TWM518229U - Electrolytic device - Google Patents

Abstract

The present creation provides an electrolytic device and comprises an electrolytic tank and a plurality of electrodes. The electrolytic tank comprises a case for accommodating liquid water. The inner wall of the case has a plurality of engagement structures. The plurality of electrodes are set in the engagement structures respectively to be arranged at intervals in the case, wherein the case is connected to the plurality of electrodes by injection molding.

Description

Electrolytic device

The present invention relates to an electrolysis device, and more particularly to an electrolysis device which can be used to supply electrolyte water and produce hydrogen and oxygen.

Human beings have always attached great importance to life. Many medical technologies have been developed to fight disease and continue human life. Most of the past medical treatments are passive, that is, when the disease occurs, the disease is treated again, such as surgery, administration, and even chemotherapy of cancer, radiotherapy, or the rehabilitation, rehabilitation, and correction of chronic diseases. However, in recent years, many medical experts have gradually made research toward preventive medical methods, such as health food research, genetic disease screening and early prevention, etc., and actively prevent future morbidity. In addition, in order to extend human life, many anti-aging and anti-oxidation technologies have been developed and widely used by the public, including smeared skin care products, and antioxidant foods/drugs.

Studies have found that the body's unstable oxygen (O+), also known as free radicals (harmful free radicals), can be mixed with inhaled hydrogen for various reasons (such as disease, diet, environment or lifestyle). Part of the water, and excreted. Indirectly reduce the amount of free radicals in the human body, achieve acidic body to reduce to a healthy alkaline body, can resist oxidation, anti-aging, and thus achieve the elimination of chronic diseases and beauty care effects. There are even clinical trials showing that for some long-term beds People, because of long-term breathing of high concentrations of oxygen, lung damage, can be inhaled by hydrogen to relieve the symptoms of lung injury. In summary, the gas containing hydrogen can be regarded as a health care gas and can be obtained by liquid water.

Please refer to FIG. 7 , which shows a schematic diagram of the structure of a conventional hydrogen-oxygen electrolysis apparatus. The electrolysis device 700 includes an electrolysis cell 702. The electrolysis cell 702 further includes electrodes 706A and 706B, and the electrodes 706A and 706B are respectively a cathode electrode and an anode electrode, and are coupled to a power source (not shown) to provide electrolysis. The electrical energy required for water. The electrolyzed water 704 in the electrolytic cell 702 starts to be electrolyzed after being energized by the electrodes 706A, 706B, and hydrogen is generated at the cathode (negative electrode), and the anode (positive electrode) generates oxygen and is released into the upper portion of the electrolytic cell 702 to form a Hydrogen-oxygen mixed gas 708. The hydrogen-containing oxygen mixed gas 708 is output from the output line of the electrolytic cell 702 for subsequent use. However, the amount of hydrogen-oxygen gas generated by such an electrolytic device is generally limited by the shape and structure of the electrolytic cell.

The present invention provides an electrolysis device comprising an electrolysis cell and a plurality of electrodes. The electrolytic cell contains a housing. The housing is for holding a liquid water. The inner wall of the housing has a plurality of snap-fit structures. A plurality of electrodes are respectively disposed on the engaging structures, and are arranged in the housing at intervals. Wherein, the casing is connected to the plurality of electrodes by injection molding.

The electrolytic cell may optionally further comprise an upper pad disposed on the upper surface of each of the electrodes, the upper pad comprising a plurality of protrusions, and the protrusions are placed in the gap between the two electrodes, wherein the upper spacer is Made of insulating material.

The upper backing plate may optionally further comprise a plurality of perforations corresponding to the gaps between the two electrodes. The insulating material may alternatively be rubber.

The electrolytic cell can optionally further comprise a lower pad and is disposed on each of the electrodes Below the lower surface, the lower spacer is made of an insulating material.

The bottom of the casing and the electrodes may optionally have a distance of 1 cm or more.

