Photovoltaic power generation electrolytic water hydrogen production device based on container configuration

Abstract

The application discloses a photovoltaic power generation water electrolysis hydrogen production device based on a container configuration and relates to the technical field of hydrogen production equipment. The device comprises a machine body, a sliding block slidingly connected to the inside of the machine body, a control mechanism arranged above the sliding block, a first processing box arranged above the control mechanism, a second processing box arranged above the control mechanism, a first processing mechanism arranged in the first processing box, a second connecting pipe arranged in the inside of the machine body and a sleeve pipe arranged outside the first processing box, the sleeve pipe is slidingly connected with the second connecting pipe, and the sliding block is used for driving the sleeve pipe outside the first processing box to slide outside the second connecting pipe. The device further comprises a display arranged above the machine body. The photovoltaic power generation water electrolysis hydrogen production device based on the container configuration achieves the purpose of improving the use efficiency of the equipment.

Description

Technical Field

[0001] This invention relates to the field of hydrogen production equipment technology, specifically to a photovoltaic power generation and water electrolysis hydrogen production device based on a container configuration. Background Technology

[0002] The photovoltaic power generation water electrolysis hydrogen production unit is pre-installed and debugged in a standard-sized container in the factory. After being transported to the site, it can be "plug and play" simply by connecting a water source and a photovoltaic array. During operation, the system uses the fluctuating DC power generated by the photovoltaic to drive the electrolyzer in the container to decompose water into hydrogen. The built-in intelligent control unit adapts to the intermittent characteristics of solar power in real time, and integrates a safety monitoring and purification system in a closed space.

[0003] A utility model patent with publication number CN216274402U discloses a photovoltaic power generation and water electrolysis hydrogen production system based on a container configuration. A partition separates two container bodies into two independent sections, allowing electrical workers and hydrogen production equipment personnel to maintain the equipment in two designated areas. The partition also prevents the hydrogen production unit area from being exposed to electrical sparks, thus preventing accidents. However, after prolonged use, impurities in the electrolyte remain in the filter, easily causing it to clog prematurely, requiring frequent manual cleaning. Summary of the Invention

[0004] To overcome the problem that impurities in the electrolyte remain in the filter after long-term use, easily causing the filter to clog too quickly and requiring frequent manual cleaning, this invention provides a photovoltaic power generation water electrolysis hydrogen production device based on a container configuration, including a main body, and further comprising: A slider that is slidably connected to the inside of the machine body; The control mechanism is located above the slider, and includes a base frame mounted above the slider, a first processing box located above the base frame, and a second processing box located above the base frame. A first processing mechanism is installed inside a first processing box. The first processing mechanism includes a second connecting pipe installed inside the machine body and a sleeve installed outside the first processing box. The sleeve is slidably connected to the second connecting pipe, and the slider is used to drive the sleeve outside the first processing box to slide outside the second connecting pipe.

[0005] Preferably, it further includes: The display is located on the top of the machine body; The working box installed inside the machine body; The second processing mechanism is located inside the second processing box.

[0006] Preferably, the control mechanism further includes: A cylinder installed inside the machine body, wherein the telescopic end of the cylinder is connected to a slider; The first connecting pipe is installed above the second processing box and is connected to the working box via a connector.

[0007] Preferably, the first processing mechanism further includes: A third connecting pipe is installed outside the first processing box, and the end of the third connecting pipe away from the first processing box is connected to the second processing box. Springs and filter plates connected to springs are installed inside the first processing chamber; The connecting rod and the first magnetic plate connected to the connecting rod are mounted on the filter plate.

[0008] Preferably, the first processing mechanism further includes: A limiting plate is installed inside the first processing box, and the connecting rod is slidably connected inside the limiting plate; A first groove is formed inside the body and a first telescopic rod is installed inside the first groove; The second magnetic plate is installed on the telescopic end of the first telescopic rod.

[0009] Preferably, the first processing mechanism further includes: The collection box located below the first processing box and the base plate installed inside the collection box; A movable plate is slidably connected inside the connecting box. The movable plate is connected to a second magnetic plate. The first magnetic plate and the second magnetic plate cooperate to control the position of the movable plate.

[0010] Preferably, the first processing mechanism further includes: Connectors installed inside the filter plate; A circular plate is disposed at the end of the connector away from the filter plate, and the circular plate is adapted to the sleeve.

