CN215841220U

CN215841220U - Flexible massage assembly and electric stimulation massage instrument with same

Info

Publication number: CN215841220U
Application number: CN202120940724.XU
Authority: CN
Inventors: 曹俊岭
Original assignee: SKG Health Technologies Co Ltd.
Current assignee: SKG Health Technologies Co Ltd.
Priority date: 2021-04-30
Filing date: 2021-04-30
Publication date: 2022-02-18
Anticipated expiration: 2031-04-30

Abstract

The utility model discloses a flexible massage component and an electric stimulation massage instrument with the same, wherein the electric stimulation massage instrument comprises a flexible substrate, and the flexible massage component comprises: a plurality of flexible electrode pieces, a plurality of flexible heat conduction pads and flexible heating part, a plurality of flexible electrode pieces and a plurality of flexible heat conduction pad one-to-one set up, flexible massage subassembly is range upon range of locates flexible base member, flexible heat conduction pad presss from both sides and locates between flexible electrode piece and the flexible heating part, but the thickness of flexible heat conduction pad elastic change on the thickness direction of flexible base member, the flexible deformability of flexible heating part is lighter than the flexible deformability of flexible electrode piece, flexible heat conduction pad can be with the heat of flexible heating part to the conduction of flexible electrode piece, corresponding flexible deformation can take place along with the flexible deformation at the corresponding position of flexible base member to flexible massage subassembly. According to the flexible massage component, the electric stimulation massage function and the hot compress massage function can be better considered.

Description

Flexible massage assembly and electric stimulation massage instrument with same

Technical Field

The utility model relates to the technical field of electric stimulation massagers, in particular to a flexible massage component and an electric stimulation massager with the same.

Background

Some electrical stimulation massages appearance among the correlation technique, including flexible base member and the flexible massage subassembly of installing on flexible base member, when flexible massage subassembly includes flexible electrode piece and flexible heating plate simultaneously, if flexible electrode piece and the laminating of flexible heating plate, the flexibility of flexible electrode piece can receive the influence and can't laminate well with the user, under the electrical stimulation function, the laminating is bad then produces the stabbing pain easily, if flexible electrode piece and flexible heating plate spaced apart the setting, the heat of flexible heating plate then can't fully transmit to flexible electrode piece, influence the effect of hot compress function, thereby electrical stimulation massage function and hot compress massage function can't be compromise effectively to flexible massage subassembly.

SUMMERY OF THE UTILITY MODEL

The present invention is directed to solving at least one of the problems of the prior art. Therefore, the utility model provides a flexible massage component for an electric stimulation massage instrument, which can better give consideration to both the electric stimulation massage function and the hot compress massage function.

The utility model also provides an electric stimulation massager with the flexible massage component.

According to an embodiment of the first aspect of the present invention, a flexible massage assembly for an electric stimulation massage apparatus includes a flexible substrate having a front side and a back side on both sides of a thickness thereof, respectively, the flexible massage assembly includes: flexible electrode plates, flexible heat conducting pads and flexible heat generating components, wherein the flexible electrode plates are arranged at intervals, the flexible heat conducting pads are arranged at intervals, the flexible electrode plates and the flexible heat conducting pads are arranged in a one-to-one correspondence mode, the flexible massage components are arranged on the flexible base body in a stacked mode, at least part of the flexible electrode sheet is positioned at the positive side of the flexible heat-generating component, the flexible heat-conducting pad is clamped between the flexible electrode sheet and the flexible heat-generating component, the thickness of the flexible heat conducting pad can be elastically changed in the thickness direction of the flexible base body, the flexible heat conducting pad can conduct the heat of the flexible heating component to the flexible electrode sheet, the flexible massage component can generate corresponding flexible deformation along with the flexible deformation of the corresponding part of the flexible substrate, the flexible deformation capacity of the flexible heating part is weaker than that of the flexible electrode sheet.

According to the flexible massage assembly provided by the embodiment of the utility model, the plurality of groups of the flexible heat conducting pads and the plurality of the flexible electrode plates which are spaced apart are arranged, so that the plurality of groups of the flexible heat conducting pads and the plurality of the flexible electrode plates are independent from each other, the mutual influence and the traction effect are small, each flexible electrode plate can be effectively attached to the corresponding massage part under the supporting effect of the corresponding flexible heat conducting pad, in addition, the flexible heating part can respectively transmit heat to the plurality of the flexible heat conducting pads, and then the plurality of the flexible heat conducting pads respectively transmit the heat to the plurality of the flexible electrode plates in a one-to-one correspondence manner, so that the heat loss can be reduced, the heat utilization rate is improved, and the electric stimulation massage function and the massage function can be better considered.

In some embodiments, the flexible heat generating component includes a plurality of flexible heat generating sheets arranged at intervals, and a plurality of the flexible electrode sheets, a plurality of the flexible heat conducting pads, and a plurality of the flexible heat generating sheets are arranged in a one-to-one correspondence to correspond to a plurality of flexible massage units arranged at intervals.

In some embodiments, the flexible massage assembly includes a heat-generating film, the heat-generating film including: connecting film portion and a plurality of branch membrane portion, it is a plurality of branch membrane portion spaced apart the setting, and every branch membrane portion all with connecting film portion links to each other, and is a plurality of branch membrane portion one-to-one forms into a plurality of the flexible piece that generates heat.

In some embodiments, the plurality of branch film portions are respectively connected to two sides of the connecting film portion along a first direction, the plurality of branch film portions on the same side of the connecting film portion are arranged at intervals along a second direction, and the first direction intersects with the second direction.

In some embodiments, the heat generating film further includes: the extension membrane portion, the one end of extending membrane portion with it links to each other to connect the membrane portion, the other end that extends membrane portion connects the end for the output, and is a plurality of flexible electrode piece all is connected to the heating film, so that it is a plurality of branch membrane portion and a plurality of flexible electrode piece all passes through output connects the end and is connected with the external circuit electricity.

In some embodiments, the branched membrane portion has a first electrical connection portion thereon, and the flexible electrode sheet includes a first electrical connection section extending between the first electrical connection portion and the flexible thermal pad and electrically connected to the first electrical connection portion; or the connecting film part is provided with a second electric connecting part, the flexible electrode sheet comprises a second electric connecting section, and the second electric connecting section is electrically connected with the second electric connecting part on the peripheral side of the flexible heat conducting pad.

In some embodiments, the flexible heat generating sheet includes a heat generating portion having an area smaller than or equal to an area of the flexible heat conducting pad.

In some embodiments, when the area of the heat generating portion is smaller than the area of the flexible heat conducting pad, the flexible heat generating sheet further includes a first electrical connection portion, the area of the first electrical connection portion is smaller than the area of the heat generating portion, and the flexible electrode sheet includes a first electrical connection section, the first electrical connection section extends between the first electrical connection portion and the flexible heat conducting pad and is electrically connected with the first electrical connection portion.

In some embodiments, the shape of the flexible heat generating sheet matches the shape of the flexible thermal pad.

In some embodiments, a side surface of the flexible thermal pad facing the flexible heat-generating component is in indirect contact with the flexible heat-generating component through a thermal conductive paste.

In some embodiments, the flexible heat-generating component has an output electrical terminal, the flexible electrode sheet is electrically connected to the flexible heat-generating component, and both the flexible heat-generating component and the flexible electrode sheet are electrically connected to an external circuit through the output electrical terminal.

In some embodiments, the flexible electrode sheet defines a mounting cavity in which the flexible thermal pad is received, a side of the mounting cavity facing the flexible heat-generating component being open to form a mounting opening, the flexible thermal pad being adapted to be loaded into the mounting cavity by the mounting opening.

In some embodiments, a side surface of the flexible thermal pad facing the flexible heat-generating component is located outside the mounting opening and in direct or indirect contact with the flexible heat-generating component.

In some embodiments, the flexible electrode sheet comprises: the electrode part defines the installation cavity, and the edge part is located outside the installation cavity and extends along the circumference of the installation opening, and the edge part is suitable for connecting the flexible electrode sheet to the flexible base body.

In some embodiments, the flexible electrode sheet further comprises: and the electric connection section is a first electric connection section and extends to between the flexible heat conducting pad and the flexible heat generating component and is electrically connected with the flexible heat generating component, or the electric connection section is a second electric connection section and extends to the peripheral side of the flexible heat conducting pad and is electrically connected with the flexible heat generating component.

In some embodiments, the mounting cavities each have a shape that matches a shape of the flexible thermal pad.

In some embodiments, the mounting cavity includes a cavity perimeter surface disposed around a perimeter side of the flexible thermal pad, at least a portion of the cavity perimeter surface being clearance fit with a perimeter surface of the flexible thermal pad.

In some embodiments, the flexible electrode sheet is stamped and drawn to form the mounting cavity, and at least a portion of the peripheral surface of the cavity is disposed obliquely to the peripheral surface of the flexible thermal pad.

In some embodiments, the mounting cavity includes a cavity top surface disposed on a side of the flexible thermal pad facing away from the flexible heat-generating component, the cavity top surface being free of connection with the flexible thermal pad.

In some embodiments, the mounting cavity includes a cavity peripheral surface disposed around a peripheral side of the flexible heat conducting pad, the cavity peripheral surface being bonded to a peripheral surface of the flexible heat conducting pad, and/or the mounting cavity includes a cavity top surface disposed on a side of the flexible heat conducting pad facing away from the flexible heat generating component, the cavity top surface being bonded to the flexible heat conducting pad.

In some embodiments, the flexible electrode sheet is connected to the flexible thermal pad, which is connected to the flexible heat-generating component, which is connected to the flexible base.

In some embodiments, flexible heat conduction pad includes resilience material layer so that the flexible heat conduction pad's thickness can the elastic change, flexible heat conduction pad still includes the heat-conducting layer, the heat-conducting layer includes two face cover portions and side cover portion, two face cover portion cover respectively in the thickness both sides of resilience material layer, side cover portion connects two face cover portion and cover in the side of resilience material layer, the heat of flexible heat-generating component passes through the heat-conducting layer to flexible electrode piece conduction.

In some embodiments, the thermally conductive layer comprises: the elastic material layer comprises an outer film layer, an inner film layer and a heat conduction powder layer arranged between the inner film layer and the outer film layer, wherein the outer film layer is arranged on one side, far away from the elastic material layer, of the inner film layer, and the outer film layer is an insulating layer.

In some embodiments, the resilient material layer comprises two length sides oppositely arranged in the width direction of the flexible heat conducting mat, and the side covering part covers at least one of the two length sides of the resilient material layer.

In some embodiments, the flexible massage assembly includes a plurality of massage groups spaced apart along a first direction, each massage group including a plurality of the flexible electrode sheets spaced apart along a second direction, the first direction intersecting the second direction and each being perpendicular to a thickness direction of the flexible thermal pad.

In some embodiments, the length direction of each of the flexible electrode sheets may be rotated by at least a first angle and parallel to the first direction, the length direction of each of the flexible electrode sheets may be rotated by at least a second angle and parallel to the second direction, the first angle is smaller than the second angle, the length directions of the plurality of flexible electrode sheets in the same massage group are all arranged in parallel, the massage groups are two and are arranged in axial symmetry, and each of the flexible electrode sheets is the same.

The electric stimulation massage apparatus according to the second aspect of the utility model comprises a flexible substrate and the flexible massage component for the electric stimulation massage apparatus according to the first aspect of the utility model, wherein the flexible massage component is arranged on the flexible substrate.

According to the electric stimulation massage instrument provided by the embodiment of the utility model, the flexible massage component for the electric stimulation massage instrument provided by the embodiment of the first aspect is arranged, so that both the electric stimulation massage function and the hot compress massage function can be better considered.

In some embodiments, the flexible substrate includes a mounting layer and a protective layer along a thickness direction of the flexible substrate, at least a portion of the flexible massage component is located on a front side of the mounting layer, and the flexible massage component is mounted on the mounting layer, and the protective layer is shielded on the mounting layer and a back side of the flexible massage component.

In some embodiments, the flexible substrate includes a surface layer and a bottom layer located on a back side of the surface layer, and a lining layer located between the surface layer and the bottom layer, at least a portion of the flexible massage assembly is located between the surface layer and the lining layer, the lining layer is the mounting layer, the bottom layer is the protective layer, and the lining layer is connected to the surface layer and is not connected to the bottom layer.

In some embodiments, the surface layer has an avoiding hole, and the flexible electrode sheet is disposed corresponding to the avoiding hole so as to be exposed or protrude to the front side of the surface layer through the avoiding hole.

In some embodiments, the flexible substrate includes a surface layer and a bottom layer located on a back side of the surface layer along a thickness direction of the flexible substrate, at least a portion of the flexible massage assembly is located on a front side of the surface layer, the surface layer is the mounting layer, and the bottom layer is the protective layer.

In some embodiments, the flexible base further comprises an augmentation layer disposed opposite the flexible massage assembly and on a back side of the flexible massage assembly, wherein the back side of the protective layer is provided with at least one of the augmentation layers, and/or at least one of the augmentation layers is disposed between the protective layer and the mounting layer.

