Conductive patch for electroacupuncture therapeutic apparatus

Abstract

The utility model belongs to the technical field of conductive patches, and particularly relates to a conductive patch for an electro-acupuncture therapeutic apparatus, which comprises thickened substrate non-woven connecting cloth, a hydrogel bonding layer is fixedly connected to the bottom of the thickened substrate non-woven connecting cloth, mounting grooves are formed in the thickened substrate non-woven connecting cloth and the hydrogel bonding layer, and the mounting grooves are connected with the hydrogel bonding layer. The interior of the mounting groove is fixedly connected with conductive fiber connecting cloth, and the top of the conductive fiber connecting cloth is fixedly connected with a plurality of longitudinal conductive fibers and a plurality of transverse guide fibers; on one hand, grease appearing on the skin surface can be adsorbed in the treatment process of a patient, the adverse effect of the grease secreted on the skin surface on the pasting viscosity of the hydrogel pasting layer in the use process is reduced, on the other hand, the current transmission efficiency of the conductive fiber connecting cloth for transmitting current to the skin of the patient can be improved, and the treatment effect of the patient is improved. And meanwhile, the problem that the stimulation intensity of the whole conductive patch may be relatively weak can be improved.

Description

Technical Field

[0001] The utility model belongs to the technical field of conductive patches, and in particular relates to a conductive patch for an electroacupuncture therapeutic apparatus. Background Art

[0002] Conductive patches are accessories on electroacupuncture devices that are used to accurately and effectively conduct the weak currents generated by the electroacupuncture device to specific acupuncture points or parts of the human body. Compared with traditional acupuncture, electroacupuncture treatment performed through conductive patches can fit closely with the skin, expand the stimulation area, and increase patient comfort. Therefore, electroacupuncture treatment has been widely used and developed. However, current conductive patches, during long-term use or in some cases, may secrete oil on the patient's skin surface, and the secreted oil may cause the conductive patch to lose viscosity and cause the patch to fall off easily, affecting the continuity of treatment. In addition, there is a defect that the stimulation intensity is relatively weak, which limits the patient's treatment to a certain extent. Utility Model Content

[0003] The utility model provides a conductive patch for an electroacupuncture therapy instrument, which has the characteristics of being able to absorb the oil appearing on the patient's skin surface during the treatment process, thereby reducing the adverse effects of the oil secreted by the patient's skin surface on the adhesiveness of the hydrogel adhesive layer during use during the treatment process; and on the other hand, it can help to improve the problem that the stimulation intensity of the entire conductive patch may be weak.

[0004] The utility model provides the following technical solutions: a conductive patch for an electroacupuncture therapy instrument, comprising a thickened base non-woven connecting fabric, the bottom of the thickened base non-woven connecting fabric is fixedly connected to a hydrogel adhesive layer, the thickened base non-woven connecting fabric and the hydrogel adhesive layer are both provided with mounting grooves, the interior of the mounting grooves is fixedly connected to a conductive fiber connecting fabric, the top of the conductive fiber connecting fabric is fixedly connected to a plurality of longitudinal conductive fiber filaments and a plurality of transverse guide fiber filaments, and the plurality of longitudinal conductive fiber filaments and the plurality of transverse guide fiber filaments are staggered and distributed with each other, the tops of the plurality of longitudinal conductive fiber filaments and the plurality of transverse guide fiber filaments are fixedly connected to a copper foil conductive sheet, and the copper foil conductive sheet is located inside the hydrogel adhesive layer, and the top of the thickened base non-woven connecting fabric is fixedly connected to the top cloth.

[0005] Wherein, an insulating isolation sticker is pasted on the bottom of the thickened base non-woven connecting fabric.

[0006] Wherein, an outer protective film is pasted on the bottom of the insulating isolation sticker.

[0007] Wherein, a connecting piece is embedded between the top of the copper foil conductive sheet and the bottom of the top cloth that can be connected without interference.

[0008] Wherein, one end of the connecting piece is connected to an external connector via a connecting line.

[0009] The beneficial effects of the present invention are: with the mutual cooperation of the conductive fiber connecting cloth and the longitudinal conductive fiber yarns and the transverse guiding fiber yarns, on the one hand, the conductive fiber connecting cloth can absorb the oil appearing on the skin surface of the patient during the treatment, and at the same time, the entire conductive patch is adhered and fixed by adopting a hydrogel adhesive layer to adhere to the periphery of the patient's affected area, thereby reducing the adverse effects of the oil secreted on the skin surface of the patient's affected area during the treatment on the adhesiveness of the hydrogel adhesive layer during use; on the other hand, with the mutual cooperation of the longitudinal conductive fiber yarns and the transverse guiding fiber yarns, it can help to improve the current transmission efficiency of the conductive fiber connecting cloth to the patient's skin, and at the same time, it can help to improve the problem that the stimulation intensity of the entire conductive patch may be weak.

