JP2004057811A - Electrostatic body conditioner - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a body conditioner with which a user can safely and easily keep him/her in a good health condition using a daily life time such as sleeping time, differently from treatment based on a diagnosis by a doctor. <P>SOLUTION: This electrostatic body conditioner is equipped with two electrode cloths which have insulated electrodes made of a flexible conductive material and disposed on whole surfaces of cloths in sizes of bedding, and a direct current power source to apply a direct current voltage between the electrodes. A user lie down in the electrostatic field generated between the electrode cloths while a prescribed voltage is applied between the two electrodes. <P>COPYRIGHT: (C)2004,JPO

Description

[0001]
TECHNICAL FIELD OF THE INVENTION
BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an electrostatic dressing apparatus intended to condition a body by the action of an electrostatic field.
[0002]
[Prior art]
Recently, the effects of negative ion and potential therapy have been constantly discussed from the viewpoint of disease treatment and health improvement, and there have been many announcements and sales of instruments and devices related to these.
[0003]
By the way, one of the conventional potential therapy devices found in the literature (for example, see Patent Document 1) is configured to apply a negative high DC voltage to a single heater / electrode embedded in bedding.
[0004]
[Patent Document 1] Japanese Patent Application Laid-Open No. 2000-5324
According to the description in this document ([0021]), this is a “potential therapy device that generates negative ions by high voltage and performs treatment by this ion effect” (Claim 1). The heater is filled with negative ions by applying a voltage. "
[0006]
[Problems to be solved by the invention]
The problem to be solved by the present invention is to provide a dressing means capable of adjusting the condition of the body safely and easily using a time of daily life such as bedtime and obtaining a refreshing feeling.
[0007]
Here, the “dressing” is a coined word by the inventor meaning that the body condition is adjusted in daily life. That is, what is to be realized by the present invention is not a means of treatment in the sense of diagnosis and treatment of a disease by a doctor, but a dressing means in the above sense.
[0008]
[Means to solve the problem]
The above-described problem is caused by two electrode cloths each having an insulated electrode made of a flexible conductive material disposed on the entire surface of a bedding-sized cloth, and a DC voltage source for applying a DC voltage between the electrodes. The above problem can be solved by an electrostatic type dresser which is used in a state where the two electrode cloths are vertically stacked and a predetermined DC voltage is applied between the electrodes. In addition, as the above-mentioned flexible conductive material, a soft electric wire, a fiber containing a fine metal wire, a conductive rubber or a plastic kneaded with carbon, or the like is exemplified.
[0009]
The desired dressing effect in the electrostatic dresser according to the present invention is that a person (or an animal) lies on the body in an electrostatic field of a capacitor formed by applying a DC voltage between opposing electrodes. It is played by In this case, since the distance between the opposing electrodes is relatively small, even if the voltage applied between the electrodes is not so high, an electrostatic field (more precisely, "Potential gradients").
[0010]
The actual inter-electrode voltage is determined by the user while trying the effects. In order to make it possible to appropriately select the voltage between the electrodes, the DC voltage source attached to the electrostatic type dresser is preferably a variable voltage type.
[0011]
According to the experience of the inventor using his self-made electrostatic dresser, he was able to sleep soundly until morning and refreshed his wake. It feels as if there were a number of positive effects, such as no longer working or less stiffness. I also noticed that my nails and hair grew quickly. Apparently, it seems to have a considerable effect on boosting metabolism and preventing body aging. What is called a dressing effect in this specification is a general term for these various effects.
[0012]
At present it is difficult to give a "scientific explanation" as to why this electrostatic dresser works. However, the inventors consider the following in light of their experiences. In other words, the physical entity that provides the dressing effect is not a negative ion or a negative high voltage, but rather a potential gradient (physical state of space expressed in the dimension of [potential difference / distance]) created near the body epidermis. In addition, it has been learned from the experience of the subject and others (including animals) that a large dressing effect can be obtained if the potential gradient is large, regardless of the level of the voltage applied to the electrodes and the polarity thereof. The embodiments described below include some ideas that are useful in creating a potential gradient.