In some embodiments, the protective layer includes a first protective portion and a second protective portion, the first protective portion is disposed opposite to the flexible massage component, and the second protective portion is disposed in a staggered manner with respect to the flexible massage component, wherein the first protective portion and the second protective portion are made of different materials and are spliced, or the thickness of the first protective portion is greater than that of the second protective portion.

In some embodiments, the flexible electrode sheet and the flexible heat-generating component are each connected to the mounting layer, and the flexible thermal pad is connected to the flexible heat-generating component; or the flexible heating component is connected to the mounting layer, the flexible heat conducting pad is connected to the flexible heating component, and the flexible electrode sheet is connected to the flexible heat conducting pad.

In some embodiments, the protective layer covers a plurality of the flexible electrode sheets simultaneously.

In some embodiments, the electrical stimulation massager is a waist massager, the flexible substrate is a belt body, the belt body is flexible and deformable and comprises an installation part and two extension parts, the two extension parts are located on two sides of the installation part along the length direction of the belt body, the flexible massage component is arranged on the installation part, and each flexible electrode piece can be flexibly deformed correspondingly along with the flexible deformation of the corresponding part of the installation part.

Additional aspects and advantages of the utility model will be set forth in part in the description which follows and, in part, will be obvious from the description, or may be learned by practice of the utility model.

Drawings

Fig. 1 is an exploded view of an electro-stimulation massager according to an embodiment of the present invention;

fig. 2 is an assembly view of the electric stimulation massager shown in fig. 1;

fig. 3 is an exploded view of the flexible massage assembly shown in fig. 1;

fig. 4 is an assembly view of the flexible massage assembly shown in fig. 3;

fig. 5 is a perspective view of the heat generating film shown in fig. 3;

FIG. 6 is an angled perspective view of the flexible electrode sheet shown in FIG. 3;

FIG. 7 is a perspective view of another angle of the flexible electrode sheet shown in FIG. 6;

fig. 8 is a perspective view of a heat generating film according to another embodiment of the present invention;

FIG. 9 is a perspective view of a flexible electrode sheet according to another embodiment of the utility model;

FIG. 10 is a perspective view of another angle of the flexible electrode sheet shown in FIG. 9;

FIG. 11 is a cross-sectional view taken along line A-A of FIG. 4;

FIG. 12 is an enlarged view of FIG. 11 at circled B;

FIG. 13 is an enlarged view at C circled in FIG. 12;

FIG. 14 is an enlarged view at D circled in FIG. 12;

FIG. 15 is an enlarged view at E circled in FIG. 12;

FIG. 16 is a perspective view of the flexible thermal pad shown in FIG. 1;

FIG. 17 is an exploded view of the flexible thermal pad shown in FIG. 16;

fig. 18 is a front view of the electric stimulation massager shown in fig. 2;

FIG. 19 is a sectional view taken along line F-F in FIG. 18;

FIG. 20 is an enlarged view at G circled in FIG. 19;

FIG. 21 is an enlarged view at H circled in FIG. 20;

FIG. 22 is an enlarged view of the flexible substrate shown in FIG. 2 at the mounting portion;

FIGS. 23-27 are flow charts of the assembly steps of the lumbar massager in accordance with one embodiment of the present invention;

fig. 28 is a schematic view of an electric stimulation massager according to another embodiment of the present invention;

fig. 29 is a schematic view of an electric stimulation massager according to still another embodiment of the present invention;

fig. 30 is a schematic view of an electric stimulation massager according to still another embodiment of the present invention.

Reference numerals:

an electrical stimulation massager 1000;

a first direction F1; a second direction F2; the thickness direction F3; the length direction F4 of the flexible massage unit;

flexible massage assembly 100: a flexible massage unit 10; a massage group 20;

a flexible electrode sheet 1; an electrode portion 11; an end wall surface 111; a side wall surface 112;

a first electrical connection section 12; a second electrical connection section 13;

a mounting cavity 14; a cavity top surface 141; a cavity peripheral surface 142;

a mounting port 15; a rim portion 16;

a flexible thermal pad 2; the peripheral surface 21 of the thermal pad;

a layer of resilient material 22;

a heat conductive layer 23; a face covering portion 231; the side covering portions 232;

an outer film layer 233; an inner membrane layer 234; a thermally conductive powder layer 235;

a flexible heating sheet 3; a heat generating film 30;

a connecting film portion 31; a second electrical connection portion 311;

a branched film portion 32; a first electrical connection portion 321; a heat generating portion 322;

an extended film portion 33; the output is connected with the electric terminal 331;

a heat-conducting glue 4;

a flexible substrate 200;

a surface layer 5; a relief hole 51; a bottom layer 6; a liner layer 7; a glue layer 8; a mounting portion 201; an extension 202;

a mounting layer 91; a protective layer 92; the first protection portion 921; a second guard 922; a supplemental layer 93;

an electric control device 300; the fine hair side magic tape 400.

Detailed Description

Reference will now be made in detail to embodiments of the present invention, examples of which are illustrated in the accompanying drawings, wherein like or similar reference numerals refer to the same or similar elements or elements having the same or similar function throughout. The embodiments described below with reference to the drawings are illustrative and intended to be illustrative of the utility model and are not to be construed as limiting the utility model.

The following disclosure provides many different embodiments, or examples, for implementing different features of the utility model. To simplify the disclosure of the present invention, the components and arrangements of specific examples are described below. Of course, they are merely examples and are not intended to limit the present invention. Furthermore, the present invention may repeat reference numerals and/or letters in the various examples. This repetition is for the purpose of simplicity and clarity and does not in itself dictate a relationship between each embodiment and/or configuration discussed. Further, the present disclosure provides examples of each particular process and material, but one of ordinary skill in the art may recognize the applicability of other processes and/or the use of other materials.

Next, with reference to the accompanying drawings, a flexible massage assembly 100 for an electric stimulation massage apparatus 1000 according to an embodiment of the present invention is described.

The electrical stimulation massager 1000 includes a flexible base 200, the two sides of the thickness of the flexible base 200 are respectively a front side and a back side, and the flexible massage assembly 100 includes: flexible electrode sheet 1, flexible heat conduction pad 2 and flexible heat-generating component 301, flexible electrode sheet 1 sets up for a plurality of and the interval leaves, flexible heat conduction pad 2 sets up for a plurality of and the interval leaves, a plurality of flexible electrode sheets 1 and a plurality of flexible heat conduction pad 2 one-to-one set up, flexible massage subassembly 100 is range upon range of and is located flexible base member 200, and at least part of flexible electrode sheet 1 is located the positive side of flexible heat-generating component 301, flexible heat conduction pad 2 presss from both sides and locates between flexible electrode sheet 1 and the flexible heat-generating component 301, the thickness of flexible heat conduction pad 2 can the elastic change in the thickness direction of flexible base member 200, flexible heat conduction pad 2 can be with the heat of flexible heat-generating component 301 to flexible electrode sheet 1 conduction, flexible massage subassembly 100 can take place corresponding flexible deformation along with the flexible deformation of the corresponding position of flexible base member 200.

As shown in fig. 1 and 2, the electric stimulation massage apparatus 1000 includes a flexible substrate 200, and a flexible massage member 100 is provided on the flexible substrate 200. Referring to fig. 3 and 4, the flexible massage assembly 100 includes: flexible electrode slice 1, flexible heat conduction pad 2 and flexible heat-generating component 301, flexible electrode slice 1 be a plurality of and set up apart, and flexible heat conduction pad 2 is a plurality of and set up apart, a plurality of flexible electrode slices 1 and a plurality of flexible heat conduction pad 2 one-to-one setting. It will be appreciated that the flexible electrode sheet 1 is adapted to be in direct or indirect contact with the skin of a user, thereby achieving electrical conduction. For example, when two of the flexible electrode sheets 1 are selected as positive and negative electrodes and an electric pulse current is applied, the flexible electrode sheets 1 can be electrically conducted with a user to perform an electric stimulation massage on the user.

As shown in fig. 1, the flexible heat generating component 301 is disposed on a side (e.g., a back side shown in fig. 1) of the flexible heat conducting pad 2 facing away from the flexible electrode sheet 1 in the thickness direction, the thickness of the flexible heat conducting pad 2 can be elastically changed and the heat of the flexible heat generating component 301 can be conducted to the flexible electrode sheet 1, so that when the flexible heat generating component 301 generates heat, the heat can be transmitted to the flexible electrode sheet 1 through the flexible heat conducting pad 2, and thus, the user can be heated and massaged through the direct or indirect contact between the flexible electrode sheet 1 and the user.

As shown in fig. 1 to 4, the two sides of the thickness of the flexible substrate 200 are a front side and a back side, respectively, and it should be noted that the "front side" herein refers to a side of the electrical stimulation massager 1000 that faces a user when the electrical stimulation massager is used, and the opposite side is a "back side", that is, a side of the electrical stimulation massager 1000 that faces away from the user. The flexible massage assembly 100 is stacked on the flexible base 200, that is, the thickness direction of the flexible massage assembly 100 is the same as the thickness direction of the flexible base 200, the thickness direction of the flexible heat conducting mat 2 is the thickness direction of the flexible massage assembly 100, at least a part of the flexible electrode sheet 1 is located on the front side of the flexible heat generating component 301, and the flexible massage assembly 100 can flexibly deform correspondingly with the flexible deformation of the corresponding part of the flexible base 200.

That is, the flexible heat generating component 301, the flexible electrode sheet 1 and the flexible heat conducting pad 2 can be flexibly deformed, so that the whole flexible massage assembly 100 can be flexibly deformed, and each of the flexible electrode sheet 1 and the flexible heat conducting pad 2 can be flexibly deformed correspondingly with the flexible deformation of the corresponding portion of the flexible base 200. Thus, since the flexible massage assembly 100 includes a plurality of flexible electrode sheets 1, and the plurality of flexible electrode sheets 1 are disposed at intervals, each flexible electrode sheet 1 is correspondingly provided with a flexible heat conduction pad 2, and the plurality of flexible heat conduction pads 2 are disposed at intervals, thereby the mutual influence between a plurality of groups of flexible heat conducting pads 2 and flexible electrode plates 1 is small, each group of flexible heat conducting pads 2 and flexible electrode plates 1 can generate corresponding flexible deformation according to the flexible deformation of the corresponding parts of the flexible base 200, namely, each group of flexible heat conducting pads 2 and flexible electrode plates 1 can flexibly deform relatively independently, therefore, each group of flexible heat conducting pads 2 and flexible electrode plates 1 have good shape following performance, so that the flexible electrode plates 1 of each group of flexible heat conducting pads 2 and flexible electrode plates 1 can be more effectively attached to corresponding massaged parts, and can be better adapted to users of different statures for use.

Among them, the flexible deformation ability of the flexible heat generating component 301 is weaker than that of the flexible electrode sheet 1, that is, the flexible electrode sheet 1 is softer than the flexible heat generating component 301 and is more easily flexibly deformed, so that the flexible heat generating component 301 can play a role of supporting the flexible electrode sheet 1 to a certain extent, thereby improving the reliability of the electrical conduction between the flexible electrode sheet 1 and the skin of the user and protecting the flexible electrode sheet 1 to a certain extent.

The thickness of the flexible heat conducting pad 2 can be changed elastically, so that the relative distance between the flexible heat generating component 301 and the flexible electrode sheet 1 can be changed in the thickness direction F3 of the flexible heat conducting pad 2. Therefore, according to the flexible massage assembly 100 for the electrical stimulation massager 1000 of the embodiment of the utility model, the flexible massage assembly comprises the plurality of groups of flexible heat conducting pads 2 and the plurality of flexible electrode plates 1, and the plurality of groups of flexible heat conducting pads 2 and the plurality of flexible electrode plates 1 are arranged at intervals, so that the plurality of flexible heat conducting pads 2 can form a better supporting effect on the plurality of flexible electrode plates 1 one by one, that is, the flexible heat conducting pads 2 can provide a certain attaching pre-pressure to the corresponding flexible electrode plates 1 by using the self elasticity, when a user wears the flexible base 200, the attaching reliability of the flexible electrode plates 1 and the part of the human body to be massaged can be improved to a certain extent under the action of the elasticity of the flexible heat conducting pads 2, so that the reliability of the electrical conduction of the flexible electrode plates 1 and the human body is ensured, and the pricking pain is prevented. Moreover, by utilizing the elastic supporting function of the flexible heat conducting pad 2, the flexible heat conducting pad 2 can play a certain role in structure reinforcement for the flexible electrode sheet 1, reduce the problems of breakage and fracture of the flexible electrode sheet 1 due to flexible deformation, improve the bending radius of the flexible heat generating component 301 to a certain extent, and protect the flexible heat generating component 301.

The applicant creatively discovers that if a plurality of flexible electrode plates 1 correspond to the same flexible heat conducting pad, in this way, the flexible electrode plates share the same flexible heat conducting pad, so that the movement between the flexible electrode plates can be involved, each flexible electrode plate 1 cannot be effectively attached to each corresponding part of a human body, and the flexible heat generating component can transfer heat to the whole flexible heat conducting pad.

