Magnetic confinement hydrogen locking production system
The magnetic dipole paramagnetic treatment of hydrogen-rich water-rich hydrogen gas is solved by magnetically constrained hydrogen lock production system, which improves the quality and shelf life of the product.
Patent Information
- Application Number
- CN202420677609.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-04-03
- Publication Date
- 2025-02-14
- Estimated Expiration
- 2034-04-03
AI Technical Summary
During the production and storage and transportation of hydrogen-rich water, hydrogen gas easily escapes from the water, resulting in a decrease in product quality and a shorter shelf life.
A magnetically constrained hydrogen lock production system is adopted, which includes a circulation mixing tank, a magnetic field generator, a temporary storage tank and a can production line. The solution is subjected to paramagnetic treatment of magnetic dipole whole pole by a magnetic field generator to enhance the orientation force between water molecules, thereby locking hydrogen and preventing it from escaping.
Effectively restrain hydrogen, prevent it from escaping from water, improve the quality of hydrogen-rich water and extend its shelf life.
Smart Images
Figure CN222476314U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of hydrogen bubble water, in particular to a magnetic confinement hydrogen locking production system. Background Art
[0002] As a clean energy, hydrogen has received extensive attention and application in the fields of medical treatment and drinking water in recent years. Hydrogen-rich water, as a form of hydrogen application, has been favored by consumers due to its potential antioxidant and anti-fatigue effects. However, in the production process of hydrogen-rich water, how to ensure that hydrogen can be stably dissolved in water and not easily escape during storage and transportation has always been a technical problem that restricts the large-scale production and application of hydrogen-rich water. At present, the common hydrogen-rich water production system on the market usually includes multiple high-pressure tanks and high-pressure transportation pipelines. Hydrogen is dissolved into water in the high-pressure tank by high-pressure dissolution, and then transported to the canning production line through the high-pressure transportation pipeline for packaging. Although this method can make hydrogen reach a higher solubility in a short time, due to the weak interaction between water molecules and hydrogen molecules, the solubility of hydrogen in water is significantly affected by environmental factors such as temperature and pressure. During the production and transportation process, hydrogen may easily escape from the water, resulting in a decrease in the quality of hydrogen-rich water, a shortened shelf life, and even failure to achieve the expected effect. Utility Model Content
[0003] The technical problem to be solved by the utility model is to provide a magnetic confinement hydrogen production system, which can confine hydrogen for a long time to prevent it from escaping from water, thereby improving the quality of hydrogen-rich water and extending the shelf life.
[0004] In order to solve the above technical problems, the utility model provides a magnetic confinement hydrogen production system, including a circulating stirring tank, a magnetic field generator, a temporary storage tank and a canning production line, wherein the circulating stirring tank is connected to the magnetic field generator, the magnetic field generator is connected to the temporary storage tank, and the temporary storage tank is connected to the canning production line.
[0005] The magnetic field generator is provided with a polarization zone and a solution pipeline in the polarization zone. The solution pipeline is connected between the circulation stirring tank and the temporary storage tank. The polarization zone can perform magnetic dipole rectification and paramagnetic treatment on the solution in the solution pipeline.
[0006] As an improvement of the above scheme, the solution pipeline includes an inlet pipe section, an intermediate pipe section and an outlet pipe section that are interconnected, one end of the inlet pipe section extends out of the magnetic field generator and is connected to the circulating stirring tank, the intermediate pipe section is arranged between the inlet pipe section and the outlet pipe section, the outlet pipe section extends out of the magnetic field generator and is connected to the temporary storage tank, and the solution flows from the inlet pipe section through the intermediate pipe section and is discharged from the outlet pipe section.
[0007] As an improvement of the above scheme, a first magnetic zone, a second magnetic zone and a third magnetic zone are provided in the polarization zone, the magnetic field strength of the first magnetic zone is higher than the magnetic field strength of the second magnetic zone, the magnetic field strength of the third magnetic zone is higher than the magnetic field strength of the second magnetic zone, the inlet pipe section is located in the first magnetic zone, the middle pipe section is located in the second magnetic zone, and the outlet pipe section is located in the third magnetic zone.