[0013]
BEST MODE FOR CARRYING OUT THE INVENTION
(1st Embodiment)
The first embodiment of the present invention has a configuration in which two electrode cloths 1 shown in FIG. 2 are combined with a DC voltage source illustrated in FIG. Then, as shown in FIG. 1, a person (or animal) lies between the electrode cloths 1, 1 laid one above the other. The electrostatic dressing apparatus according to the present embodiment is basically used at bedtime in combination with normal bedding. In this case, each of the electrode cloths 1 and 1 may be, for example, an electrode in which a soft insulated wire 1a is stretched over the entire surface, and the electrode cloth 1 and 1 are suitably large enough to cover substantially the entire body under the neck. In addition, if the electrode in the electrode cloth laid under the body is grounded to make its potential zero, and a positive or negative DC voltage is applied to the electrode in another electrode cloth applied on the body, Since the lower electrode cloth pressed by the body weight is kept at zero potential, the risk of voltage leak can be reduced. This embodiment corresponds to claims 1 and 4.
[0014]
FIG. 3 shows a DC voltage source used in the first embodiment. In FIG. 3, reference numeral 3 denotes a smoothing capacitor, 4 denotes a rectifier, 5 denotes a fixed resistor, 6 denotes a changeover switch, 7 denotes a 2-wire plug (male) for AC100V, and 11 denotes a single-wire socket (female). The ladder circuit composed of the smoothing capacitor 3 and the rectifier 4 is a known (n) voltage doubler rectifier circuit, and generates a DC voltage of several hundred volts from 100 VAC. This DC voltage can be switched in five stages by a changeover switch 6.
[0015]
(2nd Embodiment)
In this embodiment, as shown in FIG. 4, two or more insulated electrodes 10a, 10b,... Are planarly arranged inside one electrode cloth 10, and a positive and negative DC voltage is applied to each electrode. Is applied. That is, in the first embodiment, two electrode cloths 1 are required, while in the present embodiment, the electrode cloth is combined so that only one sheet is required. In this electrode cloth 10, the plus and minus electrodes 10a, 10b,... Are arranged in a plane, so that the lines of electric force coming out of one electrode draw an arc outside the electrode cloth 10 and enter the other electrode. However, if there is a human body in the middle, the same dressing effect as in the first embodiment can be obtained. The number of the electrodes may be an odd number as long as the plus and minus electrodes 10a, 10b,... Are alternately arranged.
[0016]
The electrostatic dressing apparatus according to the second embodiment is suitable for hanging an electrode cloth on a body or laying it under a body when traveling or the like. For traveling, the size of the electrode cloth may be, for example, about the size from the neck to above the knee (however, the one shown in FIG. 4 is the whole body size). In addition, when the electrostatic type dressing apparatus of the present embodiment is used at home, a dog or a cat naturally comes to lie on it. Maybe it feels good. Therefore, as shown in FIG. 5, it is conceivable to create and provide a dedicated electrode cloth 10 having a size suitable for their physique. As a trial, when a large dog Labrador breed was given the electrostatic dressing apparatus of the present embodiment, within a few days, animal body odor was reduced, fur was improved, exercise vitality was increased, etc. I felt it. This embodiment corresponds to claims 2 and 3.
[0017]
(Third embodiment)
The present embodiment uses the fact that the surface of the mattress or the mattress is not a perfect insulator but naturally has electrical conductivity, and is substantially grounded so that the mattress is placed at the ground potential in the first embodiment. It replaces the lower electrode cloth. The conductivity can also be positively imparted by spraying, for example, a cationic surfactant on the surface of the mattress or the mattress, or by weaving conductive fibers on the surface of the mattress or the mattress. Further, in order to substantially ground, it is sufficient to make the surface of the mattress having conductivity as described above or the mattress positively contact the floor surface or the like which is not insulated from the ground. Then, an extremely small leakage current flows and the electric charge moves, and the potential of the surface of the mattress or the mattress gradually approaches the ground potential. This embodiment corresponds to claim 5.