Therefore, according to the flexible massage assembly 100 for the electrical stimulation massage apparatus 1000 of the embodiment of the present invention, the plurality of sets of the flexible heat conducting pads 2 and the plurality of the flexible electrode sheets 1 are arranged at intervals, so that the plurality of sets of the flexible heat conducting pads 2 and the plurality of the flexible electrode sheets 1 are relatively independent from each other, and have small mutual influence and small involvement, each of the plurality of the flexible electrode sheets 1 can be effectively attached to the corresponding massage portion under the supporting action of the corresponding flexible heat conducting pad 2, and the flexible heat generating component 301 can respectively transfer heat to the plurality of the flexible heat conducting pads 2, and then the plurality of the flexible heat conducting pads 2 respectively transfer heat to the plurality of the flexible electrode sheets 1 in a one-to-one correspondence manner, so that heat loss can be reduced, and heat utilization rate can be improved.

In some embodiments, as shown in fig. 3 and 4, the flexible heat-generating component 301 may include a plurality of flexible heat-generating sheets 3 arranged at intervals, and a plurality of flexible electrode sheets 1, a plurality of flexible heat-conducting pads 2, and a plurality of flexible heat-generating sheets 3 are arranged in a one-to-one correspondence to correspond to a plurality of flexible massage units 10 formed at intervals. That is, the flexible massage assembly 100 includes a plurality of flexible massage units 10 arranged at intervals, and each flexible massage unit 10 includes a corresponding flexible electrode sheet 1, a flexible heat conduction pad 2 and a flexible heat generating sheet 3. As shown in fig. 3 and 4, the two side surfaces of the flexible heat conduction pad 2 in each flexible massage unit 10 are respectively disposed toward the flexible electrode sheet 1 and the flexible heat generating sheet 3, i.e., one side surface of the flexible heat conduction pad 2 (the front side surface of the flexible heat conduction pad 2 shown in fig. 3) faces the flexible electrode sheet 1, and the other side surface of the flexible heat conduction pad 2 (the back side surface of the flexible heat conduction pad 2 shown in fig. 3) faces the flexible heat generating sheet 3, so that the flexible heat conduction pad 2 is sandwiched between the corresponding flexible electrode sheet 1 and the flexible heat generating sheet 3, the flexible heat conduction pad 2 can conduct the heat of the flexible heat generating sheet 3 to the flexible electrode sheet 1, and thus when the flexible heat generating sheet 3 generates heat, the heat can be transferred to the flexible electrode sheet 1 through the flexible heat conduction pad 2, thereby being in direct or indirect contact with a user through the flexible electrode sheet 1, the user is massaged by hot compress.

From this, because flexible massage subassembly 100 includes the flexible electrode piece 1 that a plurality of one-to-one set up, flexible heat conduction pad 2 and flexible heating element 3, locate flexible heating element 3 and flexible electrode piece 1 with flexible heat conduction pad 2 between, can pass through flexible heat conduction pad 2 with the heat of flexible heating element 3, the one-to-one is pointed like this and is conducted to corresponding flexible electrode piece 1 on, recycle flexible electrode piece 1 and user's direct or indirect laminating, give off the heat to the user fully, thereby make the heat of every flexible heating element 3 can both conduct to the user comparatively effectively, thereby improve thermal utilization efficiency, reduce the heat waste. However, if the flexible electrode sheet 1 and the flexible heating sheet 3 are not in one-to-one correspondence, when the flexible electrode sheet 1 protrudes relative to the flexible heating sheet 3, when the flexible electrode sheet 1 is attached to a human body, a gap is likely to be left between the flexible heating sheet 3 and the human body, so that heat generated by the flexible heating sheet 3 cannot be sufficiently transferred to a user, and heat waste is caused.

Therefore, according to the flexible massage assembly 100 for the electrical stimulation massage apparatus 1000 of the embodiment of the utility model, the flexible massage unit 10 is provided with the plurality of spaced flexible massage units 10, each flexible massage unit 10 comprises the corresponding flexible electrode sheet 1, the corresponding flexible heat conducting pad 2 and the corresponding flexible heat generating sheet 3, so that the plurality of flexible massage units 10 are relatively independent from each other, the interaction and the traction are small, the flexible electrode sheet 1 of each flexible massage unit 10 can be effectively attached to the corresponding massage part under the supporting action of the corresponding flexible heat conducting pad 2, the heat transfer efficiency from the flexible electrode sheet 1 to a user is relatively high, the heat utilization rate is relatively high, meanwhile, the heat of the flexible heat generating sheet 3 can be pertinently transferred to the flexible electrode sheet under the heat conducting action of the flexible heat conducting pad 2, and the heat transfer efficiency from the flexible heat generating sheet 3 to the flexible electrode sheet 1 is relatively high, The heat utilization rate is higher, and then make the heat can be by abundant effective utilization, reduce energy waste.

Moreover, when the body shapes of the users are different and the users move, the flexible massage units 10 can respectively perform the shape-following movement in a targeted manner to improve the fitting effect and the heat transfer effect, so that the application range and the application scene of the electrical stimulation massage instrument 1000 are improved, and for example, for users of different sizes, under non-static application scenes such as movement and work, each flexible massage unit 10 can effectively perform the massage function.

In some embodiments of the present invention, as shown in fig. 3 and 4, the flexible massage assembly 100 includes a plurality of massage groups 20 spaced apart along a first direction F1, each massage group 20 includes a plurality of flexible electrode sheets 1 spaced apart along a second direction F2, and the first direction F1 intersects the second direction F2 and is perpendicular to the thickness direction F3 of the flexible heat conduction pad 2, that is, the first direction F1 intersects the second direction F2 at a non-zero included angle, such as an acute angle, a right angle, or an obtuse angle. Therefore, the plurality of flexible electrode sheets 1 included in the flexible massage assembly 100 can be distributed on the flexible base 200 along the first direction F1 (for example, the up-down direction shown in fig. 4) and the second direction F2 (for example, the left-right direction shown in fig. 4), so that the problem of interference influence between two adjacent flexible electrode sheets 1 can be reduced, the shape following pertinence of independent deformation of each flexible electrode sheet 1 is improved, and the attaching effect and the heat transfer utilization rate of each flexible electrode sheet 1 are improved. Moreover, when the flexible electrode sheets 1 of two different flexible electrode sheets 1 are combined to be used as the positive electrode and the negative electrode, different electric stimulation massage modes can be combined, and the massage range is larger.

In some embodiments of the present invention, as shown in fig. 4, the length direction of each flexible electrode sheet 1 may be rotated by at least a first angle to be parallel to the first direction F1, and the length direction of each flexible electrode sheet 1 may be rotated by at least a second angle to be parallel to the second direction F2, and the first angle a1 is smaller than the second angle a 2. For example, as shown in fig. 4, the length direction F4 of the flexible electrode sheet 1 at the upper right side, the acute angle of intersection between the length direction F4 of the flexible electrode sheet 1 and the first direction F1 is a first angle a1, and the acute angle of intersection between the length direction F4 of the flexible electrode sheet 1 and the second direction F2 is a second angle a 2. Therefore, the length direction of each flexible electrode sheet 1 is closer to the first direction F1 than the second direction F2, so that the massage range of each flexible electrode sheet 1 in the first direction F1 is larger, the number of massage groups 20 arranged along the first direction F1 can be reduced, and the coverage area of the flexible electrode sheet 1 in the same first direction F1 for massage is larger.

In some embodiments of the present invention, as shown in fig. 4, the length directions of the plurality of flexible electrode sheets 1 in the same massage group 20 are all arranged in parallel. For example, as shown in fig. 4, the three flexible electrode sheets 1 in the right massage group 20 are all in the length direction F4, so that the space utilization rate of the flexible group in the second direction F2 is high, the gap between two adjacent flexible electrode sheets 1 is not too large, the massage group 20 can accommodate a larger number of flexible electrode sheets 1 in the same second direction F2, the coverage area of the massage group 20 in the same second direction F2 for massage is larger, and the flexible deformation between two adjacent flexible electrode sheets 1 in the massage group 20 is not easily interfered with each other.

In some embodiments of the present invention, as shown in fig. 4, the first direction F1 is perpendicular to the second direction F2, each flexible electrode sheet 1 includes electrode portions 11 adapted to be exposed outside the flexible substrate 200, a distance D between any two adjacent electrode portions 11 in the same massage group 20 along the second direction F2 is smaller than a length L of any one electrode portion 11, a sum of widths of the electrode portions 11 in the second direction F2 (E1 + E2+ E3 shown in fig. 4) of the electrode portions 11 in the same massage group 20 is greater than 2/3 of the length L of any one electrode portion 11, and a distance W between any two electrode portions 11 in two adjacent massage groups 20 along the first direction F1 is greater than 2/3 of the length L of any one electrode portion 11.

As shown in FIG. 4, L > D, E1+ E2+ E3 > 2L/3, and W > L/3. Therefore, the gap between any two adjacent electrode parts 11 in the same massage group 20 is not too large or too small, the gap between two adjacent massage groups 20 is not too large or too small, and the length of the electrode part 11 of a single flexible electrode plate 1 is not too large or too small, so that the plurality of flexible electrode plates 1 can not interfere with each other, can better independently perform flexible deformation to meet the respective requirements of lamination and heat transfer, can improve the stabbing pain caused by small resistance due to too close distance between two adjacent electrode parts 11, can enable the size of the electrode part 11 of each flexible electrode plate 1 to better meet the requirement of the massage coverage range, improve the stabbing pain caused by smaller size of the electrode part 11 of the single flexible electrode plate 1, and can better take the whole massage range into account.

In some embodiments of the present invention, as shown in fig. 4, the massage groups 20 are two and are arranged in an axisymmetric manner, and each flexible electrode sheet 1 is the same. From this, convenient design and processing to whole flexible electrode piece 1 can adopt same specification, whole flexible heat conduction pad 2 can adopt same specification, whole flexible heating plate 3 can adopt same specification, thereby makes things convenient for the batch production of flexible electrode piece 1, flexible heat conduction pad 2 and flexible heating plate 3, reduce cost, and when the assembly, has better installation interchangeability, and assembly efficiency is higher. In addition, the application scenarios of the specific electrical stimulation massage instruments 1000 are symmetrically arranged, for example, the electrical stimulation massage instrument 1000 is a waist massage instrument, and the two massage groups 20 symmetrically arranged on two sides of the center plane (i.e. the plane corresponding to the lumbar vertebra) of the waist massage instrument accord with the symmetric distribution of the waist muscles, so that the massage effect is better. Moreover, when one flexible electrode sheet 1 is selected from one of the massage groups 20 as an anode of the electrode and one flexible electrode sheet 1 is selected from the other massage group 20 as a cathode of the electrode, the resistance formed between the anode and the cathode of the electrode can be made larger, so as to improve the pricking problem caused by too small resistance.

In some embodiments of the present invention, as shown in fig. 5, the flexible massage assembly 100 may include a heat generating film 30, the heat generating film 30 including: the connecting film portion 31 and the plurality of branch film portions 32, the plurality of branch film portions 32 are arranged at intervals, each branch film portion 32 is connected with the connecting film portion 31, and the plurality of branch film portions 32 are formed into the plurality of flexible heating sheets 3 in a one-to-one correspondence manner. That is, each of the branching film portions 32 is formed as one flexible heat generating sheet 3. From this, through integrating a plurality of flexible heating plate 3 on a heating film 30, and interval distribution, thereby make to have relatively fixed position between every flexible heating plate 3, in order to realize the location to the relative position of a plurality of flexible heat conduction pads 2, thereby realize the location to the relative position of a plurality of flexible electrode slice 1, and then can make the relative position of a plurality of flexible massage units 10 comparatively stable and reliable simply and effectively, like this, because a plurality of flexible massage units 10 all are connected with connection membrane portion 31, the relative position is fixed, thereby when installing flexible massage subassembly 100 to flexible base member 200, need not to fix a position flexible massage unit 10 to flexible base member 200 again, thereby the assembly efficiency of flexible massage subassembly 100 with flexible base member 200 has been improved, the assembly degree of difficulty of flexible massage subassembly 100 with flexible base member 200 has been reduced.

In some embodiments of the present invention, as shown in fig. 5, a plurality of branch film portions 32 are respectively connected to two sides of the connection film portion 31 along the first direction F1, the branch film portions 32 on the same side of the connection film portion 31 are spaced apart along the second direction F2, and the first direction F1 intersects the second direction F2, that is, the first direction F1 and the second direction F2 intersect at a non-zero included angle, for example, an acute angle, a right angle, or an obtuse angle. Therefore, the plurality of flexible heating sheets 3 can be dispersedly distributed along the first direction F1 and the second direction F2, so that the problem of interference influence between two adjacent flexible massage units 10 can be reduced, the shape following pertinence of independent deformation of each flexible massage unit 10 is improved, and the attaching effect and the heat transfer utilization rate of each flexible massage unit 10 are further improved. And when the flexible electrode sheets 1 of two different flexible massage units 10 are combined to be used as the positive and negative electrodes, different electric stimulation massage modes can be combined, and the massage range is larger. Moreover, the distance between the flexible heating sheets 3 and the connecting film part 31 can be generally consistent, so that the heating time sequence of the flexible heating sheets 3 can be relatively synchronous, and the hot compress massage experience is improved.

