CN117653902A - Electronic application film and electronic application film system - Google Patents

Abstract

The present disclosure describes an electronic application membrane and an electronic application membrane system, the electronic application membrane comprising a conductive layer positionable in a first application area, a first electrode set, a liquid carrier layer, a membrane liquid, and a second electrode set positionable in a second application area, the first application area and the second application area being located on a target object, and the first application area and the second application area being different, the conductive layer being configured to conduct current from the first electrode set to the liquid carrier layer, the conductive layer having a conductive pattern of connectivity, the electrodes in the first electrode set being the same polarity, the liquid carrier layer being configured to adsorb the membrane liquid, the membrane liquid being configured to wet the target object, the electrodes in the second electrode set being opposite to the electrodes in the first electrode set. Thus, the use safety of the electronic application film can be improved.

Description

Electronic application film and electronic application film system

Technical field

The present disclosure relates to the field of medical beauty instruments, and specifically to an electronic application film and an electronic application film system.

Background technique

Facial masks are common beauty products. In recent years, in order to increase the beauty effect of facial masks, an electronic mask has appeared. Through microcurrent, the electronic mask can open the skin's keratinocyte gaps and expand the skin's absorption channels, allowing the nutrients in the mask fluid to penetrate deeper into the skin, providing deep cleansing and moisturizing for the skin. At the same time, through the action of microcurrent, the electronic mask can stimulate the skin to open skin channels, so that the mask liquid can more fully nourish the skin, and can also stimulate skin contraction to achieve the effect of tightening the skin.

Under normal circumstances, the electronic mask will be equipped with both positive and negative electrodes. When using an electronic mask, the electronic mask is usually applied to the surface of the facial skin, and the positive electrode and the negative electrode form a current loop on the face. The positive and negative electrodes can emit microcurrent pulses, which pass through the conductive layer in the electronic mask to form microcurrents on the skin surface, thereby caring for the skin through the microcurrents.

However, since the membrane liquid can conduct electricity, the positive electrode and the negative electrode form a current loop on the face, which can easily cause the current to flow directly to the skin through the membrane liquid in addition to flowing through the conductive layer. In addition, if the positive electrode and the negative electrode are placed on the electronic mask at the same time, a short circuit will easily occur. The short circuit will cause the current to suddenly increase, thus damaging the human facial skin.

Contents of the invention

The present disclosure is proposed in view of the above-mentioned current state of the art, and aims to provide an electronic application film and an electronic application film system that can improve the safety of use of the electronic application film.

To this end, a first aspect of the present disclosure provides an electronic application film, including a conductive layer that can be placed in a first application area, a first electrode group, a liquid carrier layer, a film liquid, and a conductive layer that can be placed in a second application area. the second electrode group, the first application area and the second application area are located on the target object, and the first application area and the second application area are different, and the conductive layer is configured to The liquid-carrying layer conducts current from the first electrode group, the conductive layer has a connected conductive pattern, the electrodes in the first electrode group have the same polarity, and the liquid-carrying layer is configured to adsorb the The membrane liquid is configured to wet the target object, and the electrodes in the second electrode group have opposite polarities to the electrodes in the first electrode group.

In the first aspect of the present disclosure, the first electrode group can be placed in the first application area, and the second electrode group can be placed in the second application area, and the first application area and the second application area are different, and the first electrode group can be placed in the second application area. The electrodes in the electrode group have the same polarity, and the electrodes in the second electrode group have opposite polarity to the electrodes in the first electrode group. In this case, a current loop can be formed on the target object, and the breakdown voltage between different application areas of the target object can also be increased (that is, the resistance or resistance between different application areas of the target object can be increased). Increasing the target object's tolerance to current) can reduce the risk of short circuits in the electronic application film, thereby improving the safety of the electronic application film.

In addition, in the electronic application film related to the first aspect of the present disclosure, optionally, it also includes a surface layer, the surface layer is disposed on a side of the liquid carrier layer away from the target object, and the surface layer is waterproof Breathable membrane. In this case, the surface layer is disposed on the side of the liquid carrier layer away from the target object, which can reduce the risk of electric shock caused by the target object directly touching the electronic application film, and can further improve the safety of the electronic application film. In addition, the surface layer is a waterproof and breathable film, which can reduce the evaporation of the film liquid and facilitate the breathing of the target's cells, thereby improving the target's comfort level when using the electronic application film.

In addition, in the electronic application film related to the first aspect of the present disclosure, optionally, the surface layer is thermally pressed to the liquid carrier layer. In this case, hot pressing is used to press the surface layer and the liquid carrier layer together, which can facilitate processing.

In addition, in the electronic application film related to the first aspect of the present disclosure, optionally, the peripheral portion of the surface layer and the liquid carrier layer are hot-pressed, and a layer is formed between the surface layer and the liquid carrier layer. A chamber containing the membrane fluid. In this case, it can be beneficial to increase the holding capacity of the electronic application film for the film liquid, which can be beneficial to improving the use effect of the electronic application film (for example, the moistening effect).

