# US 2017/0281963 A1 · Multi-wave signal keep-fit energy chamber

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- Number: US 2017/0281963 A1
- Document ID: US20170281963A1
- Status: Published application
- Kind: A1
- Application number: 15/623,365
- Filed: 2017-06-14
- Published: 2017-10-05
- Earliest claimed: 2015-01-13
- Inventors: Cunzheng SHEN
- Web page: https://patentgrep.com/patent/US20170281963A1

## CPC

- A61N 2/002: {in combination with another treatment}
- A61N 1/40: Applying electric fields by inductive or capacitive coupling (microwave apparatus A61N5/00); {Applying radio-frequency signals}
- A61N 2/02: using magnetic fields produced by coils, including single turn loops or electromagnets (A61N2/12 takes precedence)
- A61N: ELECTROTHERAPY; MAGNETOTHERAPY; RADIATION THERAPY; ULTRASOUND THERAPY (measurement of bioelectric currents A61B; surgical instruments, devices or methods for transferring non-mechanical forms of energy to or from the body A61B18/00; anaesthetic apparatus in general A61M; incandescent lamps H01K; infrared radiators for heating H05B)

## Abstract

The present invention discloses a multi-wave signal keep-fit energy chamber. The keep-fit energy chamber is a multi-wave signal emission chamber, 90-150 multi-wave signal emission elements (37) are uniformly distributed in the chamber. The multi-wave signal emission elements (37) are subjected to signal modulation through a multi-wave signal modulation power supply (33) under the action of an electric field and emit a multiple waveforms corresponding to a human body so as to enable the human body to generate multi-wave resonance in the chamber, thereby achieving the effects of eliminating human diseases, promoting health, prolonging life and keeping fit. The multi-wave signal modulation power supply (33) manufactured by using a method for manufacturing the multi-wave signal modulation power supply (33) is used for the multi-wave signal keep-fit energy chamber.

## Claims

### Claim 1

A multi-wave signal keep-fit energy chamber, comprising a chamber shell, a middle squirrel-cage chamber framework, chamber opening/closing doors and multi-wave signal emission elements, wherein the multi-wave signal emission elements comprise a multi-wave signal emission element bracket, heating coils, a high-voltage electric field, a multi-wave signal modulation power supply, a multi-wave signal waveguide cover and a multi-wave signal emission element base; the heating coils are uniformly coiled on the multi-wave signal emission element bracket and used for heating the multi-wave signal emission elements; the top of the multi-wave signal emission element bracket is connected with the multi-wave signal waveguide cover; a bolt is connected with the top of the multi-wave signal emission element bracket from the top of the multi-wave signal waveguide cover to the multi-wave signal emission element base at the bottoms of the multi-wave signal emission elements; the multi-wave signal emission element base is electrically connected with a high-voltage positive pole; the bolt is electrically connected with a high-voltage negative pole; a layer of multi-wave signal modulation power supply coils or metal bodies is coiled on an outer wall of the multi-wave signal emission element base to serve as a carrier of multi-wave signal charge of the multi-wave signal modulation power supply; the chamber opening/closing doors are arranged at the front and rear parts of the middle squirrel-cage chamber framework; an exterior of the middle squirrel-cage chamber framework is coated by the chamber shell, and an interior of the middle squirrel-cage chamber framework is filled with porous liners; 90-150 multi-wave signal emission elements are uniformly distributed on the middle squirrel-cage chamber framework; a ventilating fan I, a ventilating fan II and lighting equipment are arranged in the chamber; a circuit control system of the multi-wave signal emission elements can clearly observe whether operations of the heating coil of each of the multi-wave signal emission elements, the high-voltage electric field and the multi-wave signal modulation power supply are normal or not on a monitoring screen by virtue of a software control program and can also observe and control temperature change in the energy chamber; and multi-wave resonance is generated between the multi-wave signal keep-fit energy chamber and a human body under the control of a running program.