In some embodiments of the present invention, as shown in fig. 5, the heat generating film 30 may include: and an extension film part 33, one end of the extension film part 33 is connected with the connection film part 31, the other end of the extension film part 33 is an output connection terminal 331, and the plurality of branch film parts 32 are all electrically connected with an external circuit through the output connection terminal 331. From this, can utilize output to connect electrical end 331 and make a plurality of flexible heating plate 3 unified connect the electricity, simplify the line connection, improve the intertwine interference problem that takes place between a plurality of leads, reduce the fault rate, promote electric connection stability.

In some embodiments of the present invention, as shown in fig. 5, the heat generating film 30 may include: and the extension film part 33, one end of the extension film part 33 is connected with the connection film part 31, the other end of the extension film part 33 is an output electric connection end 331, the plurality of flexible electrode plates 1 are all connected to the heating film 30, and the plurality of flexible electrode plates 1 are all electrically connected with an external circuit through the output electric connection end 331. From this, can utilize output to connect electrical end 331 and make a plurality of flexible electrode slice 1 connect the electricity in unison, simplify the line connection, improve the intertwine interference problem that takes place between a plurality of leads, reduce the fault rate, promote electric connection stability.

In some embodiments of the present invention, as shown in fig. 5, the heat generating film 30 may include: and an extension film part 33, one end of the extension film part 33 is connected with the connection film part 31, the other end of the extension film part 33 is an output electric connection end 331, the plurality of flexible electrode plates 1 are all connected to the heating film 30, and the plurality of branch film parts 32 and the plurality of flexible electrode plates 1 are all electrically connected with an external circuit through the output electric connection end 331. From this, can utilize output to connect electrical end 331 to make a plurality of flexible heating elements 3 and a plurality of flexible electrode slice 1 unified connect the electricity, simplify the line connection, improve the intertwine interference problem that takes place between a plurality of leads, reduce the fault rate, promote electric connection stability.

In some optional embodiments of the present invention, as shown in fig. 5, the branched membrane portion 32 has a first electrical connection portion 321 thereon, and with reference to fig. 6 and 7, the flexible electrode sheet 1 includes a first electrical connection section 12, and the first electrical connection section 12 extends between the first electrical connection portion 321 and the flexible thermal pad 2 and is electrically connected to the first electrical connection portion 321. Therefore, the flexible electrode sheet 1 and the flexible heating sheet 3 can be connected through the first electric connection portion 321 and the first electric connection section 12, and the connection position of the first electric connection portion 321 and the first electric connection section 12 is clamped between the flexible heating sheet 3 and the flexible heat conduction pad 2, so that the protection of the flexible heating sheet 3 and the flexible heat conduction pad 2 can be obtained, and the reliability of electric connection is improved.

Of course, the utility model is not limited to this, and in some alternative embodiments of the utility model, as shown in fig. 8, the connecting film portion 31 has a second electrical connection portion 311, and in conjunction with fig. 9 and 10, the flexible electrode sheet 1 includes a second electrical connection section 13, and the second electrical connection section 13 and the second electrical connection portion 311 are electrically connected on the peripheral side of the flexible thermal pad 2. That is to say, the flexible electrode sheet 1 and the flexible heating sheet 3 can be connected through the second electrical connection portion 311 and the second electrical connection section 13, and the connection position of the second electrical connection portion 311 and the second electrical connection section 13 is not clamped between the flexible heating sheet 3 and the flexible heat conduction pad 2, so that the difficulty of electrical connection between the second electrical connection portion 311 and the second electrical connection section 13 can be reduced, and the branch film portion 32 can be provided with a sufficient area and area to design a heating layer, which is beneficial to improving the heating uniformity of the flexible heating sheet 3.

In some embodiments of the present invention, flexible heat-generating component 301 has output electrical terminals 331, flexible electrode sheet 1 is electrically connected to flexible heat-generating component 301, and both flexible heat-generating component 301 and flexible electrode sheet 1 are electrically connected to an external circuit through output electrical terminals 331. Therefore, the output power connection end 331 can be utilized to enable the plurality of flexible electrode plates 1 and the flexible heating component 301 to be connected in a unified mode, circuit connection is simplified, the problem of mutual winding interference among a plurality of leads is solved, the failure rate is reduced, and the electric connection stability is improved.

In some embodiments of the present invention, as shown in fig. 5, the flexible heat generating sheet 3 may include a heat generating portion 322, an orthographic projection of the heat generating portion 322 on a set plane does not exceed an orthographic projection of the flexible heat conducting pad 2 on the set plane, and the set plane is perpendicular to the thickness direction F3 of the flexible heat conducting pad 2. That is, the heat generating portion 322 does not exceed the outline area of the flexible thermal pad 2, so as to improve the efficiency of the heat generating portion 322 transferring heat to the flexible thermal pad 2 and reduce the waste of heat. Or, the waste of heat caused by the edge of the heating part 322 exceeding the outline area of the flexible heat-conducting pad 2 can be improved

As shown in fig. 5, the flexible heat generating sheet 3 may include a heat generating portion 322, and the area of the heat generating portion 322 may be smaller than the area of the flexible heat conducting pad 2, so that the flexible heat generating sheet 3 may utilize the heat generating portion 322 with a relatively small heat generating area to transfer to the flexible heat conducting pad 2 with a relatively large area, thereby improving the heat transfer utilization rate. In addition, the smaller the resistance, the higher the power, when the heating part 322 is formed by winding the resistance wire, the smaller the area, the smaller the resistance, the higher the power, so as to improve the heating power of the heating part 322, which is beneficial to rapidly transmitting the heat to the flexible electrode sheet 1 through the flexible heat conducting pad 2.

Or, as shown in fig. 8, the flexible heating sheet 3 may include a heating portion 322, and the area of the heating portion 322 may also be equal to the area of the flexible heat conducting pad 2, so that the design of the flexible heating sheet 3 may be simplified, and the whole area range of the flexible heating sheet 3 may heat, so as to transfer the heat to the flexible heat conducting pad 2 omnidirectionally and relatively uniformly, thereby improving the heating uniformity of the flexible heat conducting pad 2, and further improving the heat transfer efficiency of the flexible heat conducting pad 2 to the flexible electrode sheet 1.

In some embodiments of the present invention, as shown in fig. 5, when the area of the heat generating portion 322 is smaller than the area of the flexible heat conducting pad 2, the flexible heat generating sheet 3 further includes a first electrical connecting portion 321, the area of the first electrical connecting portion 321 is smaller than the area of the heat generating portion 322, so that the amount of heat generation and the amount of heat transfer are sufficient, the flexible electrode sheet 1 includes a first electrical connecting section 12, the first electrical connecting section 12 extends to between the first electrical connecting portion 321 and the flexible heat conducting pad 2 and is electrically connected to the first electrical connecting portion 321, that is, an orthographic projection of the first electrical connecting portion 321 on the set plane is located within an orthographic projection of the flexible heat conducting pad 2 on the set plane, so that the first electrical connecting portion 321 does not exceed the range of the outline area of the flexible heat conducting pad 2. Therefore, the flexible electrode sheet 1 and the flexible heating sheet 3 can be connected through the first electric connection portion 321 and the first electric connection section 12, and the connection position of the first electric connection portion 321 and the first electric connection section 12 is clamped between the flexible heating sheet 3 and the flexible heat conduction pad 2, so that the protection of the flexible heating sheet 3 and the flexible heat conduction pad 2 can be obtained, and the reliability of electric connection is improved.

In addition, the flexible heating sheet 3 and the flexible electrode sheet 1 in the same flexible massage unit 10 can be uniformly connected with electricity, so that the circuit connection is simplified, the problem of mutual winding interference among a plurality of leads is solved, the failure rate is reduced, and the electric connection stability is improved. In addition, it should be noted that, in the present embodiment, the plurality of flexible heat generating sheets 3 may be independent from each other without indirect connection relationship, or may be connected to the connecting film portion 31 to form an integral heat generating film 30, which is not limited herein.

Of course, the present invention is not limited thereto, and in some alternative embodiments of the present invention, as shown in fig. 8 to fig. 10, the second electrical connection portion 311 is connected outside the flexible heat generating sheet 3, the flexible electrode sheet 1 includes the second electrical connection section 13, and the second electrical connection section 13 is electrically connected with the second electrical connection portion 311 on the peripheral side of the flexible heat conducting pad 2. That is to say, the flexible electrode sheet 1 and the flexible heating sheet 3 can be connected through the second electrical connection portion 311 and the second electrical connection section 13, and the connection position of the second electrical connection portion 311 and the second electrical connection section 13 is not clamped between the flexible heating sheet 3 and the flexible heat conducting pad 2, so that the difficulty of electrical connection between the second electrical connection portion 311 and the second electrical connection section 13 can be reduced, and a heating layer can be designed by making the flexible heating sheet 3 have a sufficient area and area, which is beneficial to improving the heating uniformity of the flexible heating sheet 3. In addition, it should be noted that, in the present embodiment, the plurality of flexible heat generating sheets 3 may be independent from each other without indirect connection relationship, or may be connected to the connecting film portion 31 to form an integral heat generating film 30, which is not limited herein.

In some embodiments of the present invention, as shown in fig. 3, the shape of the flexible heat generating sheet 3 matches the shape of the flexible thermal pad 2. That is to say, the profile of flexible thermal pad 2 is roughly the same with the profile shape of flexible piece 3 that generates heat, the size is proportional, when the size ratio is 1, the size is the same, can realize the location through the edge is alignd, when the size ratio is close 1, can realize the location through the equidistant between the edge to be convenient for to the alignment location of flexible thermal pad 2 and flexible piece 3 that generates heat. Furthermore, the heat transfer area can be increased as much as possible, and the uniformity of heat transfer can be improved, thereby improving the heat transfer efficiency.

In some embodiments of the present invention, as shown in fig. 3, 11-14, a side surface of the flexible thermal pad 2 facing the flexible heat-generating component 301 is in indirect contact with the flexible heat-generating component 301 through the thermal conductive paste 4. For example, a surface of the flexible heat conduction pad 2 facing the flexible heat generating sheet 3 may be in indirect contact with the flexible heat generating sheet 3 through the heat conductive paste 4. From this, can make flexible heat conduction pad 2 and the flexible indirect contact area who generates heat between the piece 3 great on the one hand, on the other hand can realize through heat conduction glue 4 that flexible generate heat piece 3 and flexible heat conduction pad 2 be reliably connected and fix a position, improve the reliability of heat transfer, flexible piece 3 and the flexible heat conduction pad 2 that generate heat are in the same place through the adhesion of heat conduction glue 4 promptly, under the prerequisite that makes the heat conduction effect, flexible piece 3 and the flexible heat conduction pad 2 that generate heat are difficult to take place mutual drunkenness.

In some embodiments of the present invention, as shown in fig. 6-7, the flexible electrode sheet 1 defines a mounting cavity 14, and in conjunction with fig. 11-12, the flexible heat conduction pad 2 is received in the mounting cavity 14, a side of the mounting cavity 14 facing the flexible heat-generating component 301 is opened to form a mounting opening 15, and the flexible heat conduction pad 2 is adapted to be loaded into the mounting cavity 14 through the mounting opening 15. That is to say, flexible electrode piece 1 shaping goes out installation cavity 14 of recess form, and flexible heat conduction pad 2 imbeds to installation cavity 14 to realize the location between flexible heat conduction pad 2 and the flexible electrode piece 1, installation cavity 14 can cover the heat of flexible heat conduction pad 2 inside in addition, thereby improves the heat transfer efficiency of flexible heat conduction pad 2 to flexible electrode piece 1. Moreover, the opening direction of the mounting opening 15 is set to face the flexible heat-generating component 301, so that the flexible heat-conducting mat 2 can effectively transfer heat with the flexible heat-generating component 301 on the premise of facilitating the rapid mounting of the flexible heat-conducting mat 2.

It should be noted that the material of the flexible electrode sheet 1 is not limited, and different manners may be selected to process the mounting cavity 14 according to different materials of the flexible electrode sheet 1, for example, when the flexible electrode sheet 1 is conductive PU (Polyurethane), the flexible electrode sheet 1 may be formed into the mounting cavity 14 for accommodating the flexible heat conducting pad 2 by stamping and stretching, and at this time, the flexible electrode sheet 1 may also have better flexibility.

In some embodiments of the present invention, as shown in fig. 10 and 13, a side surface of the flexible heat-conducting mat 2 facing the flexible heat-generating component 301 is located outside the mounting port 15 and is in direct or indirect contact with the flexible heat-generating component 301. Therefore, the flexible heat conducting pad 2 can be exposed out of the mounting port 15 of the flexible electrode sheet 1, so that the flexible heat conducting pad 2 can be simply and effectively positioned on the flexible heat-generating component 301, the connection between the flexible heat conducting pad 2 and the flexible heat-generating component 301 can be conveniently realized, the connection reliability is improved, and the heat conduction is reliable. Moreover, since the flexible heat generating component 301 does not need to be bent and deformed to extend into the mounting cavity 14, the flexible electrode sheet 1 can be protected, and the difficulty in assembling and processing the flexible electrode sheet 1 can be reduced.

