Multi-element composite energy field terahertz wave irradiation water preparation system

Abstract

The present application relates to a kind of multi-element composite energy field's terahertz wave irradiation water preparation system and method, including the irradiation box with irradiation cabin being arranged inside, the top of the irradiation box is equipped with terahertz irradiation device, pure water is input in the irradiation cabin, and the output pipeline of irradiation cabin passes through with the pure water cooling tank with far infrared baffles, and the generated terahertz irradiation water is aerated and mineralized by micro-bubble mineralizer and forms high-zinc oxygen-rich terahertz irradiation water.This preparation system helps to produce the high-zinc oxygen-rich terahertz irradiation water of supermolecular group, and reduces production cost.

Description

Technical Field

[0001] This invention relates to a terahertz wave irradiation water preparation system based on a multi-element composite energy field. Background Technology

[0002] Water is ubiquitous in nature, and the continuation of life depends on its presence. Water has many functions, including acting as a solvent, solute, protein component, hydrate, and cell component. Water is extremely important and plays a crucial role in many situations, making its study highly significant.

[0003] Terahertz waves are at 10 12 Electromagnetic waves in the 1200 Hz frequency band, located at the intersection of the electrical and optical fields, have great value and development prospects. Terahertz water is natural mineral water, purified water, or tap water that has been treated with terahertz waves and can be used as drinking water or special-purpose water. Terahertz water is small-molecule cluster water with strong physical alkalinity, with a pH value of 7.5-9.0. It can participate in regulating the body's ion balance, activating cell function, improving blood circulation, eliminating fatigue, and enhancing the body's immunity.

[0004] Currently, devices used to prepare terahertz water are typically complex in structure, have low production efficiency, limited energy field applications, and high costs. Summary of the Invention

[0005] The purpose of this invention is to provide a terahertz wave irradiation water preparation system with a multi-element composite energy field, which helps to produce high-zinc oxygen-rich terahertz irradiated water and reduce production costs.

[0006] The technical solution of the present invention is as follows: a terahertz wave irradiated water preparation system with a multi-element composite energy field, including an irradiation box with an irradiation chamber inside, a terahertz irradiator installed on the top of the irradiation box, pure water being input into the irradiation chamber, and the output pipeline of the irradiation chamber passing through a pure water cooling tank with a far-infrared baffle. The generated terahertz irradiated water is aerated and mineralized by a microbubble mineralizer to form high zinc oxygen-rich terahertz irradiated water.

[0007] Furthermore, an air outlet channel is formed between the side wall of the irradiation chamber and the side wall of the steam irradiation chamber, and an air outlet is provided at the bottom of the irradiation chamber; multiple far-infrared baffles and a far-infrared flat bottom plate are provided inside the irradiation chamber.

[0008] Furthermore, the input end of the irradiation chamber is connected to a water purifier equipped with a reverse osmosis membrane, and the input end of the water purifier is connected to a tap water pipe via a rotary magnet.

[0009] Furthermore, the output end of the pure water machine is connected to a pure water input pipe leading to a pure water cooling tank, and the pure water cooling tank is provided with a water supply pipe connecting the first pump body to the input end of the irradiation chamber.

[0010] Furthermore, the output pipeline of the irradiation chamber has a serpentine structure within the pure water cooling tank, and a circulation pipeline leading to the input end of the irradiation chamber via a second pump body is provided in the section of the output pipeline that exits the pure water cooling tank.

[0011] Furthermore, the circulation pipeline is provided with a branch leading to the intermediate storage tank, and the intermediate storage tank is provided with a terahertz irradiated water output pipeline; the output pipeline of the irradiation chamber is provided with an oxygenation pipeline connected to the microbubble mineralizer via an air pump in the section that exits the pure water cooling tank, and the microbubble mineralizer is provided with a high zinc oxygen-enriched terahertz irradiated water output pipeline.

