TWM545130U - Gas/liquid generation system featuring real-time production and real-time pressurization, and its gas production machine - Google Patents

Description

Instant manufacturing, instant pressurized gas and liquid production system and its gas instant manufacturing machine

The present invention relates to a gas-liquid generating system and a gas instant manufacturing machine thereof, and more particularly to a gas-liquid generating system for instant manufacturing and immediate pressurization, and a gas instant manufacturing machine thereof.

With the efficacy and advantages that hydrogen water (hydrogen-rich water, water-based water) can provide, it has been promoted and promoted. Hydrogen water production machines have received much attention, and a variety of hydrogen water production machines have been introduced in the market. The existing hydrogen water producing machine comprises a hydrogen generating module and a water container, wherein the hydrogen generating module is disposed in the water container, and the drinking water is filled into the water container, so that the hydrogen generating module is immersed in the drinking water. The hydrogen generating module can electrolyze the drinking water to generate hydrogen, and the generated hydrogen is directly dissolved into the drinking water to provide hydrogen water for the user to drink. In addition, a device for generating hydrogen gas has been introduced on the market, and the hydrogen gas generated by the device is introduced into an open water container for generating hydrogen gas and hydrogen water.

Since the hydrogen generating module of the existing hydrogen water producing machine is installed in the same water container as the drinking water, only water can be used as a raw material for electrolysis to generate hydrogen, and other liquids, such as juice or beverage, cannot be used as a raw material for electrolysis. If the hydrogen generating module of the existing hydrogen water producing machine is disposed in the same water container as the juice or the beverage, the fine impurities in the juice or the beverage may be blocked on the hydrogen generating module under the long-term use. The hydrogen generating module is damaged and cannot be used, and it is not easy to clean and bacteria are generated. Therefore, the raw material for generating hydrogen gas by the existing hydrogen water producing machine is limited to liquid water, and the use thereof is limited. In addition, the hydrogen water device introduced in the market mentioned above can only generate hydrogen gas and introduce it into the open water container. Although hydrogen water and hydrogen beverage can also be produced, the manufacturing time is long and the effect is poor. It is not easy to store, the vent hole will contact the liquid and pollute the gas outlet, and the hydrogen in the hydrogen water will dissipate to the atmosphere with time. Therefore, this creation is a creation to improve the above shortcomings and to add new uses.

The purpose of the present invention is to provide a gas-liquid generating system and a gas instant manufacturing machine which are instantly manufactured and instantly pressurized, and solve the problem that the existing hydrogen water producing machine can only produce hydrogen water or other hydrogen-making beverages but pollute the air holes. The utility model also provides a manufacturing machine which is fast in manufacture, simple in operation, and can store hydrogen beverage or drinking water, and solves the disadvantages of limited use of the commercially available hydrogen water machine. Furthermore, the creation device provides a function of breathing hydrogen and oxygen.

The instant-made, instant pressurized gas-liquid generating system of the present invention comprises: a closed container having a gas inlet, the inside of the closed container is filled with liquid; and a gas instant manufacturing machine comprising: a body; a liquid level switch a water tank disposed on the body and accommodating the raw material water, the liquid level switch water tank has a water outlet; a hydrogen oxygen generating unit disposed on the body and having a water inlet and a main gas water outlet, the hydrogen oxygen generating unit The water inlet is connected to the water outlet of the liquid level switch water tank, and the hydrogen oxygen generating unit is configured to instantly manufacture a target gas, the main gas water outlet outputs the target gas; a gas outlet is disposed in the body for the target gas to pass; And a joint assembly disposed on the body and connecting the gas outlet and the gas inlet of the closed container, such that the gas outlet communicates with the gas inlet of the closed container through the joint assembly, and the target gas enters the closed container Internally, the liquid is immediately pressurized by the air pressure to dissolve into the closed container.

The creation gas instant manufacturing machine comprises: a body; a liquid level switch water tank disposed on the body body for receiving raw material water, the liquid level switch water tank having a water outlet; a hydrogen oxygen generating unit disposed on the body body and having a water inlet and a main gas water outlet, the water inlet of the hydrogen oxygen generating unit is connected to the water outlet of the liquid level switch water tank, the hydrogen oxygen generating unit is for immediately producing a target gas, and the main gas water outlet outputs the target gas; a gas outlet disposed in the body for the target gas to pass through; and a joint assembly disposed on the body and connected to the gas outlet for the target gas to be discharged to the outside through the gas outlet and the joint assembly.

By the instant manufacturing, instant pressurized gas-liquid generating system, the gas instant manufacturing machine is separately designed from the container to be filled with gas, and the hydrogen oxygen generating unit does not need to be immersed in the liquid in the container to be filled with gas (eg: The liquid liquid such as water, drink, lotion, etc., the present invention further prepares the target gas and instantly pressurizes the liquid into the sealed container by the target gas, and dissolves the liquid into the closed container to solve the existing hydrogen water. The manufacturing machine can only produce hydrogen water or other problems that can produce hydrogen beverages but pollute the air holes, so that the creation can produce hydrogen or oxygen to improve the purity, scope of use, service life and convenience of the gas produced.

In order to further understand the techniques, means and effects of this creation in order to achieve the intended purpose, please refer to the following detailed description and drawings of this creation. I believe that the purpose, characteristics and characteristics of this creation can be obtained in this way. The detailed description is to be understood as merely illustrative and not restrictive

Please refer to FIG. 1 , which is a schematic perspective view of an embodiment of a gas-liquid generating system for instant manufacturing and instant pressurization. The instant production, instant pressurized gas and liquid production system of the present invention comprises a gas instant manufacturing machine 100 and a closed container 30.