In some embodiments of the present invention, as shown in fig. 6 and 7, the flexible electrode sheet 1 may include: the electrode portion 11 and the edge portion 16, the electrode portion 11 defining a mounting cavity 14, the edge portion 16 being located outside the mounting cavity 14 and extending along the circumferential direction of the mounting opening 15, and in conjunction with fig. 18-21, the edge portion 16 being adapted to connect the flexible electrode sheet 1 to the flexible base 200. Therefore, the flexible electrode sheet 1 is used for accommodating the flexible heat conducting pad 2 through the mounting cavity 14, so that the flexible heat conducting pad 2 is covered on the flexible heat conducting pad 2, when the edge part 16 of the flexible electrode sheet 1 is connected with the flexible base body 200, the whole flexible massage unit 10 can be firmly connected with the flexible base body 200, and the edge part 16 is exposed out of the mounting cavity 14, so that the connection operation is convenient to implement, and the connection operability and the connection reliability of the flexible massage assembly 100 and the flexible base body 200 can be improved to a certain extent. Moreover, the flexible heat-generating component 301 and the flexible heat-conducting pad 2 are arranged corresponding to the mounting cavity 14 and the mounting opening 15 of the flexible electrode sheet 1, and the flexible heat-generating component 301 and the flexible heat-conducting pad 2 can be better prevented from moving and wrinkling relative to the flexible electrode sheet 1 by utilizing the connection between the edge part 16 and the flexible base body 200, so that the heat transfer is reliable.

In some embodiments of the present invention, the flexible electrode sheet 1 further comprises: and an electrical connection section connected to the edge portion 16, the electrical connection section being a first electrical connection section 12 and extending between the flexible heat conductive pad 2 and the flexible heat generating component 301 and electrically connected to the flexible heat generating component 301 as shown in fig. 6 and 7, or being a second electrical connection section 13 and extending to the peripheral side of the flexible heat conductive pad 2 and electrically connected to the flexible heat generating component 301 as shown in fig. 9 and 10.

When the electrical connection section is the first electrical connection section 12, the first electrical connection section 12 extends inward from the edge of the edge portion 16, and at least a part of the first electrical connection section 12 is sandwiched between the flexible thermal pad 2 and the flexible heat-generating component 301, so that the electrical connection portion can be protected. When the electrical connection section is the second electrical connection section 13, the second electrical connection section 13 and the flexible heat conduction pad 2 do not overlap in the thickness direction F3 of the flexible heat conduction pad 2, that is, the second electrical connection section 13 is not disposed between the flexible heat conduction pad 2 and the flexible heat-generating component 301, thereby improving the heat transfer area occupied between the flexible heat-generating component 301 and the flexible heat conduction pad 2.

Therefore, the flexible electrode sheet 1 comprises the electrode part 11, the edge part 16 connected to the circumferential direction of the electrode part 11 and the electric connection section connected with the edge part 16, and the electric connection section is in direct or indirect contact with the flexible heating part 301 to form electric connection, so that the flexible heating part 301 and the flexible electrode sheet 1 in the same flexible massage unit 10 can be uniformly connected with electricity, the circuit connection is simplified, the problem of mutual winding interference among a plurality of leads is solved, the failure rate is reduced, and the electric connection stability is improved. It should be noted that, in the present embodiment, the plurality of flexible heat generating components 301 may be independent from each other without any indirect connection relationship, or may be connected to the connecting film portion 31 to form an integral heat generating film 30, which is not limited herein.

Of course, the present invention is not limited to this, and in other embodiments of the present invention, one branch film portion 32 may correspond to a plurality of flexible electrode sheets 1, or a plurality of branch film portions 32 may correspond to the same flexible electrode sheet 1. Etc., which are not described in detail herein.

In some embodiments of the utility model, as shown in fig. 3 and 7, the mounting cavity 14 is shaped to match the shape of the flexible thermal pad 2. That is to say, the profile of flexible heat conduction pad 2 is roughly the same with the profile shape of installation cavity 14, the size is proportional to be favorable to flexible electrode slice 1 to the spacing of flexible heat conduction pad 2, moreover, can improve heat transfer area as far as possible, reduce the heat waste, improve heat transfer efficiency. In addition, when the shape of the mounting cavity 14 is matched with the shape of the flexible heat conducting pad 2, and the flexible heat conducting pad 2 is assembled in the mounting cavity 14, and the flexible heat conducting pad 2 is bonded with the flexible heat generating component 301, the alignment between the flexible heat generating component 301 and the flexible electrode sheet 1 can be automatically realized, so that the alignment electrical connection between the first electrical connection portion 321 and the first electrical connection section 12 or the alignment electrical connection between the second electrical connection portion 311 and the second electrical connection section 13 can be realized.

In some specific examples of the present invention, as shown in fig. 6 and 7, the electrode portion 11 may include an end wall surface 111 and a side wall surface 112, the end wall surface 111 being located on a side of the flexible heat-generating component 301 in the thickness direction F3 of the flexible heat-conducting mat 2, the side wall surface 112 being connected to a side of the end wall surface 111 close to the flexible heat-generating component 301 and surrounding a peripheral side of the flexible heat-conducting mat 2, the side wall surface 112 and the end wall surface 111 defining the mounting cavity 14 therebetween, and the shape of the end wall surface 111 both matching the shape of the flexible heat-conducting mat 2 so that the shape of the mounting cavity 14 both matches the shape of the flexible heat-conducting mat 2. The rim portion 16 is connected to a side of the side wall surface 112 away from the end wall surface 111 and extends in the circumferential direction of the end wall surface 111.

In some specific examples of the present invention, as shown in fig. 15, the mounting cavity 14 includes a cavity peripheral surface 142 (which may be, for example, the inner surface of the side wall surface 112 described above) disposed around the peripheral side of the flexible heat conduction pad 2, and at least a portion of the cavity peripheral surface 142 is in clearance fit with the peripheral surface 21 of the flexible heat conduction pad 2. That is, there is a fitting clearance between the cavity peripheral surface 142 of the mounting cavity 14 and the peripheral surface 21 of the flexible thermal pad 2. It should be noted that the cavity peripheral surface 142 of the mounting cavity 14 and the peripheral surface 21 of the flexible heat conduction pad 2 may be partially in clearance fit and partially attached, so as to ensure the stability of the relative position, for example, the long sides may be attached, the short sides may be attached with a gap, or the short sides may be attached with a gap. Alternatively, the cavity peripheral surface 142 of the mounting cavity 14 and the peripheral surface 21 of the flexible thermal pad 2 may have a gap therebetween.

Therefore, since at least a part of the cavity peripheral surface 142 is in clearance fit with the peripheral surface 21 of the flexible heat conduction pad 2, thereby facilitating assembly, and allowing the flexible heat conduction pad 2 to be assembled in place, so that the thickness side surface of the flexible heat conduction pad 2 facing the electrode portion 11 presses the electrode portion 11, it should be noted that "pressing" herein is understood in a broad sense, that is, it includes normal pressure pressing (i.e., it is in a pressing state when not in use) and use pressing (i.e., it is in a non-pressing state when not in use, such as clearance fit, and when in use, the electrode portion 11 can be deformed to be pressed against the flexible heat conduction pad 2 under the reaction force of the skin). For example, when the shape of the mounting cavity 14 is matched with the shape of the flexible thermal pad 2, if the cavity peripheral surface 142 of the mounting cavity is made to have an interference fit or an adhesive joint with the peripheral surface 21 of the flexible thermal pad 2, the operation of loading the flexible thermal pad 2 into the mounting cavity 14 is affected, and it is difficult to assemble the flexible thermal pad in place. And, because the cavity is global 142 and is had the fit clearance between the week surface 21 of flexible heat conduction pad 2, thereby can reduce flexible heat conduction pad 2 to the lateral wall face 112 transmission heat of electrode portion 11, just so can make flexible heat conduction pad 2 concentrate more heat conduction to the end wall face 111 of electrode portion 11, because in the use, electrode portion 11 passes through end wall face 111 and is contacted by direct or indirect laminating of massage position, thereby can make the heat more fully received by the user, thereby promote heat conduction efficiency, reduce the heat waste.

In some specific examples of the present invention, as shown in fig. 15, the flexible electrode sheet 1 is press-drawn to form the mounting cavity 14, and at least a part of the cavity peripheral surface 142 is disposed obliquely to the peripheral surface 21 of the flexible thermal pad 2. That is to say, the intersecting non-zero included angle between the cavity peripheral surface 142 and the flexible heat conducting pad 2, for example, the peripheral surface 21 of the flexible heat conducting pad 2 may be a vertical surface, and the cavity peripheral surface 142 of the mounting cavity 14 of the flexible electrode sheet 1 may be an inclined surface, for example, a die drawing angle in stamping and drawing, so that the cavity peripheral surface 142 and the peripheral surface 21 of the flexible heat conducting pad 2 can be naturally in clearance fit, and the difficulty in forming a fit clearance is greatly reduced. It should be noted that the material of the flexible electrode sheet 1 is not limited, for example, the flexible electrode sheet 1 may be conductive PU (Polyurethane), so as to form the mounting cavity 14 for accommodating the flexible heat conducting pad 2 by stamping and stretching, and at this time, the flexible electrode sheet 1 may also have better flexibility.

In some specific examples of the present invention, as shown in fig. 13, the mounting cavity 14 includes a cavity top surface 141 (which may be the inner surface of the end wall surface 111 described above, for example) provided on a side of the flexible heat conduction pad 2 facing away from the flexible heat-generating component 301, and the cavity top surface 141 is not connected to the flexible heat conduction pad 2, that is, a thickness side surface of the flexible heat conduction pad 2 facing the cavity top surface 141 is not connected to the cavity top surface 141, but a thickness side surface of the flexible heat conduction pad 2 facing the cavity top surface 141 may be in contact fit with the cavity top surface 141 or may be in clearance fit with the cavity top surface 141. It should be noted that the term "fit" is used in a broad sense to include both direct and indirect fits, and that the fit may be an adhesive attachment fit or a non-adhesive fit.

From this, have better from the reset performance between flexible electrode slice 1 and the flexible heat conduction pad 2, every can both the automatic recovery to the original position when recovering the deformation, improve because the repetitious usage warp the back, because take place the position drunkenness between flexible electrode slice 1 and the flexible heat conduction pad 2, lead to flexible electrode slice 1 surface wrinkling problem to the problem of can't make and user's good laminating because electrode slice surface wrinkling has been solved.

Moreover, because the cavity top surface 141 is attached to the flexible heat conducting pad 2 without connection, the problem of bonding pits formed on the surface of the flexible electrode sheet 1 due to bonding can be solved, and the problem of influence of the bonding pits on good attachment of the flexible electrode sheet 1 to a user can be solved. Furthermore, it can be understood that, when the entire inner surface of the mounting cavity 14 is not connected to the flexible heat conduction pad 2, the flexible electrode sheet 1 and the flexible heat conduction pad 2 can be separated, so that the problem of wrinkling of the respective surfaces of the flexible electrode sheet 1 can be better improved, and the flexible electrode sheet 1 and the flexible heat conduction pad 2 can be respectively restored to the respective positions and forms so as to stably exert the respective functions. Of course, the present invention is not limited thereto, and in other embodiments of the present invention, in order to meet other practical requirements, at least one of the cavity top surface 141 and the cavity peripheral surface 142 may also be configured to be bonded to the flexible thermal pad 2, which is not described herein again.

Of course, the utility model is not limited thereto, and in other embodiments of the utility model, the flexible electrode sheet 1 is connected to the flexible heat conducting mat 2, the flexible heat conducting mat 2 is connected to the flexible heat generating component 301, and the flexible heat generating component 301 is connected to the flexible base 200. This eliminates the need for the edge portion 16, simplifies the structure of the flexible electrode sheet 1, and eliminates the need for connecting the edge portion 16 to the flexible substrate 200. For example, when the mounting cavity 14 includes a cavity peripheral surface 142 disposed around the peripheral side of the flexible heat-conducting pad 2, and the mounting cavity 14 includes a cavity top surface 141 disposed on the side of the flexible heat-conducting pad 2 facing away from the flexible heat-generating component 301, at least one of the cavity peripheral surface 142 and the cavity top surface 141 may also be configured to be attached to the flexible heat-conducting pad 2, that is, the cavity peripheral surface 142 is attached to the peripheral surface 21 of the flexible heat-conducting pad 2, and/or the cavity top surface 141 is attached to the flexible heat-conducting pad 2. This eliminates the need for the edge portion 16, simplifies the structure of the flexible electrode sheet 1, and eliminates the need for connecting the edge portion 16 to the flexible substrate 200.