[0012] Furthermore, the microbubble mineralizer includes a non-toxic plastic tube, with a far-infrared porous water-binding component installed in both the inlet and outlet ends of the non-toxic plastic tube. A wire mesh water guide with mineralizing particles is installed between the two porous water-binding components inside the non-toxic plastic tube. An infrared conversion water distribution component is installed at the inlet end of the wire mesh water guide, and a turbulent flow cavity is formed between the infrared conversion water distribution component and the porous water-binding component at the inlet end.

[0013] Furthermore, the porous water jet component is provided with a gradually narrowing and conical water inlet cavity and a gradually expanding water outlet cavity. The porous water jet component is provided with several water passage holes along the axial direction connecting the water inlet cavity and the water outlet cavity. The upper and lower parts of the porous water jet component are provided with filling cavities filled with far-infrared material.

[0014] Furthermore, the infrared conversion water distribution component includes a frustum-shaped shell with a top plate. The water inlet side of the frustum-shaped shell is provided with an annular flange that abuts against the inner wall of the non-toxic plastic pipe. The top plate of the frustum-shaped shell is connected to the wire mesh water guide and is provided with a number of funnel-shaped water outlet holes. A number of circulating water holes are provided on the side wall of the frustum-shaped shell and the annular flange.

[0015] Furthermore, both the inlet and outlet ends of the non-toxic plastic pipe are equipped with screw connectors and connecting heads, the connecting heads being filled with far-infrared material.

[0016] Compared with the prior art, the present invention has the following advantages:

[0017] 1. The preparation system has a compact structure and is supplemented by a recyclable water production process. It realizes the mutual support and integrated application of magnetic field, thermal field, far-infrared field and terahertz field, thereby forming a gradual transformation of water into ultra-small molecular clusters and increasing pH value. At the same time, it introduces micro-air or oxygen and elements such as zinc and strontium that are beneficial to human health, ultimately realizing the production of two products: ultra-small molecular cluster terahertz irradiated water and high zinc and oxygen-rich terahertz irradiated water.

[0018] 2. This preparation system, through multiple cycles of terahertz-irradiated water, helps reduce the production cost and improve the production efficiency of terahertz-irradiated water. Simultaneously, by channeling the water through an output pipeline into a pure water cooling tank equipped with far-infrared baffles, not only is the terahertz-irradiated water cooled, but the incoming magnetized pure water is also preheated and subjected to far-infrared radiation, which helps improve the terahertz wave radiation efficiency, effectively saves energy, and reduces water production costs. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the structure of the present invention;

[0020] Figure 2 This is a schematic diagram of the microbubble mineralizer of the present invention;

[0021] Figure 3 This is a cross-sectional view of the porous water jetting component of the present invention;

[0022] Figure 4 This is a schematic diagram of the structure of the wire mesh water guide component of the present invention;

[0023] In the diagram: 10-Irradiation Box; 11-Irradiation Chamber; 12-Terahertz Irradiator; 13-Air Outlet Channel; 14-Air Outlet; 15-Output Pipeline; 16-Far-Infrared Baffle Plate; 17-Far-Infrared Flat Bottom Plate; 20-Pure Water Cooling Tank; 21-Far-Infrared Baffle Plate; 22-First Pump Body; 23-Water Makeup Pipeline; 24-Second Pump Body; 25-Circulation Pipeline; 26-Intermediate Storage Tank; 27-Terahertz Irradiated Water Output Pipeline; 28-Air Pump; 29-Oxygenation Pipeline; 30-Pure Water Machine; 31-Pure Water Inlet Pipeline; 32-Cold Pure Water Pipeline; 40- 41-Water pipe 50-Microbubble mineralizer 51-Non-toxic plastic pipe 52-Porous water concentrator 521-Inlet chamber 522-Outlet chamber 523-Water passage 524-Far-infrared material 53-Wire mesh water guide 531-Mineralized particles 54-Infrared conversion water distribution 541-Annular flange 542-Flute-shaped water outlet 543-Circulating water hole 55-Turbulent flow chamber 56-Screw connector 57-Connecting end 571-Far-infrared material 58-High zinc oxygen-enriched terahertz irradiated water output pipeline 59-Squeezing chamber. Detailed Implementation

[0024] To make the above features and advantages of the present invention more readily understood, specific embodiments are described below in conjunction with the accompanying drawings, but the present invention is not limited thereto.