In addition, in the electronic application film according to the first aspect of the present disclosure, optionally, the first electrode group is provided on the surface layer. In this case, the electrodes do not directly contact the target object. On the one hand, it can reduce the stimulation of the target object by the current and improve the comfort of the target object when using the electronic application film. On the other hand, it can reduce the hazard of short circuit, thus further improving the electronic application. Safety of application film.

In addition, in the electronic application film related to the first aspect of the present disclosure, optionally, the first electrode group includes a plurality of electrodes, and the plurality of electrodes are evenly distributed on the surface layer. In this case, the distribution uniformity of the current conducted by the electrode can be improved, and the use effect of the electronic application film can be improved.

In addition, in the electronic application film related to the first aspect of the present disclosure, optionally, the first application area is the face, and the first electrode group includes a first electrode located on the upper side of the face, and a first electrode located on the upper side of the face. A second electrode on the left side of the face and a third electrode on the right side of the face. In this case, the current can be distributed on the parts of the face that need to be beautified, which can help meet the target subject's needs for the electronic application film.

In addition, in the electronic application film related to the first aspect of the present disclosure, optionally, the material of the conductive layer is any one of graphene, conductive hydrogel, and conductive fiber. In this case, the conductive performance of the conductive layer can be improved, and the conformity of the electronic application film to the application area can also be improved, thereby improving the comfort of the target subject using the electronic application film. In addition, when the material of the conductive layer is graphene, the thermal conductivity of the material can be improved, which can facilitate heat dissipation.

In addition, in the electronic application film related to the first aspect of the present disclosure, optionally, the conductive layer is disposed on the side of the liquid carrier layer away from the target object by printing. In this case, printing the conductive layer can facilitate processing. In addition, the conductive layer is disposed on a side of the liquid-carrying layer away from the target object. When the first electrode group is disposed on the surface layer and the surface layer is disposed on a side of the liquid-carrying layer away from the target object, first, the conductive layer can be close to the first electrode. group, which can help the conductive layer conduct the current from the electrodes in the first electrode group; secondly, it can further reduce the stimulation of the target object by the current, and improve the comfort of the target object using the electronic application film; thirdly, it can further reduce the The hazards of short circuit can further improve the safety of electronic application film.

A second aspect of the disclosure provides an electronic application film system, including the electronic application film related to the first aspect of the disclosure and a controller. The controller is configured to be electrically connected to the electronic application film. The controller It includes a power supply and wires. The wires include a first wire and a second wire. The first wire is connected to the electrode in the first electrode group of the electronic coating film. The second wire is connected to the electrode in the first electrode group of the electronic coating film. The electrodes in the second electrode set are connected. In this case, the controller can facilitate the control of the use of the electronic film.

According to the present disclosure, an electronic application film and an electronic application film system are provided, which can improve the use safety of the electronic application film.

Description of drawings

The present disclosure will now be explained in further detail only by way of example with reference to the accompanying drawings.

FIG. 1 is a schematic diagram illustrating an application scenario of an electronic adhesive film according to an example of the present disclosure.

FIG. 2 is a structural block diagram showing an electronic application film according to an example of the present disclosure.

3 is a schematic diagram showing a conductive layer in an electronic application film according to an example of the present disclosure.

4 is an exploded schematic diagram showing an electronic application film according to an example of the present disclosure.

5 is a schematic cross-sectional view showing an electronic application film according to an example of the present disclosure.

6 is a schematic front view showing an electronic application film according to an example of the present disclosure.

FIG. 7 is a schematic diagram showing an application scenario of the electronic application film system involved in the example of the present disclosure.

FIG. 8 is a structural block diagram showing an electronic film application system according to an example of the present disclosure.

FIG. 9 is a flow chart illustrating a manufacturing process of an electronic adhesive film according to an example of the present disclosure.

Detailed ways

Hereinafter, preferred embodiments of the present disclosure will be described in detail with reference to the drawings. In the following description, the same components are assigned the same reference numerals, and repeated descriptions are omitted. In addition, the drawings are only schematic diagrams, and the dimensional ratios of components or the shapes of components may be different from actual ones.

It should be noted that the terms "comprising" and "having" and any variations thereof in this disclosure, such as a series of steps or units of process, method, system, product or equipment included or included, are not necessarily limited to those explicitly listed. Those steps or elements may be included or have other steps or elements not expressly listed or inherent to such processes, methods, products or apparatuses.

The present disclosure provides an electronic application film that can be applied to the skin surface of a target object to care for the skin of the target object. In some examples, the target subject's skin may be facial skin. In other examples, the skin of the target object can also be any skin on other body surfaces.

