A low-hertz water hatching device

Abstract

The application discloses a low-hertz water hatcher device, which comprises a hatching barrel, a mineralization plate and an electrode excitation device. The hatching barrel is used for containing drinking water, a water outlet faucet is installed on the barrel body of the hatching barrel, the barrel wall of the hatching barrel is made by mixing and firing purple clay, kaolin and carbon nanotubes, the barrel wall of the hatching barrel is provided with a mounting hole and the water outlet faucet, and an insulating mounting plate is sintered and mounted on the mounting hole. The mineralization plate is arranged in the barrel body of the hatching barrel and is made by sintering kaolin, loess stone, purple clay, titanium white powder and tourmaline. The electrode excitation device comprises a titanium metal needle and a power supply device, the power supply device is provided with an anode contact and a cathode contact, the cathode contact is fixedly connected with the barrel wall of the hatching barrel and integrated, the anode contact is fixedly connected with one end of the titanium metal needle and integrated, and the other end of the titanium metal needle penetrates through the insulating mounting plate and extends into the barrel body of the hatching barrel. The low-hertz water hatcher device has the advantages of simple structure, small occupied area and the ability to meet the needs of enterprises or individuals for processing purchased barrel water into low-hertz water for drinking.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of drinking water equipment, in particular to a low-hertz water hatching device. BACKGROUND

[0002] Since Japanese medical doctor Lin Xiuguang proposed the concept of "small molecular group water" in 1990, the scientific community generally believes that small molecular group water (now called low-hertz water) has the characteristics of high permeability, high solubility and high diffusion. When used as drinking water, it helps to realize the water exchange inside and outside the human body cells, remove free radicals, harmful acidic metabolites and various wastes, promote the growth and development of cells, and maintain the life activity of cells. The low-hertz water preparation device on the market currently has a relatively complex structure (such as the production process disclosed in CN101353212), which cannot meet the needs of enterprises and individuals to process the purchased barrel water to produce low-hertz drinking water on site. Therefore, how to develop a low-hertz water hatching device that can process the common barrel drinking water on the market to form high-quality low-hertz drinking water to overcome the above problems is the direction that the technical personnel in the field need to research. SUMMARY

[0003] The technical purpose of the present application is to provide a low-hertz water hatching device which has a simple structure, a small floor area and can meet the needs of enterprises or individuals to process the purchased barrel water into low-hertz water for drinking.

[0004] The present application provides a low-hertz water hatching device, which comprises:

[0005] A hatching barrel for containing drinking water, a water outlet faucet is installed on the barrel body of the hatching barrel, the barrel wall of the hatching barrel is made of a mixture of purple clay, kaolin and carbon nanotubes, and mounting holes and a water outlet faucet are arranged on the barrel wall of the hatching barrel, and an insulating mounting plate is sintered and mounted on the mounting holes;

[0006] A mineralization plate arranged in the barrel body of the hatching barrel, the mineralization plate is sintered from kaolin, loess stone, purple clay, titanium white powder and tourmaline;

[0007] An electrode excitation device comprising a titanium metal needle and a power supply device, the power supply device is provided with an anode contact and a cathode contact, the cathode contact is fixedly connected with the barrel wall of the hatching barrel as a whole, the anode contact is fixedly connected with one end of the titanium metal needle as a whole, and the other end of the titanium metal needle penetrates through the insulating mounting plate and extends into the barrel body of the hatching barrel.

[0008] Preferably, the mounting hole is arranged at the center of the bottom wall of the incubation barrel, and the other end of the titanium metal electrode needle extends into the barrel body of the incubation barrel in a vertical direction through the insulating mounting plate.

[0009] Preferably, the incubation barrel further comprises a barrel cover made of a mixture of purple clay, kaolin and carbon nanotubes.

[0010] Preferably, the incubation barrel is a cylindrical barrel, and the lower surface of the barrel body is provided with an arched semispherical cavity, and the power supply device is installed in the semispherical cavity.

[0011] Preferably, the other end of the titanium metal needle is configured to extend to a position not lower than the height of the water faucet in the barrel body.

[0012] Preferably, the mineralization plate is in a strip shape or arranged around the mounting hole.

