High-pressure hydrogen permeation hydrogen-containing beverage preparation structure

Abstract

The utility model relates to the technical field of hydrogen-containing beverages, and discloses a high-pressure hydrogen-permeable hydrogen-containing beverage preparation structure, which comprises a plurality of gas-permeable and liquid-impermeable membrane filaments, the membrane filaments are internally provided with flow channels for fluid to flow, the fluid is mixed with hydrogen in the flow channels to form hydrogen-containing beverages, one end of each membrane filament is provided with a liquid inlet for the fluid to enter the flow channels, and the other end of each membrane filament is provided with a liquid outlet for the fluid to enter the flow channels. A liquid outlet for discharging the hydrogen-containing beverage is formed in the other end of the membrane wire; the membrane filaments are located in an inflation cavity in a high-pressure state, liquid inlets and liquid outlets of the membrane filaments extend to the outer portion of the inflation cavity, the inflation cavity is provided with an inflation inlet through which high-pressure hydrogen is injected into the inflation cavity, the liquid inlets of the membrane filaments are communicated with a liquid filling cavity, and the liquid filling cavity is provided with a liquid filling opening through which fluid is injected into the liquid filling cavity; fluid in the liquid filling cavity flows in the flow channel through the liquid inlet, hydrogen in a high-pressure state permeates through the membrane wires and enters the flow channel to be mixed with the fluid to form a hydrogen-containing beverage, and the hydrogen-containing beverage is discharged from the liquid outlet; the whole structure is simple, continuous preparation can be achieved, and the preparation efficiency is high.

Description

Technical Field

[0001] The utility model patent relates to the technical field of hydrogen-containing beverages. Specifically, it relates to a preparation structure of hydrogen-containing beverages with high-pressure permeated hydrogen. Background Art

[0002] At normal temperature and pressure, hydrogen is colorless and odorless. The solubility of hydrogen in water is 1.6 PPM, and the oxidation-reduction value ORP of hydrogen reaches -600 MV. The molecular volume of hydrogen is very small and it has no polarity. Hydrogen can very easily cross the cell membrane and enter the interior of cell mitochondria and nuclei, playing the role of neutralizing malignant free radicals and protecting cells and biomolecules from the harm of malignant free radicals.

[0003] Hydrogen molecules can dissolve into fluids to form hydrogen-containing beverages, such as hydrogen water, etc. By drinking, hydrogen is ingested to exert biological effects.

[0004] In the prior art, in the process of preparing hydrogen-containing beverages, hydrogen needs to be mixed into the fluid to form hydrogen-containing beverages. However, the existing preparation equipment for hydrogen-containing beverages has a complex structure and low preparation efficiency. Summary of the Utility Model

[0005] The purpose of the utility model is to provide a preparation structure of hydrogen-containing beverages with high-pressure permeated hydrogen, aiming to solve the problem of the complex structure of the existing hydrogen-containing beverage preparation equipment.

[0006] The utility model is realized as follows: A preparation structure of hydrogen-containing beverages with high-pressure permeated hydrogen includes a plurality of membrane filaments that are permeable to gas but impermeable to liquid. There is a flow channel for the fluid to flow in the membrane filaments. The fluid mixes with hydrogen in the flow channel to form a hydrogen-containing beverage. One end of the membrane filament forms a liquid inlet for the fluid to enter the flow channel, and the other end of the membrane filament forms a liquid outlet for the hydrogen-containing beverage to be discharged.

[0007] The membrane filaments are located in an inflation chamber under high pressure. The liquid inlet and the liquid outlet of the membrane filaments respectively extend to the outside of the inflation chamber. The inflation chamber has an inflation port for filling high-pressure hydrogen into the inflation chamber. The liquid inlets of the plurality of membrane filaments are communicated with a liquid filling chamber, and the liquid filling chamber has a liquid filling port for filling the fluid into the liquid filling chamber.