[0008] As an improvement of the above scheme, the first magnetic zone is located above the second magnetic zone, and the second magnetic zone is located above the third magnetic zone; the inlet pipe section is located above the middle pipe section, and the middle pipe section is located above the outlet pipe section, and the inlet pipe section, the middle pipe section and the outlet pipe section are interconnected to form an "S" shape.
[0009] As an improvement of the above solution, a first pipeline and a first delivery pump are provided between the circulating stirring tank and the magnetic field generator, and a second pipeline and a second delivery pump are provided between the magnetic field generator and the temporary storage tank.
[0010] As an improvement of the above scheme, a magnetic generating zone is further provided in the magnetic field generator, and the magnetic generating zone includes a first magnetic generating zone and a second magnetic generating zone, and the first magnetic generating zone and the second magnetic generating zone are respectively arranged above and below the polarization zone, and the first magnetic generating zone and the second magnetic generating zone can generate an electromagnetic field to the polarization zone.
[0011] As an improvement of the above scheme, an oil cooling channel is also provided in the magnetic field generator, and the oil cooling channel includes an oil filling port and an oil discharge port. The oil filling port and the oil discharge port are both provided on the outer wall of the magnetic field generator, and cooling oil is introduced into the oil cooling channel.
[0012] As an improvement of the above solution, the magnetic confinement hydrogen production system also includes a protective cover, which is sleeved outside the magnetic field generator, and the protective cover includes a lead plate layer, a flame retardant layer and a metal plate layer from the inside to the outside.
[0013] As an improvement of the above solution, the magnetic confinement hydrogen production system also includes a bracket, the temporary storage tank is fixed on the top of the bracket, the height of the temporary storage tank is higher than the canning production line, and a production line pipeline is provided between the canning production line and the temporary storage tank.
[0014] As an improvement of the above solution, the central magnetic field strength range in the magnetic field generator is 0-5000 Oersted, and the central magnetic field power range is 0-300kW.
[0015] The implementation of this utility model has the following beneficial effects:
[0016] The utility model discloses a magnetic confinement hydrogen production system provided with a circulating stirring tank, a magnetic field generator, a temporary storage tank and a canning production line. Hydrogen is dissolved in water in the circulating stirring tank to form a solution, and then enters the magnetic field generator. The magnetic field generator is provided with a polarization zone and a solution pipeline arranged in the polarization zone. The solution pipeline is connected between the circulating stirring tank and the temporary storage tank. A magnetic field can be generated in the magnetic field generator. Since water molecules are polar molecules, the distribution of their electron clouds is asymmetric in space, so that the molecules as a whole present a dipole moment. Therefore, water molecules can be used as magnetic dipoles. Under the action of the magnetic field, the directions of the magnetic dipoles are all along the direction of the magnetic field, that is, the solution is subjected to the full-pole paramagnetic treatment of the magnetic field in the polarization zone, so that the amplitude of the molecular magnetic field is enhanced, the molecular polar electromotive force is strengthened, and thus the orientation force between the water molecules is strengthened, thereby constraining the hydrogen between the water molecules, making it difficult for the hydrogen to escape, facilitating the subsequent production process, improving the quality of hydrogen-rich water, and extending the shelf life. BRIEF DESCRIPTION OF THE DRAWINGS
[0017] Figure 1 It is a schematic diagram of the magnetic confinement hydrogen production system of the utility model;
[0018] Figure 2 This is a structural schematic diagram of the magnetic field generator of the utility model from the first perspective;
[0019] Figure 3 This is a structural schematic diagram of the magnetic field generator of the utility model from a second viewing angle;
[0020] Figure 4 This is a schematic diagram of the process of water molecules undergoing rectified paramagnetism under the action of a magnetic field. DETAILED DESCRIPTION
[0021] In order to make the purpose, technical solution and advantages of the utility model clearer, the utility model will be further described in detail with reference to the accompanying drawings. It is hereby stated that the directional words such as up, down, left, right, front, back, inside, outside, etc. that appear or will appear in the text of the utility model are only based on the accompanying drawings of the utility model, and are not specific limitations of the utility model.