[0025] refer to Figures 1 to 4

[0026] A terahertz irradiated water preparation system with a multi-element composite energy field includes an irradiation chamber 10 with an internal irradiation chamber 11. A terahertz irradiator 12 is installed on the top of the irradiation chamber 10. Cold pure water is input into the irradiation chamber 11. Multiple far-infrared baffles 16 and a far-infrared flat bottom plate 17 supporting part of the far-infrared baffles are arranged inside the irradiation chamber 11. The output pipe 15 of the irradiation chamber 11 passes through a pure water cooling tank 20 with multiple far-infrared baffles 21. The structure of the output pipe 15 of the irradiation chamber 11 in the pure water cooling tank 20 is serpentine. The generated terahertz irradiated water is aerated and mineralized by a microbubble mineralizer 50 to form high-zinc oxygen-rich terahertz irradiated water.

[0027] The working principle of this preparation system is as follows: cold pure water, or preheated pure water, and circulating terahertz irradiated water are introduced into the irradiation chamber 11. Multiple far-infrared baffles 16 in the irradiation chamber 11, together with far-infrared flat bottom plates 17, can increase the flow path of the water entering the chamber, increase the duration of terahertz wave irradiation and heating of the water entering the chamber, enhance the terahertz wave radiation efficiency, and increase the water temperature of the water entering the chamber. Moreover, the far-infrared baffles 16 and far-infrared flat bottom plates 17 can also provide stronger far-infrared radiation to the water under the condition of heating. Thus, terahertz irradiated water that is simultaneously affected by three energy fields (thermal field, far-infrared field, and terahertz wave field) is generated in the irradiation chamber 11.

[0028] The terahertz irradiated water output from the irradiation chamber 11 passes through the pure water cooling tank 20 via the output pipe 15 and is cooled. The structure of the output pipe 15 of the irradiation chamber 11 within the pure water cooling tank 20 is a serpentine mechanism. This structure effectively increases the alternating hot and cold travel of the terahertz irradiated water and the cooled pure water, ensuring the heat energy recovery and utilization effect of both heating and cooling. At the same time, the far-infrared baffle 21 located in the pure water cooling tank 20 is also heated, and the far-infrared radiation intensity of the far-infrared baffle 21 is increased. This allows the pure water in the pure water cooling tank 20, which has been induced by the vortex magnetic field, to be irradiated again by far-infrared radiation under the heating condition. This is conducive to the formation of smaller molecular clusters of pure water under heating, promoting the stability of the formed small molecular clusters of water; or maintaining the minimum terahertz irradiated water circulating from the irradiation chamber 11 after being subjected to the three energy fields.

[0029] In this embodiment, several terahertz irradiators 12 are installed on the top of the irradiation chamber 10. Each terahertz irradiator 12 is a device capable of emitting terahertz waves and generating heat, requiring ventilation and cooling. An air outlet 13 is formed between the side wall of the irradiation chamber 10 and the side wall of the irradiation container 11. An air outlet 14 is provided at the bottom periphery of the irradiation chamber 10, thereby achieving high-efficiency terahertz wave irradiation output by cooling the terahertz wave generator through airflow.

