JP2008259793A - Method and apparatus for cleaning using high-frequency vibration - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a method and an apparatus for efficiently radiating high-frequency vibration energy using water as a propagation medium which are used for cleaning the human body or farm animals, promotion of blood circulation, antibacterial action, deodorization, and suppression of multiplication of bacteria or microorganisms in water. <P>SOLUTION: The apparatus comprises a high-frequency vibration radiation device which is sealed by a sealing substrate and a radiation diaphragm and contains piezoelectric ceramic diaphragms, metal plates and meal films that are bonded in an unimorph structure or in a bimorph structure and arranged uniformly on the inner surface of the radiation diaphragm and a vibration absorbing plate held by the rear surface, and a high-frequency power source for radiating high-frequency vibration of 20-100 kHz from the radiation diaphragm. By bringing the high-frequency vibration radiation device into contact with water, cleaning, promotion of blood circulation and antibacterial and deodorant actions are achieved. <P>COPYRIGHT: (C)2009,JPO&INPIT

Description

  The present invention efficiently radiates high-frequency vibration energy using water having a high propagation impedance as a propagation medium to clean human bodies and livestock, promote blood circulation and deodorize antibacterial, or prevent the growth of fungi and microorganisms in water The present invention relates to a method and an apparatus.

At present, it is indispensable that the goods and services provided as well as the means for producing goods and services have requirements such as environment, energy saving, safety, health maintenance, and response to the elderly.
In other words, in terms of the conventional situation, bathing is an effective method for sweating and secretions from the body, cleaning dirt, and recovering from fatigue caused by warm bathing, but bath temperature is at most 42 to 45 ° C. Therefore, bacteria that are exfoliated and mixed into the bath water from the human body are easy to propagate using nutrients such as organic substances and oils and fats, and even if they are temporarily drained, they remain in the pipeline with the bath pot and propagate. When reused, the bath water becomes extremely contaminated.

  In addition, when taking a bath, while removing the sweat, secretions, and dirt while rubbing the body with soap and detergent together with a warm bath, the metabolic function of the skin decreases with ageing, so soap Scrubbing with a detergent or a detergent not only severely damages the skin, but also results in numerous skin irritation due to the entry of germs from the damaged part.

In recent years, reflecting the health consciousness, there are many hot-spring baths called “super public baths” all over the country, but the super public baths are used by a large number of people. Since water and heating energy are required, most of them adopt a circulation system as a countermeasure for saving water and saving energy. However, the use of a large number of people not only mixes a wide variety of sweats, secretions and bacteria in the bath water, but these bacteria also adhere as slime in the circulation line, and this slime becomes Legionella bacteria. It will also be a warm bed.
For this reason, although it is regularly disinfected with a disinfectant such as sodium zincate in warm bath facilities, it does not exert sufficient bactericidal effect on Legionella bacteria that are latent in the slime, so depending on the appropriate nutrients and temperature conditions Breeding rapidly, it often causes catastrophes that kill lives.

  On the other hand, in the animal husbandry industry such as cattle farming, pig farming and poultry farming, it has been converted from semi-open farming under natural conditions for a long time to semi-open farming in facilities such as cattle barns, pig houses or poultry houses. In addition, the floor in such a semi-open facility is mixed with manure, feed residue, mud, etc. of livestock to be reared, and in combination with the relatively warm climate in the facility. Has been bred furiously. In dairy cows, insects fly to the breast, or mastitis is caused by scratching the tail where miscellaneous fungi adhere to remove physiological itch, or death of hair loss due to Coccus fungi in poultry. There are many accidents. For this reason, as a matter of fact, there is no choice but to disinfect with feed mixed with antibiotics or disinfectant.

In addition, in recent years, with the extreme concentration in urban areas due to urbanization, conversion to high-rise or super-high-rise buildings from effective use of land to offices and stores as well as residences is being attempted.
Thus, in such high-rise or super-high-rise buildings, it is divided into a huge number or divided and owned and used, and various operations and lives are made within each division and division, The quality of the drained water is very diverse, and each floor is connected to a vertical drainage pipe provided at a required interval with a horizontal drainage pipe and discharged to a septic tank and sewerage system. is there. However, since such drain pipes are installed in the building structure, it is warm throughout the year, and the drained water has a lot of organic matter and oils and fats such as daily waste water and cooking waste water. As the slime adheres due to the propagation of microorganisms and microorganisms, and food residues and hair are entangled with the slime, drainage pipes are clogged and odors are generated in the short term. This results in enormous costs, time and effort.

