TWM675486U - High oxygen negative ion bubble maker - Google Patents

Abstract

This invention discloses a high-oxygen negative ion bubble generator that utilizes a water pump and bubble generator to mix air into water and atomize it, producing high-concentration high-oxygen negative ion water. The device comprises a housing equipped with a pump, return pipe, electric inlet valve, outlet pipe, exhaust valve, balancing valve, and negative ion bubble generator. As the pump pumps water, air is drawn in through the electric inlet valve and mixed with water, producing primary particles of high-oxygen negative ion water. Primary fine-particle, high-oxygen, negatively ionized water flows through the outlet pipe into the negative ion bubble device's pressure tube, impacting the rotating float inside. The water's impact on the float's surface creates rotation, drawing in more gas for secondary aeration, resulting in finer bubbles enriched with oxygen and a high concentration of negative ions. This device can produce ultrafine bubbles and higher concentrations of negative ions in water, potentially enabling further applications in warm baths, spas, and rehabilitation equipment.

Description

High oxygen negative ion bubble making machine

This project is related to the technology for producing high-oxygen negative ion bubble water, specifically a high-oxygen negative ion bubble generator that can produce tiny bubbles and higher concentrations of negative ions in water.

Today's high-end hot tubs utilize atomized air bubbles. This technology involves pressurizing air and introducing it into the water. Turbulent mixing breaks the air down into tiny bubbles, which then dissolve into the bathtub's water. These tiny bubbles can deeply cleanse pores. Furthermore, when the bubbles burst in the water, they generate micro-explosive energy and waves, creating a gentle, patting massage effect that further stimulates blood circulation and metabolism. Consequently, atomized air bubbles have become a staple of high-tech wellness bathing technologies in modern high-end bathroom fixtures, often used in hotels, hot spring resorts, and medical rehabilitation settings.

As shown in Figure 1, a conventional device for producing bubble water is connected to a pump 200 and a pressure barrel 300 via an inlet pipe 100. The outlet end of the inlet pipe 100 faces the top of the pressure barrel 300. When the pump 200 pumps high-pressure water into the inlet pipe 100, the high-pressure water enters the pressure barrel 300, impacting the inner wall and mixing with air. The impact of the water creates a stirring effect within the barrel, mixing the air with the water to form bubble water. This bubble water is then discharged through an outlet 301 and provided to a warm bubble bathtub. Although the above-mentioned known technology can mix bubbles in water to produce negative ion bubble water, the bubble particles produced are relatively large, making it difficult to form smaller bubbles. In addition, the concentration of negative ions generated is relatively low, making it difficult to achieve the desired effect.

In view of the shortcomings of the above-mentioned known technologies, the creators felt that they were not perfect and devoted their minds and minds to careful research to overcome them. Drawing on their years of experience in this industry, they developed a high-oxygen negative ion bubble generator that can produce finer bubbles and higher concentrations of negative ions in water. It also achieves the goals of aesthetics, space saving, and the freedom of carrying and hanging.

The main purpose of this invention is to provide a high-oxygen negative ion bubble generator. Through a design that includes a pump, return pipe, electric air inlet valve, outlet pipe, exhaust valve, balancing valve, and negative ion bubble device within a single unit, this device utilizes a special negative ion bubble device to produce finer bubbles and higher concentrations of negative ions in water.

The second purpose of this invention is to provide a high-oxygen negative ion bubble generator with a hangable body design, which achieves the effects of aesthetics, space saving, and free carrying and hanging.

To achieve the aforementioned objectives, the present invention's high-oxygen negative ion bubble generator, with its preferred technical solution, comprises a machine body, and within it, a pump, a return pipe, an electric air intake valve, a water outlet pipe, a negative ion bubble device, an exhaust valve, and a balancing valve. The pump is an air-cooled or water-cooled high-pressure water pump, one inlet of which is connected to a water inlet port of the machine body via the return pipe. The electric air intake valve is installed in the return pipe. When the pump draws water, air is drawn in and mixed with the water in the return pipe to produce primary fine particles of high-oxygen negative ion water. One outlet of the pump is connected to a water outlet port of the housing via the outlet pipe. The outlet pipe is equipped with the negative ion bubble device, the exhaust valve, and the balancing valve. The negative ion bubble device comprises a pressure pipe and a rotating float. The pressure pipe is connected to the outlet pipe at its upper and lower ends, and the rotating float is buoyantly disposed within the pressure pipe. The negative ion bubble device is configured to allow water from the outlet pipe to enter the pressure pipe and impact the surface of the rotating float. The impact and rotation of the rotating float introduce more gas into the water, thereby producing a higher concentration of ultrafine, high-oxygen, negative ion water.