[0030] In this embodiment, in order to input magnetized pure water into the irradiation chamber 11 and the pure water cooling tank 20, the input end of the irradiation chamber 11 is connected to a pure water machine 30 equipped with a reverse osmosis membrane. The input end of the pure water machine 30 is connected to a tap water pipe 41 via a rotating magnetizer 40. The rotating magnetizer 40 magnetizes the input tap water to form magnetized water with small molecular clusters that can prevent scale buildup, which is then filtered in the pure water machine 30 to form magnetized pure water. The rotating magnetizer can be a fluid rotating magnetization device as described in CN104355372A.

[0031] In this embodiment, the output end of the pure water machine 30 is connected to a pure water input pipe 31 leading to the pure water cooling tank 20 and a cold pure water pipe 32 leading to the input end of the irradiation chamber 11. Both the pure water input pipe 31 and the cold pure water pipe 32 are equipped with valve bodies, so as to input magnetized small molecule cluster pure water into the irradiation chamber 11 and the pure water cooling tank according to process requirements.

[0032] In this embodiment, during normal operation, the pure water cooling tank 20 is equipped with a first pump body 22 leading to the input end of the irradiation chamber 11 via a water replenishment pipe 23. The water replenishment pipe 23 is equipped with a valve body. The hot pure water in the pure water cooling tank 20, which has formed smaller molecular clusters after heat absorption and far-infrared radiation, is sent into the irradiation chamber 11 for water replenishment through the first pump body 22, which helps to recover heat energy and reduce energy consumption.

[0033] In this embodiment, to enable multiple irradiation treatments of the terahertz-irradiated water, the output pipe 15 of the irradiation chamber 11 is equipped with a circulation pipe 25 that leads from the second pump body 24 to the input end of the irradiation chamber 11 in the section where it exits the pure water cooling tank 20. Valve bodies are installed on both the inlet and outlet sides of the circulation pipe 25. Thus, as needed, the cooled terahertz-irradiated water can be sent into the irradiation chamber 11 through the second pump body 24 and the circulation pipe 25 for secondary or even N cycles of terahertz irradiation and far-infrared radiation treatment, forming smaller or even smallest stable small molecular clusters of irradiated water. During this process, most of the heat is recovered and utilized.

[0034] In this embodiment, in order to obtain terahertz irradiated water, a branch line leading to the intermediate storage tank 26 is provided on the circulation pipeline 25, and a valve body is provided on the branch line. The intermediate storage tank 26 is provided with a terahertz irradiated water output pipeline 27, so that the formed terahertz irradiated water is sent into the intermediate storage tank 26 for storage, and terahertz irradiated water can be output as needed.

[0035] In this embodiment, the output pipe 15 of the irradiation chamber 11 is provided with an oxygenation pipe 29 connected to the microbubble mineralizer 50 via an air pump 28 with an aeration function in the section that passes through the pure water cooling tank 20. A valve body is provided at one end of the oxygenation pipe 29 near the pure water cooling tank 20. The microbubble mineralizer is provided with a high zinc oxygen-enriched terahertz irradiated water output pipe 58, so that high zinc oxygen-enriched terahertz irradiated water is output through the high zinc oxygen-enriched terahertz irradiated water output pipe 58.

[0036] In this embodiment, the microbubble mineralizer includes a non-toxic plastic tube 51 treated with far-infrared radiation. Both the inlet and outlet ends of the non-toxic plastic tube 51 are equipped with porous water-binding components 52 with far-infrared radiation. A wire mesh water guide 53 with mineralized particles 531 is arranged between the two porous water-binding components 52 inside the non-toxic plastic tube 51. The mineralized particles 531 are mineralized particles containing zinc and strontium. An infrared conversion water distribution component 54 is installed at the inlet end of the wire mesh water guide 53. A turbulent flow cavity 55 is formed between the infrared conversion water distribution component 54 and the porous water-binding component 52 at the inlet end. A squeezing cavity 59 is formed between the porous water-binding component 52 at the outlet end and the wire mesh water guide 53. The conversion principle of the non-toxic plastic pipe 51 and the infrared conversion water distribution component 54 can be found in CN206526412U, which describes a processing equipment with far-infrared function, or in patent number 201221884557, which describes a processing equipment for far-infrared transparent items. Such equipment can process plastic products to give them far-infrared function.