As a result of intensive research on solutions that can cope with the environment, energy saving, safety, health maintenance, etc. from an early stage, the inventor has obtained a piezoelectric ceramic resonator element that uses the piezoelectric inverse effect of piezoelectric ceramics. As a result of investigating that the magnetostrictive vibration element can generate vibrations of about 100 Hz to about 200 MHz, the cavitation action is exerted on water depending on the specific high-frequency vibration, and the use safety is high. Throwing it into the water to generate ultrasonic waves, vibrating the probe of the beauty device to enhance the skin-beautifying effect, or holding the low-frequency transmitter and high-voltage power supply together with the liquid container through the isolation chamber An apparatus for cleaning an object to be processed with an ultrasonic wave generated from an ultrasonic wave generating element is known.
Japanese Patent Laid-Open No. 10-52669 Japanese Patent Laid-Open No. 2000-233005 JP-A-5-253275

  Thus, the present invention suppresses the growth of bacteria and microorganisms in the bath water, purifies the inside of the bathtub, water tank or circulation line and prevents the growth of Legionella, and does not require the use of a detergent or rubbing the body. Purify or promote the prevention and breeding of livestock with antibacterial disease and antibacterial activities, or control the growth of bacteria and microorganisms in the water supply and drainage pipes and red rust, scale, slime, etc. in the water supply and drainage pipes It is to prevent the removal of deposits and accumulation of deposits. In order to achieve this, it is possible to radiate intermittently or continuously over a wide frequency range of high-frequency vibrations, and to radiate and propagate water with a high propagation impedance as a propagation medium. Or it came to the present invention that the deodorizing antibacterial effect was exhibited.

  The present invention efficiently radiates high-frequency vibration energy using water having a high propagation impedance as a propagation medium, cleans the human body and livestock, promotes blood circulation, and deodorizes antibacterial substances, or suppresses the growth of fungi and microorganisms in water. An object of the present invention is to provide a vibration cleaning method and an apparatus therefor.

  The technical means used by the present invention to solve the above-mentioned problems is that the high-frequency vibration radiator has a metal plate material and one side surface on one side of a piezoelectric ceramic plate that can vibrate and radiate a high-frequency frequency of 20 to 100 kHz. Is a unimorph structure in which metal films such as silver and copper are joined, or a piezoelectric ceramic plate material on both sides of the metal plate material and a metal film such as silver and copper are joined on the outer side surfaces to form a bimorph structure. A vibration-absorbing plate made of a highly elastic material that can absorb and relax high-frequency vibrations is sandwiched on the inner surface of a radiating vibration plate made of ceramics or synthetic resin material. Thus, the high-frequency vibration radiator is formed by being sealed by the sealed substrate and the radiation diaphragm.

  Furthermore, it is possible to use a magnetostrictive vibration plate instead of a piezoelectric ceramic plate as a high-frequency vibration radiator, and in the case of using a magnetostrictive vibration plate, a leg portion of a magnetostrictive vibration plate formed in advance using a magnetostrictive ferrite in a required shape. A bias magnetic field ferrite magnet is held at the lower end, an excitation coil is wound around the upper part of the leg, and high frequency power equal to the resonance frequency is applied to the excitation coil, and an alternating magnetic field is superimposed on the bias magnetic field. Radiates high-frequency vibrations from the magnetostrictive vibration plate material, and a vibration-absorbing plate material made of a highly elastic material capable of absorbing and mitigating high-frequency vibrations is sandwiched between the side and bottom surfaces of the legs, and the whole is made of metal, ceramics or synthetic resin It is configured to be hermetically formed by a hermetically sealed substrate made of a material.

  In addition, a high-frequency vibration radiator is proposed which is based on condenser vibration. The upper surface of the insulating substrate formed to the required dimensions is made of a metal material, and a metal back surface having a fine uneven surface formed on the upper surface side. An electrode plate is joined, and a synthetic resin film material with a metal film such as metal vapor deposition on the upper surface is joined to the metal back electrode plate. And the entire surface is sealed with a water-resistant coating layer.