[0018]
(Fourth embodiment)
This embodiment is different from the third embodiment in that the high-insulating film 21 is laid on the surface of the mattress or the mattress whose potential is close to zero, and the user applies the DC voltage to the insulating film. The body is laid between the cloth 1 (see FIG. 6). In this case, the potential of the body approaches the potential of the upper electrode cloth 1 due to the extremely small leakage current flowing between the upper electrode cloth and the body, but the lower surface of the body is electrically blocked by the insulator film 21. In addition, the potential difference is concentrated on the thickness of the insulator film 21, so that the potential gradient near the epidermis on the lower surface of the body increases, and the dressing effect increases. Note that a commercially available packaging material in which an aluminum foil is laminated on the lower surface of a plastic film can be used as the insulator film (the aluminum foil itself is not used). This embodiment corresponds to claim 6.
[0019]
(Fifth embodiment)
In the present embodiment, a DC voltage is applied to the heating wire of the electric blanket used as the upper electrode cloth 1, and a metal thin film or the like which is the same size as the electric blanket and is not connected to the DC voltage source is provided on the electric blanket. The electric conductor film 22 is overlapped and hung (see FIG. 7). In this way, a small current flows through the leakage resistance on the outer periphery of the heating wire (no current flows but a DC voltage is applied) of the electric blanket, reaches the electric conductor film 22 applied thereon, and the potential Becomes almost equal to the potential of the heating wire inside the electric blanket. At this time, the effect that the electrostatic field coupling between the body and the upper electrode cloth 1 is increased to be equal to or more than when two or more electric blankets are covered. Note that a commercially available packaging material in which an aluminum foil is laminated on the lower surface of a plastic film can be used as the electric conductor film 22 (in this case, the aluminum foil is used as the electric conductor film 22 in contact with an electric blanket. Do). This embodiment corresponds to claim 7.
[0020]
(Sixth embodiment)
In the present embodiment, a planar electrode 19 having substantially the same size as a mat provided inside a dielectric mat on which a user (human or animal) lies, and a predetermined DC voltage is applied between the planar electrode 19 and ground. The electrostatic dressing apparatus comprises a voltage source for applying a voltage and an ion generator 20 for alternately emitting positive ions or negative ions or both positive and negative ions in a space where the mat is placed. In this dresser, when a DC voltage is applied to the flat electrode 19 and the user's body is exposed to ions generated by the ion generator 20, ions having a charge opposite in polarity to the potential of the flat electrode 19 are applied to the body surface. As a result, the body surface is charged to a potential having a polarity opposite to that of the flat electrode 19. In this way, a potential gradient is created near the epidermis of the user's body, and a favorable dressing effect is produced. FIG. 8 is a conceptual diagram showing the configuration of the electrostatic dresser according to the present embodiment. This embodiment corresponds to claim 8.
[0021]
(Seventh embodiment)
In the present embodiment, at least one of the two electrode cloths 1 in the first embodiment uses an electric blanket. By using an electric blanket instead of the electrode cloth 1 as described above, the body can be trimmed while warming the body. In addition, when an electric blanket is used as the upper electrode cloth 1, applying a common DC voltage on two or three sheets can enhance the dressing effect. In this embodiment, the circuit shown in FIG. 9 or FIG. 10 is used as a DC voltage source. The circuits of FIGS. 9 and 10 correspond in many respects to the circuit of FIG. 3, including the use of a known voltage doubling rectifier circuit (the same reference numerals are used for the same elements). The difference is that the upper electrode cloth socket in FIG. 3 is a single wire type socket 11 for supplying a DC voltage, whereas the circuit of FIG. 9 is for supplying electric power to the electric blanket together with the DC voltage in the circuit of FIG. A two-wire socket 9 is provided. Further, the circuit of FIG. 10 is different from that of FIG. 9 in that an insulating transformer 8 for supplying electric power for electric heating to the electric blanket is provided. This embodiment corresponds to claim 9.