In some examples, the electronic patch may include a first electrode set and a second electrode set. In some examples, the first electrode group can be placed in the first application area, and the second electrode group can be placed in the second application area. In some examples, the first application area and the second application area may be different. In some examples, the electrodes in the first electrode group may have the same polarity, and the electrodes in the second electrode group may have opposite polarities than the electrodes in the first electrode group. Through the electronic application film provided by the present disclosure, the use safety of the electronic application film can be improved.

The electronic application film involved in the present disclosure may also be called an electronic facial mask, an electrified application film, an electrified facial mask, or the like. The electronic application film related to the present disclosure can be applied to any application scenario that requires the application of electric current to the skin. In some examples, the electrical current applied to the skin may be a microcurrent. Microcurrent can stimulate skin cells to increase vitality and promote cell metabolism and regeneration.

In some examples, the microcurrent may range in size from 10 microamps to 1000 microamps. For example, the size of the microcurrent can be 10 microamps, 20 microamps, 30 microamps, 40 microamps, 50 microamps, 100 microamps, 150 microamps, 200 microamps, 250 microamps, 300 microamps, 350 microamps Ampere, 400 microampere, 450 microampere, 500 microampere, 550 microampere, 600 microampere, 700 microampere, 800 microampere, 900 microampere or 1000 microampere, etc.

The electronic application film system involved in the present disclosure may also be called an electronic mask system, an electronic mask and its controller system, an energized application film system or an energized facial mask, etc.

The target object to which this disclosure relates may refer to a human body or an animal body.

Hereinafter, the electronic application film 100 related to the present disclosure will be described in detail with reference to the accompanying drawings.

FIG. 1 is a schematic diagram showing an application scenario of the electronic application film 100 involved in the example of the present disclosure.

In some examples, the electronic application film 100 involved in the present disclosure can be applied in the scenario as shown in FIG. 1 . Referring to FIG. 1 , in some examples, a target subject 200 may apply an electronic application film 100 to a part of the body. For example, the body part may be the face, chest, waist, abdomen, back, hands or legs, etc. In some examples, since microcurrent can stimulate skin cells to increase vitality, the target subject 200 can use the electronic application film 100 to perform facial beautification. However, the present disclosure is not limited thereto. In some examples, the target subject 200 can use the electronic application film 100 to moisten other parts of the body except the face.

In some examples, electronic application film 100 may have openings. For example, when the first application area is the face, the electronic application film 100 may have a nose opening, a mouth opening, and an eye opening.

Referring to FIG. 1 , in some examples, the electronic application film 100 may include a first electrode group 120 that can be placed in a first application area and a second electrode group 150 that can be placed in a second application area. In some examples, the electrodes in the second electrode group 150 and the electrodes in the first electrode group 120 may have opposite polarities. In this case, through the two electrode groups, the electronic application film 100 can emit current, and the current can form a loop on the target object 200 .

FIG. 2 is a structural block diagram showing the electronic application film 100 according to an example of the present disclosure.

Referring to FIG. 2 , in some examples, the electronic application film 100 may include a conductive layer 110 , a first electrode group 120 , a carrier liquid layer 130 , a membrane liquid 140 , and a second electrode group 150 . The conductive layer 110, the first electrode group 120, the liquid carrier layer 130 and the film liquid 140 may be placed in the first application area. The second electrode set 150 may be placed in the second application area.

In some examples, the first application area and the second application area may be located on the target object 200, and the first application area and the second application area may be different. In this case, the breakdown voltage between different application areas of the target object 200 can be increased (ie, the resistance between different application areas of the target object 200 can be increased or the resistance of the target object 200 to current can be increased. Tolerance), the risk of short circuit in the electronic application film 100 can be reduced, thereby improving the use safety of the electronic application film 100 .

In some examples, the first application area may be a body part where the electronic application film 100 needs to be used, such as the face. In some examples, the second application area may be an area on the target object 200 other than the first application area. That is, the second application area may be a body part other than the part where the electronic application film 100 needs to be used. For example, when the first application area is the face, the second application area may be the hands, abdomen or legs.

In some examples, conductive layer 110 may be placed in the first application area. Thereby, the conductive layer 110 can conduct current to the first application area.

FIG. 3 is a schematic diagram showing the conductive layer 110 in the electronic application film 100 according to an example of the present disclosure.

In some examples, conductive layer 110 may be configured to conduct current from first electrode set 120 to carrier liquid layer 130 . Referring to FIG. 3 , in some examples, conductive layer 110 may have connected conductive patterns. The conductive pattern can conduct electricity and form a current path. Thereby, the conductive layer 110 can conduct electric current. In some examples, since the membrane liquid 140 can conduct electricity, the carrier liquid layer 130 can adsorb the membrane liquid 140, and the current can be conducted from the first electrode group 120 to the conductive layer 110, and from the conductive layer 110 to the carrier liquid layer 130, through the membrane liquid. 140 is conducted from the carrier layer 130 to the first application area of the target object 200 .