[0011] Preferably, the first processing mechanism further includes: The second telescopic rod and the connecting ball connected to the telescopic end of the second telescopic rod are set on the circular plate. The connecting ball is used to impact the filter plate to promote the separation of impurities from the filter plate. A fixed frame is installed inside the first processing box, the fixed frame is adapted to the circular plate, and the second telescopic rod passes through the interior of the fixed frame.

[0012] Preferably, the second processing mechanism includes: The push rod is installed inside the second processing box; A partition is installed on the telescopic end of the push rod. The partition is connected to the connector and is used to adjust the communication between the first connecting pipe and the first processing box. The constriction tube installed on the outside of the connector and the second groove opened at the bottom of the constriction tube are used to collect a small amount of electrolyte.

[0013] This invention provides a photovoltaic power generation and water electrolysis hydrogen production device based on a container configuration. It has the following beneficial effects: 1. This container-based photovoltaic power generation and water electrolysis hydrogen production device employs a first processing mechanism that uses an inclined filter plate to intercept particulate impurities in the electrolyte. After prolonged use, impurities remain in the filter, causing it to clog rapidly and requiring frequent manual cleaning. Therefore, the first processing mechanism uses a horizontally movable filter plate to scrape away impurities, promoting their entry into the collection box and slowing down clogging, thus resolving the aforementioned problem.

[0014] 2. This container-based photovoltaic electrolysis water production hydrogen generation device, through a control mechanism, uses cylinders to drive the slider, base frame, first processing tank, second processing tank, and first connecting pipe to move horizontally. This not only facilitates the dynamic flow of electrolyte inside the first and second processing tanks but also drives the filter plates to slightly shake, promoting the removal of impurities from the filter plates. The first processing tank is slidably connected to the second connecting pipe fixed to the machine body via a sleeve, forming a retractable pipeline interface to prevent electrolyte leakage.

[0015] 3. The photovoltaic power generation and water electrolysis hydrogen production device based on container configuration, by setting up a first processing mechanism, controls the position of the first magnetic plate connected to the filter plate by controlling the horizontal movement of the filter plate. Since the first magnetic plate and the second magnetic plate repel each other, the position of the moving plate is controlled by the filter plate to realize the opening and closing of the collection box. When the collection box is opened, the filter plate scrapes the impurities towards the collection box to reduce the impurities accumulated inside the first processing box.

[0016] 4. The photovoltaic power generation water electrolysis hydrogen production device based on container configuration, by setting a second processing mechanism, uses a constriction pipe with a second groove at the bottom. When the constriction pipe is inserted into the third connecting pipe, a small amount of electrolyte can enter the first processing box through the second groove. With the first connecting pipe and the first processing box separated by a partition, a small amount of filtered electrolyte drives impurities to flow towards the collection box.

[0017] 5. The photovoltaic power generation water electrolysis hydrogen production device based on container configuration has a second processing mechanism. The position of the partition is controlled by a push rod. The partition is connected to the filter plate through a connector. When the push rod is activated, the partition isolates the first connecting pipe from the first processing box. At the same time, the circular plate blocks the sleeve to prevent the electrolyte from flowing back into the second connecting pipe. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a schematic diagram of the internal structure of the present invention; Figure 3 This is a schematic diagram of the control mechanism of the present invention; Figure 4 This is a schematic diagram of the control mechanism of the present invention from another perspective; Figure 5 This is a schematic diagram of the structure of the first processing mechanism of the present invention; Figure 6 For the present invention Figure 5 Schematic diagram of the structure at point A; Figure 7 This is a cross-sectional view of the first processing mechanism of the present invention; Figure 8 For the present invention Figure 7 Schematic diagram of the structure at point B; Figure 9 This is a schematic diagram of the structure of the second processing mechanism of the present invention.

[0019] In the diagram: 1. Body; 2. Display; 3. Slider; 4. Control mechanism; 401. Base frame; 402. Cylinder; 403. First processing box; 404. Second processing box; 405. First connecting pipe; 5. Working box; 6. First processing mechanism; 601. Second connecting pipe; 602. Sleeve; 603. Third connecting pipe; 604. Spring; 605. Filter plate; 606. Collection box; 607. Connecting rod; 608. First magnetic plate; 609. Limiting plate; 610. First groove; 611. First telescopic rod; 612. Second magnetic plate; 613. Moving plate; 614. Base plate; 615. Connecting piece; 616. Fixed frame; 617. Circular plate; 618. Second telescopic rod; 619. Connecting ball; 7. Second processing mechanism; 701. Push rod; 702. Partition; 703. Closing pipe; 704. Second groove. Detailed Implementation

[0020] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments. The embodiments of the present invention are given for illustrative and descriptive purposes only, and are not intended to be exhaustive or to limit the invention to the forms disclosed. Many modifications and variations will be apparent to those skilled in the art. The embodiments were chosen and described to better illustrate the principles and practical application of the invention, and to enable those skilled in the art to understand the invention and design various embodiments with various modifications suitable for a particular purpose.