[0022]
(Eighth embodiment)
In the present embodiment, a DC voltage source shown in FIG. 11 is used for forming an electrostatic field in the first or second embodiment. This DC voltage source uses a circuit for independently doubling each half-wave of a single-phase AC voltage having a different polarity from each other, and applies positive and negative DC voltages obtained by this rectifier circuit to each electrode. In this case, since one line of the AC power supply is grounded, the positive / negative voltage applied to each electrode cloth is a voltage based on the ground, but the voltage between the electrodes is twice as large. That is, if the voltage between the electrodes is normal, the absolute value of the ground voltage applied to each electrode can be reduced to half of the normal value, so that the safety against voltage leakage can be improved. In FIG. 10, instead of a changeover switch, five single-wire sockets (A... E and F... J) are provided for plus and minus, respectively, and lead plugs from upper and lower electrode cloths are replaced to select a voltage. I did it. This embodiment corresponds to claim 10.
[0023]
(Ninth embodiment)
This embodiment uses a DC voltage source shown in the plan of FIG. 12 as an improvement of the ninth embodiment. According to this circuit, the plus and minus output voltages can be simultaneously and steplessly adjusted only by turning the knob of the variable resistor 23. Generally, in order to change the voltage of the DC voltage source, a method of switching a switch to a click, a click to a discontinuity, a method of continuously turning a knob of a variable resistor, or a method of replacing a plug as in the ninth embodiment are used. There are, however, those who are unfamiliar with the use of electricity seem to be more comfortable with the continuous system. This embodiment corresponds to claim 11.
[0024]
(Tenth embodiment)
In the present embodiment, a DC voltage source shown in FIG. 13 is used for forming an electrostatic field in the first or second embodiment. This DC voltage source is configured so that the polarity changeover switch 12 is operated by the timer 13 to invert the polarity of the DC voltage applied to the upper and lower electrode cloths at regular intervals, so that the dressing effect is saturated with time. For such physical characteristics, a refresh effect by recharging the capacitor at the time of polarity reversal can be expected. This DC voltage source can supply power to the electric blanket. The refresh effect can be explained as follows. For example, if a negative DC voltage is applied to the upper electrode cloth of the electrostatic dresser, the positively charged particles floating in the air will collect and adhere on the electrode cloth with time, and finally, the negative of the electrode cloth It neutralizes the effect of voltage. Therefore, the dressing effect caused by the electrodes inside the electrode cloth decreases with time. When the polarity of the DC voltage of the electrode is reversed, the charged particles of the opposite polarity attached to the cloth are repelled and move away as described above, but until the movement is completed, the polarity of the electrode and the charged particles is synthesized. As a result, a strong electrostatic field is generated, and the dressing effect is enhanced. Therefore, the efficiency can be enhanced by inverting and switching the DC voltage of the electrode in accordance with the expected value of the speed of the Brownian motion of the charged particles in the air. This embodiment corresponds to claim 12.
[0025]
(Eleventh embodiment)
In the present embodiment, a DC voltage source shown in FIG. 14 is used for forming an electrostatic field in the first or second embodiment. The DC voltage source includes a leakage alarm cutoff circuit including a coupling capacitor 14, an operational amplifier 15, an alarm buzzer 16, and a power cutoff relay 17. In the DC voltage sources shown in FIGS. 3 and 9 to 14, the current load on the smoothing capacitor is increased and the ripple component in the DC voltage is increased in the DC voltage sources shown in FIGS. Increase. In the circuit shown in FIG. 14, the ripple component is taken out through a coupling capacitor, amplified by an operational amplifier to drive the alarm device, and activates the power cutoff relay 16 under a preset condition. This DC voltage source can also supply power to the electric blanket. This embodiment corresponds to claim 13.