The bottom of the housing and the electrodes may optionally have a distance of between 3 cm and 4 cm.

The electrolytic cell may optionally further comprise a plurality of upper perforations, and an adjacent one of the electrodes forms an electrode flow channel, and the electrode flow channels respectively correspond to at least one of the perforations, the electrode flow channels Connect the outside through the corresponding perforations.

The electrolytic cell may optionally further comprise a plurality of lower perforations, and an electrode flow channel is formed between the two adjacent electrodes, and the electrode flow channels respectively correspond to at least one of the lower perforations, the electrode flow channels The outside is communicated through the corresponding perforations.

The plurality of electrodes may optionally comprise a cathode, an anode, and a plurality of bipolar electrodes. A plurality of bipolar electrodes are disposed between the cathode and the anode at intervals.

The voltage difference between a group of electrolytic electrodes composed of two adjacent bipolar electrodes is between 1.5V and 3V.

The cathode and the anode may each have a roughened surface.

The cathode and the anode may each include a gold-plated protrusion, and the cathode and the anode may be respectively connected to a power source by a protrusion.

The distance between the two adjacent electrodes may alternatively be between 2 millimeters (mm) and 4 millimeters.

The distance between the two adjacent electrodes can be optionally 3 mm.

In summary, the present invention provides an electrolysis device. The electrolytic device of the present creation By arranging a plurality of electrodes in the engaging structure at intervals in the casing, and the distance between the two adjacent electrodes is between 2 mm and 4 mm, the power consumption can be reduced and the volume of the casing can be reduced. The bottom of the casing and the electrodes have a distance of 1 cm or more, which can be used to avoid discharge of the electrode at the tip end of the electrolytic cell. The housing can be tightly coupled to the plurality of electrodes by placing a plurality of electrodes in the mold and then forming the housing in an injection molding manner to reduce the volume of the housing.

1‧‧‧Electrolytic device

2‧‧‧electrolyzer

20‧‧‧shell

200‧‧‧Clamping structure

202‧‧‧ underperture

22‧‧‧ Cover

220‧‧‧perforation

24‧‧‧Upper board

240‧‧‧perforation

26‧‧‧Under the board

260‧‧‧ underperture

28‧‧‧Baffle

6‧‧‧Electrode

60‧‧‧ cathode

600‧‧‧metal layer

602‧‧‧ protrusion

604‧‧‧Roughened surface

62‧‧‧Anode

620‧‧‧metal layer

622‧‧‧

64‧‧‧Bipolar electrodes

F1‧‧‧ upper surface

S1‧‧‧electrode runner

700‧‧‧Electrolytic device

702‧‧‧electrolyzer

704‧‧‧ Electrolyzed water

706A, 706B‧‧‧ electrodes

708‧‧‧Hydrogen-oxygen mixed gas

1A and 1B are schematic views showing different perspectives of the electrolytic device of the present invention in a specific embodiment.

2A and 2B are a plan view showing an embodiment of the electrolytic device of the present invention in FIG. 1A and a cross-sectional view taken along line A-A of the plan view.

3A and 3B are schematic views showing different perspectives of the housing of the present invention having a snap-fit structure in a specific embodiment.

4A to 4B are schematic views showing different perspectives of the housing in which the electrolysis device of the present invention is provided with a partial electrode in a specific embodiment.

FIG. 5A and FIG. 5B are schematic diagrams showing different viewing angles of the electrolytic cell having the upper pad in the embodiment of the electrolytic device of the present invention.

Figure 6 is a schematic view showing the housing of the present invention in which the electrolytic device of the present invention is provided with an anode and a cathode.

Figure 7 is a schematic view showing the structure of a conventional hydrogen-oxygen electrolysis apparatus.

The advantages, spirits and features of the present invention will be described and discussed in detail by way of example and with reference to the accompanying drawings.