Referring to FIG. 1 , FIG. 2 , FIG. 3 and FIG. 6 , the gas instant manufacturing machine 100 comprises a body 10 , a liquid level switch water tank 11 , a hydrogen oxygen generating unit 12 , and at least one joint assembly 200 ( FIG. 6 ) and The at least one gas outlet 21, 22, or further comprises a gas water separation unit 13, a pressure control device (as shown in FIG. 3) or a display module 50.

The material of the body 10 can be a polymethyl methacrylate (PPMA or acrylic), polycarbonate (PC), other plastic materials or metal materials, but not limited by the above materials. The body 10 is configured to be placed in the closed container 30, and the gas outlets 21, 22 are disposed on the outer side of the upper portion of the body 10. In the present embodiment, the gas outlets 21, 22 include a first gas outlet 21 and a The second gas outlet 22 is not limited thereto. The first and second gas outlets 21, 22 are for passage of a target gas (for example, hydrogen or oxygen) for discharging the generated hydrogen or oxygen.

The creation gas instant manufacturing machine 100 is used for the instant production of hydrogen or oxygen, and the hydrogen or oxygen produced by the instant is discharged to the immediate filling into the liquid, such as boiled water, juice, beverage, etc., but not limited thereto. In the closed container 30, the closed container 30 has a gas inlet. For example, the gas inlet of the closed container 30 can be a closed bottle or other closed bottle can be provided with a joint. A narrow bottle opening having a neck is used as the gas inlet, but is not limited thereto. Thereby, the first gas outlet 21 and the second gas outlet 22 are matched such that hydrogen or oxygen discharged from the two gas outlets 21, 22 can be completely and efficiently filled in the sealed container 30 containing the liquid. And the filled hydrogen or oxygen can be pressurized by the air pressure to be dissolved in the liquid by the pressure principle. Taking fruit juice as an example, when the user fills the closed container 30 containing the juice with hydrogen, a drinkable hydrogen-rich juice can be obtained; similarly, in the case of a beverage, when the user is to have a beverage After the sealed container 30 is filled with hydrogen, a drinkable hydrogen-rich beverage can be obtained.

As shown in FIG. 1, the joint assembly 200 of the present invention is disposed in the body 10, and the joint assembly 200 connects the gas outlets 21, 22 with the gas inlets of the closed container 30, and the gas outlets 21, 22 pass through the joint assembly 200. The gas inlet that connects the closed container 30 is thus obtained. The hydrogen or oxygen produced by the gas instant manufacturing machine 100 can be discharged to the outside through the first gas outlet 21 and the second gas outlet 22 and the joint assembly 200 disposed outside the upper portion of the body 10, that is, discharged to the outside. Inside the closed container 30.

For example, if the gas instant manufacturing machine 100 is used as a liquid for filling a hydrogen (for example, a liquid such as water, a drink, or a lotion, and not using the liquid as a limitation for the creation of the present invention), the first Both the gas outlet 21 and the second gas outlet 22 can discharge hydrogen gas for filling the liquid. Furthermore, if the gas instant manufacturing machine 100 is used as an oxygen filling liquid, both the first gas outlet 21 and the second gas outlet 22 can discharge oxygen for filling the liquid. Therefore, when the user simultaneously connects the two liquid-filled closed containers 30 to the first gas outlet 21 and the second gas outlet 22, the gas instant manufacturing machine 100 can be inside the two closed containers 30. The liquid is filled with hydrogen or oxygen. As described above, in the present creation, the closed container 30 is for accommodating a liquid and is connected to the first gas outlet 21 or the second gas outlet 22 through the joint assembly 200, and the gas is immediately pressurized by the manufacturing machine 100. In a manner, a target gas is forcibly filled into the liquid in the closed vessel 30.

In this embodiment, the use and design of the slide rails, the spring elements, and the carrier are such that the two gas outlets 21, 22 can be used in response to the closed containers 30 of different bottle heights, and the two gas outlets 21 The joint unit 200 can closely abut the top of the closed container 30, thereby improving the convenience, diversification and generalization of the operation, and increasing the efficiency of gas filling.

The joint assembly 200 can be a quick joint assembly, a screw joint assembly, or a normally closed quick check valve joint assembly, including a male joint 201 and a female joint 202 that are detachably connected, the male joint 201 and the female joint 202 The gas outlets 21 and 22 of the gas instant manufacturing machine 100 and the gas inlets of the sealed container 30 are respectively installed, and the gas outlets 21 and 22 of the gas instant manufacturing machine 100 are connected to the closed container through the joint assembly 200. 30 gas inlet. After the filling of the sealed container 30 is completed, since the male connector 201 and the female connector 202 are returned to the normally closed state, the gas filled in the sealed container 30 can be sufficiently retained and dissolved in the liquid. in. When not used for the filling gas, the male connector 201 and the female connector 202 are in a separated state and are normally closed, so that the gas continuously generated by the gas instant manufacturing machine 100 is not discharged outward and accumulated in the internal gas pipe. Therefore, when the pressure in the tube reaches the rated value, the power of the gas instant manufacturing machine 100 is turned off to stop the continuous generation of gas. When used as a filling gas, the check valve of the joint assembly 200 prevents gas or liquid of the closed container 30 from flowing back (backflow) to the inside of the gas instant manufacturing machine 100 via the two gas outlets 21, 22.

In addition to the above-described application of the closed container 30 for filling hydrogen and oxygen in the liquid, the hydrogen or oxygen generated by the inventive gas production machine 100 can be used as a breathing aid or a breathing supply, or for filling into the open. For container use. In other words, in conjunction with a specially designed device, such as a breathing tube (or a nasal tube for breathing), a mouth and nose mask (or a mask for breathing), etc., externally connected to the gas instant manufacturing machine 100, the hydrogen gas generated therefrom can be generated. Direct with oxygen to the desired body or animal body for breathing or assisting breathing.