In some examples, the conductive pattern may include at least one of a regular polygonal pattern and an irregular pattern. In this case, when the conductive pattern includes a regular polygonal pattern, current can be caused to flow uniformly. In addition, when the conductive pattern includes an irregular pattern (for example, a flower pattern), the electronic application film 100 can be made beautiful.

In some examples, the polygonal pattern may include at least one of a quadrilateral pattern, a pentagonal pattern, and a hexagonal pattern. In some examples, the hexagonal pattern may include a regular hexagonal pattern, also known as a honeycomb pattern. In some examples, the irregular pattern may include at least one of a flower pattern and a snowflake pattern.

In some examples, the first electrode group 120 may be disposed on the conductive layer 110 . Therefore, the conductive layer 110 can facilitate the conduction of current from the first electrode group 120 .

FIG. 4 is an exploded schematic diagram showing the electronic application film 100 according to an example of the present disclosure. FIG. 5 is a schematic cross-sectional view showing the electronic application film 100 according to an example of the present disclosure.

Referring to FIGS. 4 and 5 , in some examples, the conductive layer 110 may be disposed on the liquid carrier layer 130 . For example, conductive layer 110 may be coated on liquid carrier layer 130. In this case, the structure of the electronic application film 100 can be simplified and processing can be facilitated.

In some examples, the conductive layer 110 may be disposed on the liquid carrier layer 130 by printing. In some examples, the conductive layer 110 may be disposed on a side of the liquid carrier layer 130 away from the target object 200 by printing. In this case, printing the conductive layer 110 is used to facilitate processing. In addition, the conductive layer 110 is disposed on the side of the liquid-carrying layer 130 away from the target object 200. On the one hand, it can reduce the stimulation of the target object 200 by the current, improve the comfort of the target object 200 using the electronic application film 100, and on the other hand, it can reduce short circuits. hazards, thereby further improving the safety of the electronic application film 100.

In some examples, printing methods may include screen printing, dry film printing, liquid photosensitive printing, etc. Screen printing processes the required circuit patterns through processes such as light exposure and corrosion etching. In dry film printing, a dry film is covered on the liquid carrier layer 130, and a laser printer or other equipment is used to process the pattern on the dry film to remove unnecessary parts, and finally the manufactured circuit pattern is obtained. Liquid photosensitive printing coats the photosensitizer on the liquid carrier layer 130 and then performs optical exposure processing to create cured and uncured parts. Finally, the manufactured circuit pattern is processed by etching and cleaning.

In some examples, the material of the conductive layer 110 may be any one of graphene, conductive hydrogel, and conductive fiber. In this case, the conductive performance of the conductive layer 110 can be improved, and the conformity of the electronic application film 100 to the application area can also be improved, thereby improving the comfort of the target object 200 using the electronic application film 100 . In addition, when the material of the conductive layer 110 is graphene, the thermal conductivity of the material can be improved, which can facilitate heat dissipation.

Graphene is a two-dimensional material composed of a single layer of carbon atoms arranged in a honeycomb lattice. In some examples, when the material of the conductive layer 110 is graphene, the conductive layer 110 can be disposed on the side of the liquid carrier layer 130 away from the target object 200 by printing. In this case, printing the conductive layer 110 made of graphene can further facilitate processing.

Conductive hydrogel is a gel material with electrically conductive properties, usually composed of a polymer network and water. In some examples, conductive layer 110 may be fabricated using conductive hydrogel using three-dimensional printing technology.

Conductive fiber is a fiber material with electrical conductivity. Conductive fibers may include metal nanowires and conductive polymer fibers. In some examples, conductive fibers may be blended into liquid carrier layer 130 .

Continuing to refer to FIGS. 4 and 5 , in some examples, the electronic application film 100 may also include a surface layer 160 . In some examples, the surface layer 160 may be disposed on a side of the liquid carrier layer 130 away from the target object 200 . In some examples, surface layer 160 may be a waterproof breathable film. The waterproof breathable membrane is a waterproof material with special properties. It has a microporous structure that can reduce moisture penetration and allow air to pass through. The waterproof breathable membrane can maintain good breathability while being waterproof.

In some examples, the surface layer 160 may be disposed on a side of the liquid carrier layer 130 away from the target object 200 and the surface layer 160 may be a waterproof and breathable film. In this case, the surface layer 160 is disposed on the side of the liquid carrier layer 130 away from the target object 200, which can reduce the risk of electric shock caused by the target object 200 directly touching the electronic application film 100, and can further improve the use of the electronic application film 100. safety. In addition, the surface layer 160 is a waterproof and breathable film, which can reduce the evaporation of the film liquid 140 and can also facilitate the breathing of cells of the target subject 200 , thereby improving the comfort of the target subject 200 using the electronic application film 100 .

