RU192371U1 - Device for influencing reflexogenic zones of a human body - Google Patents

Abstract

A device for influencing the reflexogenic zones of the human body. The utility model relates to medicine, to physiotherapeutic devices intended for exposure to reflexogenic zones of the human body by reflex factors, can be used for therapeutic and preventive purposes in medical institutions and in domestic conditions. A device for influencing the reflexogenic zones of the human body contains a holder in the form of a clip with oppositely located spring-loaded jaws on which contact pads with means of reflex exposure are made, while means of reflex impact are made with the possibility of forming zones on the contact pads, each of which contains materials with different electrochemical potentials. The technical result is an increase in the effectiveness of physiotherapy due to the generation of galvanic microcurrents between the elements of the reflex effect on the contact area. 12 s.p. f-ly, 48 ill.

Description

The utility model relates to medicine, to physiotherapeutic devices intended for exposure to reflexogenic zones of the human body by reflex factors, can be used for therapeutic and preventive purposes in medical institutions and in domestic conditions.

It is widely known physiotherapeutic devices containing a holder made in the form of a clip, on the spring-loaded lips of which are made contact pads with elements of reflex action. The clip is mounted on the corresponding organ of the human body, for example, on the earlobe. Spring-loaded sponges press elements of reflex action to the surface of the organ, exerting a corresponding effect on reflexogenic zones.

So, it is known as an analogue, a therapeutic device (UK patent No. 2271062, IPC AH 39/04, publication date 04/06/1994), made in the form of a clip with two opposite contact pads on the lips of the clip, one of which is made with reflex protrusions, the other smooth. When the clip, the corresponding part of the auricle, is pinched, the reflex protrusions act on the reflexogenic zones of the auricle.

Common features of the analogue and the claimed solution are: a device for influencing the reflexogenic zones of the human body, containing a holder in the form of a clip with opposing spring-loaded jaws, on which contact pads with means of reflex exposure are made.

The physiotherapeutic effect of the device is expressed only in the mechanical effect of the reflex protrusions on the reflexogenic zone, which limits the effectiveness of physiotherapy.

It is also known as an analogue, a device for stimulating acupuncture points (USSR author's certificate No. 764686, IPC A61N 1/32, application filing date 06/28/1978), made in the form of a clip, on the lips of which electrodes (contact pads) made of metals are mounted with different electrochemical potentials. The device is equipped with an electric signal generator associated with the electrodes (pads), and a power source. A clip pinches the corresponding part of the auricle and acts on the corresponding reflexogenic zones. In passive mode, the electrodes (pads) are electrically connected to each other. In this case, galvanic microcurrents flowing through the selected portion of the auricle arise due to the difference in the electrochemical potentials of the electrodes. In the active exposure mode, the electrodes (contact pads) are connected to the generator of electrical signals in a sinusoidal, or sawtooth, or pulsed form, which affect the reflexogenic zones of the auricle.

Common features of the analogue and the claimed solution are: a device for influencing the reflexogenic zones of the human body, containing a holder in the form of a clip with opposing spring-loaded jaws, on which contact pads with reflex exposure means having different electrochemical potentials are made.

In the described device, galvanic microcurrents occur only between the contact pads located on opposite sides of the auricle. There are no galvanic microcurrents within the contact area, since there are no galvanic pairs within the contact area, which limits the effectiveness of physiotherapy.

As a prototype, a device for stimulating acupuncture points, known by the USSR author's certificate No. 1482717, IPC A61H 39/00, A61N 1/34, application filing date 05/30/1989, was selected.