2 and FIG. 5, wherein FIG. 2 is a block diagram of an embodiment of the authoring gas instant manufacturing machine 100, and FIG. 5 is an internal plan view of a preferred embodiment of the authoring gas instant manufacturing machine 100. . Referring to FIG. 1 , FIG. 2 and FIG. 3 , the gas instant manufacturing machine 100 comprises a body 10 , a liquid level switch water tank 11 , a hydrogen oxygen generating unit 12 , at least one joint assembly 200 and at least one gas outlet 21 , 22 . Or further comprising a gas water separation unit 13, a pressure control device or a display module 50. Referring to FIG. 4 , the gas instant manufacturing machine 100 can include a first electromagnetic valve 17 , a second electromagnetic valve 18 , and a third electromagnetic valve 19 .

Referring to FIG. 2 and FIG. 5, the liquid level switch water tank 11 is disposed in the body 10 for receiving filtered raw material water from a water storage tank 63 for electrolysis to generate hydrogen and oxygen. The water storage tank 63 is provided with a water inlet 61 and a filter cup 62. The filter cup 62 is connected to the water inlet 61, and the water inlet 61 and the filter cup 62 are housed in the water storage tank 63. Specifically, the water inlet 61 and the filter cup 62 are housed in the upper half of the water storage tank 63. When the user pours the raw material water into the water inlet tank 61, it gradually flows into the filter cup 62, and after filtering the raw material water through the filter cup 62, it drops (flows) into the lower half space of the water storage tank 63 to provide The liquid level switch water tank 11 is used for water supply. Referring to FIG. 5, the liquid level switch water tank 11 has a water inlet 111, a water outlet 112, a gas water inlet 113, and an air outlet 114, which will be described later. When the liquid level switch water tank 11 detects the full water level, the power of the hydrogen oxygen generating unit 12 is simultaneously turned on, so that the hydrogen oxygen generating unit 12 starts to generate hydrogen, oxygen and water gas; otherwise, when the liquid level switch sink When the water level is insufficient, the power of the hydrogen oxygen generating unit 12 is turned off, and the hydrogen oxygen generating unit 12 stops generating hydrogen, oxygen and moisture.

Referring to FIG. 4 and FIG. 5, the first electromagnetic valve 17 is connected between the water storage tank 63 and the water inlet 111 of the liquid level switch water tank 11 for controlling whether the raw material water in the water storage tank 63 flows into the water supply port 63. The liquid level switch water tank 11 supplies the raw material water. That is, when a liquid level switch in the liquid level switch water tank 11 detects that the water level in the water level switch water tank 11 is too low or reaches the water supply level, the first electromagnetic valve 17 is controlled to be opened, so that the water storage tank 63 is turned on. The raw material water flows into the liquid level switch water tank 11 by gravity to replenish the raw material water to the liquid level switch water tank 11; otherwise, when the liquid level switch detects that the water level in the liquid level switch water tank 11 is too high When the water supply level is stopped, the first solenoid valve 17 is controlled to be closed, so that the raw material water in the water storage tank 63 is no longer supplied with water to the liquid level switch water tank 11.

Referring to FIG. 2 and FIG. 5, the hydrogen-oxygen generating unit 12 may select a commercially available or currently available hydrogen and oxygen generating module having a water inlet 121, a main gas water outlet 122, and a primary gas water outlet 123. In the present creation, when the gas instant manufacturing machine 100 is used to supply hydrogen, the main gas is hydrogen, and the secondary gas is oxygen; when the gas instant manufacturing machine 100 is used to supply oxygen, the main gas is oxygen, and The secondary gas is hydrogen. The water inlet 121 of the hydrogen oxygen generating unit 12 is connected to the water outlet 112 of the liquid level switch water tank 11 and the water outlet of a second electromagnetic valve 18 (described later) of the branch shown in FIG. 4 for receiving the water outlet. The raw water and the recovered water separated by the gas and water, wherein the second electromagnetic valve 18 is a normally closed electromagnetic valve. In the present creation, the manner in which the outlet and the inlet are connected to each other is realized by means of a member such as a flexible hose, a valve member, a joint (including a split joint), etc., which is a person skilled in the art. Knowledge and ability, so it is no longer highlighted in this creation.

The hydrogen oxygen generating unit 12 is provided for immediate production of a target gas. The hydrogen-oxygen generating unit 12 receives the raw material water or the recovered water separated by the gas-water separation through the water inlet 121, and electrolyzes the raw material water to the target gas (such as oxygen or hydrogen) by electrolysis. In this embodiment, FIG. 6 may be that the first gas outlet 21 and the second gas outlet 22 are both used for discharging hydrogen gas. Therefore, the hydrogen gas generating unit 12 generates a secondary gas containing moisture (in this case). The oxygen gas in the embodiment is discharged from the secondary gas outlet 123 of the hydrogen oxygen generating unit 12 via the gas outlet 114 of the liquid level switch tank 11, and the secondary gas containing water vapor (ie, containing water) is discharged. The oxygen of the gas is directly discharged to the atmosphere or for other applications.

The gas instant manufacturing machine 100 uses the hydrogen gas generated by the hydrogen oxygen generating unit 12 and the water gas (i.e., hydrogen containing water gas) to be output from the main gas water outlet 122 of the hydrogen oxygen generating unit 12. The main gas water outlet 122 can be directly connected to the gas outlets 21 and 22, and the hydrogen gas (target gas) produced by the hydrogen oxygen generating unit 12 is discharged from the gas outlets 21 and 22 for the target gas to pass. The gas outlets 21, 22 and the joint assembly 200 are discharged to the outside. In the embodiment including the gas-water separation unit 13, the gas-water separation unit 13 is connected between the main gas-water outlet 122 and the gas outlets 21, 22 of the hydrogen-oxygen generation unit 12, as will be described later.