[0010] The parts not involved in the device are the same as those in the prior art or can be implemented by using the prior art. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] Figure 1 This is a schematic diagram of the separation between the thickened base non-woven connecting cloth, the conductive fiber connecting cloth, the copper foil conductive sheet, the non-interference connecting top cloth, the insulating isolation sticker, and the outer protective film in the utility model;

[0012] Figure 2 This is a schematic diagram of the top structure of the utility model;

[0013] Figure 3 This is a schematic diagram of the main cross-sectional structure of the utility model;

[0014] Figure 4 It is a schematic diagram of the three-dimensional structure of the utility model.

[0015] In the figure: 1. Thickened base non-woven connecting fabric; 11. Mounting slot; 12. Hydrogel adhesive layer; 2. Conductive fiber connecting fabric; 21. Longitudinal conductive fiber filaments; 22. Transverse guide fiber filaments; 3. Copper foil conductive sheet; 4. Non-interference connecting top fabric; 5. Insulating isolation tape; 6. Outer protective film; 7. Connecting piece; 71. External connector. DETAILED DESCRIPTION

[0016] See also Figure 1-Figure 4The utility model provides the following technical solutions: a conductive patch for an electroacupuncture therapy instrument, comprising a thickened base non-woven connecting fabric 1, the bottom of the thickened base non-woven connecting fabric 1 is fixedly connected to a hydrogel adhesive layer 12, and both the thickened base non-woven connecting fabric 1 and the hydrogel adhesive layer 12 are provided with mounting grooves 11, the interior of the mounting grooves 11 is fixedly connected to a conductive fiber connecting fabric 2, the top of the conductive fiber connecting fabric 2 is fixedly connected to a plurality of longitudinal conductive fiber threads 21 and a plurality of transverse guide fiber threads 22, and the plurality of longitudinal conductive fiber threads 21 and the plurality of transverse guide fiber threads 22 are staggered with each other, the tops of the plurality of longitudinal conductive fiber threads 21 and the plurality of transverse guide fiber threads 22 are fixedly connected to a copper foil conductive sheet 3, and the copper foil conductive sheet 3 is located inside the hydrogel adhesive layer 12, and the top of the thickened base non-woven connecting fabric 1 is fixedly connected to a top cloth 4.

[0017] In this embodiment: the thickened base non-woven connecting fabric 1 and the hydrogel adhesive layer 12 cooperate with each other to form an adhesive component in the entire conductive patch for pasting to the patient's skin, wherein the thickened base non-woven connecting fabric 1 is used to provide a connection carrier for the hydrogel adhesive layer 12, and at the same time is used to increase the thickness of the entire adhesive component. By increasing the thickness of the entire adhesive component, the inner cavity depth of the hydrogel adhesive layer 12 is increased, which is convenient for providing sufficient installation space for the conductive fiber connecting fabric 2, the longitudinal conductive fiber yarn 21, the transverse guide fiber yarn 22 and the copper foil conductive sheet 3. The conductive fiber connecting fabric 2 installed inside the hydrogel adhesive layer 12 is used as an adsorbent to absorb the oil appearing on the skin surface of the patient during the treatment process. At the same time, the entire conductive patch is pasted and fixed by pasting the hydrogel adhesive layer 12 on the periphery of the patient's affected area, thereby reducing the oil secreted on the skin surface of the patient's affected area during the treatment process to the hydrogel adhesive. The layer 12 can reduce the adverse effects caused by the stickiness of the adhesive during use. In addition, it can reduce the obstruction of the current to the patient's skin surface while the patient is performing the procedure. The longitudinal conductive fiber filaments 21 and the transverse guide fiber filaments 22 located inside the conductive fiber connecting cloth 2 form a conductive component for conducting current inside the conductive fiber connecting cloth 2. The conductive component formed by the longitudinal conductive fiber filaments 21 and the transverse guide fiber filaments 22 can help improve the current transmission efficiency of the conductive fiber connecting cloth 2 to the patient's skin, and can also help improve the problem that the stimulation intensity of the entire conductive patch may be weak. The copper foil conductive sheet 3 located on the top of this conductive component is the main current conductor in the entire conductive patch, which is used to transmit the external current to the copper foil conductive sheet 3 through the connection of the connecting line, and transmit the current to the longitudinal conductive fiber filaments 21 and the transverse guide fiber filaments 22 below through the copper foil conductive sheet 3 to the skin below the conductive fiber connecting cloth 2.