The device contains two contact pads of dissimilar metals (with different electrochemical potentials), which are oppositely mounted on the inner planes of the jaws of the holder, made in the form of a clip. At least one of the contact pads has elements of reflex action in the form of spikes of the same material. The spikes are arranged in increments of 0.5-1.5 mm and have a height of 0.5-2.0 mm. It is advisable to make one contact pad along with the spikes from one metal, and the other from another. It is allowed to make contact pads from the same material, for example brass, with metal coatings with different electrochemical potentials applied to opposite contact pads. Consequently, the spikes on the opposite contact pads will have different electrochemical potentials that form galvanic pairs in contact with the user's skin. Preferred galvanic pairs are: Cr-Ni, Mn-Ni, Cr-Ag, Ni-Ag, Cr-Au, Ni-Au.

The device is used as follows. The device is installed on the earlobe. The clip holder creates pressure on the pads with studs. In this case, the spikes have a mechanical effect on the epidermis of the skin (bloodless and without pain). A galvanic couple creates an electrical circuit between the spikes of the contact pads, through which galvanic microcurrents of 0.1-1.5 μA flow. As a result of the mechanical effect of spikes and microcurrents on acupuncture points (reflexogenic zones), therapeutic effects are achieved, for example, an anesthetic effect in the treatment of teeth, the elimination of headaches.

Common features of the proposed solution and the prototype are: a device for influencing the reflexogenic zones of the human body, containing a holder in the form of a clip with opposite spring-loaded jaws, on which the contact pads with means of reflex exposure are made,

In the described device, galvanic microcurrents arise only between the contact pads located on opposite sides of the auricle, that is, they flow through the tissues of the auricle. There are no galvanic microcurrents within the contact pads, since there are no galvanic couples within the contact pads, which limits the effectiveness of physiotherapy.

The utility model is based on the task of increasing the effectiveness of physiotherapy by generating galvanic microcurrents between the elements of reflex action on the contact area.

The problem is solved in that in the device for influencing the reflexogenic zones of the human body, containing the holder in the form of a clip with opposite spring-loaded jaws, on which the contact pads with means of reflex exposure are made, according to the utility model, the means of reflex exposure are configured to form contact site areas, each of which contains materials with different electrochemical potentials.

These signs are essential features of the utility model, as they are necessary and sufficient to achieve a technical result — an increase in the effectiveness of physiotherapy by generating galvanic microcurrents between the elements of the reflex action of the contact area.

The result of the implementation of means of reflex exposure with the possibility of forming zones on the contact pads, each of which contains materials with different electrochemical potentials, results in the formation of many galvanic pairs with local microcurrents on the contact pads within the contact pads that act on acupuncture points located on the skin of the reflex zone.

Contact pads with means of reflex action can be performed on at least one of the spring-loaded jaws. Means of reflex action can be made in the form of metal needles fixed in the contact area and made of different metals, or at least one metal a coating whose electrochemical potential differs from the electrochemical potential of the needle material, or with a metal coating and a dielectric layer between the metal coating and the needle. With this embodiment, a plurality of galvanic pairs are formed on each contact pad, generating galvanic microcurrents that occur between the needles, between the needle coatings, between the needles and their coatings, which cause the known therapeutic effects of skin galvanization and electrophoresis upon contact with the user's skin.

The device can be made with means for electrically connecting selected groups of needles and / or metal coatings of selected groups of needles with a source of electrical signals. This embodiment provides the possibility of exposure to reflexogenic zones with electric signals of various sizes and shapes, which further expands the factors of reflex exposure.

Means of reflex action can be made in the form of continuous conductors fixed in contact pads with different electrochemical potentials and made with bends protruding beyond the contact pads. The protruding bends of adjacent conductors form a plurality of galvanic pairs at each contact pad, causing the known healing effects of skin galvanization and electrophoresis.

Means of reflex exposure can be made in the form of two parallel-connected different metal plates with reflex elements, while the reflex elements of one plate are located in holes made in another plate. The reflector elements of the plates form a plurality of galvanic pairs at each contact area, causing the known healing effects of galvanizing the skin and electrophoresis.