Since the hydrogen-oxygen generating unit 12 is a closed device, the water inlet 121 is designed to allow the raw material water in the liquid level switch water tank 11 to pass through the water inlet 121 of the hydrogen-oxygen generating unit 12. It flows into the hydrogen oxygen generating unit 12. Therefore, the excess raw material water and other generated gases in the hydrogen-oxygen generating unit 12 flow through the secondary gas-water outlet 123 of the hydrogen-oxygen generating unit 12 and the gas-water inlet 113 of the liquid level switch water tank 11 The liquid level switch is inside the water tank 11.

As described above, in the embodiment including the gas-water separation unit 13, the gas-water separation unit 13 can be selected from commercially available gas or liquid separation modules. Please refer to FIG. 2 and FIG. 5, which has a gas water. The inlet 131, an air outlet 132 and a water outlet 133. The gas-water inlet 131 of the gas-water separation unit 13 is connected to the main gas-water outlet 122 of the hydrogen-oxygen generating unit 12 to receive the hydrogen gas generated by the hydrogen-oxygen generating unit 12 and the moisture (ie, containing moisture) Hydrogen), and the gas-water separation unit 13 separates the hydrogen from the moisture. The second electromagnetic valve 18 is connected between the water outlet 133 of the gas-water separation unit 13 and the water inlet 121 of the hydrogen-oxygen generating unit 12, so that the water outlet 133 of the gas-water separation unit 13 transmits the second electromagnetic The valve 18 is connected to the liquid level switch water tank 11 and the water inlet 121 of the hydrogen oxygen generating unit 12.

The liquid water separated by the gas-water separation unit 13 is discharged from the water outlet 133 of the gas-water separation unit 13, and is opened by the second electromagnetic valve 18 and guided through a hose or a connecting pipe. The water inlet 121 of the generating unit 12 flows into the hydrogen oxygen generating unit 12, whereby the generated liquid water can be recovered and reused. The liquid water separated by the gas-water separation unit 13 is discharged from the water outlet 133 of the gas-water separation unit 13, and may be separated from the gas-water separation unit 13 by a commercially available water heater. The liquid water is directly diverted into the water storage tank 63, whereby the generated liquid water can be recovered and reused.

In the present embodiment, the air outlet 132 of the gas-water separation unit 13 is connected to the first gas outlet 21 and the second gas outlet 22. Specifically, by using a pair of taps, that is, an input end and a tap of the two output ends, wherein the input end is connected to the air outlet 132 through a hose or a connecting tube, and the two output ends are through the hose. Or a connecting pipe is respectively connected to the first gas outlet 21 and the second gas outlet 22, so that pure hydrogen gas is outputted from the gas outlet 132, and the pair of two taps and the matched hose or connecting pipe can be transmitted through And output to the first gas outlet 21 and the second gas outlet 22. In addition, this creation can also be provided by using a pair of three or one-to-many taps, that is, a tap of one input and three (multiple) outputs, in conjunction with the number of three or more gas outlets. A plurality of gas outlets are used to fill the liquid.

In this embodiment, the gas outlet 132 of the gas-water separation unit 13 is connected to the first gas outlet 21 and the second gas outlet 22 through a pair of two taps and a hose or a connecting pipe. Therefore, the pure hydrogen gas separated by the gas-water separation unit 13 is output from the gas outlet 132 of the gas-water separation unit 13, and is guided by a pair of two taps and a hose or a connecting pipe, and the first gas is used. The outlet 21 and the second gas outlet 22 are discharged. In other words, when the user connects the (closed) closed container 30 containing the liquid to the first gas outlet 21 and/or the second gas outlet 22, the gas instant manufacturing machine 100 can provide the closed type The liquid in vessel 30 is filled with pure hydrogen.

Since the hydrogen-oxygen generating unit 12 transmits an electrode sheet as an apparatus for generating and collecting hydrogen and oxygen therein, the main gas-water outlet 122 is provided as long as the electrode sheet for generating hydrogen gas is brought close to the main gas-water outlet 122. The gas that is output (ie, the main gas) is hydrogen. On the other hand, as long as the electrode sheet for generating oxygen is brought close to the main gas water outlet 122, the gas (i.e., the main gas) output from the main gas water outlet 122 is oxygen. Therefore, in practical applications, if hydrogen gas is used as the main gas, the electrode sheet for generating hydrogen gas is close to the main gas water outlet 122; similarly, if oxygen is used as the main gas, the electrode sheet for generating oxygen is close to The main gas water outlet 122. Therefore, the difference in the main gas is hydrogen or oxygen mainly depends on the electrode sheet on which the gas is generated is close to the main gas water outlet 122.

Therefore, another preferred embodiment of the present invention is an example in which the main gas is oxygen and the secondary gas is hydrogen. For the description of the foregoing, reference will be made to the above description. In short, the main gas (i.e., oxygen) generated by the hydrogen-oxygen generating unit 12 is output to the gas-water separating unit 13 through the main gas-water outlet 122 of the hydrogen-oxygen generating unit 12. In addition, the secondary gas (ie, hydrogen) containing the moisture generated by the hydrogen-oxygen generating unit 12 is externally discharged from the secondary gas-water outlet 123 of the hydrogen-oxygen generating unit 12 via the gas outlet 114 of the liquid level switch tank 11. The secondary gas containing water vapor (ie, hydrogen containing moisture) is discharged and discharged directly to the atmosphere or for other applications.

Referring to FIG. 3 and FIG. 5, in this embodiment, the pressure control device includes a pressure sensor 14, a pressure switch 15, and a pressure relief valve 16.

The pressure sensor 14 is connected to the air outlet 132 of the gas-water separation unit 13 through a hose or a connecting pipe. Therefore, the pressure sensor 14 can sense the air outlet 132 of the gas-water separation unit 13 The gas pressure value of the generated hydrogen gas is displayed on the display module 50 of the body 10 as shown in FIG. 1 by the light source display, which will be described later.