[0021] like Figures 1-9 As shown, the present invention provides a technical solution: a photovoltaic power generation and water electrolysis hydrogen production device based on container configuration is described below.

[0022] Including the main body 1, with a sliding groove at the bottom, and also including: The slider 3 is slidably connected to the inside of the body 1, and the slider 3 is slidably connected to the inside of the slide groove; The control mechanism 4 is located above the slider 3. The control mechanism 4 includes a base frame 401 mounted above the slider 3, a first processing box 403 mounted above the base frame 401, a second processing box 404 mounted above the base frame 401, a cylinder 402 mounted inside the machine body 1, and a first connecting pipe 405 mounted above the second processing box 404. The first connecting pipe 405 is connected to the working box 5 through a connector, and the telescopic end of the cylinder 402 is connected to the slider 3. The first processing mechanism 6 is installed inside the first processing box 403. The first processing mechanism 6 includes a second connecting pipe 601 installed inside the body 1 and a sleeve 602 installed outside the first processing box 403. The sleeve 602 is slidably connected to the second connecting pipe 601. The slider 3 is used to drive the sleeve 602 outside the first processing box 403 to slide outside the second connecting pipe 601. The display 2 is located on top of the main body 1; The working box 5 is installed inside the body 1. The working box 5 is used to complete the work of producing hydrogen by electrolysis of water. The second processing mechanism 7 is located inside the second processing box 404.

[0023] When using the equipment, the pump body in the body 1 introduces the electrolyte in the separator into the sleeve 602 through the second connecting pipe 601. Then, after the electrolyte passes through the first processing tank 403 and the second processing tank 404, it enters the working tank 5 through the first connecting pipe 405 under the operation of the pump body, completing the electrolyte reflux.

[0024] The cylinder 402 is intermittently adjusted to a reciprocating motion mode. The cylinder 402 drives the slider 3, the base frame 401, the first processing box 403, the second processing box 404, and the first connecting pipe 405 to move in the horizontal direction. The sleeve 602 slides outside the second connecting pipe 601 to promote the filtration and flow of impurities and electrolyte inside the first processing box 403 and the second processing box 404.

[0025] The first processing unit 6 also includes: A third connecting pipe 603 is installed outside the first processing box 403, and the end of the third connecting pipe 603 away from the first processing box 403 is connected to the second processing box 404. A spring 604 and a filter plate 605 connected to the spring 604 are installed inside the first processing box 403. The filter plate 605 is inclined. A connecting rod 607 and a first magnetic plate 608 connected to the connecting rod 607 are mounted on the filter plate 605. The limiting plate 609 is installed inside the first processing box 403. The connecting rod 607 is slidably connected inside the limiting plate 609. The limiting plate 609 is inclined and parallel to the filter plate 605. A first groove 610 is formed inside the body 1 and a first telescopic rod 611 is installed inside the first groove 610. The first telescopic rod 611 has an automatic retraction function. The second magnetic plate 612 is disposed on the telescopic end of the first telescopic rod 611, and the second magnetic plate 612 and the first magnetic plate 608 are magnetically repelled. The collection box 606 is located below the first processing box 403, and the base plate 614 is installed inside the collection box 606. The base plate 614 is detachable, and several grooves are opened inside the base plate 614. A movable plate 613 is slidably connected inside the connecting box, and the movable plate 613 is connected to the second magnetic plate 612; Connector 615 installed inside filter plate 605; A circular plate 617 is disposed at the end of the connector 615 away from the filter plate 605, and the circular plate 617 is adapted to the sleeve 602. A second telescopic rod 618 and a connecting ball 619 connected to the telescopic end of the second telescopic rod 618 are provided on the circular plate 617; A fixed frame 616 is installed inside the first processing box 403. The fixed frame 616 is adapted to the circular plate 617. The second telescopic rod 618 passes through the interior of the fixed frame 616 and is set as an electric push rod 701.

