the heating effect occur simultaneously. The pulse circuit process is as follows: one pulse unit 122 first emits pulse energy, and then the pulse energy flows into the area of ​​lower abdominal pain through the energy-conducting membrane 4 connected to the pulse unit 122. The pulse energy then flows from the area of ​​lower abdominal pain to another energy-conducting membrane 4, and then the pulse energy flows through the energy-conducting membrane 4 to the pulse unit 122 connected to the energy-conducting membrane 4. The heating effect is as follows: the heating unit 121 generates heat, and the heat is transmitted to the area of ​​lower abdominal pain through the energy-conducting membrane 4, the inner adhesive membrane 5, and the inner cloth 31. After the FPC circuit board 1 has been activated for a certain period of time, turn off the FPC circuit board 1 to turn off the pulse unit 122 and the heating unit 121, and then remove the pad from the area of ​​lower abdominal pain.

[0082] The fourth method involves placing the pad on the painful area of ​​the back, connecting the energy-conducting membrane 4 to the center of the painful area, fixing the pad in place, and then activating the FPC circuit board 1 to form a pulse circuit with the pulse unit 122, or to generate a heating effect with the heating unit 121, or to generate both the pulse circuit and the heating effect simultaneously. The pulse circuit process is as follows: one pulse unit 122 first emits pulse energy, which then flows into the painful area of ​​the back through the energy-conducting membrane 4 connected to the pulse unit 122. The pulse energy then flows from the painful area of ​​the back to another energy-conducting membrane 4, and then flows through the energy-conducting membrane 4 to the pulse unit 122 connected to the energy-conducting membrane 4. The heating effect is as follows: the heating unit 121 generates heat, which is transmitted to the painful area of ​​the back through the energy-conducting membrane 4, the inner adhesive membrane 5, and the inner cloth 31. After the FPC circuit board 1 has been activated for a certain period of time, the FPC circuit board 1 is turned off to shut down the pulse unit 122 and the heating unit 121, and then the pad is removed from the painful area of ​​the back.

[0083] Fifth method: First, place the pad on the painful area of ​​the lower back, then connect the energy-conducting membrane 4 to the middle of the painful area, and then fix the pad in place. Then, activate the FPC circuit board 1 to make the pulse unit 122 form a pulse circuit, or make the heating unit 121 generate a heating effect, or make the pulse circuit and the heating effect occur simultaneously. The pulse circuit process is as follows: one pulse unit 122 first emits pulse energy, and then the pulse energy flows into the painful area of ​​the lower back through the energy-conducting membrane 4 connected to the pulse unit 122. The pulse energy then flows from the painful area of ​​the lower back to another energy-conducting membrane 4, and then the pulse energy flows through the energy-conducting membrane 4 to the pulse unit 122 connected to the energy-conducting membrane 4. The heating effect is as follows: the heating unit 121 generates heat, and the heat is transmitted to the painful area of ​​the lower back through the energy-conducting membrane 4, the inner adhesive membrane 5, and the inner cloth 31. After the FPC circuit board 1 has been activated for a certain period of time, turn off the FPC circuit board 1 to turn off the pulse unit 122 and the heating unit 121, and then remove the pad from the painful area of ​​the lower back.

[0084] The sixth method: First, place the pad on the painful joint, then connect the energy-conducting membrane 4 to the middle of the painful joint, and then fix the pad in place. Then, activate the FPC circuit board 1 to make the pulse unit 122 form a pulse circuit, or make the heating unit 121 generate a heating effect, or make the pulse circuit and the heating effect occur simultaneously. The pulse circuit process is as follows: one pulse unit 122 first emits pulse energy, and then the pulse energy flows into the painful joint through the energy-conducting membrane 4 connected to the pulse unit 122. The pulse energy then flows from the painful joint to another energy-conducting membrane 4, and then the pulse energy flows through the energy-conducting membrane 4 to the pulse unit 122 connected to the energy-conducting membrane 4. The heating effect is as follows: the heating unit 121 generates heat, and the heat is transmitted to the painful joint through the energy-conducting membrane 4, the inner adhesive membrane 5, and the inner cloth 31. After the FPC circuit board 1 has been activated for a certain period of time, turn off the FPC circuit board 1 to turn off the pulse unit 122 and the heating unit 121, and then remove the pad from the painful joint.