[0008] The fluid in the liquid filling chamber flows in the flow channel through the liquid inlet. The hydrogen under high pressure penetrates through the membrane filaments and enters the flow channel to mix with the fluid, forming a hydrogen-containing beverage, which is discharged from the liquid outlet.

[0009] Further, the plurality of membrane filaments are arranged side by side at intervals.

[0010] Further, the plurality of membrane filaments are arranged in a bundled membrane filament group, and there is a gap between adjacent membrane filaments.

[0011] Further, multiple membrane filament devices are disposed in a cylinder. An inflation cavity is provided inside the cylinder, and an inflation port is provided on the cylinder. The membrane filament group is placed in the inflation cavity, and there is an inflation interval between the circumferential side of the membrane filament group and the inner side wall of the cylinder. The inflation port is communicated with the inflation interval, and the liquid inlet and the liquid outlet are respectively arranged in isolation from the inflation interval.

[0012] Further, the inflation interval is arranged to surround the membrane filament group along the circumferential direction.

[0013] Further, the cylinder is disposed in a liquid cylinder. A liquid filling cavity is provided in the liquid cylinder, a liquid filling port is provided on the liquid cylinder, and the liquid inlet of the membrane filament is communicated with the liquid filling cavity.

[0014] Further, a liquid filling interval is formed between the circumferential side of the cylinder and the inner side wall of the liquid cylinder, and the liquid filling port and the liquid inlet are respectively communicated with the liquid filling interval.

[0015] Further, there is a bottom interval between the bottom of the cylinder and the bottom of the liquid filling cavity. The bottom of the liquid filling interval is communicated with the bottom interval, and the liquid inlet extends into the bottom interval.

[0016] Further, the liquid filling interval is arranged to surround the cylinder along the circumferential direction.

[0017] Further, the liquid filling port is communicated with the top of the liquid filling interval.

[0018] Compared with the prior art, for the hydrogen-containing beverage preparation structure for high-pressure permeation of hydrogen provided by the present utility model, the membrane filaments are in the inflation cavity under high pressure. The fluid enters the flow channel through the liquid inlet, flows in the flow channel, and the hydrogen in the inflation cavity permeates through the membrane filaments and enters the flow channel to be mixed with the fluid to form a hydrogen-containing beverage. The hydrogen-containing beverage is discharged from the liquid outlet. The overall structure is simple, continuous preparation can be achieved, and the preparation efficiency is high. Description of the Drawings

[0019] Figure 1 is a three-dimensional schematic diagram of the hydrogen-containing beverage preparation structure for high-pressure permeation of hydrogen provided by the present utility model;

[0020] Figure 2 is a sectional three-dimensional schematic diagram of the hydrogen-containing beverage preparation structure for high-pressure permeation of hydrogen provided by the present utility model;

[0021] Figure 3 is a sectional schematic diagram of the hydrogen-containing beverage preparation structure for high-pressure permeation of hydrogen provided by the present utility model. Detailed Embodiment

[0022] In order to make the objectives, technical solutions and advantages of the present utility model more clearly understood, the following further details the present utility model in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely used to explain the present utility model and are not used to limit the present utility model.

[0023] The following details the implementation of the present utility model in conjunction with specific embodiments.

[0024] In the accompanying drawings of this embodiment, the same or similar reference numerals correspond to the same or similar components; in the description of the present utility model, it should be understood that if there are terms such as "upper", "lower", "left", "right", etc. indicating the orientation or positional relationship, they are based on the orientation or positional relationship shown in the accompanying drawings. This is only for the convenience of describing the present utility model and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation. Therefore, the terms describing the positional relationship in the accompanying drawings are only for illustrative purposes and cannot be understood as a limitation of this patent. For those of ordinary skill in the art, the specific meanings of the above terms can be understood according to specific circumstances.

[0025] Referring to Figures 1 - 3 as shown, it is a preferred embodiment provided by the present utility model.