Specifically, when the user turns on the total power of the gas instant manufacturing machine 100, for example, by pressing a power button, a power button 40 as shown in FIG. 1 activates a power switch of the hydrogen oxygen generating unit 12, so that The hydrogen oxygen generating unit 12 can perform electrolysis on the raw material water to generate hydrogen or oxygen. Taking the gas pressure sensing of hydrogen as an example, in the process of generating hydrogen, the gas pressure value sensed by the pressure sensor 14 will gradually increase due to the increase of the hydrogen (mole) concentration. In other words, the gas instant manufacturing machine 100 is filled with hydrogen or oxygen into the liquid of the closed container 30 through the increased gas pressure of hydrogen or oxygen during the formation process, or guided to the desired human or animal body for supply. Breathing or assisting breathing.

In this embodiment, the gas pressure value sensed by the pressure sensor 14 is further converted into an electrical signal output. That is, the pressure sensor 14 is connected to the display module 50, wherein the display module 50 is disposed on the body 10, as shown in FIG.

The display module 50 shown in FIG. 1 has a plurality of (6) display units corresponding to different gas pressure ranges, wherein each of the display units can be a light-emitting diode (LED). In addition, the display module 50 can display the hydrogen pressure value of the current gas instant manufacturing machine 100 through the light-off mode of the display unit and/or the light color display mode of different colors, or the lighting corresponding to the indicated pressure saturation ratio. , to let the user clearly understand the current gas pressure value of the device. Among them, the six display units can be two green light emitting diodes, two yellow light emitting diodes and two red light emitting diodes. When the hydrogen pressure value is gradually increased, respectively, by green The light display is gradually changed to yellow light and red light display, or it is displayed by green light and then added with yellow light and red light display, or the pressure value is displayed by the number of light signals.

For example, assume that the gas instant manufacturing machine 100 outputs a nominal saturated gas pressure of 5 Pa (Pascal, Pa). When the hydrogen pressure value of the gas instant manufacturing machine 100 is between 0 and 1 Pa, the first green light display unit is illuminated. When the hydrogen pressure value is between 1 and 2 Pa, the second green light display unit is illuminated, or the first green light display unit and the second green light display unit are simultaneously illuminated. When the hydrogen pressure value is between 2 and 3 Pa, the first yellow light display unit is illuminated, or the first green light display unit, the second green light display unit, and the first yellow light display unit are simultaneously emitted. bright. And so on, when the first red light display unit is lit, it means that the hydrogen pressure value is between 4 and 5 Pa. Further, when the second red light display unit is lit, it indicates that the hydrogen pressure value reaches the rated saturated gas pressure. (5 Pa). However, the manner in which the above-mentioned corresponding output gas pressure is expressed is not limited by the above embodiments, and any manner for displaying different gas pressure ranges should be included in the scope of the present invention.

The pressure switch 15 is connected to the air outlet 132 of the gas-water separation unit 13 through a hose or a connecting pipe. Therefore, the pressure switch 15 can sense the gas of hydrogen generated by the gas outlet 132 of the gas-water separation unit 13. Pressure value. In the present embodiment, the pressure switch 15 is used to output a control signal when the gas pressure value of the hydrogen gas generated by the gas instant manufacturing machine 100 reaches the rated saturated gas pressure (5 Pa). The power switch of the hydrogen-oxygen generating unit 12 is turned off to disable the hydrogen-oxygen generating unit 12 to stop electrolysis of the raw material water to interrupt the continuous generation of hydrogen and oxygen.

The pressure relief valve 16 is connected to the air outlet 132 of the gas-water separation unit 13 through a hose or a connecting pipe. In the present embodiment, the pressure relief valve 16 is used as a gas pressure value of hydrogen generated by the gas instant manufacturing machine 100 exceeding the rated saturated gas pressure (5 Pa), and reaches a critical upper limit gas pressure, for example, 5.5 kPa, the critical upper limit gas pressure is sufficient to open the pressure relief valve 16 to provide a forced pressure relief operation to cause the hydrogen pressure value of the gas instant manufacturing machine 100 to drop (critical pressure) from the critical upper limit gas pressure to a safe pressure value range In order to avoid the occurrence of over-pressure, the accidental occurrence of gas explosion and gas explosion inside the gas manufacturing machine 100 during the filling of the liquid of the closed container 30 or during the non-filling process. However, the above listed gas pressure values are for illustrative purposes only and are not intended to limit the creation.

As shown in FIG. 4 and FIG. 5, this embodiment includes a first solenoid valve 17, a second solenoid valve 18 and a third solenoid valve 19 for controlling the water reservoir 63 as previously described. The description of whether or not the raw material water flows into the liquid level switch water tank 11 to replenish the raw material water has been described in the above related paragraphs, and therefore will not be described herein. The second solenoid valve 18 is connected between the water outlet 133 of the gas-water separation unit 13 through the hose or the connecting pipe, the water outlet 112 of the liquid level switch water tank 11, and the water inlet 121 of the hydrogen-oxygen generating unit 12. The water vapor separated by the gas-water separation unit 13 is condensed into liquid water, and the water inlet 121 of the hydrogen-oxygen generating unit 12 flows back to the hydrogen-oxygen generating unit 12 or through the liquid level switch. The gas water inlet 113 of the water tank 11 flows back into the liquid level switch water tank 11. When the liquid water in the gas-water separation unit 13 reaches a set water level, the second electromagnetic valve 18 is opened, so that the liquid water condensed by the moisture separated by the gas-water separation unit 13 can be returned to the liquid water. The hydrogen-oxygen generating unit 12 or the liquid level switch tank 11 is reused. On the other hand, when the second solenoid valve 18 is closed, the liquid water condensed by the moisture separated by the gas-water separation unit 13 is blocked by the second solenoid valve 18, and cannot flow to the hydrogen gas generation. The unit 12 or the liquid level switch is in the water tank 11.