[0085] The seventh method: When this gasket needs to be cleaned, follow these steps: First, place the gasket in clean water, then pour in an appropriate amount of regular detergent to wet the inner layer cloth 31 and outer layer cloth 32. The FPC circuit board 1 and the conductive film 4 are sealed by the inner layer adhesive film 5 and the middle layer adhesive film 6, and the battery 2 is sealed by the middle layer adhesive film 6 and the outer layer adhesive film 9. Moisture is isolated from the outside of the inner layer adhesive film 5 and the outer layer adhesive film 9. Then, bend or fold the gasket and rub or knead the inner layer cloth 31 and outer layer cloth 32 several times. After rubbing and washing, place the gasket in clean water to rinse, wring out the gasket, and then let the water on the inner layer cloth 31 and outer layer cloth 32 dry. The gasket can then be used again.

[0086] Eighth method: When this gasket needs cleaning, follow these steps: First, place this gasket in the washing machine, then start the washing machine to fill the drum with enough clean water. Then, pour in regular detergent and select the washing mode. The clean water and detergent will wet the inner layer cloth 31 and the outer layer cloth 32. The FPC circuit board 1 and the conductive film 4 are sealed by the inner layer adhesive film 5 and the middle layer adhesive film 6. The battery 2 is sealed by the middle layer adhesive film 6 and the outer layer adhesive film 9. Moisture is isolated outside the inner layer adhesive film 5 and the outer layer adhesive film 9. After the washing machine finishes washing, remove this gasket from the drum and let the water on the inner layer cloth 31 and the outer layer cloth 32 dry. The gasket can then be used again. Example

[0087] The basic content is the same as in Example 1, except that:

[0088] Please see Figure 4 — Figure 7 The upper part of the middle section 17 is a control chip 11, and the lower part of the middle section 17 is a power management module 14. The control chip 11 includes an MCU main controller 111, a Bluetooth module 112, an EMS pulse circuit 113, a temperature control circuit 114, and a power supply module 123. The MCU main controller 111 is electrically connected to the Bluetooth module 112, the MCU main controller 111 is signal-connected to the EMS pulse circuit 113, the MCU main controller 111 is signal-connected to the temperature control circuit 114, and the MCU main controller 111 is electrically connected to the power supply module 123. The power supply module 123 is electrically connected to the power management module 14. The EMS pulse circuit 113 is electrically connected to the pulse unit 122, and the temperature control circuit 114 is electrically connected to the heating unit 121. The bottom of the pulse unit 122 is located at the top of the heating unit 121.

[0089] In application, battery 2 is connected to charging point 141 on power management module 14 via flexible wire 7 to supply power to power management module 14. This module can turn battery 2 on and off, stabilize the current and voltage of battery 2, and monitor the battery power. Power management module 14 then transmits the current to power supply module 123, which in turn transmits the current to MCU main controller 111, Bluetooth module 112, EMS pulse circuit 113, and temperature control circuit 114. Bluetooth module 112 receives user signals and sends them to MCU main controller 111 for processing. MCU main controller 111 sends a signal to notify EMS pulse circuit 113 to work or stop, thereby causing pulse unit 122 to generate or stop pulse circuits. MCU main controller 111 sends a signal to notify temperature control circuit 114 to work or stop, thereby causing temperature control circuit 114 to generate or stop heating. Example

[0090] The basic content is the same as in Example 1, except that:

[0091] Please see Figure 4 — Figure 7 The heating unit 121 includes a heating wire 124, which is wrapped around the periphery of the inclined arm 13 in a reciprocating curve; one end of the heating wire 124 is connected to one end of another heating wire 124, and the other end of the heating wire 124 is connected to the power management module 14.