[0022] See also Figure 1 and Figure 2The embodiment of the utility model discloses a magnetic confinement lock hydrogen production system, comprising a circulating stirring tank 1, a magnetic field generator 2, a temporary storage tank 3 and a canning production line 4, wherein the circulating stirring tank 1 is connected to the magnetic field generator 2, the magnetic field generator 2 is connected to the temporary storage tank 3, and the temporary storage tank 3 is connected to the canning production line 4. Hydrogen is dissolved in water in the circulating stirring tank 1 to form a solution, and then introduced into the magnetic field generator 2 for rectified paramagnetic treatment. After rectified paramagnetic treatment, hydrogen is stably combined between water molecules, and then the solution is introduced into the temporary storage tank 3 for temporary storage. When canning production is required, the temporary storage tank 3 introduces the solution into the canning production line 4. Specifically, the magnetic field generator 2 is provided with a polarization zone 21 and a solution pipeline 22 provided in the polarization zone 21. The magnetic field generator 2 can generate a magnetic field. The solution pipeline 22 is connected between the circulation stirring tank 1 and the temporary storage tank 3. The solution can enter the solution pipeline 22 and enter the polarization zone 21. The polarization zone 21 can perform magnetic dipole rectification and paramagnetic treatment on the solution in the solution pipeline 22.
[0023] Traditional hydrogen-rich water products have an extremely short shelf life, and are prone to hydrogen leakage during production due to the unstable combination of hydrogen and water. The reason is that water molecules are polar molecules, and there are orientation forces between them, which can generate magnetic poles to form magnetic dipoles, while hydrogen is a non-polar molecule. The solubility of hydrogen in water at room temperature and pressure is extremely low, and hydrogen can easily escape from water. Therefore, in the process of hydrogen combining with water molecules, it is usually necessary to break the orientation forces between water molecules to reduce the three-dimensional connection forces between water molecules, so as to facilitate the entry of hydrogen into the water molecules to dissolve. During the transportation, packaging and sales stages, the three-dimensional connection forces between water molecules cannot continuously constrain hydrogen, so hydrogen can easily escape from the water. In the magnetic confinement and hydrogen locking production system of the utility model embodiment, see Figure 4 , the magnetic field generator 2 is used to apply a magnetic field E to the hydrogen-dissolved solution, and the magnetic dipoles of the water molecules in the solution will become fully paramagnetic, and the magnetic dipoles will change from a discrete distribution state to a uniform distribution state along the direction of the magnetic field. At this time, the magnetic poles between adjacent water molecules attract each other, thereby greatly enhancing the orientation force between the water molecules, and greatly improving the three-dimensional connection force between the water molecules, so that the hydrogen can be continuously locked between the water molecules, achieving the effect of locking hydrogen.
[0024] The beneficial effects of the embodiments of the present utility model are as follows:
[0025] The magnetic confinement hydrogen production system of the utility model embodiment is provided with a circulation stirring tank 1, a magnetic field generator 2, a temporary storage tank 3 and a canning production line 4. Hydrogen is dissolved in water in the circulation stirring tank 1 to form a solution, and then enters the magnetic field generator 2. The magnetic field generator 2 is provided with a polarization zone 21 and a solution pipeline 22 arranged in the polarization zone 21. The solution pipeline 22 is connected between the circulation stirring tank 1 and the temporary storage tank 3. The magnetic field generator 2 can generate a magnetic field. Since water molecules are polar molecules, the distribution of their electron clouds is asymmetric in space, so that the molecules as a whole present a dipole moment. Therefore, water molecules can act as magnetic dipoles. Under the action of the magnetic field, the directions of the magnetic dipoles are all along the direction of the magnetic field, that is, the solution is subjected to the full-pole paramagnetic treatment of the magnetic field in the polarization zone 21, so that the amplitude of the molecular magnetic field is enhanced, the molecular polar electromotive force is strengthened, thereby strengthening the orientation force between the water molecules, thereby constraining the hydrogen between the water molecules, making it difficult for the hydrogen to escape, facilitating the subsequent production process, and improving the quality of hydrogen-rich water and extending the shelf life.