In some embodiments of the present invention, as shown in fig. 16 and 17, the flexible heat conducting pad 2 may include a resilient material layer 22 to enable the thickness of the flexible heat conducting pad 2 to be elastically changed, the flexible heat conducting pad 2 further includes a heat conducting layer 23, the heat conducting layer 23 includes two surface covering portions 231 and a side covering portion 232, the two surface covering portions 231 respectively cover two sides of the thickness of the resilient material layer 22, the side covering portion 232 is connected to the two surface covering portions 231 and covers the side surface of the resilient material layer 22, and the heat of the flexible heat generating component 301 is conducted to the flexible electrode sheet 1 through the heat conducting layer 23. Thus, since the heat conduction layer 23 covers the front surface, the back surface and the side surfaces of the resilient material layer 22, the surface covering portion 231 of the front surface can be attached to the flexible electrode to transfer heat, the surface covering portion 231 of the back surface can be attached to the flexible heat generating component 301 to transfer heat, and the two surface covering portions 231 conduct heat through the side covering portions 232 of the side surfaces, so that heat transfer from the flexible heat generating component 301 to the flexible electrode sheet 1 can be effectively achieved.

Moreover, the heat conduction layer 23 has a simple structure, and is convenient to coat the rebound material layer 22, so that the flexible heat conduction pad 2 is convenient to process and obtain. For example, in some specific examples, the rebound material layer 22 can be the sponge main body or the inner layer such as air cushion that the softness has the design effect, and the heat-conducting layer 23 cladding is outside the rebound material layer 22, can be connected through modes such as bonding between heat-conducting layer 23 and the sponge main body, and the bonding can be hot melt connection, and bonding reliability is good, and the surface is difficult to bubble moreover, of course, also can be double faced adhesive tape bonding, and this kind belongs to cold junction, is difficult to bubble.

In some embodiments of the present invention, as shown in fig. 13 and 14, the heat conductive layer 23 may include: the outer film layer 233, the inner film layer 234, and the heat conducting powder layer 235 disposed between the inner film layer 234 and the outer film layer 233, that is, the heat conducting layer 23 may include the heat conducting powder layer 235 and the inner film layer 234 and the outer film layer 233 disposed at both sides of the heat conducting powder layer 235, and thus, the heat conducting powder layer 235 may be prevented from falling off and being damaged, so that the heat conducting effect is achieved. The outer film 233 is disposed on the side of the inner film 234 away from the resilient material layer 22, and the outer film 233 is an insulating layer, so that the influence of the resistance of the flexible electrode sheet 1 can be reduced, or the flexible electrode sheet 1 and the flexible heat-generating component 301 are electrically conducted unnecessarily, so that the flexible massage unit 10 can reliably exert a massage effect. Moreover, the structure of the double-layer protective film with the heat conducting powder layer 235 sandwiched therebetween can have a good washing-resistant effect. It should be noted that specific materials of the inner film layer 234, the outer film layer 233, and the thermal conductive powder layer 235 are not limited, and may be specifically selected according to functions thereof, for example, the thermal conductive powder layer 235 may be the graphene thermal conductive layer 23, so as to have a higher thermal conductive efficiency, and both the inner film layer 234 and the outer film layer 233 may be polyimide films, so as to have a better water washing resistance, and have an insulating effect.

In some embodiments of the present invention, as shown in fig. 16 and 17, the resilient material layer 22 may have an elongated structure so as to include two length sides oppositely disposed in the width direction of the flexible heat conductive pad 2, and the side covering portion 232 covers at least one of the two length sides of the resilient material layer 22. From this, flexible heat conduction pad 2 can be rectangular shape structure, and side cover portion 232 of heat conduction layer 23 can extend along the rectangular direction of flexible heat conduction pad 2, can promote the heat conduction efficiency between two face cover portions 231 from this, and in addition, when two length sides all covered side cover portion 232, can be when can promoting the heat conduction efficiency, be favorable to the homogeneity of positive face cover portion 231 conduction temperature.

Next, an electric stimulation massage apparatus 1000 according to an embodiment of the present invention is described with reference to the drawings.

As shown in fig. 1 and 2, the electrical stimulation massager 1000 may include: a flexible substrate 200 and a flexible massage assembly 100 for an electro-stimulation massage apparatus 1000 according to any of the embodiments of the present invention, the flexible massage assembly 100 being provided to the flexible substrate 200. Therefore, according to the electrical stimulation massager 1000 of the embodiment of the utility model, the flexible massage assembly 100 arranged on the flexible base 200 comprises the plurality of spaced flexible massage units 10, each flexible massage unit 10 comprises the corresponding flexible electrode sheet 1, the corresponding flexible heat conducting pad 2 and the corresponding flexible heating sheet 3, so that the plurality of flexible massage units 10 are independent from each other, the interaction and the traction are small, the flexible electrode sheet 1 of each flexible massage unit 10 can be effectively attached to the corresponding massage part under the supporting action of the corresponding flexible heat conducting pad 2, the heat transfer efficiency from the flexible electrode sheet 1 to a user is high, the heat utilization rate is high, meanwhile, the heat of the flexible heating sheet 3 can be pertinently transferred to the flexible electrode sheet under the heat conducting action of the flexible heat conducting pad 2, and the heat transfer efficiency from the flexible heating sheet 3 to the flexible electrode sheet 1 is high, The heat utilization rate is higher, and then make the heat can be by abundant effective utilization, reduce energy waste.

Moreover, no matter how the body shape of the user is, no matter whether the user moves, the plurality of flexible massage units 10 can respectively generate the conformal movement in a targeted manner so as to improve the fitting effect and the heat transfer effect, therefore, the heat transfer efficiency of each flexible heating sheet 3 to the user cannot be influenced by the body shape difference of the user and the movement of the user, so that the application range and the application scene of the electric stimulation massage instrument 1000 are improved, for example, users with different body sizes can fully play a massage role in non-static application scenes such as movement and work and the like.

In some embodiments of the present invention, as shown in fig. 1, the flexible substrate 200 includes a mounting layer 91 and a protective layer 92 along a thickness direction F3 of the flexible substrate 200, at least a portion of the flexible massage assembly 100 is located on a front side of the mounting layer 91, the flexible massage assembly 100 is mounted on the mounting layer 91, and the protective layer 92 covers the mounting layer 91 and a back side of the flexible massage assembly 100. Therefore, the protective layer 92 is arranged on the back side of the mounting layer 91, so that the problems that the protective layer 92 is uneven or wrinkled due to the connection of the flexible massage assembly 100 and the protective layer 92 can be solved, and when the protective layer 92 is used as the appearance surface of the flexible base body 200, the problems that the concave position of the protective layer 92 is easy to accumulate dust and difficult to clean can be solved. In addition, the back side of the flexible massage assembly 100 is protected from the outside by at least the protective layer 92, so that the risk of the flexible massage assembly 100 being damaged by external impact can be reduced, thereby improving the operational stability and operational reliability of the flexible massage assembly 100.

In some embodiments of the present invention, as shown in fig. 1, in a thickness direction F3 of the flexible substrate 200, the flexible substrate 200 includes a surface layer 5 and a bottom layer 6 located on a back side of the surface layer 5, and a lining layer 7 located between the surface layer 5 and the bottom layer 6, at least a portion of the flexible massage assembly 100 is located between the surface layer 5 and the lining layer 7, the lining layer 7 is a mounting layer 91, the bottom layer 6 is a protective layer 92, and the lining layer 7 is connected to the surface layer 5 and is not connected to the bottom layer 6. Thereby, the direct or indirect connection of the flexible massage assembly 100 with the bottom layer 6 can be avoided, and when the flexible massage assembly 100 is directly or indirectly connected with the bottom layer 6, if the user pulls the surface layer 5 and the bottom layer 6 in different directions, respectively, the surface layer 5 may apply an acting force separated from the bottom layer 6 to the flexible massage assembly 100 due to the relative play between the bottom layer 6 and the surface layer 5, which affects the reliability of the connection of the flexible massage assembly 100 with the bottom layer 6. Also, in some cases, the cover 5 may serve to shield the flexible massage assembly 100 from connection traces with the cushion layer 7, thereby improving connection reliability.

In some embodiments of the present invention, as shown in fig. 1 and 2, the surface layer 5 has an avoiding hole 51, and the flexible electrode sheet 1 is disposed corresponding to the avoiding hole 51 to be exposed or protruded from the avoiding hole 51 to the front side of the surface layer 5. So that at least part of the flexible electrode sheet 1 can be exposed from the avoiding hole 51, or protrude from the avoiding hole 51 to the side of the surface layer 5 away from the bottom layer 6 to be in direct or indirect contact with the skin of the user, thereby realizing electric conduction. Of course, the present invention is not limited to this, the avoiding hole 51 may not be provided on the surface layer 5, and the surface layer 5 may be electrically connected to the flexible electrode sheet 1 on the back side thereof by providing a conductive portion or a conductive member.

In some embodiments of the present invention, as shown in fig. 1 and 2, the flexible substrate 200 includes a surface layer 5 and a bottom layer 6 located on the back side of the surface layer 5 along a thickness direction F3 of the flexible substrate 200, at least a portion of the flexible massage assembly 100 is located on the front side of the surface layer 5, the surface layer 5 is a mounting layer 91, and the bottom layer 6 is a protective layer 92. That is, the flexible massage member 100 is attached to the front surface of the face layer 5, but the flexible massage member 100 may be entirely located on the front side of the face layer 5, or a portion thereof may extend into the back side of the face layer 5, and the bottom layer 6 may be located on the back side of the face layer 5. Therefore, the installation is easier and more convenient, and the thickness of the flexible substrate 200 is thinner and lighter.

In some embodiments of the present invention, as shown in fig. 29, the flexible substrate 200 further comprises an augmentation layer 93, the augmentation layer 93 being disposed opposite the flexible massage assembly 100 and on the back side of the flexible massage assembly 100, wherein the back side of the protective layer 92 is provided with at least one augmentation layer 93, and/or at least one augmentation layer 93 is disposed between the protective layer 92 and the mounting layer 91. I.e. at least one supplementary layer 93 is provided between the protective layer 92 and the mounting layer 91 and/or at least one supplementary layer 93 is provided on the backside of the protective layer 92. Thereby, the back side of the flexible massage assembly 100 is more protected, thereby better reducing the risk of the flexible massage assembly 100 being damaged by external impacts, and further improving the operational stability and operational reliability of the flexible massage assembly 100. When at least one supplemental layer 93 is disposed between the protective layer 92 and the mounting layer 91, the problem that the flexible massage assembly 100 extrudes the protective layer 92 to cause the protective layer 92 to protrude and deform toward the back side can be improved, and the protective layer 92 can be kept relatively flat and stable. When the back side of the protective layer 92 is provided with at least one supplementary layer 93, the structure can be simplified and the processing can be facilitated.

In some embodiments of the present invention, as shown in fig. 30, the protection layer 92 includes a first protection portion 921 and a second protection portion 922, the first protection portion 921 is disposed opposite to the flexible massage assembly 100, and the second protection portion 922 is disposed in a staggered manner with respect to the flexible massage assembly 100, wherein the first protection portion 921 and the second protection portion 922 are made of different materials and are spliced together, or the thickness of the first protection portion 921 is greater than that of the second protection portion 922. Thus, by designing the protective layer 92 in sections, the protective effect of the protective layer 92 in the region opposite the flexible massage assembly 100 can be improved. And, the cost can be reduced to some extent. For example, the protective layer 92 may be made of a material having a buffering effect, such as an elastic deformation material, so as to have a better protection effect. In addition, when the flexible substrate 200 includes the supplemental layer 93, the protection layer 92 may include both the first protection portion 921 and the second protection portion 922 to implement the partition design.

In some embodiments of the utility model, flexible electrode sheet 1 and flexible heat-generating component 301 are attached to mounting layer 91, respectively, and flexible thermal pad 2 is attached to flexible heat-generating component 301. Therefore, the connection reliability of the flexible massage assembly 100 and the flexible base body 200 can be improved, and the flexible electrode sheet 1 and the flexible heat conducting pad 2 can be free of connection, so that the flexible electrode sheet 1 and the flexible heat conducting pad 2 can move relatively, the effect of respective reset is realized, and the problem of wrinkling of the surface of the flexible electrode sheet 1 is solved.

Alternatively, in other embodiments of the utility model, flexible heat-generating component 301 is attached to mounting layer 91, flexible thermal pad 2 is attached to flexible heat-generating component 301, and flexible electrode sheet 1 is attached to flexible thermal pad 2. This can simplify the structure of the flexible electrode sheet 1 and simplify the assembly process.

In some embodiments of the utility model, the protective layer 92 covers a plurality of flexible electrode sheets 1 simultaneously. Therefore, a plurality of protective layers 92 can be avoided, assembly is simplified, and cost is reduced. Of course, the present invention is not limited thereto, and a plurality of protective layers 92 may be disposed to cover a plurality of flexible electrode sheets 1, etc. respectively, which is not described herein again.