Means of reflex exposure can be made in the form of inserts fixed in contact pads, protruding beyond the contact pads and made of different metals, or from magnetic materials, or from natural minerals. Inserts of different metals form a plurality of galvanic pairs at each contact pad, causing the known healing effects of galvanizing the skin and electrophoresis. The implementation of the inserts of magnetic material provide an impact on the reflexogenic zones with a magnetic field. Inserts from natural minerals allow you to use the healing properties of natural minerals. All of the above additionally expands the factors of reflex exposure.

Means of reflex exposure can be made in the form of nodes of reflex exposure, each of which includes at least two needles fixed in the contact area and having different electrochemical potentials.

The needles in the nodes of the reflex effect can be electrically connected or electrically isolated between each other. Electrically connected needles form galvanic pairs in the nodes of the reflex action, causing the known therapeutic effects of skin galvanization and electrophoresis. Electrically isolated needles can be connected to a source of electrical signals to act on reflexogenic zones with electrical signals of various sizes and shapes, which further expands the factors of reflex exposure.

The clip can be made in the form of two articulated spring-loaded two-arm levers with oppositely located jaws.

The levers can be made of metals with different electrochemical potentials.

The levers can be electrically connected to each other or electrically isolated from each other.

The clip can be made in the form of an elastic bracket with oppositely located jaws.

The following is a description of the inventive device for influencing the reflexogenic zones of the human body with reference to the drawings, which show:

FIG. 1 - Device for influencing the reflexogenic zones of the human body, the sponges are made in the form of levers, the contact pads are pivotally connected to the sponges, the initial position.

FIG. 2 - Device for influencing reflexogenic zones of the human body, view A in FIG. one.

FIG. 3 - Device for influencing reflexogenic zones of the human body, section BB in FIG. one.

FIG. 4 - Device for influencing the reflexogenic zones of the human body, the device of FIG. 1, the sponge in a diluted position.

FIG. 5 - Device for influencing the reflexogenic zones of the human body, means of reflex exposure are made on one of the contact pads

FIG. 6 - Device for influencing the reflexogenic zones of the human body, the device according to p. 1 in the working position.

7 - Device for influencing the reflexogenic zones of the human body, section BB in FIG. 1, the implementation of the means of reflex exposure in the form of metal needles.

FIG. 8 - Device for influencing reflexogenic zones of a human body, section BB in FIG. 7.

FIG. 9 - Device for influencing reflexogenic zones of a human body, section BB in FIG. 7, the execution of needles with metal coatings.

FIG. 10 - Device for influencing the reflexogenic zones of the human body, section BB in FIG. 7, the execution of needles with metal coatings and a dielectric layer between the coatings and needles.

FIG. 11 - Device for influencing the reflexogenic zones of the human body, an example of the electrical connection of adjacent rows of needles with opposite poles of the source of electrical signals.

FIG. 12 - Device for influencing the reflexogenic zones of the human body, an example of the electrical connection of needles and coverings of needles with opposite poles of the source of electrical signals.

FIG. 13 - Device for influencing the reflexogenic zones of the human body, the implementation of means of reflex exposure in the form of continuous conductors with bends that form a broken line.

FIG. 14 - Device for influencing the reflexogenic zones of the human body, the implementation of means of reflex exposure in the form of continuous conductors with bends forming a wavy line.

FIG. 15 - Device for influencing the reflexogenic zones of the human body, types G, D in FIGS. 13, 14, respectively.

FIG. 16 - Device for influencing the reflexogenic zones of the human body, section BB in FIG. 1, the implementation of the means of reflex exposure in the form of two parallel-connected different metal plates with reflex elements made in the form of protrusions.

FIG. 17 - Device for influencing the reflexogenic zones of the human body, section EE in FIG. 16.

FIG. 18 - Device for influencing reflexogenic zones of a human body, section BB in FIG. 1, the implementation of the means of reflex exposure in the form of two parallel-connected different metal plates with reflex elements made in the form of bent teeth.

FIG. 19 - Device for influencing the reflexogenic zones of the human body, section FJ in FIG. eighteen.