[0026] The process of filtering the electrolyte using the first processing unit 6: During filtration, under the operation of the second processing mechanism 7, the spring 604 is compressed, and the filter plate 605 is positioned away from the second connecting pipe 601. The first magnetic plate 608 contacts the limiting plate 609, the first telescopic rod 611 is in its initial state, and the second magnetic plate 612 is in the first groove 610. At this time, the moving plate 613 blocks the collection box 606, and the collection box 606 is not connected to the first processing box 403. The circular plate 617 is positioned away from the second connecting pipe 601, at which time the second connecting pipe 601 is connected to the first processing box 403.

[0027] The electrolyte enters the first processing tank 403 through the second connecting pipe 601 and the sleeve 602. After being filtered by the filter plate 605, impurities are trapped outside the filter plate 605. The electrolyte then enters the second processing tank 404 through the filter plate 605 and the third connecting pipe 603, and the flow direction of the electrolyte is controlled by the second processing mechanism 7.

[0028] The process of collecting impurities using the first processing unit 6: Adjusting the second processing mechanism 7, under the operation of the second processing mechanism 7, the connector 615, filter plate 605, connecting rod 607 and first magnetic plate 608 move towards the second connecting pipe 601. The first magnetic plate 608 gradually moves away from the limiting plate 609, and under the magnetic force of the first magnetic plate 608, the second magnetic plate 612 gradually moves away from the first groove 610. At this time, the first telescopic rod 611 is stretched, and the second magnetic plate 612 drives the moving plate 613 to move away from the first magnetic plate 608. The collection box 606 has an opening at the top, which makes it easier for the filter plate 605 to push impurities into the collection box 606.

[0029] At the same time, the connector 615 drives the circular plate 617 into the sleeve 602, isolating the second connecting pipe 601 and the first processing box 403, preventing electrolyte from flowing back into the second connecting pipe 601, and starting the second telescopic rod 618 to the reciprocating motion mode. The second telescopic rod 618 drives the connecting ball 619 to repeatedly hit the filter plate 605, promoting the detachment of impurities from the filter plate 605, and thus promoting the impurities to enter the mobile phone box.

[0030] By setting up a first processing mechanism 6, an inclined filter plate 605 is used to intercept particulate impurities in the electrolyte. After long-term use of the equipment, impurities in the electrolyte remain in the filter, which can easily cause the filter to clog too quickly, requiring frequent manual cleaning. Therefore, the first processing mechanism 6 is set up to use a filter plate 605 that can move horizontally to scrape the impurities, promoting their entry into the collection box 606, thereby slowing down the clogging rate and solving the above-mentioned problem.

[0031] By setting up the first processing mechanism 6, the position of the first magnetic plate 608 connected to the filter plate 605 is controlled by controlling the movement of the filter plate 605 in the horizontal direction. Since the first magnetic plate 608 and the second magnetic plate 612 are mutually repulsive, the position of the moving plate 613 is controlled by the filter plate 605 to realize the opening and closing of the collection box 606. When the collection box 606 is opened, the filter plate 605 scrapes the impurities toward the collection box 606 to reduce the impurities accumulated inside the first processing box 403.

[0032] The second processing unit 7 includes: The push rod 701 is installed inside the second processing box 404 and is configured as an electric push rod. The partition 702 is provided on the telescopic end of the push rod 701 and is connected to the connector 615. The connector 615 consists of a constriction tube 703 installed outside the connector 615 and a second groove 704 opened at the bottom of the constriction tube 703. The connector 615 is composed of a round rod and a third telescopic rod. The round rod is located in the filter plate 605 and is connected to the round plate 617. The third telescopic rod is installed between the round rod and the partition plate 702. During the extrusion process, the third telescopic rod undergoes corresponding expansion and contraction changes.

[0033] The working process of controlling the position of filter plate 605 using the second processing mechanism 7: Before filtration begins, push rod 701 is in its initial state, at which point the first connecting pipe 405 is connected to the second processing tank 404, the third connecting pipe 603, and the first processing tank 403. At this time, spring 604 is compressed, and filter plate 605 is positioned away from the second connecting pipe 601. The electrolyte that enters the second processing tank 404 through the first processing tank 403 will then enter the working tank 5 through the first connecting pipe 405.