[0037] After being oxygenated, the terahertz irradiated water is squeezed through the porous water jet 52 and sent into the turbulent flow chamber 55. It is then turbulently formed by the infrared conversion water distribution component and fully mixed with oxygen. It is then squeezed through the infrared conversion water distribution component 54 and sent into the wire mesh water guide component 53 for mineralization treatment. Finally, it is squeezed through the porous water jet 52 located at the water outlet of the non-toxic plastic pipe 51 to form high zinc oxygen-rich terahertz irradiated water.

[0038] In this embodiment, the porous water-concentrating component 52 is provided with a gradually narrowing, tapered inlet cavity 521 and a gradually expanding outlet cavity 522. The porous water-concentrating component 52 has several axially arranged water passages 523 connecting the inlet cavity 521 and the outlet cavity 522. Both the upper and lower parts of the porous water-concentrating component 52 have packing cavities filled with far-infrared material 524. The input terahertz irradiated water is compressed through the inlet cavity 521 and enters the gradually expanding outlet cavity 522 through the water passages 523, thereby better combining with oxygen. Furthermore, the terahertz irradiated water undergoes far-infrared treatment through the far-infrared material 524.

[0039] In this embodiment, the infrared conversion water distribution component 54 is made of a far-infrared treated material, which helps the terahertz irradiated water to undergo far-infrared treatment. The infrared conversion water distribution component 54 includes a frustum shell with a top plate. An annular flange 541 is provided on one side of the water inlet end of the frustum shell, which abuts against the inner wall of the non-toxic plastic tube 51. The top plate of the frustum shell is connected to the wire mesh water guide component 53 and is provided with a plurality of funnel-shaped water outlet holes 542. A plurality of circulating water holes 543 are provided on the side wall of the frustum shell and the annular flange. The circulating water holes on the side wall of the frustum shell are inclined so that water flows into the cavity between the outer wall of the frustum shell and the non-toxic plastic tube.

[0040] Within the turbulent flow chamber, the terahertz irradiated water passes through a frustum-shaped shell with a gradually narrowing diameter, causing the water flow to be compressed. A portion of the terahertz irradiated water is fed into the wire mesh water guide 53 through the funnel-shaped outlet 542; the remaining portion, unable to flow out promptly, exits through the circulating water holes 543 on the side wall and is then reintroduced into the turbulent flow chamber via the circulating water holes 543 on the annular flange 541, where it combines with the injected terahertz irradiated water to form turbulence. This allows for better combination of the water with air or oxygen. The water is then fed back into the wire mesh water guide 53 through the funnel-shaped outlet 542, where it collides with, cuts, scrapes, compresses, and dissolves mineral particles, simultaneously enhancing gas-liquid mixing, dissolution, and microbubble formation. Ultimately, this further increases the microbubble content of the high-zinc, oxygen-rich terahertz irradiated water with smaller molecular clusters.

[0041] In this embodiment, to allow for splicing along the length as needed, both the inlet and outlet ends of the non-toxic plastic pipe 51 are equipped with screw connectors 56 and connecting heads 57. The connecting heads 57 have internal threads and an external hexagonal structure. The connecting heads 57 are filled with far-infrared material 571, which performs far-infrared treatment on the high-zinc oxygen-rich terahertz irradiated water.

[0042] The above description is only a preferred embodiment of the present invention. For those skilled in the art, designing terahertz wave irradiation water preparation systems and methods with different forms of multi-element composite energy fields according to the teachings of the present invention does not require creative labor. All equivalent changes, modifications, substitutions and variations made in accordance with the scope of the patent application of the present invention without departing from the principles and spirit of the present invention shall be covered by the present invention.