The third electromagnetic valve 19 is connected between the air outlet 132 of the gas-water separation unit 13 and the first gas outlet 21 and the second gas outlet 22 through a hose or a connecting pipe. The third electromagnetic valve 19 is normally closed. The second solenoid valve 18 of the type is reversed, that is, the third solenoid valve 19 is a normally open solenoid valve. The third solenoid valve 19 receives the liquid level switch electrical signal supplied from the inside of the gas-water separation unit 13 simultaneously with the normally closed second electromagnetic valve 18. When the normally closed type of the second solenoid valve 18 opens the valve, the normally open type of the third solenoid valve 19 closes the valve to prevent the normally closed type of the second solenoid valve 18 from opening when the closed container 30 is closed. When it is in a positive pressure state, the liquid or gas in the closed container 30 is caused to flow back (backfill) to the gas-water separation unit 13 by a hose or a connecting pipe, thereby ensuring that the internal piping and fittings of the instrument are not protected by the closed type. The liquid or gas within the container 30 is contaminated. In the present creation, the second solenoid valve 18 and the third solenoid valve 19 are in a complementary open and closed relationship, that is, when the second solenoid valve 18 is open, the third solenoid valve 19 is closed, and vice versa. When the second electromagnetic valve 18 is closed, the third electromagnetic valve 19 is opened, thereby simultaneously reaching the full water level drainage in the gas-water separation unit 13, and preventing the negative pressure from being generated in the tube. The liquid water or gas in the sealed container 30 is caused to flow back into the gas-water separation unit 13 via the first gas outlet 21 and the second gas outlet 22, and can also be prevented from being inside the sealed container 30. When the pressure is negative and the second solenoid valve 18 is opened, the liquid water condensed in the tube is withdrawn.

Please refer to FIG. 6 and FIG. 1 , wherein FIG. 6 is a schematic diagram of a state of use of an embodiment of a gas-liquid generating system for instant manufacturing and instant pressurization. The liquid level switch water tank 11, the hydrogen oxygen generating unit 12, the gas water separating unit 13, the pressure sensor 14, the pressure switch 15, the pressure relief valve 16, the first electromagnetic valve 17, the second The solenoid valve 18 and the third solenoid valve 19 can be installed in the space of the lower half of the body 10, but are not limited to this positional arrangement.

Further, in order to make the operation convenient and more efficient, the user can pour a large amount of water into the water inlet 61 so that the raw material water is filtered through the filter cup 62, and then slowly dripped (flow) into the water storage tank 63. The lower half space allows the filtered raw material water volume to be placed in the water storage tank 63 in large quantities for the long-term use of the instant-made, immediately pressurized gas-liquid generating system.

In this embodiment, the liquid level switch provided in the liquid level switch water tank 11 , that is, a water level detector, can be used to detect the height of the water level, that is, when flowing from the water storage tank 63 to the liquid level switch. When the water level of the water tank 11 reaches an upper limit water level, the water storage tank 63 can be controlled to no longer supply water to the liquid level switch water tank 11. Alternatively, when the water level of the liquid level switch water tank 11 reaches a lower limit water level, the water storage tank 63 can be controlled to supply water to the liquid level switch water tank 11.

Furthermore, a filtering device may be disposed in the filter cup 62 to filter fine impurities flowing from the water inlet 61 into the filter cup 62 to ensure that the raw water flowing into the liquid level switch tank 11 from the filter cup 62 is pure. There is no impurity, thereby preventing impurities in the water from being clogged on the hydrogen-oxygen generating unit 12 to increase the service life of the hydrogen-oxygen generating unit 12.

Furthermore, the instant manufacturing and instant pressurized gas-liquid generating system further provides a filter or sterilization mechanism. Referring to FIG. 6, the bacteria filter or sterilization mechanism may be a germicidal lamp 71, such as an ultraviolet germicidal lamp or a A sterilizing filter 72, such as a filter cotton, is implemented. The germicidal lamp 71 or the sterilizing filter 72 is disposed adjacent to the at least one gas outlet 21, 22, for example, a space that can be installed in the carrier to illuminate the hydrogen discharged from the at least one gas outlet 21, 22. Or oxygen, thereby eliminating bacteria in the hydrogen or oxygen discharged from the gas outlets 21, 22 through the hose or connecting pipe, so that the hydrogen or oxygen filled into the closed containers 30 is clean and sterilized. The sterilizing filter 72 is disposed at a front end of the at least one gas outlet 21, 22, for example, a hose installed in the carrier or a space in the connecting pipe to filter the at least one gas outlet 21, 22 to discharge Hydrogen or oxygen, thereby filtering out bacteria in the hydrogen or oxygen discharged from the gas outlets 21, 22 through the hose or connecting pipe, so that the hydrogen or oxygen filled into the closed containers 30 is clean and sterile status.

The inventive gas instant manufacturing machine 100 can be applied to an open container in addition to the closed container 30, or the gas outlets 21, 22 can be connected to a gas pipe through the joint assembly 200, the gas pipe having a plurality of holes and immersed in the sealed container. In the liquid of the type container 30 or the open type container, when the target gas is produced by the creation of the target gas, the target gas enters the liquid through the hole of the gas pipe and is dissolved into the liquid by gas-liquid mixing. In addition, please refer to FIG. 7 , which is a schematic diagram of the use state of other applications of the creative gas instant manufacturing machine 100 . The embodiment shown in Fig. 7 is used for supplying or assisting breathing as compared with the embodiment shown in Fig. 6 as a hydrogen or oxygen filling liquid. As shown in FIG. 7, the gas instant manufacturing machine 100 is externally connected to a breathing mask 80 through a joint assembly 200. Specifically, the first gas outlet 21 and the second gas outlet 22 included on the outer side of the upper portion of the body 10 are connected to the breathing mask 80 through the joint assembly 200 and the hose, and the hydrogen and oxygen generated by the body 10 can be guided to a desired state. In the human body or animal body, for the purpose of supplying breathing or assisting breathing. Therefore, the present creation gas instant manufacturing machine 100 has the advantages of multiple uses.