In some examples, surface layer 160 may be made of a material with hydrophobic properties. In some examples, surface layer 160 may be made of a hygroscopic material. In some examples, the material of surface layer 160 may include at least one of nylon, polyurethane-coated nylon, polyester, or polyurethane elastic fiber.

In some examples, surface layer 160 may be laminated or bonded to liquid carrier layer 130 . In this case, the surface layer 160 and the liquid carrier layer 130 form an integral structure, which can improve the ease of use of the electronic application film 100 .

In some examples, surface layer 160 may be thermally pressed to liquid carrier layer 130 . That is, the surface layer 160 and the liquid carrier layer 130 can be pressed together by hot pressing. In this case, hot pressing is used to press the surface layer 160 and the liquid carrier layer 130 together, which can facilitate processing.

In some examples, the peripheral portion of surface layer 160 may be heat-compressed with liquid carrier layer 130 . In some examples, when the peripheral portion of the surface layer 160 and the liquid-carrying layer 130 are hot-pressed, a chamber containing the film liquid 140 may be formed between the surface layer 160 and the liquid-carrying layer 130 . In this case, the holding capacity of the electronic application film 100 for the film liquid 140 can be increased, thereby improving the use effect (eg, moistening effect) of the electronic application film 100 .

As described above, the electronic application film 100 may include the first electrode group 120 . The first electrode set 120 may be placed in the first application area.

Continuing to refer to FIGS. 4 and 5 , in some examples, the first electrode group 120 may be disposed on the surface layer 160 . In this case, the electrodes do not directly contact the target object 200. On the one hand, it can reduce the stimulation of the target object 200 by the current and improve the comfort of the target object 200 using the electronic application film 100. On the other hand, it can reduce the hazard of short circuit, thereby The use safety of the electronic application film 100 can be further improved.

In some examples, the first electrode group 120 may be disposed on the surface layer 160 , the surface layer 160 may be disposed on a side of the liquid carrier layer 130 away from the target object 200 , and the conductive layer 110 may be disposed on the liquid carrier layer 130 by printing. The side away from the target object 200. In this case, the conductive layer 110 is disposed on a side of the liquid-carrying layer 130 away from the target object 200 , the first electrode group 120 is disposed on the surface layer 160 and the surface layer 160 is disposed on a side of the liquid-carrying layer 130 away from the target object 200 When, firstly, the conductive layer 110 can be close to the first electrode group 120, which can facilitate the conductive layer 110 to conduct the current from the electrodes in the first electrode group 120; secondly, it can further reduce the stimulation of the target object 200 by the current, and can The comfort level of the target object 200 using the electronic application film 100 is improved; thirdly, the hazard of short circuit can be further reduced, thereby further improving the use safety of the electronic application film 100 .

In some examples, the polarities of the electrodes in the first electrode group 120 may be the same. In this case, compared with the case where the first electrode group 120 includes both the positive electrode and the negative electrode, the occurrence of short circuit can be reduced.

In some examples, electrodes in first electrode group 120 may contact conductive layer 110 . Therefore, the electrodes in the first electrode group 120 can transmit current to the conductive layer 110 .

In some examples, the electrodes in the first electrode group 120 may not contact the conductive layer 110 . In some examples, the electronic patch 100 may include a membrane fluid 140 that may include an electrolyte. In this case, the electrodes in the first electrode group 120 can transmit current to the conductive layer 110 through the membrane liquid 140 .

FIG. 6 is a schematic front view showing the electronic application film 100 according to an example of the present disclosure.

Referring to FIGS. 5 and 6 , in some examples, the first electrode group 120 may include a plurality of electrodes. A plurality of electrodes may be evenly distributed on the surface layer 160 . In this case, the distribution uniformity of the current conducted by the electrodes can be improved, and the use effect of the electronic adhesive film 100 can be improved.

In some examples, the number of electrodes included in the first electrode group 120 may be 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14 or 15 etc.

In some examples, the plurality of electrodes may be evenly distributed in an equilateral triangle arrangement. In some examples, the plurality of electrodes may be evenly distributed in a regular polygonal arrangement. For example, the arrangement of regular polygons can be a square arrangement, a regular pentagonal arrangement, a regular hexagonal arrangement, or others. Multiple electrodes can be located at the vertices of an equilateral triangle or a regular polygon respectively. In some examples, the plurality of electrodes may be evenly located on the sides of a regular triangle or regular polygon. In some examples, the plurality of electrodes may be evenly distributed in a spiral arrangement.

In some examples, the first application area may be the face. In some examples, the first electrode group 120 may include a first electrode located on the upper side of the face, a second electrode located on the left side of the face, and a third electrode located on the right side of the face. In this case, the current can be distributed on the parts of the face that need to be beautified, which can help meet the use requirements of the target subject 200 for the electronic application film 100 .