[0013] Preferably, the incubation barrel is prepared by the following steps:

[0014] Step 110: 1.2 parts by mass of purple clay are weighed as the raw material of the insulating plate, and water is added to prepare the insulating plate wet material;

[0015] Step 120: The insulating plate wet material is placed in a vacuum chamber to perform vacuum dehumidification to prepare the insulating plate base material;

[0016] Step 130: The insulating plate base material is placed in an insulating plate mold, and a titanium metal needle is inserted into the center position of the insulating plate base material in the insulating plate mold to obtain an insulating plate blank;

[0017] Step 140: 8 parts by mass of purple clay, 1.8 parts by mass of kaolin and 0.1 part by mass of carbon nanotubes are weighed as the barrel body raw material, and each barrel body raw material is mixed with water to prepare a first mixed wet material;

[0018] Step 150: The first mixed wet material is placed in a vacuum chamber to perform vacuum dehumidification to prepare a first mixed material;

[0019] Step 160: The first mixed material is placed in a barrel body mold for molding, and the insulating plate blank is embedded and rubbed into an integrated body after the first mixed material is molded to obtain a molded barrel blank;

[0020] Step 170: After the molded barrel blank is dried, it is placed in a furnace for sintering to obtain the incubation barrel.

[0021] Preferably, the mineralization plate is prepared by the following steps:

[0022] Step 210: 5 parts by mass of kaolin, 3 parts by mass of loess stone, 1 part by mass of purple clay, 0.5 parts by mass of titanium white powder and 0.5 parts by mass of tourmaline are weighed as plate body raw materials for standby;

[0023] Step 220: each of the plate body raw materials is mixed with water to form a second mixed wet material;

[0024] Step 230: the second mixed wet material is placed in a vacuum chamber to perform vacuum dehumidification to form a second mixed material;

[0025] Step 240: the second mixed material is placed in a plate body mold to form a shaped plate body;

[0026] Step 250: the shaped plate body is placed in a furnace for sintering after being dried to form the mineralized plate.

[0027] Compared with the prior art, the present application has the following technical progress:

[0028] Firstly, the product structure of the present application is simpler than that of the prior art, and the occupied area is smaller, which meets the needs of enterprises or individuals to process the purchased bottled water into low hertz water for drinking.

[0029] Secondly, the operation process of the present application is simple and convenient, and easy to operate and use.

[0030] Finally, the system structure of the present application is simple, easy to prepare and transport. BRIEF DESCRIPTION OF DRAWINGS

[0031] Figure 1 The structure diagram of the present application is shown in the figure, and the electrical connection of the power supply device and the discharge cathode is omitted.

[0032] Figure 2 The hertz value detection diagram of the commercially available bottled water is shown in the figure.

[0033] Figure 3 The hertz value detection diagram of the commercially available bottled water placed in the incubation barrel for 20 minutes is shown in the figure.

[0034] Figure 4 The hertz value detection diagram of the commercially available bottled water placed in the incubation barrel for 20 minutes and treated by discharge for 5 minutes is shown in the figure.

[0035] In the figure, the corresponding component names of each reference sign are as follows:

[0036] 100, incubation barrel; 110, barrel cover; 120, water outlet faucet; 130, hemispherical cavity; 140, insulating mounting plate; 200, mineralized plate; 310, titanium metal needle; 320, power supply device; 321, anode contact; 322, cathode contact. DETAILED DESCRIPTION

[0037] The present application is described in greater detail by the specific working examples below, from which those skilled in the art will readily derive other advantages and embodiments of the present application. The present application can also be implemented or applied in different specific embodiments, and the details in the description can be modified or changed based on different views and applications without departing from the spirit of the present application.

[0038] Embodiment 1, please refer to Figures 1-4

[0039] A low-hertz water incubator device, comprising: an incubation barrel 100, a mineralization plate 200, and an electrode excitation device.

[0040] In this example, the incubation barrel 100 is a cylindrical barrel body with an open top for receiving bottled drinking water. The incubation barrel 100 is also provided with a barrel cover 110 for covering the top opening. A water faucet 120 is installed on the barrel body of the incubation barrel 100, and the barrel wall of the incubation barrel 100 is made of a mixture of purple clay, kaolin and carbon nanotubes and is fired as a discharge cathode. A semispherical cavity 130 is provided below the barrel body of the incubation barrel 100, and a mounting hole is provided in the center of the bottom wall of the barrel body of the incubation barrel 100, which leads to the semispherical cavity 130. An insulating mounting plate 140 is sintered and mounted on the mounting hole. The barrel cover 110 is made of the same material and process as the barrel wall of the incubation barrel 100.