[0026]
(Twelfth embodiment)
This embodiment has a configuration in which the capacitance of the smoothing capacitor 3 is set to 0.005 μF or more and 0.1 μF or less in the DC voltage sources shown in FIGS. 3 and 9 to 14. With this configuration, in the event that the insulation is degraded in the electrode cloth and a short circuit occurs, the voltage across the smoothing capacitor 3 is rapidly reduced, and the flowing current is limited to 1 mA or less. Property can be ensured. However, if it is less than 0.005 μF, the smoothing action is impaired. Each of the plurality of capacitors illustrated in each of the drawings is a smoothing capacitor, and can have an arbitrary capacitance within the above range. This embodiment corresponds to claim 14.
[0027]
(Thirteenth embodiment)
In the present embodiment, a DC voltage source shown in FIG. 15 is used for forming an electrostatic field in the first or second embodiment. This DC voltage source is formed by connecting a number of button-type batteries 18 in series. For example, if 90 button-type lithium batteries are connected in series, an extremely compact DC voltage source of 270 [V] can be realized. The advantage of using a battery is that it is possible to use the electrostatic dresser even in an environment where a commercial power supply cannot be used. In this case, since the current as the battery load is extremely small, a long battery life can be expected. This embodiment corresponds to claim 15.
[0028]
(14th embodiment)
This embodiment uses the same DC voltage source as that of the thirteenth embodiment, and uses a radio insulated wire as a material of a soft insulated conducting wire used for the electrode cloth and a wiring connecting the DC voltage source and the electrode cloth. is there. The DC voltage source according to the thirteenth embodiment does not generate harmful electromagnetic waves in principle, and is considered to be less likely to interfere with navigation electronic equipment even when used in a passenger aircraft or the like. However, when this DC voltage source is used, it cannot be connected to a ground line or a commercial power supply, so that the potential of the whole system is in a floating state and becomes unstable. Therefore, when the distance between the electrode cloths changes and the capacitance suddenly changes, or when a small discharge occurs locally due to frictional charging between the electrode cloths and the seat, etc., harmful electromagnetic waves are generated from the electrode cloths and their connections. Can not be said that is not radiated.
[0029]
As a countermeasure against such a phenomenon, the present embodiment uses a radio noise prevention wire. This electric wire has a high-resistance conductive rubber layer formed by kneading carbon around a hollow core wire made of a strong fiber as a tension member, and is insulated thereon, and has a wire diameter of 3 to 3.5 mm ( See FIG. 16). Since it has the characteristic of absorbing and attenuating high-frequency charge transfer components, it is possible to more completely prevent the generation of interfering electromagnetic waves when using this electrostatic dresser in a passenger aircraft or the like. Thus, the electrostatic type dressing apparatus can be used even during long-distance flight in which the seat is restrained for a long time. This embodiment corresponds to claim 16.
[0030]
(Fifteenth embodiment)
The present embodiment has a configuration in which a dry battery is used as a power source and a DC voltage source based on a known switching power supply circuit including a transistor-type oscillator and a rectifier is used for forming an electrostatic field (not shown). This makes it possible to use the electrostatic type dressing apparatus even when traveling on a campsite or a long-distance train / bus where commercial power cannot be used.
[0031]
(Sixteenth embodiment)
As the electrodes in the electrode cloth 1 or 10 used in the first or second embodiment, in addition to the above-described soft electric wires, fibers containing fine metal wires, conductive rubber or plastic kneaded with carbon, and the like, (Not shown).