[0092] In application, the power management module 14 supplies power to the heating wire 124. The heating wire 124 generates heat through the thermal effect of the current. The heat is transferred to the human body part through the energy-conducting film 4, the inner adhesive film 5 and the inner cloth 31, so as to realize the heat application to the human body part. The heating wires 124 are densely distributed on the inclined arm 13, so they have a better heating effect. There is a certain distance between adjacent heating wires 124. This distance will be covered by the heat emitted by the heating wires 124, so the resources of the heating wires 124 are saved. Example

[0093] The basic content is the same as in Example 1, except that:

[0094] Please see Figure 4 — Figure 6 The pulse unit 122 has a circular structure. One pulse unit 122 is connected to the control chip 11, and the other pulse unit 122 is connected to the power management module 14.

[0095] In application, the power management module 14 supplies power to the pulse unit 122, and the control chip 11 sends a signal to notify the pulse unit 122 to generate pulse energy. The pulse unit 122 is connected to the energy-conducting membrane 4. The pulse energy generated by one pulse unit 122 enters the human body part through the energy-conducting membrane 4, and then flows from the human body part to another energy-conducting membrane 4. It then enters the pulse unit 122 connected to the energy-conducting membrane 4, thus completing a pulse circuit. The number of pulse units 122 can be set as needed, and the number can be greater than two. Example

[0096] The basic content is the same as in Example 1, except that:

[0097] Please see Figure 1 — Figure 11The periphery of the middle layer adhesive film 6 away from the FPC circuit board 1 is bonded to the periphery of the shaping sponge 8, and the periphery of the shaping sponge 8 away from the middle layer adhesive film 6 is bonded to the periphery of the outer layer adhesive film 9. The shaping sponge 8 includes a flat portion 81 and a protruding portion 82. The protruding portion 82 is located in the lower middle part of the flat portion 81. The protruding portion 82 includes an upper protruding portion 83 and a lower converging portion 84. The sidewall of the upper protruding portion 83 is connected to the flat portion 81, and the sidewall of the lower converging portion 84 is connected to the flat portion 81. The bottom of the upper protruding portion 83 is connected to the top of the lower converging portion 84. The upper protruding portion 83 gradually protrudes towards the lower converging portion 84, and the lower converging portion 84 gradually decreases in size away from the upper protruding portion 83. A battery groove 85 is provided on the protrusion 82. The battery groove 85 is a groove that opens in one direction toward the middle layer adhesive film 6. The battery 2 is located in the battery groove 85. The side of the middle layer adhesive film 6 near the battery 2 is bonded to one side of the shaping yarn 10. The other side of the shaping yarn 10 is bonded to the battery 2 and the shaping sponge 8.

[0098] In application, the battery slot 85 houses the battery 2, further reducing the hardness of the device during use; the upper protrusion 83 and the lower concave portion 84 form a mountain-shaped protrusion facing inward, which better conforms to the shape of the lower center of the chest when the device is placed between the chest and the bra, allowing the device to better transmit pulses and heat; the shaping yarn 10 and the shaping sponge 8 are glued together, which not only fixes the battery 2 in the battery slot 85, but also further fixes the position of the FPC circuit board 1, preventing the FPC circuit board 1 from shifting and affecting the pulse circuit and heating effect of the device. Example

[0099] The basic content is the same as in Example 1, except that:

[0100] Please see Figure 1 — Figure 13 A charging port 321 is provided in the middle of the outer layer fabric 32, and an outer layer opening 91 is provided in the middle of the outer layer adhesive film 9 corresponding to the charging port 321; a charging contact 92 is provided in the outer layer opening 91, and the side of the charging contact 92 away from the outer layer opening 91 is connected to one end of the battery 2 through a wire.

