CN212991132U - Hydrogen recovery device for hydrogen fuel cell - Google Patents
Hydrogen recovery device for hydrogen fuel cell Download PDFInfo
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- CN212991132U CN212991132U CN202021455106.8U CN202021455106U CN212991132U CN 212991132 U CN212991132 U CN 212991132U CN 202021455106 U CN202021455106 U CN 202021455106U CN 212991132 U CN212991132 U CN 212991132U
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02E—REDUCTION OF GREENHOUSE GAS [GHG] EMISSIONS, RELATED TO ENERGY GENERATION, TRANSMISSION OR DISTRIBUTION
- Y02E60/00—Enabling technologies; Technologies with a potential or indirect contribution to GHG emissions mitigation
- Y02E60/30—Hydrogen technology
- Y02E60/50—Fuel cells
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Abstract
The utility model provides a hydrogen recovery unit is suitable for a hydrogen fuel cell, this hydrogen fuel cell discharge water and a hydrogen, include: the pipeline assembly comprises a collecting pipeline and a supplying pipeline, wherein the container assembly comprises a first container with an upward opening and a second container with an opening reversely arranged on the opening of the first container, the collecting pipeline is communicated with the hydrogen fuel cell to the second container, the supplying pipeline is communicated with the second container to the hydrogen fuel cell, the water and the hydrogen are conveyed from the hydrogen fuel cell to the second container through the collecting pipeline, the water flows through the first container, and the hydrogen is conveyed from the second container to the hydrogen fuel cell through the supplying pipeline.
Description
Technical Field
The utility model relates to a hydrogen recovery unit for hydrogen fuel cell especially relates to a collect hydrogen fuel cell exhaust tail gas to with hydrogen retrieve and the hydrogen recovery unit who recycles in the tail gas.
Background
After hydrogen of the existing hydrogen fuel cell enters a fuel cell stack and electrochemical reaction occurs, part of unreacted hydrogen and generated water are discharged as tail gas. For example, a hydrogen fuel cell 10P shown in fig. 1 has an inlet 11P, an inlet 12P communicating with the inlet 11P, and an outlet 13P communicating with an internal flow passage of the hydrogen fuel cell 10P, wherein the inlet 12P is also communicated with the internal flow passage of the hydrogen fuel cell 10P, wherein the hydrogen fuel cell 10P is fed with hydrogen gas from the inlet 11P, the hydrogen gas is fed from the inlet 11P, and fed into the internal flow passage of the hydrogen fuel cell 10P through the inlet 12P to participate in an electrochemical reaction, and since the electrochemical reaction generates a certain amount of water, the water inside the hydrogen fuel cell 10P needs to be discharged at certain time intervals, the outlet 13P side of the hydrogen fuel cell 10P communicates with an electromagnetic valve 20P, and the water inside the hydrogen fuel cell 10P is discharged through the outlet 13P and the electromagnetic valve 20P in sequence, it is noted that, when the solenoid valve 20P performs the water discharge, a part of the hydrogen gas is discharged to the outside air. Further, in practical application scenario, the solenoid valve 20P needs to be actuated once every few seconds, the longer the actuation duration, the more hydrogen is discharged to the air, taking an exhaust pipe with a diameter of 6mm as an example, the actuation interval period of the solenoid valve 20P is 10S, the actuation duration of the solenoid valve 20P is 200mS, the hydrogen exhaust pressure is 1Bar, the single hydrogen exhaust volume of the solenoid valve 20P is 300mL, and the exhaust volume of 2.592m after one day is 2.592m3。
In summary, the drawbacks of the tail system of the hydrogen fuel cell 10P include the following: 1. discharging the hydrogen gas at the tail end of the hydrogen fuel cell 10P into the air directly reduces the efficiency of use of the hydrogen gas. At this time, it should be noted that the hydrogen gas at the tail end of the hydrogen fuel cell 10P is directly discharged into the air, which causes waste of the hydrogen gas and reduces the use efficiency of the hydrogen gas. 2. The cost of preparing high-purity hydrogen is higher at present, and certain environmental pollution exists in the preparation process. It should be noted that the high-purity hydrogen production cost is relatively high, the process is complicated, the use efficiency of hydrogen is low, and therefore more high-purity hydrogen has to be produced even under the same requirement, and further, products including carbon monoxide and carbon dioxide are brought in the process of producing high-purity hydrogen, which pollutes the ecological environment. 3. There are economic losses and waste of energy to directly discharge the hydrogen gas at the tail end of the hydrogen fuel cell 10P into the air. The direct discharge of hydrogen to the air as a necessary energy source is equivalent to causing direct economic losses. If not improved, the economic losses due to day-to-day energy waste do not vary significantly.