[0041] The electrode excitation device includes a titanium metal needle 310 and a power supply device 320. The power supply device 320 is installed in the semispherical cavity 130, and the power supply device 320 is provided with an anode contact 321 and a cathode contact 322. The cathode contact 322 is fixedly connected with the barrel wall of the incubation barrel 100 as a whole, and the anode contact 321 is fixedly connected with one end of the titanium metal needle 310 as a whole. The other end of the titanium metal needle 310 serves as a discharge anode, penetrates through the insulating mounting plate 140 and extends into the barrel body of the incubation barrel 100, and extends to a position not lower than the height of the water faucet 120 in the barrel body.

[0042] The mineralization plate 200 is made of kaolin, loess stone, purple clay, titanium white powder and tourmaline and is sintered. The mineralization plate 200 is arranged at the bottom of the barrel body of the incubation barrel 100. The mineralization plate 200 is in the shape of a long strip, or is in a special shape arranged around the mounting hole.

[0043] In this example, the incubation barrel 100 is prepared by the following steps:

[0044] Step 110: 1.2 parts by mass of purple clay is weighed as the raw material of the insulating plate, and water is added to prepare the insulating plate wet material;​

[0045] Step 120: placing the insulation board wet material into a vacuum chamber to perform vacuum dehumidification, to make an insulation board base material;

[0046] Step 130: placing the insulation board base material into an insulation board mold, and inserting a titanium metal needle 310 into the center position of the insulation board base material in the insulation board mold, to obtain an insulation board blank;

[0047] Step 140: taking 8 parts by mass of purple clay, 1.8 parts by mass of kaolin, and 0.1 parts by mass of carbon nanotubes as barrel body raw materials, and mixing the barrel body raw materials by water injection, to make a first mixed wet material;

[0048] Step 150: placing the first mixed wet material into a vacuum chamber to perform vacuum dehumidification, to make a first mixed material;

[0049] Step 160: placing the first mixed material into a barrel body mold for molding, and embedding the insulation board blank and rubbing it into an integrated body after the first mixed material is molded, to obtain a molded barrel blank;

[0050] Step 170: placing the molded barrel blank after air drying into a furnace kiln for sintering and molding, to obtain the incubation barrel 100.

[0051] Specifically, the step 170 includes:

[0052] placing the molded barrel blank after air drying into a furnace kiln;

[0053] gradually increasing the furnace temperature from room temperature to 100 degrees Celsius, and keeping the temperature at 100 degrees Celsius for 10 minutes;

[0054] gradually increasing the furnace temperature from 100 degrees Celsius to 500 degrees Celsius, and keeping the temperature at 500 degrees Celsius for 15 minutes;

[0055] gradually increasing the furnace temperature from 500 degrees Celsius to 800 degrees Celsius, and keeping the temperature at 800 degrees Celsius for 10 minutes;

[0056] gradually increasing the furnace temperature from 800 degrees Celsius to 1200 degrees Celsius, and keeping the temperature at 1200 degrees Celsius for 80 minutes;

[0057] gradually decreasing the furnace temperature from 1200 degrees Celsius to 800 degrees Celsius, and keeping the temperature at 800 degrees Celsius for 20 minutes;

[0058] gradually decreasing the furnace temperature from 800 degrees Celsius to 300 degrees Celsius, and keeping the temperature at 300 degrees Celsius for 10 minutes;

[0059] gradually decreasing the furnace temperature from 300 degrees Celsius to 60 degrees Celsius, and opening the furnace door to take out the finished product of the incubation barrel 100.

[0060] In this example, the mineralized plate 200 is prepared by the following steps:

[0061] Step 210: Take 5 parts by mass of kaolin, 3 parts by mass of loess stone, 1 part by mass of purple clay, 0.5 parts by mass of titanium dioxide and 0.5 parts by mass of tourmaline as plate body raw materials for standby;

[0062] Step 220: Mix each of the plate body raw materials with water to make a second mixed wet material;

[0063] Step 230: Place the second mixed wet material into a vacuum chamber to perform vacuum dehumidification to make a second mixed material;

[0064] Step 240: Place the second mixed material into a plate body mold to form a shaped plate body;

[0065] Step 250: After the shaped plate body is dried, it is placed into a furnace for sintering to form the mineralized plate 200.