[0034] After filtration, the push rod 701 is periodically adjusted to the reciprocating motion mode. The push rod 701 drives the connector 615, filter plate 605, connecting rod 607 and first magnetic plate 608 to move towards the second connecting pipe 601. At the same time, as the push rod 701 drives the partition 702 to move, the partition 702 isolates the first connecting pipe 405 and the third connecting pipe 603. The converging pipe 703 gradually enters the first processing box 403 through the third connecting pipe 603. A small amount of electrolyte gradually enters the first processing box 403 through the second groove 704 at the bottom of the converging pipe 703, causing impurities to flow into the collection box 606.

[0035] By setting up the second processing mechanism 7, the position of the partition 702 is controlled by the push rod 701. The partition 702 is connected to the filter plate 605 through the connector 615. When the push rod 701 is activated, the partition 702 isolates the first connecting pipe 405 from the first processing box 403. At the same time, the circular plate 617 blocks the sleeve 602 to prevent the electrolyte from flowing back into the second connecting pipe 601.

[0036] By setting up a second processing mechanism 7 and using a constricting tube 703 with a second groove 704 at the bottom, when the constricting tube 703 is inserted into the third connecting tube 603, a small amount of electrolyte can enter the first processing box 403 through the second groove 704. With the partition 702 separating the first connecting tube 405 from the first processing box 403, a small amount of filtered electrolyte drives impurities to flow toward the collection box 606.

[0037] Working principle: When using the equipment, the pump body in the machine body 1 introduces the electrolyte in the separator into the sleeve 602 through the second connecting pipe 601. Then, after the electrolyte is filtered by the first processing tank 403 and the second processing tank 404, it enters the working tank 5 through the first connecting pipe 405 under the operation of the pump body, completing the electrolyte reflux.

[0038] Before filtration begins, push rod 701 is in its initial state, at which point the first connecting pipe 405 is connected to the second processing box 404, the third connecting pipe 603, and the first processing box 403. Spring 604 is compressed, filter plate 605 is positioned away from the second connecting pipe 601, the first magnetic plate 608 contacts the limiting plate 609, the first telescopic rod 611 is in its initial state, and the second magnetic plate 612 is in the first groove 610. The moving plate 613 blocks the collection box 606, preventing it from connecting to the first processing box 403. The circular plate 617 is positioned away from the second connecting pipe 601, at which point the second connecting pipe 601 is connected to the first processing box 403.

[0039] The electrolyte enters the first processing tank 403 through the second connecting pipe 601 and the sleeve 602. After being filtered by the filter plate 605, impurities are trapped outside the filter plate 605. The electrolyte then enters the second processing tank 404 through the filter plate 605 and the third connecting pipe 603, and then enters the first connecting pipe 405 through the second processing tank 404, and finally enters the working tank 5 through the first connecting pipe 405.

[0040] After filtration, the push rod 701 is periodically adjusted to reciprocating motion mode. The push rod 701 drives the connector 615, filter plate 605, connecting rod 607 and first magnetic plate 608 to move towards the second connecting pipe 601. The first magnetic plate 608 gradually moves away from the limiting plate 609, and under the magnetic force of the first magnetic plate 608, the second magnetic plate 612 gradually moves away from the first groove 610. At this time, the first telescopic rod 611 is stretched, and the second magnetic plate 612 drives the moving plate 613 to move away from the first magnetic plate 608. The collection box 606 has an opening at the top, which makes it easier for the filter plate 605 to push impurities into the collection box 606.

[0041] At the same time, the connector 615 drives the circular plate 617 into the sleeve 602, isolating the second connecting pipe 601 and the first processing box 403, preventing electrolyte from flowing back into the second connecting pipe 601, and starting the second telescopic rod 618 to the reciprocating motion mode. The second telescopic rod 618 drives the connecting ball 619 to repeatedly hit the filter plate 605, promoting the detachment of impurities from the filter plate 605, and thus promoting the impurities to enter the mobile phone box.

[0042] Simultaneously, as the push rod 701 drives the partition 702 to move, the partition 702 isolates the first connecting pipe 405 from the third connecting pipe 603. The constricting pipe 703 gradually enters the first processing box 403 through the third connecting pipe 603, and a small amount of electrolyte gradually enters the first processing box 403 through the second groove 704 at the bottom of the constricting pipe 703, causing impurities to flow into the collection box 606.

[0043] The cylinder 402 is intermittently adjusted to a reciprocating motion mode. The cylinder 402 drives the slider 3, the base frame 401, the first processing box 403, the second processing box 404, and the first connecting pipe 405 to move in the horizontal direction. The sleeve 602 slides outside the second connecting pipe 601 to promote the filtration and flow of impurities and electrolyte inside the first processing box 403 and the second processing box 404.