For the sake of the advantages of the present invention, the spirit and the features can be more easily and clearly understood, and the detailed description and discussion will be made later by way of example and with reference to the accompanying drawings. It is to be noted that the embodiments are merely representative embodiments of the present invention, and the specific methods, devices, conditions, materials, and the like are not intended to limit the present invention or the corresponding embodiments.

Please refer to FIG. 1A and FIG. 1B. FIG. 1A and FIG. 1B are schematic diagrams showing different perspectives of the electrolytic device of the present invention in a specific embodiment. Figure 1A and Figure 1B show the overall appearance of the electrolysis unit. The electrolysis device 1 includes an electrolytic cell 2 and a plurality of electrodes 6. The plurality of electrodes 6 includes a cathode 60 and an anode 62. In application, the cathode 60 and the anode 62 are respectively connected to an external power source (not shown), the cathode is connected to the negative pole of the power source, and the anode is connected to the anode of the power source. A plurality of electrodes 6 electrolyze the liquid water between them and the electrolytic cell 2 to produce hydrogen and oxygen. The design of each component of the creation will be separately described below.

First, please refer to FIG. 2A and FIG. 2B. FIG. 2A and FIG. 2B are a plan view showing an embodiment of the electrolytic device of the present invention in FIG. 1A and a cross-sectional view taken along line A-A of the plan view. The electrolytic cell 2 includes a housing 20 for containing a liquid water. A plurality of electrodes 6 are arranged in a space in the housing 20.

Next, please refer to Figure 3A and Figure 3B. 3A and 3B are schematic views showing different perspectives of the housing of the present invention having a snap-fit structure in a specific embodiment. The housing 20 can be connected to a plurality of electrodes 6 by injection molding. In one embodiment, the housing 20 can be formed by injection molding by placing a plurality of electrodes in a mold. Firstly, a plurality of electrodes 6 are placed in the mold, and then in-mold injection molding is performed, which means that the shell material (such as plastic) required by the designer is injected into the mold in close contact with the electrode to form a tight electrode with a plurality of electrodes. The housing 20 is combined to solve the problem of inserting the electrodes into the housing one by one. The shortcomings such as time and labor involved in the process. At the same time, it is also possible to solve the problem that it is difficult to insert the electrodes one by one into the casing in order to provide a small electrode pitch. Therefore, the production assembly of the electrolysis device is more convenient and easier to mass-produce, which can reduce the cost, and can also provide uniform electrode spacing and arrange the electrodes to be more easily located at precise positions. In addition, when the electrode spacing is reduced, it further reduces the power consumption and also reduces the volume of the housing.

As shown in FIG. 3A and FIG. 3B, the inner wall of the housing 20 has a plurality of engaging structures 200, and the plurality of electrodes 6 are respectively disposed in the engaging structures 200 at intervals in the housing 20 to A plurality of electrode flow paths S1 are formed. The distance between the two adjacent electrodes is 3 millimeters (mm), so that the power consumption can be reduced, and the volume of the casing can be reduced, and the electrolysis efficiency can be improved. However, the actual application is not limited to the above, and the distance between the two adjacent electrodes may be between 2 mm and 4 mm. In one embodiment, the plurality of engaging structures 200 and the housing 20 may be integrally formed, which may be formed by injection molding.

Please refer to FIG. 4A to FIG. 4B. FIG. 4A to FIG. 4B are schematic diagrams showing different perspectives of the housing of the present invention in which a partial electrode is disposed in a specific embodiment. Comparing Fig. 2A and Fig. 2B with reference to Figs. 4A to 4B, it is possible to more easily observe the outer shape of the engaging structure in which the electrodes are not provided. However, the number or shape of the snap-fit structure is not limited to Figure 4A to Figure 4B. In practical applications, the number of snap-fit structures can be adjusted according to the number of electrodes, or the designer can select the required one according to actual needs. The number or shape of the snap fit structure.