[0026] A hydrogen-containing beverage preparation structure for high-pressure permeation of hydrogen includes a plurality of membrane filaments that are permeable to gas but impermeable to liquid. There are flow channels for fluid flow in the membrane filaments, and the fluid mixes with hydrogen in the flow channels to form a hydrogen-containing beverage. One end of the membrane filament forms a liquid inlet for the fluid to enter the flow channel, and the other end of the membrane filament forms a liquid outlet for the hydrogen-containing beverage to be discharged. When the fluid flows in the flow channel, the fluid does not permeate out of the membrane filament.

[0027] The membrane filaments are located in an inflation chamber under high pressure. The liquid inlets and liquid outlets of the membrane filaments extend to the outside of the inflation chamber respectively. The inflation chamber has an inflation port for filling high-pressure hydrogen into the inflation chamber. The liquid inlets of the plurality of membrane filaments are communicated with a liquid filling chamber, and the liquid filling chamber has a liquid filling port for filling fluid into the liquid filling chamber.

[0028] The hydrogen in the inflation chamber can permeate through the membrane filaments under the action of a high-pressure environment and enter the flow channels to mix with the fluid. The fluid in the liquid filling chamber flows in the flow channels through the liquid inlets. The hydrogen under high pressure permeates through the membrane filaments and enters the flow channels to mix with the fluid, forming a hydrogen-containing beverage, which is discharged from the liquid outlet.

[0029] In the above-provided hydrogen-containing beverage preparation structure for high-pressure permeation of hydrogen, the membrane filaments are in an inflation chamber under high pressure. The fluid enters the flow channels through the liquid inlets and flows in the flow channels. The hydrogen in the inflation chamber permeates through the membrane filaments and enters the flow channels to mix with the fluid, forming a hydrogen-containing beverage, which is discharged from the liquid outlet. The overall structure is simple, continuous preparation can be achieved, and the preparation efficiency is high.

[0030] The membrane filaments here are made of polytetrafluoroethylene (PTFE). Polytetrafluoroethylene has the property of being breathable but impermeable to water. Polytetrafluoroethylene is a polymer material. In its molecular structure, fluorine atoms are closely arranged, forming micropores. The diameters of these micropores are smaller than water droplets but larger than air molecules. Therefore, it can allow air to pass through while preventing the passage of liquid water.

[0031] Polytetrafluoroethylene is widely used, such as tissue culture membranes and Viers PTFE microfiltration breathable membranes, etc. Tissue culture membranes are mainly used in plant tissue culture. They are a kind of polymer breathable but impermeable membrane, which can block bacteria and at the same time allow air to circulate freely, realizing high-temperature steam sterilization.

[0032] Viers PTFE microfiltration breathable membranes have good high-temperature resistance and mechanical properties. They are widely used in fields such as petrochemical industry, electronics and electrical appliances, and medical devices, as sealing materials and filtration materials to prevent medium leakage and pollution.

[0033] In this embodiment, the multiple membrane filaments are arranged side by side at intervals. In this way, the hydrogen in the inflation cavity can come into contact with each membrane filament, so as to facilitate the hydrogen to penetrate into the flow channels inside each membrane filament respectively.

[0034] The multiple membrane filaments are arranged in a bundled membrane filament group 300. There are gaps between adjacent membrane filaments. The multiple membrane filaments form the membrane filament group 300, which is convenient for the arrangement of multiple membrane filaments. The membrane filament group 300 is placed in the inflation cavity. The hydrogen in a high-pressure state can pass through the gaps and contact the outer periphery of each membrane filament, realizing the uniform penetration of hydrogen into the flow channels inside each membrane filament.

[0035] In this embodiment, multiple membrane filaments are installed in the air cylinder 200. The inside of the air cylinder 200 has the above-mentioned inflation cavity, and the air cylinder 200 is provided with the above-mentioned inflation port. In this way, high-pressure hydrogen can be injected into the inflation cavity through the inflation port.

