Efficient hydrogen production and air separation integrated equipment

Abstract

The invention relates to the technical field of hydrogen preparation, and discloses efficient hydrogen production and air separation integrated equipment which comprises a liquid storage assembly used for storing electrolyte and a gas storage assembly, an electrolysis module used for electrolyzing the electrolyte is arranged in the liquid storage assembly, and a stirring assembly used for fully stirring the electrolyte is arranged in the liquid storage assembly. A jacking mechanism used for containing the gas storage assembly and driving the gas storage assembly to ascend and descend is arranged on one side of the liquid storage assembly, abrasion is effectively reduced through the magnetic coupling transmission assembly, equipment operation is more stable, hydrogen is conveyed to the gas storage assembly through the hydrogen conveying mechanism to be stored, the hydrogen is further purified through the air separation filtering assembly, oxygen and nitrogen are removed, and therefore the hydrogen purification efficiency is improved. The high purity of hydrogen is ensured, the operation flexibility and stability of the equipment are improved through the jacking mechanism and the supporting assembly, the hydrogen production efficiency and safety are effectively improved through the design of the equipment, meanwhile, the maintenance cost of the equipment is reduced, and the adaptability of the equipment in small and medium-sized application scenes is enhanced.

Description

TECHNICAL FIELD

[0001] The application relates to the technical field of hydrogen production, in particular to a high-efficiency hydrogen production and air separation integrated device. BACKGROUND

[0002] The hydrogen production and air separation device is an industrial device for extracting hydrogen from air, mainly through air separation technology to separate oxygen, nitrogen and rare gases in air, and then obtain hydrogen through a specific reaction process. Common hydrogen production methods include steam reforming, partial oxidation, etc. The air separation device usually combines the technologies of gas separation and hydrogen production.

[0003] The traditional hydrogen production and air separation device has many limitations in the prior art. First, the device is large in size and heavy in weight, especially in occasions requiring flexible deployment and handling, which is difficult to meet the requirements. In addition, these devices usually rely on complex cooling and compression systems to separate hydrogen, oxygen and nitrogen in air. This technical requirement leads to complex device design, increases the overall size and weight, and limits its application in small and medium-sized demand scenarios. For some application scenarios that require rapid response or limited space, the size and weight of the device are often the biggest obstacle. Therefore, we propose a high-efficiency hydrogen production and air separation integrated device. SUMMARY

[0004] The purpose of the present application is to provide a high-efficiency hydrogen production and air separation integrated device to solve the problems raised in the background art.

[0005] To achieve the above purpose, the present application provides the following technical scheme: a high-efficiency hydrogen production and air separation integrated device, comprising a liquid storage assembly for storing electrolyte and a gas storage assembly, the liquid storage assembly is internally provided with an electrolysis module for electrolyzing the electrolyte, the liquid storage assembly is internally provided with a stirring assembly for fully stirring the electrolyte, one side of the liquid storage assembly is provided with a jacking mechanism for placing and driving the gas storage assembly to lift, the jacking mechanism is externally provided with a support assembly for supporting the jacking mechanism, the side away from the support assembly is provided with an air separation and filtration assembly for filtering nitrogen and oxygen contained in the hydrogen after electrolysis, the lower end of the liquid storage assembly is provided with a hydrogen transmission mechanism for transmitting hydrogen to the inside of the gas storage assembly, the inside of the liquid storage assembly is provided with a magnetic coupling transmission assembly at the lower center for sealing transmission, the hydrogen transmission mechanism drives the magnetic coupling transmission assembly to operate when in operation, and the magnetic coupling transmission assembly drives the stirring assembly to rotate when in operation.

[0006] Preferably, the liquid storage assembly comprises a plurality of first support columns, the upper ends of the plurality of first support columns are fixedly connected with a first bottom plate, and the upper end of the first bottom plate is provided with a first top plate, the inner center edge of the upper part of the first bottom plate and the inner center edge of the lower part of the first top plate are both provided with a first sealing groove, the inner center upper part of the first sealing groove at the upper part and the inner center lower part of the first sealing groove at the lower part are both fixedly sleeved with a first main sealing ring, the inner center of the four opposite corners of the first bottom plate is fixedly embedded with a first locking nut, the inner center of the four opposite corners of the first top plate is rotatably sleeved with a first locking bolt, and the four first locking bolts are respectively threadedly sleeved in the four first locking bolts.

[0007] Preferably, the electrolysis module comprises two longitudinally vertically arranged anti-skid rings, the inner part of the two anti-skid rings is fixedly sleeved with an insulating ring, the inner center edge of the upper part of the two insulating rings is annularly arranged and fixedly sleeved with a plurality of anode graphite carbon rods, the inner center edge of the lower part of the insulating ring is annularly arranged and fixedly sleeved with a plurality of cathode graphite carbon rods, the upper end of the plurality of anode graphite carbon rods is series-welded with an anode conductive wire, the lower end of the plurality of cathode graphite carbon rods is series-welded with a cathode conductive wire, the outer side of the plurality of anode graphite carbon rods is sleeved in the inner part of the lower part of the insulating ring, and the plurality of anode graphite carbon rods and the plurality of cathode graphite carbon rods are cross-annularly arranged.