In the above-mentioned high-oxygen negative ion bubble making machine, the rotating float is a round sphere or a polyhedral sphere.

In the high-oxygen negative-ion bubble making machine described above, the machine body is a portable housing, which contains the pump, the return pipe, the electric air inlet valve, the outlet pipe, the negative-ion bubble device, the exhaust valve, and the balancing valve. The water inlet and outlet ports are provided on one side of the portable housing.

In the above-mentioned high oxygen negative ion bubble making machine, the portable housing is a plastic housing.

The high-oxygen negative ion bubble making machine further includes a water inlet hose and a water outlet hose. The water inlet hose can be detachably connected to the water inlet port of the machine body to draw water from the outside. The water outlet hose can be detachably connected to the water outlet port of the machine body to output the high-oxygen negative ion water.

In the above-mentioned high-oxygen negative ion bubble making machine, the end of the water-drawing hose is connected to a water-drawing head.

In the above-mentioned high-oxygen negative ion bubble making machine, the end of the water outlet hose is connected to a water outlet head.

This invention is a high-oxygen negative ion bubble generator that can achieve the following effects:

(1) Generates ultrafine bubbles and high-concentration negative ions: This device utilizes an electric inlet valve to introduce gas into the water in the return pipe for pre-mixing. This gas is then pumped under pressure to the negative ion bubble device. When the high-pressure water impacts the float, it generates rotation, enhancing the agitation and dispersion of the gas. This produces even finer bubbles, promotes gas dissolution into the water, and increases the oxygen content and negative ion concentration in the aerated water.

(2) High structural integration and lightweight design: All key components of this device (such as pumps, pipes, valves, and bubble devices) are integrated into a portable housing, resulting in a simple and aesthetically pleasing structural design.

(3) Portable and hangable: The housing of this device can be hung vertically. Users can freely hang it on a wall or other supporting device as needed. It is aesthetically pleasing, space-saving, and convenient, making it easy to carry to different locations.

The structural features and other functions and purposes of this invention are described in detail with reference to the attached illustrated embodiments as follows:

Referring to Figures 2 and 4, this invention discloses a high-oxygen negative ion bubble generator. Specifically, the generator comprises a housing 1, a pump 2, a return pipe 3, an electric air inlet valve 4, a water outlet pipe 5, a negative ion bubble device 6, an exhaust valve 7, and a balancing valve 8, disposed within the housing 1. The following components are provided:

The housing 1 is preferably implemented as a portable housing 11 (as shown in FIG. 4 ), and its shape is not limited. The portable housing 11 houses the pump 2 and other equipment and piping. A water inlet 12 and a water outlet 13 are provided on one side of the portable housing 11. More specifically, the portable housing 11 can be implemented as a plastic housing, making it aesthetically pleasing, easy to hang, and portable.

The pump 2 is an air-cooled or water-cooled high-pressure water pump, one inlet of which is connected to the water inlet port 12 of the housing 1 via the return pipe 3 . An outlet of the pump 2 is connected to a water outlet port 13 of the housing 1 via the outlet pipe 5 .

The electric air intake valve 4 is an existing device, which is installed on the pipeline of the return pipe 3. When the pump 2 pumps water, the electric air intake valve 4 can mix external air with the water in the return pipe 3 to produce primary particulate high-oxygen negative ion water.

The negative ion bubble device 6, exhaust valve 7, and balancing valve 8 are sequentially connected in series through the water outlet pipe 5, allowing the micro-particle high-oxygen negative ion water to flow through the negative ion bubble device 6, exhaust valve 7, and balancing valve 8 in sequence, and then flow out from the water outlet port 13 of the body 1. Among them, the exhaust valve 7 and balancing valve 8 are existing devices.