FIG. 20 - Device for influencing the reflexogenic zones of the human body, the implementation of the means of reflex exposure in the form of different metal inserts.

FIG. 21 - Device for influencing the reflexogenic zones of the human body, the implementation of means of reflex exposure in the form of inserts from magnetic material.

FIG. 22 - A device for influencing the reflexogenic zones of the human body, the implementation of means of reflex exposure in the form of inserts from a natural mineral.

FIG. 23 - A device for influencing the reflexogenic zones of the human body, types K, L, M in FIG. 20, 21, 22, respectively.

FIG. 24 - A device for influencing the reflexogenic zones of the human body, the implementation of means of reflex exposure in the form of nodes of reflex exposure, each of which includes four needles, electrically connected to each other.

FIG. 25 - Device for influencing the reflexogenic zones of the human body, view H in FIG. 24.

FIG. 26 - Device for influencing the reflexogenic zones of the human body, the implementation of the means of reflex exposure in the form of nodes of reflex exposure, each of which includes four needles, electrically isolated from each other, the needles of the transverse and longitudinal rows are connected to the opposite poles of the source of electrical signals.

FIG. 27 - Device for influencing reflexogenic zones of the human body, view O in FIG. 26.

FIG. 28 - Device for influencing the reflexogenic zones of the human body, a circuit of galvanic microcurrents in the reflex node with electrically connected needles.

FIG. 29 - Device for influencing the reflexogenic zones of the human body, schemes for connecting electrically isolated needles in the reflex node to the sources of electrical signals.

FIG. 30 - A device for influencing the reflexogenic zones of a human body, clip lips are made in the form of contact pads, reflex exposure means are made in the form of a plate with reflex elements and reflex elements of the contact pad located in the plate openings.

FIG. 31 - Device for influencing the reflexogenic zones of the human body, view P in FIG. thirty.

FIG. 32 - A device for influencing the reflexogenic zones of the human body, the lips of the clip are electrically isolated from each other and connected to the opposite poles of the source of electrical signals, the reflex elements of the contact pads and plates are electrically connected.

FIG. 33 - Device for influencing the reflexogenic zones of the human body, the jaws of the clip are electrically interconnected, the reflex elements of the contact pads and plates are electrically isolated, the plates and sponges are connected to the opposite poles of the source of electrical signals.

FIG. 34, 35 - A device for influencing the reflexogenic zones of the human body, the contact pads are made curved in one piece with the lips of the clip.

FIG. 36 - Device for influencing the reflexogenic zones of the human body, the clip is made in the form of an elastic closed bracket with intersecting ends, plates with reflex elements are fixed on the outer sides of the jaws and are electrically connected to the jaws.

FIG. 37 - Device for influencing reflexogenic zones of the human body, view P in FIG. 36.

FIG. 38 - Device for influencing the reflexogenic zones of the human body, view C in FIG. 36.

FIG. 39 - Device for influencing reflexogenic zones of the human body, node I in FIG. 36.

FIG. 40 - A device for influencing the reflexogenic zones of the human body, the clip is made in the form of an elastic closed bracket, plates with reflex elements are fixed on the inner sides of the jaws and are electrically connected to the jaws.

FIG. 41 - Device for influencing reflexogenic zones of the human body, view T in FIG. 40.

FIG. 42 - Device for influencing the reflexogenic zones of the human body, node II in FIG. 40.

FIG. 43 - Device for influencing the reflexogenic zones of the human body, an example of the implementation of means of reflex exposure on one of the contact pads.

FIG. 44 - A device for influencing the reflexogenic zones of the human body, an example of a clip in the form of an elastic open bracket.

FIG. 45 - A device for influencing the reflexogenic zones of the human body, contact pads are fixed on the lips of an elastic bracket, means of reflex exposure are represented by pads and plate needles, the electrochemical potential of which differs from the electrochemical potential of the pads.