In summary, this creation has the following features and advantages:

(1) The gas instant manufacturing machine 100 is separately designed from the closed container 30 to be filled with gas, that is, the hydrogen oxygen generating unit 12 does not need to be immersed in the liquid of the closed container 30 to provide hydrogen and oxygen. The purity, use range, service life, and convenience of the gas generated by the gas instant manufacturing machine 100 are improved.

(2) Using the principle of gas pressure, the hydrogen or oxygen produced in real time can be used for liquid filling or breathing assistance or breathing supply.

(3) The use and design of the slide rails, the spring elements, and the carrier member enable the two gas outlets 21, 22 to be used in response to the closed containers 30 of different bottle heights, and the two gas outlets 21, 22 The gas inlet of the hermetic container 30 can be closely connected by the joint assembly 200, thereby facilitating the convenience, diversification, and generalization of the operation, and increasing the efficiency of gas filling.

(4) The use of the pressure sensor 14 in conjunction with the display module 50 provides a display of the gas pressure value to facilitate the user to understand the condition of the gas filling.

(5) Through the use of the pressure switch 15, a safety mechanism for rating the saturated gas pressure can be provided. When the generated gas pressure reaches the saturation pressure, the production of the stop gas by the hydrogen oxygen generating unit 12 is controlled to be closed, so that not only By suspending the operation of the hydrogen-oxygen generating unit 12, the service life of the hydrogen-oxygen generating unit 12 is increased, and even if the user forgets to remove the sealed container 30 installed at the two gas outlets 21, 22, Since the gas has been discontinued, the pressure in the closed container 30 is no longer applied continuously, thereby ensuring the safety of the user's operation.

(6) Through the use of the pressure relief valve 16, a safety mechanism for supersaturated gas pressure can be provided. When the generated gas pressure is supersaturated, the pressure relief valve 16 can be used to urgently force the pressure relief to prevent the overpressure from filling the airtight valve. In the liquid process of the type container 30 or during the non-filling process, an accident of gas explosion and gas explosion occurs inside the instant manufacturing machine 100.

(7) through the germicidal lamp 71 or the sterilizing filter 72, the bacteria in the hydrogen or oxygen discharged from the gas outlets 21, 22 through the hose or the connecting pipe can be eliminated or filtered, so as to be filled into the Hydrogen or oxygen in the closed container 30 or delivered to the respiratory mask 80 is clean and sterile.

(8) Through the joint assembly 200, when it is not used as a filling gas, the gas continuously generated by the gas instant manufacturing machine 100 can be prevented from being discharged outward, and when used as a filling gas, the sealed container 30 can be prevented. The gas or liquid is countercurrent (backflushed) to the interior of the machine via the two gas outlets 21, 22.

However, the above description is only for the detailed description and the drawings of the preferred embodiments of the present invention, but the features of the present invention are not limited thereto, and are not intended to limit the creation. All the scope of the creation should be as follows. The scope of patents shall prevail, and all embodiments that incorporate the spirit of the patent application scope and similar changes shall be included in the scope of this creation. Anyone familiar with the art may easily think of it in the field of this creation. Variations or modifications may be covered by the patents in this case below.

100‧‧‧ gas instant manufacturing machine
10‧‧‧ body
11‧‧‧Level switch sink
12‧‧‧ Hydrogen Oxygen Generation Unit
13‧‧‧ Gas-water separation unit
14‧‧‧ Pressure Sensor
15‧‧‧ Pressure switch
16‧‧‧Relief valve
17‧‧‧First solenoid valve
18‧‧‧Second solenoid valve
19‧‧‧ Third solenoid valve
111‧‧‧ water inlet
112‧‧‧Water outlet
113‧‧‧ gas water inlet
114‧‧‧ air outlet
121‧‧‧ water inlet
122‧‧‧Main gas and water outlet
123‧‧‧Secondary gas and water exports
131‧‧‧ gas water inlet
132‧‧‧ gas outlet
133‧‧‧Water outlet
200‧‧‧Connector assembly
201‧‧‧ male connector
202‧‧‧Female connector
21‧‧‧First gas export
22‧‧‧Second gas outlet
30‧‧‧ Closed container
40‧‧‧Power button
50‧‧‧ display module
61‧‧‧ into the sink
62‧‧‧Filter Cup
63‧‧‧Sink
71‧‧‧ germicidal lamp
72‧‧‧sterilization filter
80‧‧‧ breathing mask

Figure 1 is a schematic perspective view of one embodiment of a gas-liquid generating system for instant manufacturing and instant pressurization of the present invention; Figure 2 is a block diagram (I) of an embodiment of a creative gas instant manufacturing machine; Figure 3: Block diagram (2) of an embodiment of a creative gas instant manufacturing machine; FIG. 4 is a block diagram (3) of an embodiment of a creative gas instant manufacturing machine; FIG. 5 is a preferred embodiment of the authoring gas instant manufacturing machine Schematic diagram of the internal structure of the internal structure; Figure 6: Schematic diagram of the state of use of the instant-made, instant pressurized gas-liquid generating system for the creation (1); and Figure 7: Instant-made, instant pressurized gas-liquid production for the creation Another embodiment of the system uses a state diagram (2).