SUMMERY OF THE UTILITY MODEL
An advantage of the present invention is to provide a hydrogen recovery device for a hydrogen fuel cell, in which the hydrogen gas discharged through a first solenoid valve is collected by a first container and a second container.
Another advantage of the present invention is to provide a hydrogen recycling device for hydrogen fuel cell, wherein the hydrogen recycling device for hydrogen fuel cell controls the communication mode of the supply pipeline of the hydrogen recycling device through a three-way valve to ensure the recycling and transportation of hydrogen.
Another advantage of the present invention is to provide a hydrogen recovery device for a hydrogen fuel cell, wherein the hydrogen recovery device for a hydrogen fuel cell realizes purification of hydrogen gas by a purification device.
According to the utility model discloses an aspect can realize aforementioned purpose and other purposes and advantage the utility model discloses a hydrogen recovery unit is suitable for a hydrogen fuel cell, this hydrogen fuel cell drainage and hydrogen, include:
a pipeline assembly, wherein the pipeline assembly comprises a collecting pipeline and a supplying pipeline;
a container assembly, wherein the container assembly comprises a first container with an upward opening and a second container with an opening reversely arranged on the opening of the first container, the second container is arranged inside the first container, the second container is communicated with the hydrogen fuel cell, the second container is communicated with the outlet of the hydrogen fuel cell through the collecting pipeline, the second container is communicated with the inlet of the hydrogen fuel cell through the supplying pipeline, water and hydrogen are conveyed to the second container from the hydrogen fuel cell through the collecting pipeline, water flows through the first container, and hydrogen is conveyed to the hydrogen fuel cell from the second container through the supplying pipeline; and
a first solenoid valve, wherein the first solenoid valve is disposed in the collection line, the first solenoid valve being disposed between the hydrogen fuel cell and the first container.
Further, a booster pump is included, wherein the booster pump is provided in the supply line, the booster pump being provided between the second container and the hydrogen fuel cell.
Further, a hydrogen purification device is included, wherein the hydrogen purification device is disposed between the second container and the booster pump.
The hydrogen purifying device further comprises a three-way valve and a third container, wherein the three-way valve is provided with a first valve port, a second valve port and a third valve port, the third container is communicated with the second container, the first valve port of the three-way valve is communicated with the second container, the third valve port of the three-way valve is communicated with the hydrogen purifying device, and the second valve port of the three-way valve is communicated with the outside.
Further, the device comprises a three-way valve with a first valve port, a second valve port and a third valve port, wherein the first valve port of the three-way valve is communicated with the second container, the third valve port of the three-way valve is communicated with the hydrogen purification device, and the second valve port of the three-way valve is communicated with the outside.
Further, a second solenoid valve is included, wherein the second solenoid valve is in communication with the first container.
Further, a sensor assembly is included, wherein the sensor assembly includes a first level sensor disposed in the supply line, a second level sensor disposed in the first container, and a third level sensor disposed in the second container, the first level sensor being disposed between the second container and the three-way valve.
Further, a manual valve is included, wherein the manual valve is disposed between the second container and the third container.
Further, the second container is provided with a water replenishing port, and the third container is filled with water into the second container through the water replenishing port.
Further, when the third container is filled with water into the second container through the water filling port, the liquid level inside the second container gradually rises, so that the liquid level inside the second container is higher than that inside the first container.
Further objects and advantages of the invention will be fully apparent from the ensuing description and drawings.
These and other objects, features and advantages of the present invention will become more fully apparent from the following detailed description, the accompanying drawings and the appended claims.
Drawings
Fig. 1 is a schematic diagram of a prior art hydrogen fuel cell.
Fig. 2 is a schematic diagram in which a hydrogen recovery apparatus for a hydrogen fuel cell according to an embodiment of the present invention is connected to the hydrogen fuel cell.
Detailed Description
The following description is presented to disclose the invention so as to enable any person skilled in the art to practice the invention. The preferred embodiments in the following description are given by way of example only, and other obvious variations will occur to those skilled in the art. The basic principles of the invention, as defined in the following description, may be applied to other embodiments, variations, modifications, equivalents and other technical solutions without departing from the spirit and scope of the invention.