・ A piece of paper or cloth impregnated with ink and dried to impart conductivity, and the surrounding area is covered with a plastic film and insulated. ・ A piece of paper or cloth is impregnated with a cationic surfactant to impart conductivity. Insulated by covering the periphery with a plastic film.Insulated by covering metal foil with a plastic film.Aluminum surface of paper or plastic film with aluminum film adhered to one side is replaced with another aluminum surface. And insulated by coating with paper or plastic film.
[0032]
FIG. 17 shows another example of the electrode cloth 10 used in the second embodiment. In this electrode cloth, a conductor is inserted into a corrugated groove inside a plastic cardboard, and adjacent conductors are connected to form electrode conductors 10a, 10b,. A desired number of such electrode conductors are formed inside a plastic cardboard, and positive and negative voltages are alternately applied to adjacent electrode conductors. The example of the electrode cloth mentioned here corresponds to claim 17.
[0033]
【Example】
When the inventor traveled on a long-distance bus for about six and a half hours, when he arrived at the destination, he measured the circumference of his ankle, and it was about 12% higher than normal due to swelling. However, under almost the same conditions, when the electrostatic type aligner having the voltage source by the battery described in the seventh embodiment was used during traveling, almost no increase in the circumference of the ankle was observed (at most 1). ２2%).
[0034]
【The invention's effect】
According to the first aspect of the present invention, since the distance between the electrodes as a capacitor is short, it is possible to generate an electrostatic field having a sufficient strength for the purpose of dressing with a relatively low voltage between the electrodes.
[0035]
According to the invention of claim 2, since the two electrode cloths are externally combined into one, for example, during travel, the electrode cloth can be simply placed on the knees or laid on the seat in a vehicle seat. The body can be placed in an electrostatic field.
[0036]
According to the third aspect of the invention, the dressing effect according to the second aspect of the invention can be exerted on pets and the like.
[0037]
According to the fourth aspect of the present invention, the lower electrode cloth pressed by the body weight is maintained at zero potential, so that the risk of voltage leakage can be reduced.
[0038]
According to the fifth aspect of the present invention, since the lower electrode cloth can be omitted, the handling of the electrostatic dresser becomes easy.
[0039]
According to the invention of claim 6, the leakage current is cut off on the lower surface of the body, and the potential difference is concentrated on the thickness of the insulating film. Therefore, the potential gradient near the lower surface of the body increases, and the dressing effect is improved. Increase.
[0040]
According to the invention of claim 7, the potential of the electric conductor film superimposed on the electric blanket is reduced to the electric potential of the heating wire of the electric blanket by the leakage current around the heating wire of the electric blanket to which the DC voltage is applied. Since the approach is made, the dressing effect is enhanced in the same manner as when a plurality of electric blankets are covered.
[0041]
According to the invention of claim 8, the electric potential of the upper surface of the user's body is charged to the electric potential of the opposite polarity to the electrode in the mat by utilizing the charge transport action of the ion current, so that a strong electric potential gradient is sandwiched between the human body. And the dressing effect is increased.
[0042]
According to the ninth aspect of the present invention, since the heating wires of the electric blanket are used as the electrodes, the dressing can be performed while the body is being warmed, and the dressing can be performed at hand using an easily available electric blanket. .
[0043]
According to the tenth aspect, the positive and negative voltages applied to the respective electrode cloths are ground voltages with respect to the ground, but the voltage between the electrode cloths is doubled. Therefore, if the strength of the electrostatic field is the same, the absolute value of the ground voltage applied to each electrode cloth can be reduced to half of the normal value, so that the safety against voltage leakage can be improved.
[0044]
According to the eleventh aspect, a DC voltage source capable of simultaneously and steplessly adjusting the output voltages of both polarities is provided, so that the usability is improved.
[0045]
According to the twelfth aspect of the present invention, a refresh effect by recharging the capacitor at the time of polarity reversal can be expected for a body characteristic in which the dressing effect is saturated with time.
[0046]
According to the thirteenth aspect, when a leak occurs in the electrode in the electrode cloth, the leak can be alarmed or the power can be automatically cut off, so that safety can be improved.