[0036] The membrane filament group 300 is placed in the inflation cavity. There is an inflation interval 201 between the circumferential side of the membrane filament group 300 and the inner side wall of the air cylinder 200; the inflation port is communicated with the inflation interval 201, and the liquid inlet and the liquid outlet are respectively arranged separately from the inflation interval 201. The hydrogen injected through the inflation port enters into the inflation interval 201 and enters into the membrane filament group 300 through the gaps between the membrane filaments. The hydrogen can come into contact with the multiple membrane filaments of the membrane filament group 300, and thus can penetrate into the flow channels inside each membrane filament.

[0037] The liquid inlet and the liquid outlet are respectively arranged separately from the inflation interval 201. In this way, it will not affect the entry of fluid into the flow channel and the discharge of hydrogen-containing beverage from the liquid outlet. During the middle flow of the fluid in the flow channel, it is mixed with the hydrogen that penetrates into the flow channel, thus forming a hydrogen-containing beverage and discharging it from the liquid outlet.

[0038] The inflatable space 201 is arranged circumferentially around the membrane filament group 300, so as to ensure that hydrogen permeates from the outside to the inside on the outer periphery of the entire membrane filament group 300, greatly improving the permeation efficiency and keeping the hydrogen in uniform contact with each membrane filament of the membrane filament group 300.

[0039] In this embodiment, the air cylinder 200 is arranged in the liquid cylinder 100. The liquid cylinder 100 has the above-mentioned liquid filling cavity, the liquid cylinder 100 is provided with the above-mentioned liquid filling port, and the liquid inlet of the membrane filament is communicated with the liquid filling cavity. The air cylinder 200 and the liquid cylinder 100 are arranged in a nested manner, so that it is convenient for assembly, and the structure is compact and simple, and the integrity is better.

[0040] In this embodiment, a liquid filling space 101 is formed between the circumferential side of the air cylinder 200 and the inner side wall of the liquid cylinder 100, and the liquid filling port and the liquid inlet are respectively communicated with the liquid filling space 101. In this way, the fluid entering from the liquid filling port can fill the entire liquid filling space 101, surround the outer periphery of the entire air cylinder 200, and enter the flow channels of multiple membrane filaments through the liquid inlet.

[0041] In this embodiment, there is a bottom space 102 between the bottom of the air cylinder 200 and the bottom of the liquid filling cavity. The bottom of the liquid filling space 101 is communicated with the bottom space 102, and the liquid inlet extends into the bottom space 102. The fluid entering from the liquid filling port, after passing through the liquid filling space 101, flows into the bottom space 102 and fills the liquid filling space 101 and the bottom space 102. The fluid in the bottom space 102 enters the flow channel of the membrane filament through the liquid inlet.

[0042] The liquid inlets of multiple membrane filaments respectively extend into the bottom space 102. The fluid fills the bottom space 102 and enters the flow channel through the liquid inlets of the membrane filaments in the bottom space 102, which is convenient for the fluid to enter the flow channel and can keep the fluid flowing continuously into the flow channel.

[0043] The liquid filling space 101 is arranged circumferentially around the air cylinder 200, which can ensure the flow of fluid in the circumferential direction of the membrane filament group 300, facilitate the synchronous entry of fluid into the flow channels of multiple membrane filaments, and each flow channel is filled with fluid, avoiding the phenomenon that there is no fluid in the flow channel.

[0044] In this embodiment, the liquid filling port is communicated with the top of the liquid filling space 101. In this way, the liquid filling port and the bottom space 102 are arranged in a head-to-tail manner. The fluid entering from the liquid filling port enters the liquid filling space 101 from top to bottom, then enters the bottom space 102 from the outer periphery of the bottom space 102, and then enters the flow channel of the membrane filament from bottom to top through the liquid inlet.