[0018] An insulating isolation patch 5 is attached to the bottom of the thickened base non-woven connecting fabric 1 ; the insulating isolation patch 5 is used to insulate and protect the entire conductive patch when it is not in use, thereby improving the safety of the entire conductive patch.

[0019] An outer protective film 6 is attached to the bottom of the insulating isolation patch 5 ; the outer protective film 6 is used to provide protection for the bottom of the entire conductive patch.

[0020] A connecting piece 7 is embedded between the top of the copper foil conductive sheet 3 and the bottom of the top cloth 4, and one end of the connecting piece 7 is connected to the external connector 71 through a connecting line; wherein the connecting piece 7, in cooperation with the external connector 71, forms a connector for connecting to an external power supply. When in use, after connecting to the external interface through the external connector 71, the entire conductive patch is adhered to the patient's skin surface through the hydrogel adhesive layer 12 and then can be used.

[0021] The working principle and use process of the present invention: When a patient needs to undergo electroacupuncture treatment with an electroacupuncture therapy device, first connect the external connector 71 to the external interface, and then stick the entire conductive patch to the patient's skin surface through the hydrogel adhesive layer 12. During use, the conductive fiber connecting cloth 2 can absorb the oil that appears on the patient's skin surface during the treatment, and at the same time, the entire conductive patch is fixed by sticking the hydrogel adhesive layer 12 around the patient's affected area, thereby reducing the adverse effects of the oil secreted on the patient's affected area during the treatment on the adhesiveness of the hydrogel adhesive layer 12 during use. When the connecting piece 7 is connected to the external therapeutic device through the external connector 71, the current is transmitted to the copper foil conductive sheet 3 through the connecting piece 7. At this time, the copper foil conductive sheet 3 is transmitted to the conductive fiber connecting cloth 2 with the cooperation of the longitudinal conductive fiber filaments 21 and the transverse guide fiber filaments 22, and the current is transmitted to the longitudinal conductive fiber filaments 21 and the transverse guide fiber filaments 22 below through the conductive fiber connecting cloth 2 to the skin below. At this time, with the cooperation of the longitudinal conductive fiber filaments 21 and the transverse guide fiber filaments 22, it can help to improve the current transmission efficiency of the conductive fiber connecting cloth 2 to the patient's skin, and at the same time, it can help to improve the problem that the stimulation intensity of the entire conductive patch may be weak.

Claims

1. A conductive patch for an electroacupuncture therapeutic apparatus, comprising a thickened base non-woven connecting fabric (1), characterized in that: The bottom of the thickened base non-woven connecting fabric (1) is fixedly connected to a hydrogel adhesive layer (12), and both the thickened base non-woven connecting fabric (1) and the hydrogel adhesive layer (12) are provided with an installation groove (11), and the interior of the installation groove (11) is fixedly connected to a conductive fiber connecting fabric (2), and the top of the conductive fiber connecting fabric (2) is fixedly connected to a plurality of longitudinal conductive fiber filaments (21) and a plurality of transverse guide fiber filaments (22), and the plurality of longitudinal conductive fiber filaments (21) and the plurality of transverse guide fiber filaments (22) are staggered and distributed with each other, and the tops of the plurality of longitudinal conductive fiber filaments (21) and the plurality of transverse guide fiber filaments (22) are fixedly connected to a copper foil conductive sheet (3), and the copper foil conductive sheet (3) is located inside the hydrogel adhesive layer (12), and the top of the thickened base non-woven connecting fabric (1) is fixedly connected to a non-interference connection top fabric (4).

2. The conductive patch for electroacupuncture therapy apparatus according to claim 1, characterized in that: An insulating isolation patch (5) is adhered to the bottom of the thickened base non-woven connecting fabric (1).

3. The conductive patch for electroacupuncture therapy apparatus according to claim 2, characterized in that: An outer protective film (6) is adhered to the bottom of the insulating isolation sticker (5).

4. The conductive patch for electroacupuncture therapy apparatus according to claim 1, characterized in that: A connecting piece (7) is embedded between the top of the copper foil conductive piece (3) and the bottom of the non-interference connection top cloth (4).

5. The conductive patch for electroacupuncture therapy apparatus according to claim 4, characterized in that: One end of the connecting piece (7) is connected to an external connector (71) via a connecting line.

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