  These high-frequency vibration radiators drive the high-frequency vibration radiators to vibrate and radiate high-frequency vibrations. Therefore, high-frequency power of a predetermined high frequency or a predetermined range is intermittently or continuously supplied from a high-frequency power source. The cleaning device using the high-frequency vibration of the present invention is formed by adding the high-frequency vibration radiator to the water having high high-frequency propagation impedance in a bathtub, a water tank, a water supply pipe, a drain pipe, or the like. It exists in the washing | cleaning method by the high frequency vibration which carries out the vibration radiation propagation efficiently in the state of direct contact, and carries out washing | cleaning of a human body and livestock, blood circulation promotion, antibacterial deodorization, or the suppression of the proliferation of fungi and microorganisms in water.

The present invention is configured as described above, and the high-frequency power supply is also intermittently or continuously at a required high frequency or a high frequency within a required range and at an appropriate interval by using a transientr or a thyristor. It can be added to a high-frequency vibration radiator with a small and simple circuit and a large output, and when the high-frequency vibration radiator is made of a piezoelectric ceramic plate and has a unimorph or bimorph structure, regardless of the resonance wavelength. A very wide range of high-frequency vibrations can be radiated without diffusing and attenuating in the opposite direction from the radiating diaphragm. In addition, when the high-frequency vibration radiator has a configuration of a condenser speaker, high-frequency vibration radiation over a very large area is performed when high-power vibration radiation is not required.
Further, when the high-frequency vibration radiator is made of a magnetostrictive vibration plate material, vibration radiation is performed by superimposing a bias magnetic field and an alternating magnetic field, so that a strong high-frequency vibration radiation can be achieved from a small-area vibration radiation surface.

  The high-frequency vibration radiator of the present invention is not only formed by hermetically sealing the outer peripheral surface of the high-frequency vibration radiator and the sealing substrate, but also the piezoelectric ceramic plate material of the high-frequency vibration radiator, the insulating base material of the condenser speaker, or the magnetostrictive vibration. A vibration absorbing plate made of a highly elastic material is sandwiched and sandwiched between the back surface of the plate or the like, and the side surfaces of the legs, so that the vibration radiating surface is immersed in water or in water in a bathtub, a water tank, a circulation pipe, or the like. Even if it is installed in the bathtub, water tank or circulation pipeline so that it comes into contact with it, it is prevented from being radiated directly to the bathtub, water tank or circulation pipeline, so that the installation structure is installed. Deterioration and embrittlement are also protected.

  In addition, because the high-frequency vibration radiation surface is in contact with water with high propagation impedance of high-frequency vibration, high-frequency vibration energy is efficiently propagated throughout the bathtub and aquarium, and the cleaning effect is generated not only by promoting the cavitation of water. The antibacterial and deodorizing properties are exhibited by the high bactericidal and decomposable power of -OH ions, and by appropriately changing the high frequency frequency and emitting intermittent high frequency vibration, The blood circulation promotion is remarkably enhanced by the addition, and the effect of removing and preventing the red rust, scale and slime accumulated in the circulation line such as the bathtub, the water tank, the water supply pipe and the drain pipe is also exhibited.

  The high-frequency vibration radiator has a bimorph structure using a piezoelectric ceramic plate material. The high-frequency vibration radiator has a high frequency of 20 kHz to 100 kHz from the high-frequency power source, and is intermittently or continuously with an appropriate interval. At the same time, the high-frequency vibration radiator is immersed in water, or high-frequency vibration radiation is produced in contact with water.

In the following, the embodiment of the present invention will be described in detail together with the drawings of the purification device. FIG. 1 is a cross-sectional explanatory view when the high-frequency vibration radiator 1A of the purification device 1 of the present invention is formed by a piezoelectric ceramic plate material 10A. 1A shows a case of a unimorph structure using a piezoelectric ceramic plate 10A. A metal plate 11A made of stainless steel, brass or the like is provided on one side of the piezoelectric ceramic plate 10A formed in a required size and shape. The metal film 12A made of silver, copper, aluminum or the like is interposed and joined as a through electrode, and the metal film 12A made of silver, copper, aluminum or the like is joined as a through electrode on the other side of the piezoelectric ceramic plate 10A. Is.
Normally lead zirconate titanate as the material of the piezoelectric ceramic plate 10A (ZroTio) _{O 3} is used in such a case, PbTiO ₃ -PbZrO ₃ are reached more recently added with lead magnesium niobate as a third component -Pb (MgNb) O ₃ or the like is also used.
In addition, the piezoelectric ceramic plate 10A can radiate high frequency vibrations of approximately 20 to 100 kHz without being restricted by the resonance wavelength regardless of the unimorph structure or the bimorph structure, and more preferably has a circular shape and a diameter. Is preferably about 2 to 6 cm and about 0.1 to 0.5 mm in thickness.