100‧‧‧ gas instant manufacturing machine

10‧‧‧ body

11‧‧‧Level switch sink

12‧‧‧ Hydrogen Oxygen Generation Unit

13‧‧‧ Gas-water separation unit

14‧‧‧ Pressure Sensor

15‧‧‧ Pressure switch

16‧‧‧Relief valve

17‧‧‧First solenoid valve

18‧‧‧Second solenoid valve

19‧‧‧ Third solenoid valve

111‧‧‧ water inlet

112‧‧‧Water outlet

113‧‧‧ gas water inlet

114‧‧‧ air outlet

121‧‧‧ water inlet

122‧‧‧Main gas and water outlets

123‧‧‧Secondary gas and water exports

131‧‧‧ gas water inlet

132‧‧‧ gas outlet

133‧‧‧Water outlet

21‧‧‧First gas export

22‧‧‧Second gas outlet

30‧‧‧ Closed container

40‧‧‧Power button

50‧‧‧ display module

61‧‧‧ into the sink

62‧‧‧Filter Cup

63‧‧‧Sink

71‧‧‧ germicidal lamp

72‧‧‧sterilization filter

Claims (10)

An instant-made, instant pressurized gas-liquid generating system comprising: a closed container having a gas inlet for filling a liquid inside; and a gas instant manufacturing machine comprising: a body; a level switch a water tank disposed on the body and accommodating the raw material water, the liquid level switch water tank has a water outlet; a hydrogen oxygen generating unit disposed on the body and having a water inlet and a main gas water outlet, the hydrogen oxygen generating unit The water inlet is connected to the water outlet of the liquid level switch water tank, and the hydrogen oxygen generating unit is configured to instantly manufacture a target gas, the main gas water outlet outputs the target gas; a gas outlet is disposed in the body for the target gas to pass; And a joint assembly disposed on the body and connecting the gas outlet and the gas inlet of the closed container, such that the gas outlet communicates with the gas inlet of the closed container through the joint assembly, and the target gas enters the closed container Internally, the liquid is immediately pressurized by the air pressure to dissolve into the closed container. The instant manufacturing and instant pressurized gas-liquid generating system according to claim 1, wherein the joint assembly comprises a male connector and a female connector which are detachably connected, and the male connector and the female connector are respectively installed in the gas for immediate manufacture. The gas outlet of the machine is connected to the gas inlet of the closed vessel. The instant production and immediate pressurization gas-liquid generating system according to claim 1 or 2, wherein the gas instant manufacturing machine further comprises: a gas-water separation unit disposed in the body and including a gas-water inlet and an outlet a gas port, the gas water inlet is connected to a main gas water outlet of the hydrogen oxygen generating unit, the gas outlet is for outputting the target gas; and a pressure control device comprises: a pressure sensor connected to the gas outlet of the gas water separation unit The pressure sensor senses a gas pressure value generated by an air outlet of the gas-water separation unit; a pressure switch is connected to an air outlet of the gas-water separation unit, and the gas pressure generated by the gas-making machine immediately When the value reaches a rated saturated gas pressure, the pressure switch outputs a control signal to turn off the power of the hydrogen oxygen generating unit; and a pressure relief valve connects the gas outlet of the gas water separation unit. The instant manufacturing and instant pressurized gas-liquid generating system according to claim 3, the gas instant manufacturing machine further comprising: a first electromagnetic valve connected between a water storage tank and a water inlet of the liquid level switch water tank; a second electromagnetic valve connected between the water outlet of the gas-water separation unit and the water inlet of the hydrogen-oxygen generating unit; and a third electromagnetic valve connected to the gas outlet of the gas-water separation unit and the gas outlet between. A gas-liquid generating system for immediate manufacture and immediate pressurization as described in claim 4, wherein the gas outlet of the gas instant manufacturing machine is provided with a germicidal lamp or a sterilizing filter. A gas instant manufacturing machine comprising: a body; a liquid level switch water tank disposed on the body and accommodating the raw material water, the liquid level switch water tank having a water outlet; a hydrogen oxygen generating unit disposed on the body and having a water inlet and a main gas water outlet, the water inlet of the hydrogen oxygen generating unit is connected to the water outlet of the liquid level switch water tank, the hydrogen oxygen generating unit is for immediately producing a target gas, and the main gas water outlet outputs the target gas; a gas outlet disposed in the body for the target gas to pass through; and a joint assembly disposed on the body and connected to the gas outlet for the target gas to be discharged to the outside through the gas outlet and the joint assembly. The gas instant manufacturing machine of claim 6, wherein the joint assembly comprises a male connector and a female connector detachably connected, the male connector being mounted to the gas outlet. The gas instant manufacturing machine according to claim 6 or 7, further comprising: a gas water separation unit disposed in the body and comprising a gas water inlet and an gas outlet, the gas water inlet connecting the hydrogen gas to generate a main gas water outlet of the unit, the gas outlet is connected to the gas outlet to output the target gas; and a pressure control device comprising: a pressure sensor connected to an air outlet of the gas water separation unit, the pressure sensor sense Detecting a gas pressure value generated by the gas outlet of the gas-water separation unit; a pressure switch connecting the gas outlet of the gas-water separation unit, when the gas pressure generated by the gas-making machine reaches a rated saturated gas pressure The pressure switch outputs a control signal to turn off the power of the hydrogen oxygen generating unit; and a pressure relief valve is connected to the air outlet of the gas water separation unit. The gas instant manufacturing machine of claim 8, further comprising: a first electromagnetic valve connected between a water storage tank and a water inlet of the liquid level switch water tank; and a second electromagnetic valve connected to the gas water a water outlet of the separation unit and a water inlet of the hydrogen oxygen generating unit; and a third electromagnetic valve connected between the gas outlet of the gas water separation unit and the gas outlet. The gas instant manufacturing machine according to claim 9, wherein the gas outlet is provided with a germicidal lamp or a sterilization filter.