It will be understood by those skilled in the art that in the present disclosure, the terms "longitudinal," "lateral," "upper," "lower," "front," "rear," "left," "right," "vertical," "horizontal," "top," "bottom," "inner," "outer," and the like are used in a generic and descriptive sense only and not for purposes of limitation, as the terms are used in the description to indicate that the referenced device or element must have the specified orientation, be constructed and operated in the specified orientation, and not for the purpose of limitation.
It is understood that the terms "a" and "an" should be interpreted as meaning that a number of one element or element is one in one embodiment, while a number of other elements is one in another embodiment, and the terms "a" and "an" should not be interpreted as limiting the number.
Referring to the drawings 1 to 2 of the present specification, according to the present invention, a hydrogen recovery device for a hydrogen fuel cell is disclosed, wherein the hydrogen recovery device for a hydrogen fuel cell is suitable for a hydrogen fuel cell 10, and the hydrogen recovery device for a hydrogen fuel cell can collect hydrogen discharged from the hydrogen fuel cell 10, and further recover, purify, and recycle the hydrogen. The hydrogen fuel cell 10 is provided with an inlet 12 and an outlet 13, hydrogen gas is introduced from an inlet 11, enters the inside of the hydrogen fuel cell 10 through the inlet 12 to participate in the electrochemical reaction, and unreacted hydrogen gas and generated water are discharged through the outlet 13.
As shown in fig. 2, the hydrogen recovery apparatus for a hydrogen fuel cell includes a regulating member 20, a container member 30, and a piping member 70 for communicating the container member 30 with the hydrogen fuel cell 10, wherein the regulating member 20 is provided at the piping member 70 to control switching of the communication state of the piping member 70, and the container member 30 is provided to collect hydrogen and water discharged from the hydrogen fuel cell 10.
Further, the regulating assembly 20 includes a first electromagnetic valve 21, wherein the first electromagnetic valve 21 is disposed between the outlet 13 of the hydrogen fuel cell 10 and the container assembly 30 to switch a communication state between the outlet 13 of the hydrogen fuel cell 10 and the container assembly 30, when the first electromagnetic valve 21 is opened, the outlet 13 of the hydrogen fuel cell 10 and the container assembly 30 are communicated, unreacted hydrogen gas and generated water inside the hydrogen fuel cell 10 can flow into the container assembly 30 through the first electromagnetic valve 21, when the first electromagnetic valve 21 is closed, the outlet 13 of the hydrogen fuel cell 10 and the container assembly 30 are blocked, and the unreacted hydrogen gas and the generated water do not flow into the container assembly 30.
Further, the container assembly 30 includes a first container 31, a second container 32 disposed inside the first container 31, and a third container 33 capable of communicating with the second container 32, further, the opening of the second container 32 faces the opposite direction to the opening of the first container 31, the opening of the second container 32 faces the bottom of the first container 31, and the first container 31 is communicated with the second container 32, so that water can flow into the second container 32 from the first container 31, and can also flow into the first container 31 from the second container 32. It is understood that the second container 32 is communicated with the outlet 13 of the hydrogen fuel cell 10 through the pipe assembly 70, and since the second container 32 is pre-filled with water, the hydrogen gas discharged from the outlet 13 of the hydrogen fuel cell 10 can be gathered above the second container 32 and collected by the second container 32, and a part of the water in the second container flows out of the second container, so that the liquid level in the first container 31 rises.
Further, the piping assembly 70 includes a collecting piping 71 and a supplying piping 72, wherein the collecting piping 71 extends from the outlet 13 of the hydrogen fuel cell 10 to the second container 32, one end of the collecting piping 71 communicates with the outlet 13 of the hydrogen fuel cell 10, the other end of the collecting piping 71 communicates with the second container 32, the first electromagnetic valve 21 is provided at the collecting piping 71, the collecting piping 71 communicates the outlet 13 of the hydrogen fuel cell 10 with the second container 32 when the first electromagnetic valve 21 is opened, the hydrogen and water discharged from the outlet 13 of the hydrogen fuel cell 10 flow into the second container 32 along the collecting piping 71, correspondingly, the supplying piping 72 extends from the second container 32 to the inlet 12 of the hydrogen fuel cell 10, one end of the supplying piping 72 communicates with the second container 32, the other end of the supply line 72 communicates with the inlet 12 of the hydrogen fuel cell 10.