Next, a flexible substrate 200 according to one specific example of the present invention is described. As shown in fig. 1 and 2, along the thickness direction F3 of the flexible substrate 200, the flexible substrate 200 includes a surface layer 5 and a bottom layer 6 which are arranged oppositely, the flexible massage component 100 is located between the surface layer 5 and the bottom layer 6, the flexible electrode sheet 1 is located on one side of the flexible heating sheet 3 departing from the bottom layer 6, the surface layer 5 has a plurality of avoiding holes 51, and the plurality of avoiding holes 51 avoid the plurality of flexible electrode sheets 1 in a one-to-one correspondence manner. From this, flexible electrode piece 1 at least part can be exposed by dodging hole 51 on surface course 5 to with by the direct or indirect contact of massage position, realize electro photoluminescence and/or hot compress massage etc. moreover, shelter from the remaining part of flexible massage subassembly 100 through setting up surface course 5, can be at flexible massage subassembly 100 of positive side protection, shelter from the dorsal part of flexible massage subassembly 100 through setting up bottom 6, thereby can protect flexible massage subassembly 100 at the dorsal part, improve the safety in utilization.

In some specific examples of the present invention, as shown in fig. 6 and 7, the flexible electrode sheet 1 includes: the electrode part 11 defines a mounting cavity 14, the edge part 16 is located outside the mounting cavity 14 and extends along the circumferential direction of the mounting opening 15, the edge part 16 is suitable for connecting the flexible electrode sheet 1 to the flexible base 200, with reference to fig. 18-22, the plurality of avoidance holes 51 correspondingly avoid the plurality of electrode parts 11 one by one, and the edge part 16 is sandwiched between the surface layer 5 and the bottom layer 6. Therefore, the edge part 16 of the flexible electrode sheet 1 is clamped between the surface layer 5 and the bottom layer 6, so that the area between the edge part 16 and the adjacent flexible electrode sheet 1 can be shielded, on one hand, the use safety can be improved, on the other hand, the connection reliability of the edge part 16 and the waistband body can be improved, on the other hand, the contact between other parts of the flexible massage assembly 100 and dust, water and the like can be improved as far as possible on the premise that the function of the electrode part 11 is not influenced, and the service life of the flexible massage assembly 100 is prolonged.

Alternatively, as shown in fig. 22, the electrode portion 11 may be protruded relative to the edge portion 16, so that the electrode portion 11 may be protruded from the avoiding hole 51 to the front side of the surface layer 5, and thus the electrode portion 11 is protruded, which is on one hand convenient for forming the mounting cavity 14, and on the other hand is beneficial for the electrode portion 11 to be reliably attached to the massaged portion without being affected by the surface layer 5. It can be understood that, in the use process of the electrical stimulation massage apparatus 1000, the surface layer 5 faces the part to be massaged, and the bottom layer 6 is located on the side of the surface layer 5 facing away from the part to be massaged.

In some specific examples of the present invention, as shown in fig. 1, the flexible substrate 200 further includes a lining 7, the lining 7 is disposed between the flexible massage assembly 100 and the bottom layer 6, and in conjunction with fig. 20-21, the lining 7 covers the flexible heating sheet 3 and is fixedly connected to the edge 16. From this, through setting up the liner 7, can accomplish edge portion 16 and flexible base member 200's being connected, thereby realize flexible massage subassembly 100 to flexible base member 200's fixed mounting, and the fixed connection position of liner 7 and edge portion 16 can be sheltered from the dorsal part by bottom 6, thereby can protect the fixed connection position, and because the back of flexible heating sheet 3 is equipped with liner 7 and the at least two-layer protection of bottom 6, thereby can protect flexible massage subassembly 100, improve flexible massage subassembly 100's life.

For example, in some specific examples, in combination with fig. 21, the rim 16 and the liner layer 7 may be fixed in a hot-pressing manner, the adhesive layer 8 is formed between the rim 16 and the liner layer 7, and the rim 16 and the liner layer 7 are fixedly connected by a hot-pressing process, so that by disposing the liner layer 7 between the bottom layer 6 and the flexible massage component 100, hot-pressing marks may be formed on the liner layer 7 to be shielded by the bottom layer 6, and thus, the exposure of the hot-pressing marks may be improved. Of course, the utility model is not limited thereto, and in other embodiments of the utility model, the edge portion 16 may be omitted, and in this case, the flexible massage assembly 100 may be fixedly connected to the liner 7 by using the connection between the flexible electrode sheet 1 and the flexible heat conducting pad 2, the connection between the flexible heat conducting pad 2 and the flexible heat generating sheet 3, and the connection between the flexible heat generating sheet 3 and the liner 7.

In some specific examples of the present invention, as shown in fig. 1 and 2, the lining 7 covers the plurality of flexible heat generating sheets 3 at the same time and is fixedly connected to the corresponding plurality of edge portions 16. From this, can avoid setting up a plurality of linings 7, save the operation of being connected a plurality of linings 7 and the border portion 16 one-to-one of the flexible electrode piece 1 of a plurality of flexible massage units 10 to and save the operation of being connected to a plurality of linings 7 respectively to bottom 6 or surface course 5, thereby can improve production efficiency, reduce cost simplifies the structure. Also, since the liner 7 is simultaneously connected to the plurality of flexible massage units 10, the stability of the relative positions of the plurality of flexible massage units 10 can be improved.

In some specific examples of the present invention, as shown in fig. 1 and 2, the electrical stimulation massage apparatus 1000 is a waist massage apparatus, the flexible base 200 is a belt body, the belt body is flexible and deformable and includes a mounting portion 201 and two extending portions 202, the two extending portions 202 are located on two sides of the mounting portion 201 along a length direction of the belt body, the flexible massage assembly 100 is disposed on the mounting portion 201, and each flexible electrode sheet 1 can be correspondingly flexibly deformed along with the flexible deformation of a corresponding portion of the mounting portion 201. For example, when wearing, can correspond the waist middle and back portion with installation department 201 and set up, extend two extension 202 around the waist forward, at waist front side lock, for example can realize the lock through fixed hasp, fine hair face magic subsides 400 (as shown in fig. 27) etc. to realize wearing of waistband body, thereby flexible electrode piece 1 takes place the flexible deformation along with the deformation of installation department 201 and laminates with the waist respectively, realizes massage effect effectively.

In addition, in some specific examples, with reference to fig. 1 and 2, the lining 7 may be disposed only opposite to the mounting portion 201, so that the area of the lining 7 is not too large on the premise that the plurality of flexible electrode sheets 1 are mounted, thereby improving the flexible deformation of the lining 7, which affects the extension portion 202, and reducing the cost and the weight of the belt body.

Next, referring to fig. 23 to 27, an assembling process of the waist massage apparatus according to an embodiment of the present invention will be described.

Step one, as shown in fig. 23, the heat generating film 30 is adhesively mounted on the front side of the underlayer 7 through the adhesive layer 8 (see fig. 21), so as to obtain a first assembly.

Step two, as shown in fig. 24, the plurality of flexible heat conducting pads 2 are respectively and correspondingly embedded into the mounting cavities 14 of the plurality of flexible electrode sheets 1, so as to obtain a plurality of second assemblies, and the sequence of the step two and the sequence of the step one can be interchanged.

And step three, as shown in fig. 25, the plurality of second components are made to approach the first components, the flexible heat conducting pads 2 are attached to the corresponding branch film portions 32 of the heating film 30, and the edge portions 16 of the flexible electrode sheets 1 are attached to the lining 7, so that a third component is obtained, namely the third component comprises the flexible massage component 100 and the lining 7.

Step four, as shown in fig. 26, the third component is disposed on the back side of the surface layer 5, the lining layer 7 is pressed on the surface layer 5, and if hot-pressing connection is performed by using hot melt adhesive, the electrode portion 11 of the flexible electrode sheet 1 is correspondingly exposed from the avoiding hole 51 of the surface layer 5, so as to obtain the fourth component.

Step five, as shown in fig. 27, the fourth component is arranged on the front side of the bottom layer 6, the surface layer 5 and the bottom layer 6 are pressed, and the lining layer 7 and the bottom layer 6 are not pressed and can be separated, or can be adhered by cold glue, so that the pressing print generated on the surface is improved.

Other configurations, such as the electric control device 300, and the like, and operations of the electric stimulation massager 1000 according to the embodiment of the present invention are known to those of ordinary skill in the art and will not be described in detail herein.

In view of the above technical problems, the applicant has found that if the flexible massage assembly is well attached to a human body, a sponge may be filled in the flexible electrode sheet, so that the flexible electrode sheet has a good resilience performance to generate a sufficient pre-pressure when being attached to the human body, however, the sponge disposed between the flexible electrode sheet and the heating member may greatly affect the heat conduction from the flexible heating sheet to the flexible electrode sheet, and if the flexible heating sheet is disposed between the flexible electrode sheet and the sponge, the flexibility of the flexible electrode sheet may be affected, and the attachment of the flexible electrode sheet may be affected. Therefore, the applicant creatively thinks that a flexible heat conducting pad capable of conducting heat and providing elasticity can be arranged between the flexible electrode plate and the flexible heating plate, so that the problems of two aspects of fitting and heat transfer are effectively solved, and the flexible massage component can well realize both the electric stimulation massage function and the hot compress massage function.

In the description of the present invention, it is to be understood that the terms "first", "second" and the like are used for descriptive purposes only and are not to be construed as indicating or implying relative importance or implying any number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include one or more of that feature. In the description of the present invention, "a plurality" means two or more unless specifically defined otherwise.

In the present invention, unless otherwise expressly stated or limited, the terms "mounted," "connected," "secured," and the like are to be construed broadly and can, for example, be directly connected or indirectly connected through intervening media, and can be internal to or interactive with respect to two elements. The specific meanings of the above terms in the present invention can be understood by those skilled in the art according to specific situations. In the present invention, unless otherwise expressly stated or limited, the first feature "on" or "under" the second feature may be directly contacting the first and second features or indirectly contacting the first and second features through an intermediate.

In the description herein, references to the description of the term "one embodiment," "some embodiments," "an example," "a specific example," or "some examples," etc., mean that a particular feature, structure, material, or characteristic described in connection with the embodiment or example is included in at least one embodiment or example of the utility model. In this specification, the schematic representations of the terms used above are not necessarily intended to refer to the same embodiment or example. Furthermore, the particular features, structures, materials, or characteristics described may be combined in any suitable manner in any one or more embodiments or examples. Furthermore, various embodiments or examples and features of different embodiments or examples described in this specification can be combined and combined by one skilled in the art without contradiction.

While embodiments of the utility model have been shown and described, it will be understood by those of ordinary skill in the art that: various changes, modifications, substitutions and alterations can be made to the embodiments without departing from the principles and spirit of the utility model, the scope of which is defined by the claims and their equivalents.

Claims

1. A flexible massage assembly (100) for an electro-stimulation massage apparatus (1000), the electro-stimulation massage apparatus (1000) comprising a flexible substrate (200), the flexible substrate (200) having a front side and a back side on either side of a thickness thereof, respectively, the flexible massage assembly (100) comprising: the flexible heat-conducting electrode plate comprises a plurality of flexible electrode plates (1), a plurality of flexible heat-conducting pads (2) and a flexible heat-generating component (301), wherein the flexible electrode plates (1) are arranged at intervals, the flexible heat-conducting pads (2) are arranged at intervals, the flexible electrode plates (1) and the flexible heat-conducting pads (2) are arranged in a one-to-one correspondence manner,

the flexible massage assembly (100) is arranged on the flexible base body (200) in a stacked mode, at least part of the flexible electrode sheet (1) is located on the front side of the flexible heat-generating component (301), the flexible heat-conducting pad (2) is clamped between the flexible electrode sheet (1) and the flexible heat-generating component (301), the thickness of the flexible heat-conducting pad (2) can be elastically changed in the thickness direction of the flexible base body (200), the flexible heat-conducting pad (2) can conduct heat of the flexible heat-generating component (301) to the flexible electrode sheet (1), the flexible massage assembly (100) can be correspondingly flexibly deformed along with flexible deformation of the corresponding portion of the flexible base body (200), and the flexible deformation capacity of the flexible heat-generating component (301) is weaker than that of the flexible electrode sheet (1).

2. The flexible massage assembly (100) for the electric stimulation massage machine (1000) according to claim 1, wherein the flexible heat generating component (301) comprises a plurality of flexible heat generating sheets (3) arranged at intervals, a plurality of flexible electrode sheets (1), a plurality of flexible heat conducting pads (2) and a plurality of flexible heat generating sheets (3) are arranged in a one-to-one correspondence to correspond to a plurality of flexible massage units (10) formed at intervals.

3. The flexible massage assembly (100) for an electro-stimulation massage apparatus (1000) according to claim 2, wherein the flexible massage assembly (100) comprises a heat generating film (30), the heat generating film (30) comprising: the heating device comprises a connecting film part (31) and a plurality of branch film parts (32), wherein the branch film parts (32) are arranged at intervals, each branch film part (32) is connected with the connecting film part (31), and the branch film parts (32) are formed into a plurality of flexible heating sheets (3) in a one-to-one correspondence mode.

4. The flexible massage assembly (100) for an electro-stimulation massager (1000) according to claim 3, wherein the plurality of the branch membrane portions (32) are respectively connected to both sides of the connection membrane portion (31) in a first direction (F1), the plurality of the branch membrane portions (32) on the same side of the connection membrane portion (31) are spaced apart in a second direction (F2), and the first direction (F1) intersects the second direction (F2).