[0047]
According to the fourteenth aspect of the present invention, even if an electric leakage occurs in the electrode in the electrode cloth, the leakage current can be limited to 1 mA or less, so that the safety can be improved.
[0048]
According to the invention of claim 15, it is possible to realize a very compact DC voltage source that enables the use of the electrostatic dresser even in an environment where a commercial power supply cannot be used. In this case, since the load current is extremely small, a long battery life can be expected.
[0049]
According to the sixteenth aspect of the present invention, generation of harmful electromagnetic waves can be prevented, so that there is little possibility that navigation electronic equipment will be obstructed even when used in a passenger aircraft or the like.
[0050]
According to the seventeenth aspect, a lightweight and inexpensive electrode cloth can be easily produced.
[Brief description of the drawings]
FIG. 1 is a conceptual diagram illustrating a structure and a use state of an electrostatic dressing apparatus according to a first embodiment of the present invention.
FIG. 2 is a view showing an example of an electrode cloth used for the electrostatic dresser according to the first embodiment of the present invention.
FIG. 3 is an example of a circuit diagram of a DC voltage source used in the first embodiment of the present invention.
FIG. 4 is a conceptual diagram showing a state in which electrodes of a size covering the upper body and the lower body are arranged in a plane on a single electrode cloth as a second embodiment of the present invention. (B) is a diagram viewed from the side.
FIGS. 5A and 5B are conceptual views showing examples of an electrode cloth dedicated to pets, which are cited in a second embodiment of the present invention, wherein FIG. 5A is a view from above, and FIG. .
FIG. 6 is a conceptual diagram showing a usage state and a partially enlarged view of a high insulator film according to a fourth embodiment of the present invention.
FIG. 7 is a conceptual diagram illustrating a relationship between an electric blanket and an electric conductor film according to a fifth embodiment of the present invention.
FIG. 8 is a conceptual diagram illustrating the operation of a flat electrode and an ion generator according to a sixth embodiment of the present invention.
FIG. 9 is an example of a circuit diagram of a DC voltage source used in a seventh embodiment of the present invention.
FIG. 10 is another example of a circuit diagram of a DC voltage source used in the seventh embodiment of the present invention.
FIG. 11 is an example of a circuit diagram of a DC voltage source used in an eighth embodiment of the present invention.
FIG. 12 is an example of a circuit diagram of a DC voltage source used in a ninth embodiment of the present invention.
FIG. 13 is an example of a circuit diagram of a voltage source device according to a tenth embodiment of the present invention for inverting the polarity of a DC voltage at regular intervals.
FIG. 14 is an example of a circuit diagram of a DC voltage source including an earth leakage alarm cutoff circuit according to an eleventh embodiment of the present invention.
FIG. 15 is a diagram showing a DC voltage source and an electrode cloth formed by connecting a number of button-type batteries in series according to a thirteenth embodiment of the present invention.
FIG. 16 is a perspective view showing an example of the structure of a radio noise preventing electric wire for an ignition plug according to a fourteenth embodiment of the present invention.
FIG. 17 is an example of an electrode configured using a plastic cardboard according to a fifteenth embodiment of the present invention.