Further, the adjusting assembly 20 includes a three-way valve 24, wherein the three-way valve 24 is disposed on the supply line 72, wherein the three-way valve 24 has a first valve port 241 communicated with the second container 32 through the supply line 72, a second valve port 242 communicated with the outside, and a third valve port 243 communicated with the inlet 12 of the hydrogen fuel cell 10 through the supply line 72, the three-way valve 24 can selectively communicate the two valve ports with each other, when the first valve port 241 and the third valve port 243 are communicated, the hydrogen gas collected at the top of the second container 32 can be delivered to the inlet 12 of the hydrogen fuel cell 10 after flowing through the first valve port 241 and the third valve port 243 along the supply line 72 in sequence, and it is noted that the second valve port 242 is used to exhaust the air inside the second container 32 before the whole system starts to operate, at this time, the first valve port 241 and the second valve port 242 are connected, and the air inside the second container 32 is discharged from the first valve port 241 through the second valve port 242 until the inside of the second container 32 is filled with water and the air is completely exhausted.
Further, the second container 32 has a water replenishing port 321 provided at the top of the second container 32, the water replenishing port 321 can communicate with the third container 33, the water inside the third container 33 enters the second container 32 through the water replenishing port 321, the air inside the second container 32 is pressed as the water inside the second container 32 increases, the air is sent from the inside of the second container 32 to the three-way valve 24 and is discharged through the second valve port 242 of the three-way valve 24, and the process is continued until the inside of the second container 32 is filled with water. It is noted that the above process is a pre-treatment of the container assembly 30, which is performed before the hydrogen gas is collected into the second container 32.
Further, the hydrogen recovery apparatus for a hydrogen fuel cell includes a booster pump 50 provided in the supply line 72 and a purification apparatus 60 provided in the supply line 72, wherein the booster pump 50 is provided between the hydrogen fuel cell 10 and the purification apparatus 60, the purification apparatus 60 is provided between the booster pump 50 and the three-way valve 24, the booster pump 50 is communicated with the purification apparatus 60 through the supply line 72, the booster pump 50 is communicated with the inlet 12 of the hydrogen fuel cell 10 through the supply line 72, the booster pump 50 is used to pump out and pressurize the hydrogen gas collected in the second container 32 to the fuel cell 10, the purification apparatus 60 is communicated with the third valve port 243 of the three-way valve 24 through the supply line 72, and when the first solenoid valve 21 is opened for a while, the first valve port 241 and the third valve port 243 of the three-way valve 24 are communicated, the collected hydrogen gas inside the second container 32 reaches a certain volume, at which time the booster pump 50 is turned on, and the hydrogen gas inside the second container 32 is purified by the purifying device 60 and then delivered to the hydrogen fuel cell 10.
Further, the hydrogen recovery apparatus for a hydrogen fuel cell includes a sensor assembly 40, wherein the sensor assembly 40 is provided to the container assembly 30, and the sensor assembly 40 is used to sense the state of the container assembly 30.
Further, the sensor assembly 40 includes a first level sensor 41 provided in the supply line 72 between the second container 32 and the three-way valve 24, a second level sensor 42 provided in the first container 31, and a third level sensor 43 provided in the second container 32, when the water level inside the second container 32 rises inside the supply line 72 to the position of the first level sensor 41, the delivery of water and hydrogen between the second container 32 and the three-way valve 24 is stopped, at which time, the first electromagnetic valve 21 is in an operating state, water and hydrogen gas are continuously discharged into the second container 32, so that the water level inside the second container 32 is lowered, when the water level inside the second container 32 drops to the third level sensor 43, the transfer of water and hydrogen between the second container 32 and the three-way valve 24 is restarted.
Further, the adjusting assembly 20 includes a second solenoid valve 22 disposed at the water discharging end of the first container 31, the first solenoid valve 21 discharges hydrogen gas and water, the water and the hydrogen gas enter the second container 32 together, when the water in the first container 31 reaches a certain volume, the second liquid level sensor 42 disposed at the first container 31 detects that the water level reaches a certain position, at this time, the second solenoid valve 22 is opened, the water in the first container 31 flows out to the outside through the second solenoid valve 22, and after a while, the volume of the water in the first container 31 decreases to a certain extent, and the second solenoid valve 22 is closed.