In an embodiment, the snap structure 200 can be a bump or a groove. The bumps are formed from the inner wall of the casing 20 to the outer edge. The groove is recessed from the inner wall of the casing 20 inward. In one embodiment, a plurality of electrodes 6 may be disposed between the corresponding two bumps on both sides of the inner wall of the housing to be spaced apart in the housing, and a plurality of electrode flow paths S1 are formed. The diameter of the bump is 2 mm to 4 m. Between the meters, that is, between two adjacent electrodes, the distance between the electrodes is between 2 mm and 4 mm. In a preferred embodiment, the diameter of the bumps is 3 mm, which means that the two adjacent electrodes are The spacing is 3 mm. In another embodiment, a plurality of electrodes may be disposed in the grooves on both sides of the inner wall of the housing to be spaced apart in the housing, and a plurality of electrode flow paths S1 are formed. The distance between the two grooves is between 2 mm and 4 mm, which means that the distance between the two adjacent electrodes is between 2 mm and 4 mm. In a preferred embodiment, the distance between the two grooves is 3 mm, meaning that the distance between the two adjacent electrodes is 3 mm.

Please refer to FIG. 3A, FIG. 3B, FIG. 5A and FIG. 5B. FIG. 5A and FIG. 5B show different perspectives of the electrolytic cell of the present electrolytic device having the upper pad 24 in one embodiment. Schematic diagram. As shown in Figure 3A and Figure 3B. In one embodiment, the top of the housing 20 has an opening through which the electrode flow path can communicate with the outside. Referring to FIG. 5A and FIG. 5B, in an embodiment, the electrolytic cell further includes an upper pad 24. The upper pad may be disposed on the upper surface F1 of each of the electrodes by the top of the electrolytic cell to seal the opening. In an embodiment, the upper pad includes a plurality of protrusions, and the plurality of protrusions may be formed on the surface of the upper pad corresponding to the electrode flow path, and the upper pad is disposed on the upper surface F1 of each of the electrodes At this time, the protrusions can be placed in the gap between the two electrodes, and the adjacent two electrodes can be insulated. In one embodiment, the gap between the two electrodes is the electrode flow path S1. The upper gasket can be a rubber mat, but it is not limited thereto. In practical applications, it can be made of an insulating material. The upper backing plate 24 further includes a plurality of upper perforations 240 corresponding to the gaps between the two electrodes. In one embodiment, the gap between the two electrodes is the electrode flow path S1. However, the shape and number of the perforations 240 are not limited to those shown in FIG. 5A and FIG. 5B. The electrode channels S1 are respectively corresponding to at least one of the upper holes 240, and the electrode channels S1 are independently connected to the corresponding upper holes 240. Since the through holes 240 above the upper pad 24 communicate with the outside, each of the electrode flow paths S1 can be respectively Independently connected to the outside world. Therefore, the upper perforation can be used to output hydrogen and oxygen generated by the electrolyte water from the casing, but not limited thereto, the upper perforation can even supply the electrolyte into the casing and then into the electrode flow channel. In addition, the upper perforation can also be used for the cathode and the anode to be connected, so that the cathode and the anode can be connected to a power source (not shown).

In an embodiment, the bottom of the housing 20 has an opening (not shown in FIG. 3A and FIG. 3B, and the outer shape is as shown in the top of FIG. 3A and FIG. 3B), and the electrode flow path can be borrowed. The opening and the outside are in communication with each other. In an embodiment, the electrolytic cell further has a lower pad (not shown in FIG. 5A and FIG. 5B, and the outer pad is shaped and arranged as shown in FIG. 5A and FIG. . The lower backing plate may be disposed from the bottom of the electrolytic cell to the lower surface of each of the electrodes (corresponding to the upper surfaces of the electrodes) to seal the opening. In an embodiment, the lower pad includes a plurality of protrusions, and the plurality of protrusions may be formed corresponding to the surface of the lower pad of the electrode flow channel, when the lower pad is disposed under the lower surface of each of the electrodes, The protrusions can be placed in the gap between the two electrodes, and the adjacent two electrodes can be insulated. In one embodiment, the gap between the two electrodes is the electrode flow path S1. The lower gasket can be a rubber mat, but it is not limited thereto. In practical applications, it can be made of an insulating material. The underpad further includes a plurality of lower perforations corresponding to the gaps between the two electrodes. In one embodiment, the gap between the two electrodes is the electrode flow path S1. The electrode channels S1 respectively correspond to at least one of the lower perforations, and the electrode channels S1 are independently in communication with the corresponding under-perforations. Since the perforations under the lower pad are in communication with the outside, each of the electrode flow paths S1 can be independently communicated with the outside. Therefore, the lower perforation allows the liquid water to be replenished from the outside into the casing 20 via the lower perforations and into the electrode flow path S1.