Referring to Figures 2 and 3 , a preferred embodiment of the negative ion bubble device 6 comprises a pressure tube 61 and a rotating float 62. The diameter of the pressure tube 61 is larger than that of the outlet pipe 5, with its upper and lower ends connected to the pipe of the outlet pipe 5. The rotating float 62 is buoyantly disposed within the pressure tube 61 and can be a spherical, polyhedral, or other shape with a density lower than that of water. When the primary fine-particle, high-oxygen, negative-ion water pumped by the pump 2 enters the pressure tube 61, it impacts the surface of the rotating float 62. As the rotating float 62 rotates under the impact, it introduces more gas into the water, thereby producing a higher concentration of ultrafine-particle, high-oxygen, negative-ion water.

As shown in Figure 4 , to facilitate application in hot tubs, other cleaning equipment, or rehabilitation equipment, a preferred embodiment of the present invention further includes a water inlet hose 9 and a water outlet hose 10. The water inlet hose 9 is detachably connected to the water inlet port 12 of the body 1 , with its end coupled to a water inlet head 91 for drawing external water into the return pipe 3 . The water outlet hose 10 is detachably connected to the water outlet port 13 of the body 1 , with its end coupled to a water outlet head 101 for discharging the ultrafine, high-oxygen, negatively ionized water.

During actual installation, the body 1 is designed as a portable housing 11 (plastic), which reduces size, saves space, and enhances aesthetics. Furthermore, the design of the water inlet hose 9 and the outlet hose 10 allows for flexible adjustment, displacement, and connection, whether wall-mounted, upright, horizontal, or mobile, facilitating overall installation and application.

To use this device, fill a basin, tub, or bathtub with water and place the water inlet hose 9 and outlet hose 10 into the basin, tub, or bathtub. When the system is activated, water is drawn from the water inlet hose 9 into the pump 2. Simultaneously, the electric inlet valve 4 generates primary microparticle-rich, high-oxygen, negatively ionized water in the return pipe 3. This primary microparticle-rich, high-oxygen, negatively ionized water is pumped through the pump 2 to the outlet pipe 5, where it passes through the negative ion bubble device 6 to produce ultramicroparticle-rich, high-oxygen, negatively ionized water. Afterwards, it is returned to the basin, bathtub or tub through the water outlet hose 10. This cycle turns ordinary tap water into a milky white water body filled with ultra-fine high-oxygen bubbles. When the ultra-fine high-oxygen bubbles oscillate and burst, they can generate 100,000 negative ions per cubic centimeter.

Specifically, this invention, when used during shampooing, achieves the following benefits: (1) It removes oil, dirt, chemical residue, heavy metals, and other impurities, while simultaneously allowing hair growth and hair conditioner to be absorbed quickly. The microbubbles, only one-fifth the size of a pore, easily and quickly penetrate the pores and reach the depths of the scalp. Combined with the vibration function, it removes all oil, dirt, and chemical residues trapped in the pores of the scalp, achieving optimal cleansing. This is the optimal time to use hair growth and hair conditioner. (2) Promotes metabolism and slows hair loss: The high negative ion content can excrete waste from scalp cells and absorb nutrients into the cells, accelerating the metabolism of all scalp cells, making the scalp healthier, hair follicles stronger, increasing hair lifespan, and slowing hair loss. (3) Relieves itchy scalp and dandruff and strengthens hair follicles: The conditioning machine of this creation produces micron bubbles, which generate negative ions and double the oxygen content. The ultrasonic vibrations generated when the micron bubbles burst activate hair follicle cells, purifying the scalp and hair, and relieving dandruff and itching. (4) Calming and Inhibitory Effect: When rinsing your hair, the negative ions produced promote sleep, eliminate fatigue, increase brain function, and make thinking clearer. (5) Improve severely oily scalp and shorten perm and dyeing time: Because microbubbles and ultrasound waves clean the oil and dirt on the scalp and hair, and improve oil production, perm and dye agents are more easily penetrated into the hair cortex.