FIG. 46 - Device for influencing the reflexogenic zones of the human body, an example implementation for local exposure to selected acupuncture points.

FIG. 47 - Device for influencing the reflexogenic zones of the human body, the clip is made in the form of an elastic closed bracket, the reflex elements of the sponges and plates are electrically isolated from each other, the sponges and plates are connected to the opposite poles of the source of electrical signals.

Fig - Device for influencing the reflexogenic zones of the human body, the clip is made in the form of an elastic closed bracket, the reflex elements of the sponges and plates are electrically isolated from each other, the plates are connected to unlike poles of the source of electrical signals.

A device for influencing the reflexogenic zones of the human body contains a holder in the form of a clip with oppositely located spring-loaded jaws, on which contact pads with means of reflex exposure are made. Means of reflex exposure are configured to form zones on the contact area, each of which contains materials with different electrochemical potentials.

In FIG. 1-3, a device is shown in which the jaws of the clip are made in the form of two-arm levers 1 with shanks 2 connected by a cylindrical hinge 3. The levers 1 are spring-loaded towards the closure of the levers 1 by means of a spring 4. On the two-arm levers 1 by means of hinges 5, the contact pads are opposite 6 with means of reflex exposure 7.

In FIG. 4 shows the device in the diluted position of the jaws 1.

Means of reflex exposure 7 can be performed on one of the contact pads 6 (Fig. 5).

In FIG. 6 shows the device in the operating position, that is, the device is mounted on an organ of the body 8, for example, on the earlobe. The means of reflex action 7 are pressed by the elastic forces of the levers 1 on both sides of the organ 8 (earlobes).

The means of reflex action can be made in the form of metal needles 9 fixed in contact pads 6. Needles 9 are made of different metals with different electrochemical potentials - Cu, Zn, forming galvanic pairs, generating galvanic microcurrents ig upon contact with the skin of the user, causing known therapeutic effects of skin galvanization and electrophoresis. The needles 9 are made with thickenings 10, 11, as means of fixing the needles 9 in the contact pads 6 (Fig. 7, 8).

The needles 9 can be made with at least one metal coating 12 (Ag), the electrochemical potential of which is different from the electrochemical potential of the material of the needle 9. In this case, galvanic pairs are generated that generate galvanic microcurrents ig1 (between the needles 9), ig2 {between the needles 9 and coatings 12 (Ag)}, causing therapeutic effects of skin galvanization and electrophoresis (Fig. 9).

Needles 9 can be made with a metal coating 13 and a dielectric layer 14 between the metal coating 13 and the needle 9 (Fig. 10). This embodiment turns the needles into bipolar electrodes, with which you can act on the reflexogenic zones of the user's body with electrical signals of various sizes and shapes, which expands the factors of the reflex effect of the device.

Levers 1 can be made of metals with different electrochemical potentials (not shown), which increases the variety of galvanic pairs and the possibility of their choice.

The device can be made with means for electrically connecting selected groups of needles 9 and / or metal coatings 13 of selected groups of needles 9 with a source of electrical signals.

In FIG. 11 shows an example of the electrical connection of selected groups of needles 9 (adjacent rows of needles 9) with opposite poles of the source of electrical signals using electrically conductive tracks 15a, 15b, 15c, etc., connecting the needles 9 in adjacent rows. Neighboring conductive tracks 15a, 15b, 15c, etc. connected to opposite poles of an electrical signal source (not shown).

In FIG. 12 shows an example of the electrical connection of the needles 9 and electrically isolated coatings 13 with opposite poles of the source of electrical signals using electrically conductive layers 16, 17, pads 6. The upper conductive layer 16 connects the coating 13 to one of the poles of the source of electrical signals, the lower conductive layer 17 connects 9 needles with the other pole. The electrically conductive layers 16, 17 are separated by an insulating layer 18.

Means of reflex action can be made in the form of continuous conductors fixed in the contact area with different electrochemical potentials and made with bends protruding beyond the contact area.