In an embodiment, the electrolysis device can be disposed in the water tank or even suspended in the water tank. The water tank has a hollow portion that can be used to hold liquid water. Hollow part of the water tank The perforation above the electrolysis cell and the electrode flow channel can communicate with each other, so that hydrogen and oxygen generated by the electrolyte state water are output from the casing through the upper perforation, and even the liquid water can be replenished into the casing through the upper perforation through the water tank. In the electrode flow path S1. The hollow portion of the water tank can communicate with the perforations below the electrolytic cell, and the liquid water can be supplied from the water tank through the lower perforation into the casing and into the electrode flow path S1.

Next, please refer to Figure 1B and Figure 2B. In another embodiment, the housing is in the shape of a groove. As can be seen from Figure 1B, the electrolytic cell 2 further comprises a plurality of lower perforations 202. The lower perforations 202 can extend through the inner and outer surfaces of the bottom of the housing 20. As shown in FIG. 2B, an electrode flow path S1 is formed between the two adjacent electrodes 6, and the electrode flow paths S1 are respectively corresponding to the lower holes 202, and the electrode flow paths S1 are independently and corresponding to the housing. The perforations 202 are connected at the bottom of the bottom 20 However, in the actual application, the electrode flow channels can also correspond to at least one of the perforations, that is, the designer can customize according to actual needs. The number or shape of the perforations corresponding to the electrode flow path is selected. Since each of the electrode flow paths S1 can be independently communicated with the outside by the corresponding lower perforations 202, the lower perforations 202 allow the liquid electrolyzed water to be replenished from the outside into the casing 20 and into the electrode flow path S1.

Next, please refer to FIG. 2B. As shown in the figure, the bottom of the casing 20 and the equal electrode 6 have a distance of 3 cm to 4 cm to avoid discharge of the electrode at the tip end of the electrolytic cell. However, it is not limited to the above. In practical applications, the bottom of the casing and the electrodes may have a distance of 1 cm or more. In an embodiment, a lower pad 26 is disposed between the bottom of the housing 20 and the equal electrode 6. The lower pad 26 is located between the inner surface of the bottom of the housing 20 and the lower surface of the electrodes 6, to avoid the proximity of the electrode 6 to the bottom of the housing 20, resulting in tip discharge. In this embodiment, the thickness of the lower pad is between 3 cm and 4 cm, so that the bottom of the housing and the electrodes have a distance of 3 cm to 4 cm; but not limited thereto. When applied, the thickness of the lower pad can be greater than It is 1 cm so that the bottom of the casing and the electrodes have a distance of 1 cm or more.

Further, please refer to FIG. 1B and FIG. 2B. As shown in FIG. 2B, the lower pad 26 further includes a plurality of lower through holes 260, and the electrode flow path S1 can be perforated 260 by the lower pad 26. The ground hole communicates with the bottom surface of the bottom surface of the casing 20, and communicates with the outside through the lower through hole 260 and the lower through hole 202, so that the liquid water is replenished into the casing 20 through the lower through hole 202 and the lower through hole 260 to the electrode flow. In the road S1.