When used for skin cleansing, this product achieves the following benefits: (1) Deep cleansing: This product generates micron-sized bubbles, only one-fifth the size of a pore, which penetrate deeply into the skin. The ultrasonic waves generated by the bursting of these bubbles expel dirt and chemical residues clogged in the pores, effectively achieving a cleansing effect. (2) Activates epidermal cells, soothes itchy skin and aging symptoms: The high oxygen content in the water promotes smooth circulation in the subcutaneous capillaries, restoring cells to their optimal state of activation, effectively soothing aging and itching. (3) Enhance metabolism and eliminate excess fat: When negative ions enter the body, the ionization of calcium, sodium, and potassium in the blood increases, accelerating the alkalinization of the blood and promoting purification. This boosts metabolism and gradually activates and improves the health of the body's cells. This innovative conditioning machine utilizes microbubble generation, generating ultrasound waves through contraction and explosion. This consumes heat to break down fat deep under the skin, promoting blood and lymphatic circulation, and smoothly eliminating excess fat, resulting in a more sculpted figure.

In summary, this invention, a high-oxygen negative ion bubble generator, is proven to be both practical and innovative. Its technological application is undoubtedly novel, and its effectiveness truly aligns with its design objectives, making it a significant advancement. Therefore, we have filed a new patent application in accordance with the law. We sincerely request the magistrate to review this application and grant the patent. We would be gratefully acknowledged.

1: Main body 11: Portable housing 12: Water inlet 13: Water outlet 2: Pump 3: Return pipe 4: Electric air inlet valve 5: Water outlet 6: Negative ion bubble device 61: Pressure pipe 62: Rotating float 7: Exhaust valve 8: Balancing valve 9: Water supply hose 91: Water supply head 10: Water outlet hose 101: Water outlet head

[Figure 1] is a schematic diagram of the familiar negative ion bubble generator and its operating principle. [Figure 2] is a schematic diagram of the high-oxygen negative ion bubble generator of this invention. [Figure 3] is a schematic diagram of the operating principle of the negative ion bubble generator of this invention. [Figure 4] is a schematic diagram of the exterior appearance of the high-oxygen negative ion bubble generator of this invention.

1: Body

11: Portable case

12: Water Inlet

13: Water outlet

2: Pumping

3: Return pipe

4: Electric intake valve

5: Water outlet pipe

6: Negative ion bubble device

61: Pressure pipe

7: Exhaust valve

8: Balancing valve

Claims (7)

A high-oxygen negative-ion bubble generator comprises a housing, a pump, a return pipe, an electric air inlet valve, a water outlet pipe, a negative-ion bubble device, an exhaust valve, and a balancing valve disposed within the housing. The pump is an air-cooled or water-cooled high-pressure water pump, one inlet of which is connected to a water inlet port of the housing via the return pipe. The electric air inlet valve is disposed in the return pipe. When the pump pumps water, air is drawn in and mixed with the water in the return pipe to produce primary microparticles of high-oxygen negative-ion water. The pump's outlet is connected to a water outlet port of the housing via the outlet pipe, and the negative-ion bubble device, the exhaust valve, and the balancing valve are disposed in the outlet pipe. The negative ion bubble device comprises a pressure tube and a rotating float. The pressure tube is connected to the outlet pipe at its upper and lower ends, and the rotating float is buoyantly disposed within the pressure tube. The negative ion bubble device is configured to allow water from the outlet pipe to enter the pressure tube and impact the surface of the rotating float. As the rotating float rotates under the impact, it introduces more gas into the water, thereby producing a higher concentration of ultrafine, high-oxygen negative ion water. The high-oxygen negative ion bubble making machine as described in claim 1, wherein the rotating float is a spherical or polyhedral sphere. The high-oxygen negative-ion bubble making machine as described in claim 1 or 2, wherein the machine body is a portable housing, the portable housing is equipped with the pump, the return pipe, the electric air inlet valve, the water outlet pipe, the negative-ion bubble device, the exhaust valve and the balancing valve, and the water inlet port and the water outlet port are provided on one side of the portable housing. The high oxygen negative ion bubble making machine as described in claim 3, wherein the portable housing is a plastic housing. The high-oxygen negative-ion bubble making machine as described in claim 3 further includes a water inlet hose and a water outlet hose; the water inlet hose can be detachably connected to the water inlet port of the machine body for drawing water from the outside; the water outlet hose can be detachably connected to the water outlet port of the machine body for outputting the ultrafine high-oxygen negative-ion water. A high-oxygen negative-ion bubble making machine as described in claim 5, wherein the end of the water-drawing hose is connected to a water-drawing head. The high-oxygen negative ion bubble making machine as described in claim 5, wherein the end of the water outlet hose is combined with a water outlet head.