Further, the adjusting assembly 20 includes a manual valve 23 disposed between the third container 33 and the second container 32, the manual valve 23 is opened such that the water inside the third container 33 enters the second container 32 through the manual valve 23 via the water replenishing port 321, and the manual valve 23 is closed until the inside of the second container 32 is filled with water.
It is understood that hydrogen gas enters the inside of the hydrogen fuel cell 10 from the inlet 11 of the hydrogen fuel cell 10 through the inlet 12, participates in electrochemical reaction in the inside of the hydrogen fuel cell 10, produced water and unreacted hydrogen gas are discharged from the outlet 13 of the hydrogen fuel cell 10, water and hydrogen gas are inputted into the inside of the second container 32 through the first solenoid valve 21, hydrogen gas is released to the top layer of the inside of the second container 32, the water in the second container 32 is located below hydrogen gas, and when the water level in the first container 31 reaches a certain height, the water in the inside of the first container 31 is discharged through the second solenoid valve 22.
In other words, as shown in fig. 2, before the hydrogen fuel cell 10 starts to operate, the three-way valve 24 is opened such that the first valve port 241 and the second valve port 242 of the three-way valve 24 are connected, at which time the inside of the first container 31 is filled with a predetermined volume of water such that the water level of the inside of the first container 31 reaches a predetermined water level, preferably, the predetermined water level is at half or more of the inner height of the first container 31, at which time the manual valve 23 is opened, the water inside the third container 33 enters the second container 32 through the water replenishment port 321 of the second container 32, the water inside the second container 32 passes to the inside of the first container 31, the air inside the second container 32 is squeezed by the water, the air inside the second container 32 is gradually squeezed to the three-way valve 24 as the water inside the second container 32 increases, the air enters the three-way valve 24 through the first port 241 of the three-way valve 24, the air is discharged from the second port 242 of the three-way valve 24, and when the second container 32 is filled with water, the air inside the second container 32 is exhausted, and at this time, the manual valve 23 is closed.
Further, the hydrogen fuel cell 10 is operated, the first electromagnetic valve 21 is opened, and the first valve port 241 and the third valve port 243 of the three-way valve 24 are simultaneously opened, at this time, water and hydrogen gas generated by the chemical reaction inside the hydrogen fuel cell 10 are delivered to the first electromagnetic valve 21, the water and hydrogen gas are discharged from the first electromagnetic valve 21 into the first container 31, the inside of the first container 31 is communicated with the second container 32, it is noted that the water and hydrogen gas discharged from the first electromagnetic valve 21 are communicated to the inside of the second container 32, the opening of the second container 32 and the opening of the first container 31 are directed in the opposite direction, the opening of the second container 32 is directed toward the bottom of the first container 31, water can be circulated from the inside of the second container 32 into the inside of the first container 31, hydrogen gas is retained inside the second container 32, and hydrogen gas floats above water, hydrogen gas is held at the top of the inside of the second container 32, and after a certain period of time, the inside of the second container 32 is filled with a certain amount of hydrogen gas, at which time the pressurizing pump 50 is opened, so that the hydrogen gas inside the second container 32 is pumped to the inlet 12 of the hydrogen fuel cell 10 through the purifying device 60,
specifically, when the first valve port 241 and the third valve port 243 are connected, the hydrogen gas collected at the top of the second container 32 can flow through the first valve port 241 and the third valve port 243 along the supply line 72 in sequence, and is delivered to the purification device 60, and the purification device 60 purifies the hydrogen gas to generate high-purity hydrogen, and the high-purity hydrogen is sent to the inlet 12 of the hydrogen fuel cell 10, so as to enter the interior of the hydrogen fuel cell 10.
Further, when the flow rate at which hydrogen is pumped by the pressurizing pump 50 is fast, the water level of the second container 32 is caused to rise, when the water level of the second container 32 rises such that the first liquid level sensor 41 senses the water level, the pressurizing pump 50 is turned off, the hydrogen gas inside the second container 32 is stopped from being delivered to the three-way valve 24, at which time the first electromagnetic valve 21 is in an operating state, the water and hydrogen gas inside the hydrogen fuel cell 10 are continuously supplied to the inside of the second container 32, and after a lapse of time, the hydrogen gas inside the second container 32 increases, the water level of the second container 32 decreases, when the water level of the second container 32 decreases such that the third liquid level sensor 43 senses the water level, the pressurizing pump 50 is turned on, the hydrogen gas inside the second container 32 passes through the three-way valve 24, and the hydrogen gas is delivered to the hydrogen fuel cell 10 through the purification device 60. Preferably, the third level sensor 43 is a level detection transducer.