In one embodiment, the electrolytic cell further includes a plurality of upper perforations. As shown in FIG. 2B, in an embodiment, the electrolytic cell 2 further has an upper pad 24 disposed on the upper surface of each of the electrodes 6, wherein the upper pad 24 has a plurality of upper perforations 240. As can be seen from FIG. 2B, the electrode flow channels S1 respectively correspond to at least one of the upper through holes 240, and the electrode flow paths S1 are independently in communication with the corresponding upper perforations 240. Further, since the through holes 240 above the upper pad 24 communicate with the outside, each of the electrode flow paths S1 can be independently communicated with the outside. Therefore, the upper perforation can be used to output hydrogen and oxygen generated by the electrolyte water from the casing, but not limited thereto, the upper perforation can even supply the electrolyte into the casing and then into the electrode flow channel. In addition, the upper perforation can also be used for the cathode and the anode to be connected, so that the cathode and the anode can be connected to a power source (not shown).

Please refer to Figure 1A and Figure 2B again. In one embodiment, as shown in FIG. 1A, the electrolytic cell 2 further includes a cover 22, wherein the cover 22 has a plurality of upper perforations 220. However, the number and shape of the upper perforations 220 are not limited to those shown in FIG. As shown in FIG. 2B, the cover 22 is disposed on the housing 20 and the upper pad 24, and the through hole 220 on the cover 22 communicates with the through hole 240 above the corresponding upper pad 24. The electrode flow path S1 can communicate with the perforation 220 above the cover 22 by the perforation 240 above the upper pad 24, and the electrode flow path S1 communicates with the outside by the perforation 220 connected thereto. Thereby, each of the electrode flow paths S1 can be independently communicated with the outside. Therefore, the perforation 240 above the upper pad 24 is And the perforation 220 above the cover 22 can be used to output hydrogen and oxygen generated by the electrolyte water from the housing, but not limited thereto, the perforation 240 above the upper pad 24 and the perforation 220 above the cover 22 can even be provided. The electrolyte is replenished into the housing from the outside and into the electrode flow path. In addition, the perforations 240 above the upper pad 24 and the perforations 220 above the cover 22 are also available for the cathode and the anode to be connected so that the cathode and the anode can be connected to the power source.

In an embodiment, the electrolysis device can be disposed in the water tank or even suspended in the water tank. The water tank has a hollow portion that can be used to hold liquid water. The hollow portion of the water tank can communicate with the electrode flow channel through the perforation above the electrolytic cell, so that hydrogen and oxygen generated by the electrolyte water can be output from the casing through the upper perforation, and even the liquid water can be supplemented by the water tank through the upper perforation. The inside of the casing is further in the electrode flow path S1. The hollow portion of the water tank can communicate with the perforations below the electrolytic cell, and the liquid water can be supplied from the water tank through the lower perforation into the casing and into the electrode flow path S1.

In one embodiment, the electrolytic cell 2 can include a separator 28 (shown in FIG. 1A). The partition plate 28 is formed to extend outward from the side surface of the casing 2 with respect to the water tank. However, the shape of the partition plate 28 is not limited to the one shown in the drawings. In practical applications, the desired outer shape can be selected for the internal structure of the water tank. In one embodiment, the partition plate 28 and the housing 20 are integrally formed, but not limited thereto. In practical applications, whether the partition is installed outside the housing may be determined according to user requirements. In one embodiment, the housing is injection molded by a mold having a diaphragm and a housing configuration to form a partition and a housing, which are integrally formed.

In one embodiment, when the electrolytic cell is disposed in the water tank, the electrolytic cell 2 can form the hollow portion of the water tank into an upper portion and a lower portion by the partition plate 28. The upper part of the hollow part of the water tank can communicate with the perforation above the electrolysis tank, and the hydrogen and oxygen generated by the electrolyte water can be output from the casing through the upper perforation, and even the liquid water can be supplemented by the upper part of the water tank via the upper perforation. Into the housing and then to electricity In the pole runner S1. The lower portion of the hollow portion of the water tank can communicate with the perforations below the electrolytic cell, and the liquid water can be supplied from the lower portion of the water tank through the lower perforation into the casing and into the electrode flow path S1.