Continuous conductors 19 are fixed in the contact pads 6 and are made with bends, forming, for example, a broken line (Fig. 13) or a wavy line (Fig. 14). The vertices of 20 bends extend beyond the contact pads 6 and are elements of the reflex effect on the reflexogenic zones of the user's body. Between the peaks 20 of adjacent conductors 19, in contact with the user's skin, galvanic microcurrents ig3 flow. Neighboring conductors 19 can be connected to opposite poles of the source of electrical signals to affect the reflexogenic zones of the user's body with electricity (Fig. 15).

The means of reflex action can be made in the form of two parallel metal plates of different types connected with reflex elements in the form of protrusions or bent teeth, while the reflex elements of one plate are located in holes made in another plate.

In FIG. 16-17, two metal plates 21 (Zn) and 22 (Cu) are connected in parallel, with reflex elements made in the form of protrusions 23, 24. The protrusions 23 of the plate 22 (Cu) are located in the holes 25 made in the plate 21 (Zn) . The protrusions 23, 24 form galvanic pairs generating galvanic microcurrents ig4. In FIG. 18-19 shows a similar device in which the reflex elements are made in the form of bent teeth 26, 27. The bent teeth 26 of the plate 22 (Cu) are located in the holes 28 made in the plate 21 (Zn). The bent teeth 26, 27 form galvanic pairs generating galvanic microcurrents ig5.

Means of reflex exposure can be made in the form of inserts fixed in the contact pads and protruding beyond the contact pads. The inserts can be made of different metals, or of magnetic material, or of natural minerals.

In FIG. 20 shows variously metallic inserts 29 (Cu) and 30 (Zn). Inserts 29 (Cu), 30 (Zn) form galvanic pairs generating galvanic microcurrents ig6.

In FIG. 21 shows inserts 31 made of magnetic material, which provides magnetic fields to the user’s reflexogenic zones.

In FIG. 22 shows inserts 32 made of a natural mineral, which makes it possible to use the healing properties of natural minerals.

In FIG. 23 shows views of K, L, M in FIGS. 19, 20, 21, respectively.

Means of reflex exposure can be made in the form of nodes of reflex exposure, each of which includes at least two needles fixed in the contact area and having different electrochemical potentials.

In FIG. 24, 25 shows the nodes 33 of the reflex effect, each of which includes four needles 34, 35, 36, 37 with different electrochemical potentials. The needles 34, 35, 36, 37 are electrically interconnected (contact in nodes 33), The needles 34, 35, 36, 37 form nodes 33 in galvanic pairs, generating galvanic microcurrents in contact with the skin of the user.

In FIG. 26, 27 shows a similar device in which the needles 34, 35, 36, 37 are electrically isolated (located at a distance from one another in nodes 33). With this embodiment, it becomes possible to connect the needles 34, 35, 36, 37 to the sources of electrical signals for influencing the reflexogenic zones with electricity. On Fig shows an example of the electrical connection of the needles, in which the needles 34, 35 located in the longitudinal rows are connected using conductors 38 to one of the poles of the source of electrical signals (+), and the needles 36, 37 located in the transverse rows are connected to using conductors 39 with the other pole (-).

In FIG. Figure 28 shows a scheme of galvanic microcurrents in a site of reflex action, including four differently contacting metal needles: 34 (Ag), 35 (Zn), 36 (Au), 37 (Fe). At the same time, six galvanic pairs with corresponding galvanic microcurrents are formed in the reflex node: Fe-Zn galvanic couple with microcurrents 40, Zn-Au galvanic couple with microcurrents 41, Au-Ag galvanic couple with microcurrents 42, Ag-Fe galvanic couple with microcurrents 43 , galvanic couple Ag-Zn with microcurrents 45. A lot of galvanic pairs in the site of reflex exposure enhances the therapeutic effects of galvanization and galvanic electrophoresis.