[0101] When this invention needs to be charged, the charging contact 92 is first connected to an external charger. The current flows from the external charger through the charging contact 92 into the wire, and then from the wire into the battery 2. The process is repeated until the battery 2 is fully charged. The rechargeable design of the battery 2 extends the service life of this invention and is also environmentally friendly. Example

[0102] The basic content is the same as in Example 1, except that:

[0103] Please see Figure 1 — Figure 8 The top of the inclined arm 13, away from the energy-conducting film 4, is connected to the EVA filler 16. The energy-conducting film 4 and the EVA filler 16 are bonded together by double-sided adhesive tape 161. The size of the EVA filler 16 corresponds to the size of the energy-conducting film 4.

[0104] In application, the EVA filling 16 allows the energy-conducting film 4 to protrude better from the surface of the inner fabric 31, resulting in better adhesion between the energy-conducting film 4 and the human body, and also better transmission of pulse and heating effects. Example

[0105] The basic content is the same as in Example 1, except that:

[0106] Please see Figure 1 — Figure 7 A thermally conductive copper cladding 43 is disposed next to the energy-conducting film 4, and a thermistor is disposed on the thermally conductive copper cladding 43. The thermally conductive copper cladding 43 is connected to the MCU main controller 111.

[0107] In application, the thermally conductive copper cladding 43 senses the temperature of the heating unit 121 through a thermistor. When the temperature of the heating unit 121 is too high, it notifies the MCU main controller 111 to handle the situation. The MCU main controller 111 then cools down the heating unit 121 to prevent the user from being burned.

[0108] The above description is only a preferred embodiment of the present utility model. The protection scope of the present utility model is not limited to the above embodiments. Any equivalent modifications or changes made by those skilled in the art based on the content disclosed in the present utility model should be included in the protection scope recorded in the claims.

Claims

1. A pulse and heat pad, characterized by: The gasket comprises an inner cloth (31), an inner adhesive film (5), an energy-conducting film (4), an FPC circuit board (1), a middle adhesive film (6), a battery (2), an outer adhesive film (9), and an outer cloth (32) arranged in sequence. The FPC circuit board (1) comprises a middle part (17) and two oblique arms (13) on both sides of the middle part (17), the bottom ends of the two oblique arms (13) are connected to the bottom ends of the middle part (17) respectively, a pulse unit (122) is arranged on the top end of each oblique arm (13), a heating unit (121) is arranged on the part of the oblique arm (13) surrounding the pulse unit (122), the pulse unit (122) is covered inside the energy-conducting film (4), and the bottom of the energy-conducting film (4) is connected to the top end of the oblique arm (13). The middle part of the inner cloth (31) is provided with an inner layer hole (311) corresponding to the energy-conducting film (4), the inner side of the inner cloth (31) is connected to one side of the inner adhesive film (5), the middle part of the other side of the inner adhesive film (5) is connected to the FPC circuit board (1), the FPC circuit board (1) is located between the inner adhesive film (5) and the middle adhesive film (6), the other side of the inner adhesive film (5) is connected to the periphery of one side of the middle adhesive film (6), the inner adhesive film (5) is provided with an adhesive film hole (51) corresponding to the energy-conducting film (4), and the energy-conducting film (4) extends to the outside of the inner cloth (31) through the adhesive film hole (51) and the inner layer hole (311) in sequence. The other side of the middle adhesive film (6) is connected to the periphery of the outer adhesive film (9), the middle part of the inner side of the middle adhesive film (6) is connected to one side of the battery (2), the other side of the battery (2) is connected to the middle part of the inner side of the outer adhesive film (9), the battery (2) is connected to one end of a soft lead wire (7), and the other end of the soft lead wire (7) is connected to the middle part of the bottom end of the middle part (17) after penetrating through the middle adhesive film (6). The other side of the outer adhesive film (9) is connected to the outer cloth (32), and the periphery of the inner cloth (31) is connected to the periphery of the outer cloth (32).

2. The pulse and heat pad of claim 1, wherein: The energy-conducting film (4) comprises a bottom ring (41) and an adhesive film cap (42), the adhesive film cap (42) extends to the outside of the inner cloth (31) through the adhesive film hole (51) and the inner layer hole (311) in sequence, and the bottom ring (41) is in sealing connection with the adhesive film hole (51); the middle part of the middle adhesive film (6) is provided with a lead wire hole (61), the soft lead wire (7) is inserted into the lead wire hole (61), and the side wall of the soft lead wire (7) located in the lead wire hole (61) is in sealing connection with the lead wire hole (61).