[0026] Specifically, see Figure 2 In order to make the solution obtain different paramagnetic polarization processes, the solution pipeline 22 includes an inlet pipe section 221, an intermediate pipe section 222 and an outlet pipe section 223 which are interconnected. One end of the inlet pipe section 221 extends out of the magnetic field generator 2 and is connected to the circulating stirring tank 1. The intermediate pipe section 222 is arranged between the inlet pipe section 221 and the outlet pipe section 223. The outlet pipe section 223 extends out of the magnetic field generator 2 and is connected to the temporary storage tank 3. The solution is discharged from the circulating stirring tank 1 to the inlet pipe section 221, and the solution flows from the inlet pipe section 221 through the intermediate pipe section 222 and is discharged from the outlet pipe section 223, and then is discharged into the temporary storage tank 3.
[0027] See also Figure 2 and Figure 3In the solution pipeline 22, the solution undergoes a paramagnetic polarization process at different stages. Specifically, a first magnetic zone 211, a second magnetic zone 212 and a third magnetic zone 213 are provided in the polarization zone 21. A magnetic field gradient exists among the first magnetic zone 211, the second magnetic zone 212 and the third magnetic zone 213. The magnetic field strength of the first magnetic zone 211 is higher than that of the second magnetic zone 212, and the magnetic field strength of the third magnetic zone 213 is higher than that of the second magnetic zone 212, that is, the second magnetic zone 212 is a weak magnetic zone, and the first magnetic zone 211 and the third magnetic zone 213 are strong magnetic zones. The inlet pipe section 221 is located in the first magnetic zone 211, the middle pipe section 222 is located in the second magnetic zone 212, and the outlet pipe section 223 is located in the third magnetic zone 213. The solution first enters the inlet pipe section 221 and receives the strong paramagnetic polarization of the first magnetic region 211. The strong magnetic region promotes the polarization of water molecules, and the nuclear magnetic moments inside the water molecules are aligned, thereby improving the overall polarization efficiency. Then the solution enters the intermediate pipe section 222 and receives the weak paramagnetic polarization of the second magnetic region 212. After the polarization of the strong magnetic region, the magnetic moments of the water molecules have been effectively oriented, but this orientation may not be permanent. At this time, passing the solution through the weak magnetic region can help the magnetic moments of the water molecules to maintain the paramagnetic polarization state more stably during this process. Finally, the solution enters the outlet pipe section 223 and receives the paramagnetic polarization of the third magnetic region 213. Under the strong magnetization of the third magnetic region 213, the magnetic moment orientation of the water molecules is further consolidated. Therefore, under different magnetic field intensity gradients, the water molecules can undergo the processing of strong magnetic polarization, weak magnetic arrangement, and strong magnetic stabilization, thereby obtaining a good paramagnetic polarization effect.
[0028] In addition, the first magnetic region 211 is located above the second magnetic region 212, and the second magnetic region 212 is located above the third magnetic region 213; the inlet pipe section 221 is located above the intermediate pipe section 222, and the intermediate pipe section 222 is located above the outlet pipe section 223, and the inlet pipe section 221, the intermediate pipe section 222 and the outlet pipe section 223 are interconnected to form an "S" shape. The "S"-shaped pipeline can extend the residence time of the solution in the magnetic field, so that the water molecules in the solution have enough time to interact with the magnetic field, and at the same time, with different magnetic field intensity gradients, it can further obtain a good paramagnetic polarization effect. In an embodiment of the utility model, the solution pipeline 22 is made of food-grade ultra-high pressure stainless steel, which can withstand a pressure of more than 5MPa, and the bending range of the "S" shape is 120°-180°.