Further, when the first electromagnetic valve 21 discharges hydrogen gas to the second container 32, part of the water is simultaneously discharged to the second container 32, after a period of time, the amount of water in the first container 31 increases, when the water level of the first container 31 reaches the position of the second liquid level sensor 42, the second electromagnetic valve 22 is opened, the water is discharged from the inside of the first container 31 through the second electromagnetic valve 22, after a period of time, the amount of water in the first container 31 decreases, and the second electromagnetic valve 22 is closed.
It will be understood by those skilled in the art that the embodiments of the present invention as described above and shown in the drawings are given by way of example only and are not limiting of the present invention. The objects of the present invention have been fully and effectively accomplished. The functional and structural principles of the present invention have been shown and described in the embodiments without departing from the principles, embodiments of the present invention may have any deformation or modification.
Claims (10)
1. A hydrogen recovery device adapted for a hydrogen fuel cell that discharges water and hydrogen gas, comprising:
a pipeline assembly, wherein the pipeline assembly comprises a collecting pipeline and a supplying pipeline;
a container assembly, wherein the container assembly comprises a first container with an upward opening and a second container with an opening reversely arranged on the opening of the first container, the second container is arranged inside the first container, the second container is communicated with the hydrogen fuel cell, the second container is communicated with the outlet of the hydrogen fuel cell through the collecting pipeline, the second container is communicated with the inlet of the hydrogen fuel cell through the supplying pipeline, water and hydrogen are conveyed to the second container from the hydrogen fuel cell through the collecting pipeline, water flows through the first container, and hydrogen is conveyed to the hydrogen fuel cell from the second container through the supplying pipeline; and
a first solenoid valve, wherein the first solenoid valve is disposed in the collection line, the first solenoid valve being disposed between the hydrogen fuel cell and the first container.
2. The hydrogen reclamation apparatus as recited in claim 1, further comprising a booster pump, wherein the booster pump is provided in the supply line, the booster pump being provided between the second container and the hydrogen fuel cell.
3. The hydrogen reclamation apparatus as recited in claim 2, further comprising a hydrogen purification apparatus, wherein the hydrogen purification apparatus is disposed between the second container and the booster pump.
4. The hydrogen recovery device according to claim 3, further comprising a three-way valve having a first port, a second port and a third port, and a third container, wherein the third container is in communication with the second container, wherein the first port of the three-way valve is in communication with the second container, the third port of the three-way valve is in communication with the hydrogen purification device, and the second port of the three-way valve is in communication with the outside.
5. The hydrogen recovery device according to claim 3, further comprising a three-way valve having a first port, a second port and a third port, wherein the first port of the three-way valve is in communication with the second container, the third port of the three-way valve is in communication with the hydrogen purification device, and the second port of the three-way valve is in communication with the outside.
6. The hydrogen reclamation apparatus as recited in claim 4, further comprising a second solenoid valve, wherein the second solenoid valve is in communication with the first container.
7. The hydrogen reclamation apparatus as recited in claim 6, further comprising a sensor assembly, wherein the sensor assembly comprises a first level sensor disposed in the supply line, a second level sensor disposed in the first container, and a third level sensor disposed in the second container, the first level sensor being disposed between the second container and the three-way valve.
8. The hydrogen reclamation apparatus as recited in claim 7, further comprising a manual valve, wherein the manual valve is disposed between the second container and the third container.
9. The hydrogen reclamation apparatus as recited in claim 8, wherein the second container has a water replenishment port, and the third container injects water into the second container through the water replenishment port.
10. The hydrogen recovery device according to claim 9, wherein when the third container injects water into the second container through the water replenishment port, a liquid level of the inside of the second container rises stepwise so that the liquid level of the inside of the second container is higher than that of the inside of the first container.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202021455106.8U CN212991132U (en) | 2020-07-21 | 2020-07-21 | Hydrogen recovery device for hydrogen fuel cell |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202021455106.8U CN212991132U (en) | 2020-07-21 | 2020-07-21 | Hydrogen recovery device for hydrogen fuel cell |
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| Publication Number | Publication Date |
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| CN212991132U true CN212991132U (en) | 2021-04-16 |
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| CN202021455106.8U Active CN212991132U (en) | 2020-07-21 | 2020-07-21 | Hydrogen recovery device for hydrogen fuel cell |
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