5. The flexible massage assembly (100) for the electric stimulation massage apparatus (1000) according to claim 3, wherein the heat generating film (30) further comprises: extend membrane portion (33), the one end of extending membrane portion (33) with connect membrane portion (31) and link to each other, the other end that extends membrane portion (33) is export electrical terminal (331), and is a plurality of flexible electrode piece (1) all is connected to heating film (30), so that it is a plurality of branch membrane portion (32) and a plurality of flexible electrode piece (1) all passes through export electrical terminal (331) is connected with external circuit electricity.

6. The flexible massage assembly (100) for an electro-stimulation massage apparatus (1000) of claim 5,

the branch membrane part (32) is provided with a first electric connection part (321), the flexible electrode sheet (1) comprises a first electric connection section (12), and the first electric connection section (12) extends to a position between the first electric connection part (321) and the flexible heat conduction pad (2) and is electrically connected with the first electric connection part (321); or

The connecting film portion (31) is provided with a second electric connecting portion (311), the flexible electrode sheet (1) comprises a second electric connecting section (13), and the second electric connecting section (13) is electrically connected with the second electric connecting portion (311) on the peripheral side of the flexible heat conducting pad (2).

7. The flexible massage assembly (100) for an electro-stimulation massage machine (1000) according to claim 2, wherein the flexible heat generating sheet (3) comprises a heat generating portion (322), the area of the heat generating portion (322) being smaller than or equal to the area of the flexible thermal pad (2).

8. The flexible massage assembly (100) for an electrical stimulation massager (1000) according to claim 7, wherein when the area of the heat generating portion (322) is smaller than the area of the flexible thermal pad (2), the flexible heat generating sheet (3) further comprises a first electrical connection portion (321), the area of the first electrical connection portion (321) is smaller than the area of the heat generating portion (322), the flexible electrode sheet (1) comprises a first electrical connection section (12), and the first electrical connection section (12) extends between the first electrical connection portion (321) and the flexible thermal pad (2) and is electrically connected with the first electrical connection portion (321).

9. The flexible massage assembly (100) for the electro-stimulation massage machine (1000) according to claim 2, wherein the shape of the flexible heat generating sheet (3) matches the shape of the flexible thermal pad (2).

10. The flexible massage assembly (100) for an electro-stimulation massage machine (1000) according to claim 1, wherein a surface of a side of the flexible thermal pad (2) facing the flexible heat generating component (301) is in indirect contact with the flexible heat generating component (301) through a thermal conductive glue (4).

11. The flexible massage assembly (100) for an electro-stimulation massage machine (1000) according to claim 1, wherein the flexible heat-generating component (301) has an output electrical terminal (331), the flexible electrode sheet (1) is electrically connected to the flexible heat-generating component (301), and both the flexible heat-generating component (301) and the flexible electrode sheet (1) are electrically connected to an external circuit through the output electrical terminal (331).

12. The flexible massage assembly (100) for an electro-stimulation massage machine (1000) according to claim 1, wherein the flexible electrode sheet (1) defines a mounting cavity (14), the flexible heat conducting pad (2) is received in the mounting cavity (14), a side of the mounting cavity (14) facing the flexible heat generating component (301) is opened to form a mounting opening (15), and the flexible heat conducting pad (2) is adapted to be loaded into the mounting cavity (14) through the mounting opening (15).

13. The flexible massage assembly (100) for an electro-stimulation massage machine (1000) according to claim 12, wherein a side surface of the flexible thermal pad (2) facing the flexible heat generating component (301) is located outside the mounting port (15) and in direct or indirect contact with the flexible heat generating component (301).

14. The flexible massage assembly (100) for an electro-stimulation massager (1000) according to claim 12, wherein the flexible electrode sheet (1) comprises: the electrode part (11) defines the mounting cavity (14), and the edge part (16) is located outside the mounting cavity (14) and extends along the circumferential direction of the mounting opening (15), and the edge part (16) is suitable for connecting the flexible electrode sheet (1) to the flexible base body (200).

15. The flexible massage assembly (100) for an electro-stimulation massager (1000) according to claim 14, wherein the flexible electrode sheet (1) further comprises: and an electrical connection section connected to the edge portion (16), wherein the electrical connection section is a first electrical connection section (12) and extends between the flexible heat-conducting mat (2) and the flexible heat-generating component (301) and is electrically connected to the flexible heat-generating component (301), or the electrical connection section is a second electrical connection section (13) and extends to the peripheral side of the flexible heat-conducting mat (2) and is electrically connected to the flexible heat-generating component (301).

16. The flexible massage assembly (100) for an electro-stimulation massage apparatus (1000) of claim 12, wherein the mounting cavities (14) each have a shape matching the shape of the flexible thermal pad (2).

17. The flexible massage assembly (100) for an electro-stimulation massage apparatus (1000) of claim 16, wherein the mounting cavity (14) comprises a cavity circumferential surface (142) disposed around a circumferential side of the flexible thermal pad (2), at least a portion of the cavity circumferential surface (142) being clearance-fitted with a circumferential surface (21) of the flexible thermal pad (2).

18. The flexible massage assembly (100) for an electro-stimulation massage apparatus (1000) according to claim 17, wherein the flexible electrode sheet (1) is stamped and drawn to form the mounting cavity (14), at least part of the cavity peripheral surface (142) being arranged obliquely to the peripheral surface (21) of the flexible thermal pad (2).

19. The flexible massage assembly (100) for an electro-stimulation massage apparatus (1000) according to claim 12, wherein the mounting cavity (14) comprises a cavity top surface (141) provided at a side of the flexible heat conducting mat (2) facing away from the flexible heat generating component (301), the cavity top surface (141) being free of connection to the flexible heat conducting mat (2).

20. The flexible massage assembly (100) for an electro-stimulation massage apparatus (1000) of claim 12,

the mounting cavity (14) comprises a cavity peripheral surface (142) arranged around the peripheral side of the flexible heat-conducting pad (2), and the cavity peripheral surface (142) is bonded with the peripheral surface (21) of the flexible heat-conducting pad (2) and/or

The mounting cavity (14) comprises a cavity top surface (141) arranged on one side of the flexible heat conducting pad (2) departing from the flexible heat generating component (301), and the cavity top surface (141) is bonded with the flexible heat conducting pad (2).

21. The flexible massage assembly (100) for an electro-stimulation massager (1000) according to claim 1, wherein the flexible electrode sheet (1) is connected to the flexible thermal pad (2), the flexible thermal pad (2) is connected to the flexible heat generating component (301), and the flexible heat generating component (301) is connected to the flexible base (200).

22. The flexible massage assembly (100) for an electrical stimulation massager (1000) according to claim 1, wherein the flexible heat conduction pad (2) comprises a resilient material layer (22) such that the thickness of the flexible heat conduction pad (2) is elastically variable, the flexible heat conduction pad (2) further comprises a heat conduction layer (23), the heat conduction layer (23) comprises two surface covering portions (231) and a side covering portion (232), the two surface covering portions (231) are respectively covered on two sides of the thickness of the resilient material layer (22), the side covering portion (232) connects the two surface covering portions (231) and covers the side surface of the resilient material layer (22), and the heat of the flexible heat generating component (301) is conducted to the flexible electrode sheet (1) through the heat conduction layer (23).

23. The flexible massage assembly (100) for an electro-stimulation massager (1000) of claim 22, wherein the thermally conductive layer (23) comprises: the elastic resilience material layer comprises an outer film layer (233), an inner film layer (234) and a heat conduction powder layer (235) arranged between the inner film layer (234) and the outer film layer (233), wherein the outer film layer (233) is arranged on one side, far away from the resilience material layer (22), of the inner film layer (234), and the outer film layer (233) is an insulating layer.

24. The flexible massage assembly (100) for an electro-stimulation massage apparatus (1000) according to claim 22, wherein the resilient material layer (22) comprises two length sides oppositely arranged in a width direction of the flexible thermal pad (2), and the side covering portion (232) covers at least one of the two length sides of the resilient material layer (22).

25. A flexible massage assembly (100) for an electro-stimulation massager (1000) according to any of the claims 1-24, wherein the flexible massage assembly (100) comprises a plurality of massage groups (20) arranged at intervals along a first direction (F1), each massage group (20) comprising a plurality of the flexible electrode pads (1) arranged at intervals along a second direction (F2), the first direction (F1) intersecting the second direction (F2) and being perpendicular to a thickness direction (F3) of the flexible thermal pad (2).

26. The flexible massage assembly (100) for an electro-stimulation massage apparatus (1000) according to claim 25, wherein the length direction (F4) of each flexible electrode sheet (1) is rotatable at least a first angle (a1) parallel to the first direction (F1), the length direction (F4) of each flexible electrode sheet (1) is rotatable at least a second angle (a2) parallel to the second direction (F2), the first angle (a1) being smaller than the second angle (a2), the length directions (F4) of the plurality of flexible electrode sheets (1) within the same massage group (20) are all parallel, the massage group (20) is two and axisymmetric, and each flexible electrode sheet (1) is identical.

27. An electrical stimulation massager (1000), comprising: a flexible substrate (200) and a flexible massage assembly (100) for an electro-stimulation massage apparatus (1000) according to any one of claims 1-26, the flexible massage assembly (100) being provided to the flexible substrate (200).

28. An electro-stimulation massager (1000) as claimed in claim 27, wherein the flexible substrate (200) comprises a mounting layer (91) and a protective layer (92) along a thickness direction (F3) of the flexible substrate (200), at least a part of the flexible massage assembly (100) is located on a front side of the mounting layer (91), the flexible massage assembly (100) is mounted on the mounting layer (91), and the protective layer (92) is shielded on the mounting layer (91) and a back side of the flexible massage assembly (100).

29. An electro-stimulation massager (1000) as claimed in claim 28, wherein, in the thickness direction (F3) of the flexible substrate (200), the flexible substrate (200) comprises a face layer (5) and a bottom layer (6) located on the back side of the face layer (5), and a lining layer (7) arranged between the face layer (5) and the bottom layer (6), at least part of the flexible massage assembly (100) is located between the face layer (5) and the lining layer (7), the lining layer (7) is the mounting layer (91), the bottom layer (6) is the protective layer (92), and the lining layer (7) is connected to the face layer (5) and is not connected to the bottom layer (6).

30. The electrical stimulation massager (1000) according to claim 29, wherein the surface layer (5) has an avoiding hole (51), and the flexible electrode sheet (1) is disposed corresponding to the avoiding hole (51) so as to be exposed from the avoiding hole (51) or protrude to a front side of the surface layer (5).

31. An electro-stimulation massager (1000) as claimed in claim 28, wherein, in the thickness direction (F3) of the flexible substrate (200), the flexible substrate (200) comprises a face layer (5) and a bottom layer (6) located on the back side of the face layer (5), at least a part of the flexible massage assembly (100) is located on the front side of the face layer (5), the face layer (5) is the mounting layer (91), and the bottom layer (6) is the protective layer (92).

32. Electrical stimulation massager (1000) according to any one of claims 28 to 31, wherein the flexible base (200) further comprises an augmentation layer (93), the augmentation layer (93) being arranged opposite to the flexible massage assembly (100) and on the back side of the flexible massage assembly (100), wherein the back side of the protective layer (92) is provided with at least one of the augmentation layers (93) and/or wherein at least one of the augmentation layers (93) is arranged between the protective layer (92) and the mounting layer (91).

33. The electrical stimulation massager (1000) according to any one of claims 28 to 31, wherein the protective layer (92) comprises a first protective portion (921) and a second protective portion (922), the first protective portion (921) is arranged opposite to the flexible massage assembly (100), the second protective portion (922) is arranged in a staggered manner with respect to the flexible massage assembly (100), wherein the first protective portion (921) and the second protective portion (922) are made of different materials and are spliced, or wherein the thickness of the first protective portion (921) is greater than that of the second protective portion (922).

34. An electro-stimulation massager (1000) according to any one of claims 28 to 31, wherein the flexible electrode sheet (1) and the flexible heat generating component (301) are respectively connected to the mounting layer (91), and the flexible heat conducting pad (2) is connected to the flexible heat generating component (301); alternatively, the first and second electrodes may be,

the flexible heat-generating component (301) is connected to the mounting layer (91), the flexible heat-conducting pad (2) is connected to the flexible heat-generating component (301), and the flexible electrode sheet (1) is connected to the flexible heat-conducting pad (2).

35. An electro-stimulation massager (1000) according to any one of claims 28 to 31, wherein the protective layer (92) covers a plurality of the flexible electrode sheets (1) simultaneously.

36. The electrical stimulation massager (1000) as claimed in claim 27, wherein the electrical stimulation massager (1000) is a waist massager, the flexible base (200) is a belt body, the belt body is flexibly deformable and comprises an installation part (201) and two extension parts (202), the two extension parts (202) are located on two sides of the installation part (201) along the length direction of the belt body, the flexible massage component (100) is arranged on the installation part (201), and each flexible electrode sheet (1) can be flexibly deformed correspondingly along with the flexible deformation of the corresponding part of the installation part (201).