Referring to FIG. 6 , in some examples, when the first electrode group 120 is disposed on the surface layer 160 , the first electrode group 120 may include a first electrode located on the upper side of the face, a second electrode located on the left side of the face, and a second electrode located on the left side of the face. A third electrode on the right side of the face. In some examples, the first electrode, the second electrode and the third electrode may be evenly distributed on the surface layer 160 . For example, three electrodes may be located at three vertices of an equilateral triangle. In this case, the current can be evenly distributed in the parts of the face that need to be beautified, which can help further meet the target subject 200's use requirements for the electronic application film 100.

In some examples, the electronic patch 100 may include a second electrode set 150 . The second electrode set 150 may be placed in the second application area. In some examples, the first application area and the second application area may be different. As mentioned above, the polarities of the electrodes in the first electrode group 120 may be the same. In some examples, the electrodes in the second electrode group 150 and the electrodes in the first electrode group 120 may have opposite polarities. In this case, a current loop can be formed on the target object 200, and the breakdown voltage between different application areas of the target object 200 can also be increased (that is, the breakdown voltage between different application areas of the target object 200 can be increased). resistance or increase the current tolerance of the target object 200), which can reduce the risk of short circuit in the electronic application film 100, thereby improving the safety of use of the electronic application film 100.

In some examples, the number of electrodes included in the second electrode group 150 may be 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14 or 15 etc.

In some examples, the first application area may be the face, and the second application area may be an area on the target object 200 other than the first application area, such as a hand. That is, the first electrode group 120 can be placed on the face of the target subject 200, and the second electrode group 150 can be placed on areas other than the first application area, such as hands.

In some examples, electronic application film 100 may include liquid carrier layer 130 . In some examples, carrier fluid layer 130 may be configured to adsorb membrane fluid 140 . In some examples, the material of the liquid carrier layer 130 may include at least one of non-woven fabric, cotton, linen, and silk. In this case, the material of the liquid carrier layer 130 can be beneficial to adsorbing the film liquid 140 and can improve the comfort of the target object 200 using the electronic application film 100 .

In some examples, membrane fluid 140 may be configured to wet target object 200 . By emitting electric current (such as microcurrent), the electronic application film 100 can open the keratinocyte gaps in the skin and expand the skin absorption channels, allowing the components in the film liquid 140 to penetrate deeper into the skin. Thereby, the cosmetic effect of the electronic patch film 100 can be improved.

In some examples, the film fluid 140 may include at least one of water, a humectant, and functional ingredients. In this case, the film liquid 140 can moisturize the skin. In addition, when the film liquid 140 includes functional components, the cosmetic effect of the electronic application film 100 can be improved.

In some examples, a humectant may be used to maintain moisture in the skin of target subject 200 . In some examples, the humectant may include at least one of glycerol and trehalose.

In some examples, the functional ingredients may be used to repair the skin of the target subject 200 . In some examples, the functional ingredient may include at least one of peptides, collagen, essential oils, hydrosols, sodium hyaluronate, and vitamins.

In some examples, electronic application film 100 may include a power source. In some examples, the power source may be a battery. In some examples, a battery may be disposed on conductive layer 110 . In some examples, batteries may be disposed on surface layer 160 . In some examples, the battery may be electrically connected to the first electrode set 120 . In some examples, the battery may be electrically connected to the second electrode set 150 .

In some examples, the battery may be a flexible battery. In some examples, the flexible battery may be any one of a lithium battery, a paper battery, and a thin film battery. Paper batteries can be made of paper coated with a conductive material. The conductive material can be metal nanoparticles, carbon nanotubes or other conductive polymers. Thin film batteries can have one or more layers of thin film materials deposited on glass, plastic or other flexible substrates. The thin film material can be silicon (including amorphous silicon, microcrystalline silicon and nanocrystalline silicon), copper indium gallium selenide or cadmium telluride, etc.

The electronic film 100 described above may be used in the electronic film system 300 .

FIG. 7 is a schematic diagram showing an application scenario of the electronic application film system 300 involved in the example of the present disclosure. FIG. 8 is a structural block diagram showing an electronic application film system 300 according to an example of the present disclosure.

Referring to Figure 7, in some examples, target subject 200 may use electronic application film system 300. The electronic application film system 300 can control the electronic application film 100 to be powered on. Thus, the target object 200 can conveniently control the use of the electronic application film 100 .

Referring to Figures 7 and 8, in some examples, electronic film system 300 may include electronic film 100 and controller 310 as described above. In some examples, controller 310 may be configured to be electrically connected to electronic patch 100 . In some examples, controller 310 may include power source 311 and conductors. Wires may be used to electrically connect to the electronic film 100 . In this case, the use of the electronic application film 100 can be conveniently controlled through the controller 310 . In addition, the structure of the electronic adhesive film 100 can be simplified (for example, the power supply 311 does not need to be included), and the processing of the electronic adhesive film 100 can be facilitated.