Claims

1. A terahertz wave irradiation water preparation system based on a multi-element composite energy field, characterized in that, The device includes an irradiation chamber with an internal irradiation compartment. A terahertz irradiator is installed on the top of the irradiation chamber. Pure water is fed into the irradiation compartment, and the output pipe of the irradiation compartment passes through a pure water cooling tank with far-infrared baffles. The resulting terahertz irradiated water is aerated and mineralized by a microbubble mineralizer to form high-zinc oxygen-rich terahertz irradiated water. An air outlet is formed between the side wall of the irradiation chamber and the side wall of the steam irradiation compartment, and an air outlet is provided at the bottom of the irradiation chamber. Multiple far-infrared baffles and a far-infrared flat bottom plate are installed inside the irradiation compartment. The microbubble mineralizer includes a non-toxic plastic tube. Both the inlet and outlet ends of the non-toxic plastic tube are equipped with porous water-binding components with far-infrared radiation. A wire mesh water guide with mineralized particles is placed between the two porous water-binding components inside the non-toxic plastic tube. An infrared conversion water distribution component is installed at the inlet end of the wire mesh water guide, and a turbulent flow cavity is formed between the infrared conversion water distribution component and the porous water-binding component at the inlet end.

2. The terahertz wave irradiation water preparation system based on a multi-element composite energy field according to claim 1, characterized in that, The input end of the irradiation chamber is connected to a water purifier equipped with a reverse osmosis membrane, and the input end of the water purifier is connected to a tap water pipe via a magnetizer.

3. The terahertz wave irradiation water preparation system based on a multi-element composite energy field according to claim 2, characterized in that, The output end of the pure water machine is connected to a pure water input pipe leading to the pure water cooling tank, and the pure water cooling tank is equipped with a water supply pipe leading from the first pump body to the input end of the irradiation chamber.

4. The terahertz wave irradiation water preparation system based on a multi-element composite energy field according to claim 1, characterized in that, The output pipeline of the irradiation chamber has a serpentine structure within the pure water cooling tank, and a circulation pipeline leading to the input end of the irradiation chamber via a second pump body is provided in the section of the output pipeline that exits the pure water cooling tank.

5. The terahertz wave irradiation water preparation system based on a multi-element composite energy field according to claim 4, characterized in that, The circulation pipeline is provided with a branch leading to the intermediate storage tank, and the intermediate storage tank is provided with a terahertz irradiated water output pipeline; the output pipeline of the irradiation chamber is provided with an oxygenation pipeline connected to the microbubble mineralizer via an air pump in the section that exits the pure water cooling tank, and the microbubble mineralizer is provided with a high zinc oxygen-enriched terahertz irradiated water output pipeline.

6. The terahertz wave irradiation water preparation system based on a multi-element composite energy field according to claim 1, characterized in that, The porous water jet is provided with a gradually narrowing and conical inlet cavity and a gradually expanding outlet cavity. Several water passage holes connecting the inlet cavity and the outlet cavity are provided along the axial direction on the porous water jet. Both the upper and lower parts of the porous water jet are provided with filling cavities filled with far-infrared material.

7. The terahertz wave irradiation water preparation system based on a multi-element composite energy field according to claim 1, characterized in that, The infrared conversion water distribution component includes a frustum-shaped shell with a top plate. One side of the water inlet end of the frustum-shaped shell is provided with an annular flange that abuts against the inner wall of the non-toxic plastic pipe. The top plate of the frustum-shaped shell is connected to the wire mesh water guide and is provided with several funnel-shaped water outlet holes. Several circulating water holes are provided on the side wall of the frustum-shaped shell and the annular flange.

8. The terahertz wave irradiation water preparation system based on a multi-element composite energy field according to claim 1, characterized in that, The non-toxic plastic pipe is equipped with screw connectors at both the inlet and outlet ends, and is also equipped with connecting heads, which are filled with far-infrared material.

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