Referring to FIG. 2B and FIG. 6, as shown, in the embodiment, the plurality of electrodes 6 are a cathode 60, an anode 62, and a plurality of bipolar electrodes 64. A plurality of bipolar electrodes 64 are disposed between the cathode 60 and the anode 62 at intervals. Cathode 60 has a roughened surface 604 (shown in Figure 6). The anode 62 also has a roughened surface (not shown). In one embodiment, the cathode 60 and the anode 62 are roughened by brushing to the surface of the cathode and the anode to increase the electrolysis area.

Please refer to FIG. 3A, FIG. 3B and FIG. 6 respectively. FIG. 6 is a schematic view showing the housing of the present invention in which the electrolytic device of the present invention is provided with an anode and a cathode. In one embodiment, the cathode 60 has a metal layer 600 (as shown in FIG. 3B and FIG. 6), and the anode 62 has a metal layer 620 (as shown in FIG. 3A). The cathode 60 and the anode 62 can be connected to a power source (not shown) by a metal layer, respectively. However, the area of the metal layer is not limited to the one shown in Figure 6. The area of the metal layer can be adjusted according to the actual application. In one embodiment, the cathode and the anode may respectively include a gold-plated protrusion 602, 622 (as shown in FIG. 3A and FIG. 3B), and the cathode 60 and the anode 62 may be respectively formed by the protrusions 602 and 622. The power supply (not shown) is connected.

When the electrolysis device is electrically connected to an external power source, the cathode 60 can be connected to the negative pole of the power source, and the anode 62 can be connected to the anode of the power source. The voltage difference between a group of electrolysis electrodes composed of two adjacent bipolar electrodes 64 is about 1.5. Between V~3V. The voltage difference between the cathode 60 and the bipolar electrode 64 is about 1.5V~3V. The voltage difference between the bipolar electrode 64 and the set of electrolytic electrodes formed by the adjacent bipolar electrodes 64 is between about 1.5V and 3V. The voltage difference between the bipolar electrode 64 and the set of electrolytic electrodes formed by the anode 62 is between about 1.5V and 3V.

When the electrolysis device is electrically connected to an external power source, the output voltage of the power source is between about 17 volts (V) and 27 volts (V), and the output current of the power source is between about 30 amps (A) and 40 amps (A). The electrolysis unit produces an outgas volume of between about 1.5 liters and 4.0 liters per minute. The voltage of each group of electrodes (between the positive and negative electrodes) is between 1.5 volts (V) and 3 volts (V) during use. If there are eight groups, the voltage is between 12V and 24V. However, in the actual application, when the electrolysis device is electrically connected to an external power source, the output voltage of the power source is between about 5 volts (V) and 24 volts (V), and the output current of the power source is about 2 amps ( A) to 150 amps (A), that is, the power of the electrolysis device is between 10 watts (ie about 5V*2A) to 3600 watts (ie about 24V*150A), and the electrolysis device can generate 0.01 liters to 12 liters per minute. The amount of gas discharged between liters.

In summary, the present invention provides an electrolysis device. The electrolysis device of the present invention is arranged in the housing at intervals by placing a plurality of electrodes in the engaging structure, and the distance between the two adjacent electrodes is between 2 mm and 4 mm to reduce power consumption and reduce The volume of the housing and improved overall efficiency. A distance of 1 cm or more between the bottom of the casing and the electrodes prevents the electrodes from being discharged at the tip end of the electrolytic cell. The plurality of electrodes are disposed in the mold and then in-mold injection molding, and the molded housing is closely combined with the plurality of electrodes, which can solve the time-consuming and costly process of inserting the electrodes into the casing one by one. Shortcomings such as work. Therefore, the production assembly of the electrolysis device is more convenient and easier to mass-produce, which can reduce the cost, and can also provide uniform electrode spacing and arrange the electrodes to be more easily located at precise positions.