[0066] Specifically, the step 250 includes:

[0067] After the shaped plate body is dried, it is placed into a furnace;

[0068] Gradually increase the furnace temperature from room temperature to 100 degrees Celsius, and maintain a constant temperature of 100 degrees Celsius for 10 minutes;

[0069] Gradually increase the furnace temperature from 100 degrees Celsius to 500 degrees Celsius, and maintain a constant temperature of 500 degrees Celsius for 15 minutes;

[0070] Gradually increase the furnace temperature from 500 degrees Celsius to 800 degrees Celsius, and maintain a constant temperature of 800 degrees Celsius for 10 minutes;

[0071] Gradually increase the furnace temperature from 800 degrees Celsius to 1200 degrees Celsius, and maintain a constant temperature of 1200 degrees Celsius for 80 minutes;

[0072] Gradually decrease the furnace temperature from 1200 degrees Celsius to 800 degrees Celsius, and maintain a constant temperature of 800 degrees Celsius for 20 minutes;

[0073] Gradually decrease the furnace temperature from 800 degrees Celsius to 300 degrees Celsius, and maintain a constant temperature of 300 degrees Celsius for 10 minutes;

[0074] Gradually decrease the furnace temperature from 300 degrees Celsius to 60 degrees Celsius, and open the furnace door to take out the finished product of the incubation barrel 100.

[0075] In practice, the working process is as follows:

[0076] The bottled water (here, for example, a commercially available Vittel bottled drinking water) is introduced into the body of the incubation barrel 100 so that the water level is at least 20 cm higher than the tip of the titanium needle 310, and is left for 20 minutes, and then the power supply device 320 is activated, and the electric current (direct current 3 amperes, 12 volts) passes from the discharge anode through the water in the incubation barrel 100 to the discharge cathode. At this time, the calcium, magnesium, potassium, sodium, zinc, copper, iron, and the like dissolved in the water move as positively charged ions to the cathode region, and the drinking water forms hydrogen gas at the cathode region, and the formula is as follows:

[0077] where M is potassium, sodium, magnesium, and the like

[0078]

[0079] H + +e - → H· (cathode)

[0080] H· + H· → H2

[0081] In the above process, the coordination of the metal cation and the water molecule is also an important factor that causes the water to form low-Hertz water. This process produces the breaking and formation of covalent bonds, and when the covalent bond breaks, the electrons are transferred between atoms due to the mismatch in electron symmetry, thereby forming new bonds between the atoms. At the same time, energy is released between the atoms, forming new covalent bonds and producing harmonic resonance, which causes the water clusters to break up and recombine into smaller water clusters. Thus, the drinking water in the incubation barrel 100 is incubated into low-Hertz water.

[0082] Next, the Hertz values of the Vittel bottled drinking water, the Vittel bottled drinking water left in the incubation barrel 100 for 20 minutes, and the Vittel bottled drinking water left in the incubation barrel 100 for 20 minutes and subjected to the discharge treatment for 5 minutes are measured. The measurement results are shown in Table 1. Figures 2-4 .

[0083] As can be seen, the Hertz value of the Vittel bottled drinking water left in the incubation barrel for 20 minutes and subjected to the discharge treatment for 5 minutes is significantly lower than the Hertz value of the Vittel bottled drinking water left in the incubation barrel for 20 minutes.

[0084] At the same time, the Hertz value of the Vittel bottled drinking water left in the incubation barrel for 20 minutes is significantly lower than the Hertz value of the ordinary Vittel bottled drinking water.

[0085] The following, respectively, for the farmer spring bottled drinking water, placed in the incubation barrel for 20 minutes of the farmer spring bottled drinking water, and placed in the incubation barrel for 20 minutes after the discharge treatment of 5 minutes of the farmer spring bottled drinking water for low hertz water constant and trace element content detection, its detection results are as follows table 1.