In FIG. 28 shows an example of the electrical connection of the needles 34, 35, 36, 37 in a reflex node with two sources of electrical signals (IES1, IES2). Needles 34, 36 are connected to opposite poles of IES1, and needles 35, 37 are connected to opposite poles of IES2. This scheme allows you to act on reflexogenic zones with electrical signals of various sizes and shapes.

The spring-loaded jaws can be made in the form of contact pads, that is, the contact pads are made in one piece with the spring-loaded jaws and are parts of the spring-loaded jaws.

Examples of such an embodiment are shown in FIG. 30-35.

In FIG. 30, 31 shows a device in which the jaws of the clip are made in the form of pivotally connected two-arm levers with shanks 2. The levers are spring-loaded towards the closure of the jaws of the levers using a spring 4. The jaws of the levers are made in the form of contact pads 45 with elements of reflex action 46. On the inside contact pads 45 installed plate 47 with elements of the reflex effect 48. Elements of reflex impact 46 contact pads 45 are located in the holes made in the plate 47 between the reflex protrusions 48. Contact pads 45 and plates 47 are electrically interconnected and made of materials with different electrochemical potentials. Thus, the means of reflex exposure are represented by elements of reflex exposure 46, 48 with different electrochemical potentials that generate the corresponding galvanic microcurrents at each contact area of the device.

In FIG. 32 shows a device similar to that of FIG. 30, in which the levers are electrically isolated from each other and connected to the opposite poles of the source of electrical signals 49 with a power source 50. Thus, the means of reflex exposure are represented by elements of reflex effects 46, 48 connected at opposite contact pads 45 to different poles of the source of electrical signals 49 .

In FIG. 33 shows a device similar to that of FIG. 32, in which the levers are electrically connected to each other and connected to one of the poles (-) of the source of electrical signals 49. The plates 47 are connected to the other pole (+). Thus, the means of reflex exposure are represented by elements of the reflex effect 46, 48, which at each contact pad 45 are connected alternately to different poles of the source of electrical signals 49.

The devices shown in FIG. 32, 33, provide the possibility of various effects on the reflexogenic zones of the user by electrical signals of various sizes and shapes.

In FIG. 34, 35 shows an example of a device in which the contact pads 51 are curved. The size and shape of the pads 51 correspond to the size and shape of a particular organ of the user, for example, the wrist or forearm of the hand, portions of the auricle, etc.

In FIG. 36-39 shows the implementation of the clip in the form of an elastic closed bracket with intersecting ends, which are made in the form of oppositely arranged jaws, which are contact pads 52 with reflex elements in the form of needles 53. On the outer sides of the contact pads 52, plates 54 with reflex elements are fixed in the form of bent teeth 55. Bent teeth 55 are located in holes 56 made in the contact pads 52 between the needles 53. The contact pads 52 and the plates 54 are made of different metals (Ni, Cu, Zn) and are electrically interconnected. Thus, the means of reflex action are represented by elements of reflex action in the form of needles 53 and teeth 55 with different electrochemical potentials generating galvanic microcurrents ig7 at each contact area of the device.

In FIG. 40-42 shows a device similar to that of FIG. 36. The difference is that the plates 54 are fixed on the inner sides of the contact pads 52, the elements of the reflex effect of the plates 54 are made in the form of protrusions 57. The needles 53 are located in the holes 58 made in the plates 54 between the protrusions 57.

In FIG. 43 shows an example of a device in which the means of reflex exposure are made on one of the contact pads 52.

The clip can be made in the form of an elastic open bracket 59 (Fig. 44).

In FIG. 45 shows a device in which contact pads 61 with needles 62 and plates 63 with needles 64 are fixed to the jaws 60 of the elastic bracket. The plates 63 are located on the inside of the contact pads 61. The needles 62 of the contact pads 61 are located in holes made in the plates 63 between the needles 64. Contact pads 61 and plates 63 have different electrochemical potentials. The means of reflex exposure are represented by needles 62 of contact pads 61 and needles 64 of plates 63 with different electrochemical potentials.