[0044] Obviously, the described embodiments are only a part of the embodiments of the present invention, and not all of them. All other embodiments obtained by those skilled in the art and related fields based on the embodiments of the present invention without inventive effort should fall within the scope of protection of the present invention. Structures, devices, and operating methods not specifically described and explained in the present invention, unless otherwise specified or limited, shall be implemented according to conventional means in the art.

Claims

1. A photovoltaic power generation and water electrolysis hydrogen production device based on a container configuration, comprising a main body (1), characterized in that, Also includes: Sliding slider (3) connected to the inside of the body (1); The control mechanism (4) is located above the slider (3). The control mechanism (4) includes a base frame (401) installed above the slider (3), a first processing box (403) located above the base frame (401), and a second processing box (404) located above the base frame (401). The first processing mechanism (6) is installed inside the first processing box (403). The first processing mechanism (6) includes a second connecting pipe (601) installed inside the body (1) and a sleeve (602) installed outside the first processing box (403). The sleeve (602) is slidably connected to the second connecting pipe (601). The slider (3) is used to drive the sleeve (602) outside the first processing box (403) to slide outside the second connecting pipe (601).

2. The photovoltaic power generation and water electrolysis hydrogen production device based on container configuration according to claim 1, characterized in that: Also includes: The display (2) is located on the top of the body (1); The work box (5) is installed inside the body (1); The second processing mechanism (7) is located inside the second processing box (404).

3. The photovoltaic power generation and water electrolysis hydrogen production device based on container configuration according to claim 1, characterized in that: The control mechanism (4) also includes: A cylinder (402) is installed inside the body (1), and the telescopic end of the cylinder (402) is connected to the slider (3); The first connecting pipe (405) is installed above the second processing box (404) and is connected to the working box (5) via a connector.

4. The photovoltaic power generation and water electrolysis hydrogen production device based on container configuration according to claim 3, characterized in that: The first processing unit (6) further includes: A third connecting pipe (603) is installed outside the first processing box (403), and the end of the third connecting pipe (603) away from the first processing box (403) is connected to the second processing box (404); A spring (604) and a filter plate (605) connected to the spring (604) are disposed inside the first processing box (403). A connecting rod (607) is mounted on the filter plate (605) and a first magnetic plate (608) is connected to the connecting rod (607).

5. The photovoltaic power generation and water electrolysis hydrogen production device based on container configuration according to claim 4, characterized in that: The first processing unit (6) further includes: A limiting plate (609) is installed inside the first processing box (403), and the connecting rod (607) is slidably connected to the inside of the limiting plate (609); A first groove (610) is formed inside the body (1) and a first telescopic rod (611) is installed inside the first groove (610). The second magnetic plate (612) is disposed on the telescopic end of the first telescopic rod (611).

6. The photovoltaic power generation and water electrolysis hydrogen production device based on container configuration according to claim 5, characterized in that: The first processing unit (6) further includes: The collection box (606) is located below the first processing box (403) and the base plate (614) is installed inside the collection box (606). A movable plate (613) is slidably connected inside the connecting box, and the movable plate (613) is connected to the second magnetic plate (612).

7. The photovoltaic power generation and water electrolysis hydrogen production device based on container configuration according to claim 6, characterized in that: The first processing unit (6) further includes: Connector (615) installed inside filter plate (605); A circular plate (617) is disposed at the end of the connector (615) away from the filter plate (605), the circular plate (617) being adapted to the sleeve (602).

8. The photovoltaic power generation and water electrolysis hydrogen production device based on container configuration according to claim 7, characterized in that: The first processing unit (6) further includes: The second telescopic rod (618) and the connecting ball (619) connected to the telescopic end of the second telescopic rod (618) are provided on the circular plate (617). A fixed frame (616) is installed inside the first processing box (403), the fixed frame (616) is adapted to the circular plate (617), and the second telescopic rod (618) passes through the interior of the fixed frame (616).

9. The photovoltaic power generation and water electrolysis hydrogen production device based on container configuration according to claim 2, characterized in that: The second processing unit (7) includes: Push rod (701) installed inside the second processing box (404); A partition (702) is provided on the telescopic end of the push rod (701), and the partition (702) is connected to the connector (615); A constriction tube (703) installed on the outside of the connector (615) and a second groove (704) opened at the bottom of the constriction tube (703).

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