[0029] A first pipeline 11 and a first delivery pump 12 are provided between the circulating stirring tank 1 and the magnetic field generator 2, and a second pipeline 31 and a second delivery pump 32 are provided between the magnetic field generator 2 and the temporary storage tank 3. During operation, the first delivery pump 12 delivers the solution from the circulating stirring tank 1 into the magnetic field generator 2, and after the solution obtains rectified paramagnetism, the second delivery pump 32 delivers the solution from the magnetic field generator 2 into the temporary storage tank 3.
[0030] In order to generate a magnetic field, a magnetic generating zone 23 is further provided in the magnetic field generator 2, and the magnetic generating zone 23 includes a first magnetic generating zone 231 and a second magnetic generating zone 232. The first magnetic generating zone 231 and the second magnetic generating zone 232 are respectively arranged above and below the polarization zone 21. The first magnetic generating zone 231 and the second magnetic generating zone 232 can generate an electromagnetic field for the polarization zone 21, and the first magnetic generating zone 231 and the second magnetic generating zone 232 can form different magnetic field intensity gradients for the polarization zone 21 from the upper and lower sides.
[0031] In addition, an oil cooling channel 24 is also provided in the magnetic field generator 2, and the oil cooling channel 24 includes an oil filling port 241 and an oil discharge port 242, and the oil filling port 241 and the oil discharge port 242 are both provided on the outer wall of the magnetic field generator 2, and cooling oil is introduced into the oil cooling channel 24. By injecting cooling oil to cool the solution pipeline 22 in the magnetic field generator 2, the solution can be kept at a preset temperature, the paramagnetic effect of water molecules is improved, and it is also convenient to maintain a constant temperature. In this embodiment, the cooling oil preferably uses flame-retardant and arc-proof silicone oil, which can achieve the effects of flame retardancy, fire prevention and arc prevention, and can ensure that even if hydrogen overflows, it will not come into contact with open flames, thereby improving the safety of the system.
[0032] In addition, the magnetic confinement lock hydrogen production system also includes a protective cover 5, which is sleeved outside the magnetic field generator 2. The protective cover 5 includes a lead plate layer 51, a flame retardant layer 52 and a metal plate layer 53 from the inside to the outside. In the process of paramagnetic polarization of water molecules, the magnetic field generator 2 will generate a strong magnetic field and may also generate electromagnetic radiation. The protective cover 5 can isolate the magnetic field and electromagnetic radiation. The lead plate layer 51 can effectively absorb and scatter the electromagnetic radiation generated by the magnetic field generator 2, thereby greatly reducing the radiation intensity. The flame retardant layer 52 can prevent the generation of open flames. The metal plate layer 53 can further enhance the shielding effect of the electromagnetic protective cover 5 by reflecting, absorbing and scattering electromagnetic waves, thereby further improving the safety of the system.
[0033] In addition, the magnetic confinement hydrogen production system further includes a bracket 6, the temporary storage tank 3 is fixed on the top of the bracket 6, the height of the temporary storage tank 3 is higher than the canning production line 4, and a production line pipeline 33 is provided between the canning production line 4 and the temporary storage tank 3. The provision of the bracket 6 enables the temporary storage tank 3 to be installed at a higher position than the canning production line 4, and the height of the temporary storage tank 3 is higher than the canning production line 4, so that the hydrogen-rich water can only flow from the temporary storage tank 3 to the canning production line 4, and backflow or reflux cannot occur, so that the flow direction of the hydrogen-rich water on the production line is unidirectional and will not be disturbed or polluted by the external environment. At the same time, by controlling the height difference, the flow rate and flow of the hydrogen-rich water can be better controlled, making the production process more stable and controllable.
[0034] The central magnetic field strength in the magnetic field generator 2 ranges from 0 to 5000 Oersteds, and the central magnetic field power ranges from 0 to 300 kW.