  Further, FIG. 1B shows a cross-sectional explanatory diagram of a bimorph structure, in which a piezoelectric ceramic plate 10A formed in a required size and shape is joined with a metal plate 11A made of stainless steel or brass sandwiched therebetween. In addition, a metal film 12A made of silver, copper, aluminum or the like is joined to the outer surface of each piezoelectric ceramic plate 10A as a through electrode.

FIG. 2 is a cross-sectional explanatory view of the high-frequency vibration radiator 1A in the purification apparatus 1 of the present invention. The inner surface of the vibration radiation plate 10 formed according to the radiation area of the high-frequency vibration energy required according to the purpose of use is shown on FIG. The unimorph structure or the bimorph structure made of the piezoelectric ceramic plate material 10A is substantially uniformly distributed, and the vibration absorbing plate material 10B made of a highly elastic material and capable of absorbing and relaxing high frequency vibrations is disposed on the back surface and the gap portion. It is pinched.
When the vibration absorbing plate 10B is installed in the bathtub 3A, the water tank 3B, the circulation line 3C or the like by an appropriate means in the practical use of the high-frequency vibration radiator 1A, the bathtub 3A, the water tank 3B, the circulation line 3C, etc. The radiation of high-frequency vibrations to the equipment 3 is blocked to prevent deterioration and embrittlement of the equipment 3 and the like and to prevent the generation of vibration noise associated with the high-frequency vibrations. As a specific material of the vibration absorbing plate material 10B in such a case, a soft closed cell sheet material made of a synthetic rubber or a polyurethane resin material may be mentioned.

On the inner surface of the vibration radiating plate member 10, a unimorph structure or a bimorph structure made of a piezoelectric ceramic plate member 10A is disposed so as to be substantially evenly distributed, and the vibration absorbing plate member 10B is sandwiched between the back surface and the gap portion. The vibration radiating plate member 10 is hermetically bonded by the hermetically sealed substrate 11B to provide sufficient prevention when used in water or in contact with water.
There is no particular restriction on the material of the sealed substrate 11B in such a case, but any material can be used as long as it is strong and strong and has excellent adhesion to the vibration radiation plate material 10. Then, in order to lock and fix the high-frequency vibration radiator 1A and the like at appropriate portions of each equipment 3, it is also proposed to provide a fixing hook 12B or a suction plate 13B or the like on the back surface of the sealed substrate 11B as necessary. The FIG. 3 shows a front view of the high-frequency vibration radiator 1A. Of course, the high-frequency vibration radiator 1A is not limited to such a shape, and a polygonal shape or a polyhedral shape is also used according to the purpose.

  In order to radiate desired high frequency vibration energy to the high frequency vibration radiator 1A thus formed, a desired high frequency power 2A is added from the high frequency power source 2. The high frequency power 2A from the high frequency power source 2 is added. Cavitates water to generate fine bubbles and cleans them with the impact force of their collapse, and creates antibacterial and deodorant effects by -OH ions created by bubble collapse, or vibration associated with high-frequency vibration Massage action on the human body and livestock by the stimulation of waves, or removal and prevention of red rust, scale and slime adhering to the circulation line such as bathtub, water tank, water supply pipe, drainage pipe, etc., or prevention of human body and livestock It is desirable to change the high frequency and addition method for the purpose of blood circulation promotion by permeation through the body.

That is, in the case of light cleaning by cavitation of water, a high frequency of 25 to 40 kHz can be continuously added from the transientr self-excited oscillation circuit 20A. A transistor self-oscillation circuit 20A with 38 kHz radiation and 20 W output is shown.
On the other hand, the main oscillation / power amplification method is suitable for producing strong high-frequency vibration radiation, and the high-frequency vibration radiator 1A is replaced with a unimorph structure or bimorph structure using a piezoelectric ceramic plate material 10A, and a high frequency using a magnetostrictive vibration plate material 10C. The use of the magnetostrictive vibration radiator 1C is desired, and FIG. 4B shows a main oscillation / power amplification oscillation circuit diagram 20B when the vibration radiation is 28 kHz and the radiation output is 30 W.