The features and spirit of the present invention are more clearly described in the above detailed description of the preferred embodiments, and the scope of the present invention is not limited by the preferred embodiments disclosed herein. On the contrary, it is intended to cover all kinds of changes and equivalences within the scope of the patent application to which the present invention is intended. Although this creation has been disclosed in an implementation manner, However, it is not intended to limit the creation of this work. Anyone who is familiar with this skill can make various changes and refinements without departing from the spirit and scope of this creation. Therefore, the scope of protection of this creation should be attached to the patent application. The scope is defined.

1‧‧‧Electrolytic device

2‧‧‧electrolyzer

20‧‧‧shell

202‧‧‧ underperture

22‧‧‧ Cover

220‧‧‧perforation

24‧‧‧Upper board

240‧‧‧perforation

26‧‧‧Under the board

260‧‧‧ underperture

6‧‧‧Electrode

60‧‧‧ cathode

62‧‧‧Anode

64‧‧‧Bipolar electrodes

S1‧‧‧electrode runner

Claims (15)

An electrolysis device for electrolyte state water and producing hydrogen and oxygen, the electrolysis device comprising: an electrolytic cell comprising a casing for accommodating a liquid water, the inner wall of the casing having a plurality of engaging structures And a plurality of electrodes respectively disposed in the engaging structures and spaced apart from each other in the housing; wherein the housing is connected to the plurality of electrodes by injection molding. The electrolysis device of claim 1, wherein the electrolysis cell further comprises an upper pad disposed on an upper surface of each of the electrodes, the upper pad comprising a plurality of protrusions, the protrusion A gap is formed between the two electrodes, and the upper spacer is made of an insulating material. The electrolysis device of claim 2, wherein the upper backing plate further comprises a plurality of perforations corresponding to the gaps between the two electrodes. The electrolysis device of claim 2, wherein the insulating material is rubber. The electrolysis device according to claim 1, wherein the electrolytic cell further comprises a lower pad disposed under a lower surface of each of the electrodes, the lower spacer being made of an insulating material. The electrolysis device according to claim 1, wherein the bottom of the casing and the electrodes have a distance of 1 cm or more. The electrolysis device of claim 6, wherein the bottom of the housing and the electrodes have a distance of between 3 cm and 4 cm. The electrolysis device according to claim 1, wherein the electrolytic cell further comprises a plurality of upper perforations, and an adjacent one of the electrodes forms an electrode flow channel, and the electrode flow channels respectively correspond to perforation In at least one of the electrodes, the electrode channels are respectively connected to the outside through the corresponding upper perforations. The electrolysis device of claim 1, wherein the electrolysis cell further comprises a plurality of undercuts And an electrode flow channel is formed between the two adjacent electrodes, and the electrode flow channels respectively correspond to at least one of the lower perforations, and the electrode flow channels respectively communicate with the outside through the corresponding lower perforations. The electrolysis device according to claim 1, wherein the plurality of electrodes comprise a cathode, an anode and a plurality of bipolar electrodes, and the plurality of bipolar electrodes are disposed between the cathode and the anode at intervals. The electrolysis device according to claim 10, wherein a voltage difference between a group of electrolytic electrodes composed of two adjacent bipolar electrodes is between 1.5V and 3V. The electrolysis device of claim 10, wherein the cathode and the anode each have a roughened surface. The electrolysis device according to claim 10, wherein the cathode and the anode respectively comprise a gold-plated protrusion, and the cathode and the anode are respectively connected to a power source by the protrusion. The electrolysis device according to claim 1, wherein the distance between the two adjacent electrodes is between 2 mm (mm) and 4 mm. The electrolysis device of claim 14, wherein the distance between the two adjacent electrodes is 3 mm.