[0035] The above are preferred implementations of the present utility model. It should be pointed out that, for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the principle of the present utility model. These improvements and modifications are also considered to be within the protection scope of the present utility model.
Claims
1. A magnetic confinement hydrogen production system, characterized in that: It includes a circulating stirring tank, a magnetic field generator, a temporary storage tank and a canning production line, wherein the circulating stirring tank is connected to the magnetic field generator, the magnetic field generator is connected to the temporary storage tank, and the temporary storage tank is connected to the canning production line; The magnetic field generator is provided with a polarization zone and a solution pipeline in the polarization zone. The solution pipeline is connected between the circulation stirring tank and the temporary storage tank. The polarization zone can perform magnetic dipole rectification and paramagnetic treatment on the solution in the solution pipeline.
2. The magnetic confinement hydrogen production system according to claim 1, characterized in that: The solution pipeline includes an inlet pipe section, an intermediate pipe section and an outlet pipe section which are interconnected. One end of the inlet pipe section extends out of the magnetic field generator and is connected to the circulating stirring tank. The intermediate pipe section is arranged between the inlet pipe section and the outlet pipe section. The outlet pipe section extends out of the magnetic field generator and is connected to the temporary storage tank. The solution flows from the inlet pipe section through the intermediate pipe section and is discharged from the outlet pipe section.
3. The magnetic confinement hydrogen production system according to claim 2, characterized in that: A first magnetic zone, a second magnetic zone and a third magnetic zone are provided in the polarization zone. The magnetic field strength of the first magnetic zone is higher than that of the second magnetic zone, and the magnetic field strength of the third magnetic zone is higher than that of the second magnetic zone. The inlet pipe section is located in the first magnetic zone, the middle pipe section is located in the second magnetic zone, and the outlet pipe section is located in the third magnetic zone.
4. The magnetic confinement hydrogen production system according to claim 3, characterized in that: The first magnetic zone is located above the second magnetic zone, and the second magnetic zone is located above the third magnetic zone; the inlet pipe section is located above the middle pipe section, and the middle pipe section is located above the outlet pipe section, and the inlet pipe section, the middle pipe section and the outlet pipe section are interconnected to form an "S" shape.
5. The magnetic confinement hydrogen production system according to claim 1, characterized in that: A first pipeline and a first delivery pump are provided between the circulating stirring tank and the magnetic field generator, and a second pipeline and a second delivery pump are provided between the magnetic field generator and the temporary storage tank.
6. The magnetic confinement hydrogen production system according to claim 1, characterized in that: The magnetic field generator is also provided with a magnetic generating zone, which includes a first magnetic generating zone and a second magnetic generating zone. The first magnetic generating zone and the second magnetic generating zone are respectively arranged above and below the polarization zone. The first magnetic generating zone and the second magnetic generating zone can generate an electromagnetic field for the polarization zone.
7. The magnetic confinement hydrogen production system according to claim 1, characterized in that: An oil cooling channel is also provided in the magnetic field generator, and the oil cooling channel includes an oil filling port and an oil discharge port. The oil filling port and the oil discharge port are both provided on the outer wall of the magnetic field generator, and cooling oil is introduced into the oil cooling channel.
8. The magnetic confinement hydrogen production system according to claim 1, characterized in that: The magnetic confinement hydrogen production system further comprises a protective cover, which is sleeved outside the magnetic field generator, and the protective cover comprises a lead plate layer, a flame retardant layer and a metal plate layer from inside to outside.
9. The magnetic confinement hydrogen production system according to claim 1, characterized in that: The magnetic confinement hydrogen production system also includes a bracket, the temporary storage tank is fixed on the top of the bracket, the height of the temporary storage tank is higher than the canning production line, and a production line pipeline is provided between the canning production line and the temporary storage tank.
10. The magnetic confinement hydrogen production system according to claim 1, characterized in that: The central magnetic field strength in the magnetic field generator ranges from 0 to 5000 oersteds, and the central magnetic field power ranges from 0 to 300 kW.