  In recent years, the adoption of such a thyristor (SCR) oscillation circuit 20C is preferable because an oscillation circuit for high-frequency high-frequency vibration radiation can be made small and simple and inexpensive by employing a thyristor (SCR). A thyristor oscillation circuit 20C is shown in FIG. 4C. The thyristor oscillation circuit 20C is for the case where the vibration radiation is 10 kHz and the radiation output is 500 W. The radiator 1A is also preferably a Langevin type radiator (BLT) in which the piezoelectric ceramic plate member 10A is three-dimensionally combined by bolting.

  In addition, as clearly shown in the thyristor oscillation circuit 20C, a high-frequency vibration radiation is also generated by incorporating a pulse generator and appropriately generating a high-frequency pulse of an arbitrary frequency or intermittently generating it at a required interval. Various high frequency vibrations can be emitted continuously or intermittently.

FIG. 5 is a view showing how the piezoelectric ceramic plate 10A is used in the bathtub 3A in the high-frequency vibration radiator 1A. The high-frequency vibration is obtained by locking or adsorbing the back surface of the high-frequency vibration radiator 1A to the wall surface of the bathtub 3A. The high frequency power 2A is added from the high frequency power source 2 after injecting the bath water 30 to a water level where the entire radiator 1A can be submerged.
As another method of use, the high-frequency vibration radiator 1A may be laid on the bottom surface of the bathtub 3A or suspended on the surface of the bath water 30.

  FIG. 6 is a view of the case of use for cleaning and antibacterial deodorization of livestock such as cattle, pigs and sheep. The required volume of the aquarium 3B is provided with a livestock walking path 40, and the It is proposed that the surface of the radiating vibration plate 10 of the high-frequency vibration radiator 1 </ b> A is disposed opposite to the wall surface so that high-frequency power 2 </ b> A is applied and the livestock is moved along the walking path 40.

  FIG. 7 is a usage diagram for cleaning or antibacterial deodorization and removal of red rust, scale, slime, etc. or prevention of adhesion of water supply or drainage circulation water 31 in the circulation pipe 3C of the water supply pipe or drainage pipe, In such a case, vibration radiation with a relatively strong vibration radiation output is desired. Therefore, a Langevin-type radiator using the piezoelectric ceramic plate 10A and a high-frequency magnetostrictive vibration radiator 1C are suitable, and the arrangement method is drainage. The vibration radiating plate member 10 may be fitted to the connection edge of the pipe or the circulation pipe 3C so as to come into contact with the drainage or the circulation water, or may be fixedly attached to the drain pipe 3C. For such vibration radiation, high-frequency vibration of about 30 to 60 kHz and intermittent vibration radiation of about 1 to 5 seconds are desirable from the viewpoint of slime removal.

  FIG. 8 shows a principle diagram of the high frequency condenser vibration radiator 1B and the high frequency magnetostrictive vibration radiator 1C. FIG. 8A shows the upper surface of the insulating substrate 4A made of an insulating material in the case of condenser vibration radiation. A metal back electrode plate 4B made of a metal material and having fine or rough irregularities formed on the surface thereof is bonded, and an insulating sheet having a metal film 4C formed on the outer surface of the metal back electrode plate 4B. 4E is configured to be hermetically bonded. With such a configuration, the unevenness sealed between the insulating sheet 4E and the metal back electrode plate 4B forms an air thin layer, and retains the capacitor function. By adding high frequency power 2A to 4B and metal film 4C, high frequency vibration radiation is made. This is very convenient when the radiation vibration output is relatively small and vibration radiation is made over a wide area. That. The insulating sheet 4E is advantageously a polyester film deposited with an outer surface of aluminum or copper having a thickness of 5 to 30 μm, and the vibration radiation in this configuration resonates depending on the thickness of the insulating sheet 4E and the thickness of the thin air layer. Although the frequency is also affected, such a configuration can be used when the high-frequency vibration for practical use in the present invention is approximately 20 to 100 kHz.

  FIG. 8B is a principle diagram of the high-frequency magnetostrictive vibration radiator 1C, wherein the magnetostrictive vibration plate material 5A formed in a required shape is formed in a required shape using magnetostrictive ferrite, and the magnetostrictive vibration plate material 5A includes A leg portion 5C is formed on which an excitation coil 5B for adding an alternating magnetic field to the bias magnetic field is wound. A bias magnetic field ferrite magnet 5D is sandwiched at the lower end of the leg 5C, and an alternating magnetic field is applied to the bias magnetic field by adding high frequency power 2A having a frequency equal to the resonance frequency to the excitation coil 5B. Thus, the high-frequency magnetostrictive oscillating tool 1C is extremely advantageous in the case of generating strong high-frequency oscillating radiation in a relatively narrow range.