[Explanation of symbols]
1, 10 ... electrode cloths 1a, 10a, 10b ... electrodes 3 in the electrode cloth 3 ... smoothing capacitor 4 ... rectifier 5 ... fixed resistor 6 ... changeover switch 7 ... 2-wire plug (male)
8 Insulation transformer 9 Two-wire socket (female)
11 ... Single wire socket (female)
DESCRIPTION OF SYMBOLS 12 ... Polarity changeover switch 13 ... Timer 14 ... Coupling capacitor 15 ... Operation amplifier 16 ... Alarm buzzer 17 ... Power cut-off relay 18 ... Button battery 19 ... Material electrode 20 in a mat 20 ... Ion generator 21 ... High insulator film 22 ... Electricity Conductive film 23: Variable resistor

Claims (17)

Equipped with two electrode cloths each having insulated electrodes made of a flexible conductive material disposed on the entire surface of a bedding-sized cloth, and a DC voltage source for applying a DC voltage between the electrodes. In this case, the electrode cloth is vertically stacked, and a user lies between the electrodes, and a predetermined DC voltage is applied between the electrodes. A single electrode cloth in which at least two insulated electrodes made of a flexible conductive material are arranged adjacent to each other in a non-contact manner on a surface of a cloth of a predetermined size; And a DC voltage source for applying a predetermined DC voltage between the electrodes when the user wears or lays the electrode cloth on or under the body. Electric type dresser. The electrode cloth according to claim 2 is formed in a size suitable for the physical size of a pet or the like, and the electrode cloth in a state where a predetermined DC voltage is applied between the electrodes is given to the pet or the like as a rug. How to breed pets. In use, the electrode of the lower electrode cloth of the two electrode cloths is grounded to make its potential zero, and a positive or negative DC voltage is applied to the electrode of the upper electrode cloth. Item 2. An electrostatic dresser according to Item 1. 5. The electrostatic capacitor according to claim 4, wherein the surface of the mattress or the mattress has a natural conductivity and is substantially grounded to make the potential close to zero, thereby omitting the lower electrode cloth. Type dresser. A high-insulation film of approximately the same size as the high-insulation film is laid on the surface of the mattress or the mattress whose potential is close to zero, and the user lies down between the high-insulation film and the upper electrode cloth. The electrostatic type dressing device according to claim 5, wherein: An electric blanket in which a DC voltage is applied to the heating wire is used as the upper electrode cloth, and an electric conductor film that is the same size as the electric blanket and is not connected to the DC voltage source is superimposed on the electric blanket. The electrostatic type dresser according to claim 4 or 5, wherein: A flat electrode substantially the same size as the mat provided inside the dielectric mat, a DC voltage source for applying a predetermined DC voltage between the flat electrode and ground, a positive ion, a negative ion in a space where the mat is placed, Or an electrostatic dressing device comprising an ion generator that emits both of them alternately,
In use, a DC voltage is applied to the plane electrode, and the body of the person or animal lying on the mat is exposed to the ions generated by the ion generator. The dresser according to claim 1, wherein the dresser is charged to a potential having a polarity opposite to the potential. 2. The electrostatic dresser according to claim 1, wherein a heating wire in an electric blanket is used as at least one of the electrodes. The DC voltage source applies a positive and negative DC voltage obtained by independently rectifying each half-wave having a different polarity of a single-phase AC voltage to each electrode, respectively, to each electrode, wherein 9. The electrostatic dresser according to any one of 2 and 8. 9. The electrostatic dresser according to claim 1, wherein the DC voltage source is capable of simultaneously and steplessly adjusting positive and negative output voltages. 9. The electrostatic dresser according to claim 1, wherein the DC voltage source automatically reverses the polarity of the DC voltage at predetermined time intervals. 9. The electrostatic dresser according to claim 1, wherein the DC voltage source includes a leakage alarm cutoff circuit. 9. The electrostatic dresser according to claim 1, wherein the DC voltage source has a smoothing capacitor with a capacitance of not less than 0.005 μF and not more than 0.1 μF. 10. 9. The electrostatic dresser according to claim 1, wherein the DC voltage source is formed by connecting a plurality of button-type batteries in series. 10. 16. The electrostatic dresser according to claim 15, wherein a radio noise preventing electric wire is used as an electrode material in the electrode cloth and a wiring material for connecting each electrode to the DC voltage source. The electrostatic electrode according to claim 1, wherein the electrode is formed by inserting a conductive wire into a corrugated groove inside a plastic cardboard and connecting an adjacent conductive wire to form an electrode conductor. Body.

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