In some examples, the conductors may include first conductors 312 and second conductors 313 . In some examples, the first wire 312 may be connected to the electrodes in the first electrode group 120 of the electronic patch 100 . In some examples, the second wire 313 may be connected to the electrodes in the second electrode group 150 of the electronic patch 100 .

In some examples, the current conducted by controller 310 to electronic application film 100 may have varying frequencies. In some examples, the law of current frequency changing with time can be preset. In this case, the applicability of the electronic application film 100 to application scenarios with different usage requirements can be improved.

In some examples, the number of first wires 312 may be the same as the number of electrodes in first electrode group 120 .

In some examples, the first wires 312 may be multiple, such as 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13 , 14 or 15 etc.

In some examples, the number of first wires 312 may be one.

In some examples, the number of first wires 312 may be greater than the number of electrodes in first electrode group 120 . Therefore, a spare first conductor 312 can be provided.

In some examples, one end of the first wire 312 connected to the electrode in the first electrode group 120 may have a first connection portion. The first connection can be electrically conductive. The first connection part may be used to connect the first wire 312 with the electrode in the first electrode group 120 . For example, the first connection part may be a pliers, a hook, a button matched with the electrode, or the like.

In some examples, the first wire 312 and the electrodes in the first electrode group 120 may be connected using a snap-on structure. In some examples, the first connection part may be a female button with holes, and the electrodes in the first electrode group 120 may be sub-buckles with protrusions. In this case, the firmness of the connection between the first lead wire 312 and the electrode in the first electrode group 120 can be improved.

In some examples, the second wires 313 may be multiple, such as 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13 , 14 or 15 etc.

In some examples, the number of second wires 313 may be one.

In some examples, the number of second conductive wires 313 may be the same as the number of electrodes in the second electrode group 150 .

In some examples, the number of second wires 313 may be greater than the number of electrodes in the second electrode group 150 . Therefore, a spare second conductor 313 can be provided.

In some examples, one end of the second wire 313 connected to the electrode in the second electrode group 150 may have a second connection portion. The second connection can be electrically conductive. The second connection part may be used to connect the second wire 313 with the electrode in the second electrode group 150 . For example, the second connection part may be a pliers, a hook, a button matched with the electrode, or the like.

In some examples, the second wire 313 and the electrodes in the second electrode group 150 may be connected using a snap-on structure. In some examples, the second connecting portion of the second wire 313 may be a female buckle with holes, and the electrodes in the second electrode group 150 may be a sub-buckle with protrusions. In this case, the connection strength between the second lead wire 313 and the electrode in the second electrode group 150 can be improved.

In some examples, the electrodes in the second electrode group 150 may be adsorbed on the skin of the target subject 200 . For example, the electrodes in the second electrode group 150 may be conductive electrode patches.

FIG. 9 is a flowchart illustrating a manufacturing process of the electronic application film 100 according to an example of the present disclosure.

Referring to FIG. 9 , in some examples, the manufacturing process of the electronic application film 100 may include step S100 : preparing a liquid carrier layer 130 and coating the conductive layer 110 on the liquid carrier layer 130 .

In some examples, the manufacturing process of the electronic application film 100 may include step S200: preparing the surface layer 160 and providing through holes in the surface layer 160.

In some examples, the manufacturing process of the electronic application film 100 may include step S300 of at least partially attaching and connecting the liquid carrier layer 130 and the surface layer 160 .

In some examples, the manufacturing process of the electronic application film 100 may include step S400: and preparing the first electrode group 120 and the second electrode group 150, and disposing the first electrode group 120 in the through hole of the surface layer 160.

The execution of the above steps of the present disclosure is not strictly limited. For example, in some examples, step S200 may be performed before step S100.

In some examples, in step S100 , the conductive layer 110 may be coated on at least one side of the liquid carrier layer 130 using a process of screen printing, engraving printing, or inkjet printing. In this case, since the equipment for screen printing, engraving printing or inkjet printing is relatively simple, the operational difficulty of coating the conductive layer 110 can be reduced.

In some examples, in step S100 , after the conductive layer 110 can be coated on at least one side of the liquid carrier layer 130 using a process of screen printing, engraving printing or inkjet printing, a temperature of 120 degrees Celsius to 130 degrees Celsius can be used. The liquid carrier layer 130 is dried at the drying temperature. Thus, the solidification process of the conductive layer 110 can be accelerated. In addition, the conductive layer 110 can be evenly distributed on the surface of the liquid carrier layer 130, thereby improving the printing quality.

In some examples, in step S200, surface layer 160 may be prepared. In some examples, surface layer 160 may be a waterproof breathable membrane. In some examples, the material of surface layer 160 may include at least one of nylon, polyurethane-coated nylon, polyester, or polyurethane elastic fiber.