Availability of industrial articles

  According to the purpose of use and the vibration radiation area and vibration radiation output required for high-frequency vibration radiation, a high-frequency vibration radiator can be selected and installed, and high-frequency power can be added from a high-frequency power source.

  It is a cross-sectional explanatory drawing of a piezoelectric ceramic diaphragm.   It is a section explanatory view of a high frequency vibration radiator.   It is a front sketch of a high frequency vibration radiator.   It is an illustration figure of a high frequency oscillation circuit.   It is a use mode figure used for a bathtub.   It is a use mode figure in the washing tank of livestock.   It is a use mode figure to a drain pipe.   It is a principle figure of the high frequency vibration by a capacitor or a magnetostriction diaphragm.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Purification apparatus 1A High frequency vibration radiator 1B High frequency condenser vibration radiator 1C High frequency magnetostrictive vibration radiator 10A Piezoelectric ceramic plate material 11A Metal plate material 12A Metal film 10 Vibration radiation plate material 10B Vibration absorption plate material 11B Sealed substrate 12B Fixed hook 13B Adsorption board 10C Magnetostrictive vibration plate material 2 High-frequency power source 2A High-frequency power 20A Transger self-oscillation circuit 20B Main oscillation / power amplification oscillation circuit 20C Thyristor oscillation circuit 3 Equipment 3A Bathtub 3B Water tank 3C Drain pipe or circulation pipe 30 Bath 31 Water supply or drain circulation Water 4A Insulating substrate 4B Metal back electrode plate 4C Metal film 4D Water resistant coating layer 4E Insulating sheet 5A Magnetostrictive vibration plate material 5B Excitation coil 5C Leg part 5D Bias magnetic field ferrite magnet 40 Walking path

Claims (6)

  A piezoelectric ceramic plate, a metal plate, and a metal film are joined in a unimorph structure or a bimorph structure, and are distributed almost uniformly on the inner surface of the radiating vibration plate, and a vibration absorbing plate is sandwiched on the back surface of the radiating vibration plate. And a high-frequency vibration radiator that is hermetically sealed with a hermetic substrate and a unimorph structure or a bimorph structure of the high-frequency vibration radiator, and the high-frequency vibration in the range of 20 to 100 kHz is intermittently or A cleaning device using high-frequency vibration, comprising a high-frequency power source having an oscillation circuit for continuously radiating vibration.   The high-frequency vibration radiator is joined to an insulating substrate having a required size and shape, and a metal back electrode plate having a fine uneven surface formed on the upper surface thereof is joined, and the metal back electrode plate further has a metal film on the upper surface thereof. 2. The cleaning apparatus using high-frequency vibration according to claim 1, wherein the two are hermetically bonded and the entire surface thereof is covered with a water-resistant coating layer.   The high-frequency vibration radiator has a leg portion formed of magnetostrictive ferrite so that the upper portion faces the radiating vibration portion and the lower portion, and a bias magnetic field ferrite magnet is sandwiched at the lower end of the opposite leg portion. A coil for excitation is wound, high frequency power equal to the resonance frequency is applied to the coil for excitation, and an alternating magnetic field is superimposed on the bias magnetic field to generate high frequency vibration radiation, and the entire surface is hermetically formed by a sealed substrate. The cleaning device by high-frequency vibration according to claim 1, comprising the configuration.   The radiation vibration surface of the high frequency vibration radiator is brought into contact with water in a bathtub, a water tank, a water supply pipe, a drain pipe or a circulation pipe, and the high frequency vibration having a radiation frequency of 20 to 100 kHz is intermittently or continuously radiated and propagated. Therefore, cleaning of the human body and livestock, promotion of blood circulation, antibacterial deodorization or antibacterial deodorization in water supply pipes, drainage pipes and circulation pipes, removal of red rust, scale and slime deposits, and prevention of adhesion accumulation, Cleaning method using high frequency vibration.   4. A cleaning apparatus using high-frequency vibration according to claim 1, wherein a battery or a battery is incorporated in a high-frequency power source that intermittently or continuously radiates high-frequency vibration from the high-frequency vibration radiator.   4. A cleaning apparatus using high-frequency vibration according to claim 1, wherein the high-frequency vibration radiator is formed in a polygonal shape or a polyhedral shape.

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