3. A pulse and heat pad according to claim 1 or 2, wherein: The upper part of the middle part (17) is a control chip (11), and the lower part of the middle part (17) is a power management module (14); the control chip (11) comprises an MCU main control (111), a Bluetooth module (112), an EMS pulse circuit (113), a temperature control circuit (114) and a power supply module (123) therein; the MCU main control (111) is electrically connected with the Bluetooth module (112); the MCU main control (111) is signal connected with the EMS pulse circuit (113); the MCU main control (111) is signal connected with the temperature control circuit (114); and the MCU main control (111) is electrically connected with the power supply module (123); the power supply module (123) is electrically connected with the power management module (14); The EMS pulse circuit (113) is electrically connected with a pulse unit (122), and the temperature control circuit (114) is electrically connected with a heating unit (121); the bottom of the pulse unit (122) is located at the top of the heating unit (121).

4. The pulse and heat pad of claim 1 or 2, wherein: The heating unit (121) comprises heating wires (124) which are arranged along the reciprocating curve of the periphery of the inclined arm (13); One end of the heating wire (124) is connected with one end of another heating wire (124), and the other end of the heating wire (124) is connected with the power management module (14).

5. The pulse and heat pad of claim 1 or 2, wherein: The pulse unit (122) is in a disc structure, one pulse unit (122) is connected with the control chip (11), and the other pulse unit (122) is connected with the power management module (14).

6. The pulse and heat pad of claim 1 or 2, wherein: The periphery of one side of the middle layer viscose film (6) away from the FPC circuit board (1) is attached and connected with the periphery of the modeling sponge (8), and the periphery of one side of the modeling sponge (8) away from the middle layer viscose film (6) is attached and connected with the periphery of the outer layer viscose film (9); The modeling sponge (8) comprises a flat part (81) and a convex part (82), the convex part (82) is located at the lower middle part of the flat part (81), the convex part (82) comprises an upper convex part (83) and a lower collecting part (84), the side wall of the upper convex part (83) is connected with the flat part (81), the side wall of the lower collecting part (84) is connected with the flat part (81), the bottom of the upper convex part (83) is connected with the top of the lower collecting part (84), the upper convex part (83) has a gradually convex trend in the direction towards the lower collecting part (84), and the lower collecting part (84) has a gradually decreasing trend in the direction away from the upper convex part (83).

7. A pulse and heat pad according to claim 6, wherein: A battery groove (85) is arranged on the convex part (82), the battery groove (85) is a groove which is unidirectionally opened towards the middle layer viscose film (6), and the battery (2) is located in the battery groove (85); One side of the middle layer viscose film (6) close to the battery (2) is attached and connected with one side of the shaping yarn (10), and the other side of the shaping yarn (10) is attached and connected with the battery (2) and the modeling sponge (8).

8. The pulse and heat pad of claim 1 or 2, wherein: A charging port (321) is arranged in the middle part of the outer layer cloth (32), and an outer layer port (91) is arranged in the middle part of the outer layer viscose film (9) corresponding to the charging port (321). The outer layer port (91) is provided with a charging contact (92), and one end of the charging contact (92) is connected with one end of the battery (2) through an electric wire.

9. The pulse and heat pad of claim 1 or 2, wherein: The top end of the inclined arm (13) is connected with EVA filling (16) away from one side of the energy guide film (4), the energy guide film (4) and the EVA filling (16) are connected through double-sided adhesive (161), and the size of the EVA filling (16) corresponds to the size of the energy guide film (4).

10. The pulse and heat pad of claim 1 or 2, wherein: A heat-conducting copper clad (43) is arranged beside the energy guide film (4), a thermistor is arranged on the heat-conducting copper clad (43), and the heat-conducting copper clad (43) is connected with the MCU main control (111).

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