In some examples, through holes may be provided in surface layer 160 . In some examples, at least one through hole may be provided in the surface layer 160 . For example, one, two or three through holes, etc. may be provided on the surface layer 160 . In some examples, a plurality of via holes may be evenly distributed in the surface layer 160 .

In some examples, in step S300, the liquid carrier layer 130 and the surface layer 160 may be attached and connected. Specifically, a bonding area can be provided on the peripheral portion of the surface layer 160, and then the bonding area of the surface layer 160 and the liquid carrier layer 130 can be bonded and connected. In some examples, the bonding area may be bonded to a side of the liquid carrier layer 130 coated with the conductive layer 110 .

In some examples, in step S400 , the first electrode group 120 and the second electrode group 150 may be prepared, and the first electrode group 120 is disposed in the through hole of the surface layer 160 .

The electronic application film 100 of the present disclosure includes a conductive layer 110 that can be placed in the first application area, a first electrode group 120, a liquid carrier layer 130, a film liquid 140, and a second application layer that can be placed in the second application area. The electrode group 150, the first application area and the second application area are located on the target object 200, and the first application area and the second application area are different, the conductive layer 110 is configured to conduct conduction from the first electrode group to the liquid carrier layer 130 120 current, the conductive layer 110 has a connected conductive pattern, the electrodes in the first electrode group 120 have the same polarity, the liquid carrier layer 130 is configured to adsorb the membrane liquid 140, the membrane liquid 140 is configured to wet the target object 200, and the second electrode The electrodes in group 150 are of opposite polarity than the electrodes in first electrode group 120 .

In the first aspect of the present disclosure, the first electrode group 120 can be placed in the first application area, the second electrode group 150 can be placed in the second application area, and the first application area and the second application area are different, The electrodes in the first electrode group 120 have the same polarity, and the electrodes in the second electrode group 150 have opposite polarities to the electrodes in the first electrode group 120 . In this case, a current loop can be formed on the target object 200, and the breakdown voltage between different application areas of the target object 200 can also be increased (that is, the breakdown voltage between different application areas of the target object 200 can be increased). resistance or increase the current tolerance of the target object 200), which can reduce the risk of short circuit in the electronic application film 100, thereby improving the safety of use of the electronic application film 100.

Although the present disclosure has been specifically described above in conjunction with the accompanying drawings and examples, it should be understood that the above description does not limit the present disclosure in any form. Those skilled in the art can make modifications and changes to the disclosure as necessary without departing from the essential spirit and scope of the disclosure, and these modifications and changes all fall within the scope of the disclosure.

Claims (10)

1. An electronic application film, characterized in that, It includes a conductive layer that can be placed in the first application area, a first electrode group, a liquid carrier layer, a film liquid, and a second electrode group that can be placed in the second application area. The first application area and the The second application area is located on the target object, and the first application area and the second application area are different, the conductive layer is configured to conduct current from the first electrode group to the liquid carrier layer, The conductive layer has a connected conductive pattern, the electrodes in the first electrode group have the same polarity, the liquid carrier layer is configured to adsorb the membrane liquid, the membrane liquid is configured to wet the target object, and the third The electrodes in the two electrode groups have opposite polarities to the electrodes in the first electrode group. 2. The electronic application film according to claim 1, characterized in that, It also includes a surface layer, the surface layer is arranged on the side of the liquid carrier layer away from the target object, and the surface layer is a waterproof and breathable film. 3. The electronic application film according to claim 2, characterized in that, The surface layer is hot pressed to the liquid carrier layer. 4. The electronic application film according to claim 3, characterized in that, The peripheral portion of the surface layer is hot-pressed with the liquid-carrying layer, and a chamber is formed between the surface layer and the liquid-carrying layer to accommodate the film liquid. 5. The electronic application film according to claim 2, characterized in that, The first electrode group is disposed on the surface layer. 6. The electronic application film according to claim 5, characterized in that, The first electrode group includes a plurality of electrodes, and the plurality of electrodes are evenly distributed on the surface layer. 7. The electronic application film according to claim 1, 5 or 6, characterized in that, The first application area is the face, and the first electrode group includes a first electrode located on the upper side of the face, a second electrode located on the left side of the face, and a third electrode located on the right side of the face. 8. The electronic application film according to claim 1, characterized in that, The conductive layer is made of any one of graphene, conductive hydrogel and conductive fiber. 9. The electronic application film according to claim 1, 5 or 8, characterized in that, The conductive layer is disposed on the side of the liquid carrier layer away from the target object by printing. 10. An electronic film application system, characterized by: Comprising an electronic application film and a controller as claimed in any one of claims 1 to 9, the controller is configured to be electrically connected to the electronic application film, the controller includes a power supply and a wire, the wire includes a first A wire and a second wire, the first wire is connected to the electrode in the first electrode group of the electronic dressing film, and the second wire is connected to the electrode in the second electrode group of the electronic dressing film.