### Claim 2 (depends on 1)

The multi-wave signal keep-fit energy chamber according to claim 1, wherein the multi-wave signal emission element bracket is conical; the cone has a top diameter of 46 mm, a vertical height of 90 mm and a wall thickness of 4-5 mm; the multi-wave signal emission element bracket has a middle diameter of 77 mm and is a heating coil winding area; a conical bottom diameter of the multi-wave signal emission element bracket is 98 mm; a bolt hole for connecting the bolt is formed in the middle of a center circle; the diameter of the bolt hole in the top of a section of the multi-wave signal emission element bracket is 6 mm; a cone angle in a cavity of the multi-wave signal emission element bracket is 34 degrees; the multi-wave signal emission element bracket is made from violet sand earthenware and manufactured by glazing a main body surface by taking a TDP material as glaze and firing.

### Claim 3 (depends on 1)

The multi-wave signal keep-fit energy chamber according to claim 1, wherein the power of the heating coils is 10-25 W.

### Claim 4 (depends on 1)

The multi-wave signal keep-fit energy chamber according to claim 1, wherein the multi-wave signal waveguide cover is conical, is made of metals and has a height of 59-65 mm, a top diameter of 10-20 mm, a bottom diameter of 68-75 mm and a wall thickness of 1.5-3 mm; and an inner cone angle of the multi-wave signal waveguide cover is 34 degrees.

### Claim 5 (depends on 1)

The multi-wave signal keep-fit energy chamber according to claim 1, wherein the multi-wave signal emission element base is made of plastics and has a diameter of 108-115 mm and a height of 107-115 mm; an inner wall of the base is a metal body; and the multi-wave signal emission element base is electrically connected with a 1000-3000V high-voltage positive pole.

### Claim 6 (depends on 1)

The multi-wave signal keep-fit energy chamber according to claim 1, wherein coils or metal bodies coiled on the outer wall of the multi-wave signal emission element base have a height of 30-40 mm; and the carrier of the multi-wave signal charge has signal current of 2-3 mA and a voltage of 5-6V.

### Claim 7 (depends on 1)

The multi-wave signal keep-fit energy chamber according to claim 1, wherein the middle squirrel-cage chamber framework has a diameter of 800-900 mm and a length of 2000-2100 mm; and a movable bed is arranged in the center of the middle squirrel-cage chamber framework and has a length of 1800 mm-1900 mm.

### Claim 8 (depends on 1)

The multi-wave signal keep-fit energy chamber according to claim 1, wherein the circuit control system of the multi-wave signal emission elements controls a temperature of an equal-microparticle keep-fit chamber to be between 33° C. and 50° C. to serve as a stable operating interval.

### Claim 9 (depends on 1)

The multi-wave signal keep-fit energy chamber according to claim 1, wherein the multi-wave signal modulation power supply comprises a negative pole made of magnesium and magnesium alloy sheets and further comprises a collector and a positive pole attached with a copper or silver foil on the collector, wherein the sheets have a thickness of 0.2-1 mm; the surface of each of the sheets is insulated; a voltage between the positive pole and the negative pole is 1.3-2V; individual collector plates are superposed and connected with one another; and the requirements of the signal current and the voltage of the carrier of the multi-wave signal charge are met.

### Claim 10 (depends on 9)

The multi-wave signal keep-fit energy chamber according to claim 9, the collector is manufactured in the following manner:
emulsifying the following nine materials: (1) 600 g of calcium chloride soaked into glue in 600 g of water; (2) 7000 g of 2% xanthan gum aqueous solution; (3) 1800 g of industrial salt; (4) 360 g of wool fat; (5) 360 g of glycerin; (6) 300 g of vegetable oil; (7) 600 g of 133 water-soluble glue; (8) 1800 g of 10% glutinous rice flour paste and (9) 300 g of a lipophilic emulsifier;
adding (10) 240 g of thorium oxide, (11) 240 g of iron phosphate, (12) 100 g of lithium cobalt oxides, (13) 100 g of lithium nickelate, (14) 4800 g of trisodium phosphate, (15) 300 g of industrial salt, (16) 800-1200 g of cobalt sulfate and (17) 3600-4100 g of graphite into the emulsified mixture; and
uniformly stirring by a stirrer, coating on 20-30 g of paper with a thickness of 0.3-0.6 mm, drying, slicing, sizing, adhering to a negative pole with a corresponding size, performing vacuum treatment at a temperature of 40-70° C. for 1-2 hours, drying to obtain the product.