[0086] In table 1, item A is the trace element content detection value of the farmer spring bottled drinking water, item B is the trace element content detection value of the farmer spring bottled drinking water placed in the incubation barrel for 20 minutes, item C is the trace element content detection value of the farmer spring bottled drinking water placed in the incubation barrel for 20 minutes after the discharge treatment of 5 minutes.

[0087]

[0088]

[0089] Table 1

[0090] It can be seen that, after the discharge treatment of 5 minutes after the farmer spring bottled drinking water is placed in the incubation barrel for 20 minutes, the trace element content is significantly higher than that of the ordinary farmer spring bottled drinking water.

[0091] The above is only the preferred embodiment of the present application, it should be noted that, for those skilled in the art, without departing from the principles of the present application, can also make a number of improvements and refinements, these improvements and refinements should also be considered as the protection scope of the present application.

Claims

1. A low-hertz water incubator device, characterized in that, include: An incubation bucket is used to hold drinking water. A water tap is installed on the bucket body. The bucket wall is made of a mixture of purple clay, kaolin, and carbon nanotubes. The bucket wall is provided with mounting holes and a water tap. An insulating mounting plate is sintered and installed on the mounting holes. A mineralized plate is disposed inside the incubation tank. The mineralized plate is made of kaolin, loess, purple clay, titanium dioxide and tourmaline sintered together. An electrode excitation device, comprising a titanium metal needle and a power supply device, wherein the power supply device is provided with an anode contact and a cathode contact, the cathode contact being fixedly connected to the wall of the incubation tank as a whole, the anode contact being fixedly connected to one end of the titanium metal needle as a whole, and the other end of the titanium metal needle penetrating the insulating mounting plate and extending into the tank body of the incubation tank; The mounting hole is located at the center of the bottom wall of the incubation tank. The other end of the titanium metal electrode needle passes through the insulating mounting plate, extends into the tank body of the incubation tank, and extends vertically. The mineralization plate is fixed to the bottom wall of the incubation tank. The incubation tub is prepared using the following steps: Step 110: Weigh 1.2 parts by weight of purple clay as raw material for the insulation board, and add water to make wet insulation board material; Step 120: Place the wet insulating board material into a vacuum chamber for vacuum dehumidification to produce the insulating board base material; Step 130: Place the insulating board base material into the insulating board mold, and insert a titanium metal needle into the center position of the insulating board base material in the insulating board mold to obtain the insulating board blank; Step 140: Weigh 8 parts by weight of purple clay, 1.8 parts by weight of kaolin and 0.1 parts by weight of carbon nanotubes as raw materials for the barrel body, add water to mix the raw materials for the barrel body, and make the first mixed wet material. Step 150: Place the first mixed wet material into a vacuum chamber and perform vacuum dehumidification to produce the first mixture; Step 160: Place the first mixture into the barrel mold to form it, and after the first mixture is formed, embed the insulating board blank and knead it into a whole to obtain the formed barrel blank; Step 170: After the molded barrel blank is air-dried, it is placed in a furnace and sintered to obtain the hatching barrel; The mineralized plate is prepared using the following steps: Step 210: Weigh out 5 parts by weight of kaolin, 3 parts by weight of loess stone, 1 part by weight of purple clay, 0.5 parts by weight of titanium dioxide and 0.5 parts by weight of tourmaline as raw materials for the plate body. Step 220: Mix each of the plate raw materials with water to prepare a second mixed wet material; Step 230: Place the second mixed wet material into a vacuum chamber and perform vacuum dehumidification to produce a second mixture; Step 240: Place the second mixture into the plate mold to form a molded plate; Step 250: After the molded plate is air-dried, it is placed in a furnace and sintered to obtain the mineralized plate.

2. The low-hertz water incubator device according to claim 1, characterized in that, The incubation bucket also includes a bucket lid, which is made of a mixture of purple clay, kaolin and carbon nanotubes.

3. The low-hertz water incubator device according to claim 2, characterized in that, The incubation bucket is a cylindrical bucket; the lower surface of the incubation bucket is provided with an arched hemispherical cavity, and the power supply device is installed in the hemispherical cavity.

4. The low-Hertz water incubator device according to claim 3, characterized in that, The other end of the titanium needle is configured to extend within the barrel to a height not lower than that of the water tap.

5. The low-Hertz water incubator device according to claim 4, characterized in that, The mineralized plate is elongated or arranged around the mounting hole.

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