[0045] The above are only the preferred embodiments of the present utility model and are not intended to limit the present utility model. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principle of the present utility model shall be included within the protection scope of the present utility model.

Claims

1. A hydrogen-containing beverage preparation structure with high-pressure hydrogen permeation, characterized in that: The invention comprises a plurality of gas-permeable and liquid-impermeable membrane threads, wherein the membrane threads have flow channels for fluid to flow, wherein the fluid is mixed with hydrogen in the flow channels to form a hydrogen-containing beverage, wherein one end of the membrane threads forms a liquid inlet for the fluid to enter the flow channels, and the other end of the membrane threads forms a liquid outlet for the hydrogen-containing beverage to be discharged; The membrane filaments are located in a high-pressure gas-filled cavity, the liquid inlet and liquid outlet of the membrane filaments extend to the outside of the gas-filled cavity respectively, the gas-filled cavity has a gas-filled cavity for injecting high-pressure hydrogen into the gas-filled cavity, a plurality of liquid inlets of the membrane filaments are connected to the liquid-filled cavity, and the liquid-filled cavity has a liquid-filled cavity for injecting fluid into the liquid-filled cavity; The fluid in the liquid-filled cavity flows in the flow channel through the liquid inlet, and the hydrogen in a high-pressure state permeates through the membrane filaments, enters the flow channel and mixes with the fluid to form a hydrogen-containing beverage, which is discharged from the liquid outlet.

2. The high-pressure hydrogen permeation hydrogen-containing beverage preparation structure according to claim 1, characterized in that: The plurality of membrane filaments are arranged in parallel with each other at intervals.

3. The high-pressure hydrogen permeation hydrogen-containing beverage preparation structure according to claim 2, characterized in that: The plurality of membrane threads are arranged in a bundle-shaped membrane thread group, and there are gaps between adjacent membrane threads.

4. The high-pressure hydrogen permeation hydrogen-containing beverage preparation structure according to claim 3, characterized in that: A plurality of the membrane wire devices are in an air cylinder, the interior of the air cylinder has the inflation cavity, and the air cylinder is provided with the inflation port; the membrane wire group is placed in the inflation cavity, and an inflation gap is provided between the peripheral side of the membrane wire group and the inner wall of the air cylinder; the inflation port is connected to the inflation gap, and the liquid inlet and the liquid outlet are respectively arranged in isolation from the inflation gap.

5. The high-pressure hydrogen permeation hydrogen-containing beverage preparation structure according to claim 4, characterized in that: The air-filled spacers are arranged around the circumference of the membrane wire group.

6. The high-pressure hydrogen permeation hydrogen-containing beverage preparation structure according to claim 4, characterized in that: The gas cylinder is arranged in the liquid cylinder, the liquid cylinder has the liquid filling cavity, the liquid cylinder is provided with the liquid filling port, and the liquid inlet of the membrane wire is connected to the liquid filling cavity.

7. The high-pressure hydrogen permeation hydrogen-containing beverage preparation structure according to claim 6, characterized in that: A liquid filling interval is formed between the peripheral side of the gas cylinder and the inner side wall of the liquid cylinder, and the liquid filling port and the liquid inlet are respectively communicated with the liquid filling interval.

8. The high-pressure hydrogen permeation hydrogen-containing beverage preparation structure according to claim 7, characterized in that: A bottom interval is provided between the bottom of the gas cylinder and the bottom of the liquid-filling chamber, the bottom of the liquid-filling interval is communicated with the bottom interval, and the liquid inlet extends into the bottom interval.

9. The high-pressure hydrogen permeation hydrogen-containing beverage preparation structure according to claim 7, characterized in that: The liquid-filled intervals are arranged around the circumference of the gas cylinder.

10. The high-pressure hydrogen permeation hydrogen-containing beverage preparation structure according to claim 7, characterized in that: The liquid filling port is communicated with the top of the liquid filling interval.

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