In FIG. 46 shows a device similar to that of FIG. 40-42, with a limited number of elements of reflex action (needles 53 and protrusions 57), which makes it possible to locally affect selected acupuncture points of the reflexogenic zone.

In FIG. 47 shows a device similar to that of FIG. In this case, the plates 54 are isolated from the contact pads 52 by layers of a dielectric 65. The bracket (contact pads 52) and the plates 54 are connected to the opposite poles of the source of electrical signals. Thus, the means of reflex exposure are represented by elements of the reflex effect 53, 55, which at each terminal 54 are connected alternately to different poles of the source of electrical signals.

In FIG. 48 shows a device similar to that of FIG. 47. The difference is that plates 54 located on opposite contact pads 52 are connected to opposite poles of the source of electrical signals. Thus, the means of reflex action are represented by elements of reflex exposure 53, 55 connected on opposite contact pads 54 to different poles of the source of electrical signals .

The devices shown in FIGS. 47, 48 provide the ability to affect the user’s reflexogenic zones with electrical signals of various sizes and shapes.

The device, like a clip, is mounted on the corresponding organ of the user's body (auricle, earlobe, nose, lip, wrist or forearm, etc.). Means of reflex action are pressed to selected areas of the body due to the elastic properties of the clip. The physiotherapeutic effect on reflexogenic zones is expressed in mechanical action, for example, tearing, in the action of galvanic microcurrents with the realization of the effects of galvanization and galvanic electrophoresis, in the action of electric signals of various sizes and shapes, in the action of a magnetic field or a selected combination of these factors of reflex action.

Claims (13)

1. A device for influencing the reflexogenic zones of the human body, comprising a holder in the form of a clip with opposite spring-loaded jaws, on which contact pads with means of reflex exposure are made, characterized in that the means of reflex exposure are configured to form zones on the contact area, each of which contains materials with different electrochemical potentials. 2. The device according to p. 1, characterized in that the contact pads with means of reflex exposure are made on at least one of the spring-loaded jaws. 3. The device according to claim 1, characterized in that the means of reflex exposure are made in the form of metal needles fixed in the contact area and made of different metals, or with at least one metal coating, the electrochemical potential of which differs from the electrochemical potential of the material needles, or with a metal coating and a dielectric layer between the metal coating and the needle. 4. The device according to claim 3, characterized in that it is made with means for electrically connecting selected groups of needles and / or metal coatings of selected groups of needles with a source of electrical signals. 5. The device according to claim 1, characterized in that the means of reflex exposure are made in the form of continuous conductors fixed in contact pads with different electrochemical potentials and made with bends protruding beyond the contact pads. 6. The device according to claim 1, characterized in that the means of reflex exposure are made in the form of two parallel-connected different metal plates with reflex elements, while the reflex elements of one plate are located in holes made in another plate. 7. The device according to p. 1, characterized in that the means of reflex exposure are made in the form of inserts fixed in contact pads, protruding beyond the contact pads and made of different metals, or from magnetic materials, or from natural minerals. 8. The device according to p. 1, characterized in that the means of reflex exposure are made in the form of nodes of reflex exposure, each of which includes at least two needles fixed in the contact area and having different electrochemical potentials. 9. The device according to p. 8, characterized in that the needles in the nodes of the reflex action are electrically connected or electrically isolated from each other. 10. The device according to p. 1, characterized in that the clip is made in the form of two articulated spring-loaded two-arm levers with oppositely located jaws. 11. The device according to p. 10, characterized in that the levers are made of metals with different electrochemical potentials. 12. The device according to p. 10, characterized in that the levers are electrically connected to each other or electrically isolated from each other. 13. The device according to p. 1, characterized in that the clip is made in the form of an elastic bracket with oppositely located jaws.

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