[0008] Preferably, the stirring assembly comprises a lower support pipeline, the outer center of the upper part of the lower support pipeline is fixedly sleeved with a sealing bearing, the outer ring of the sealing bearing is fixedly sleeved with a gas suction pipeline, the outer side of the gas suction pipeline is longitudinally equidistantly annularly arranged and fixedly connected with a plurality of stirring blades, the gas suction pipeline is fixedly connected with an inverted conical air inlet funnel at the air inlet end of the upper part, the upper end of the inverted conical air inlet funnel is bonded with a super-hydrophobic mesh fabric through an adhesive process, and the outer side of the lower part of the gas suction pipeline is fixedly sleeved with a first transmission gear.

[0009] Preferably, the magnetic coupling transmission assembly comprises an upper support frame, a lower support frame and an outer sealing tube, the lower end of the outer sealing tube is fixedly connected with a sealing ring, the inner wall of the sealing ring is fixedly sleeved with an inner sealing tube, the top end of the inner sealing tube is fixedly connected with a sealing cover, the inside center of the lower support frame is rotatably sleeved with a lower transmission rod through a bearing, the top end of the lower transmission rod is fixedly connected with a driving coupling rod, the driving coupling rod is rotatably sleeved in the inner sealing tube, a plurality of driving permanent magnets are fixedly embedded in the outer side of the driving coupling rod in an annular arrangement, the inside center of the upper support frame is rotatably sleeved with an upper transmission rod through a bearing, the lower end of the upper transmission rod is fixedly connected with a cover, the lower end of the cover is fixedly connected with a transmission coupling sleeve, and the transmission coupling sleeve is rotatably sleeved in the inner sealing tube and the outer sealing tube, a plurality of transmission permanent magnets are fixedly embedded in the inner side of the transmission coupling sleeve in an annular arrangement, and the upper side of the outer side of the upper transmission rod is fixedly sleeved with a second transmission gear.

[0010] Preferably, the hydrogen transmission mechanism comprises a first support vertical plate, two second support vertical plates, a driving shaft, a third support vertical plate and two butt joints, the lower center between the two second support vertical plates is fixedly connected with a support beam, the lower end of each of the two butt joints is fixedly connected with a crankshaft, and the inside of the two crankshafts is rotatably sleeved with a connecting rod through a bearing, the end away from the crankshaft of each of the two connecting rods is rotatably sleeved with a piston head, the inside center of the third support vertical plate is fixedly sleeved with a sealing cylinder sleeve at both ends, the two piston heads are respectively slidably sleeved in the two sealing cylinder sleeves, a first air inlet one-way valve and a first air outlet one-way valve are fixedly sleeved in the inside of each of the two sealing cylinder sleeves, three synchronous gears are arranged in a horizontal arrangement at the lower end of the two crankshafts, the synchronous gear fixedly sleeved on the outside center of the driving shaft is at the lower center, the two synchronous gears fixedly connected to the lower end of the two crankshafts are at both sides, the synchronous gear at the lower center and the two synchronous gears at both sides are in gear meshing transmission, a worm gear is fixedly sleeved on the lower side of the outside of the driving shaft, a rotating shaft is rotatably sleeved in the inside center of the first support vertical plate and the support beam through a bearing, and a worm is sleeved on the outside of the rotating shaft, the worm and the worm gear are in helical tooth engagement transmission, a first three-way explosion-proof steel pipe is arranged at the lower end of the third support vertical plate, the two ports of the first three-way explosion-proof steel pipe at one side are respectively fixedly sleeved on the air inlet ends of the two first air inlet one-way valves, a motor is fixedly connected to one end of the rotating shaft on one side of the support beam, and the rotating end of the motor is fixedly connected to one end of the rotating shaft.

[0011] Preferably, the air separation filter assembly comprises a second bottom plate, the lower side of the second bottom plate is fixedly connected with a second support column at both ends, the inner part of the second bottom plate is fixedly embedded with a second locking nut at four opposite corners, the upper end of the second bottom plate is provided with a second top plate, the inner part of the second top plate is rotatably sleeved with a second locking bolt at four opposite corners, the outer side of the four second locking bolts is threadedly sleeved in the inner part of the four second locking nuts respectively, the inner part of the second top plate is provided with a second sealing groove at the lower center and the upper center of the second bottom plate, the inner part of the two second sealing grooves at the lower center and the upper center of the two second sealing grooves is fixedly sleeved with a second main sealing ring, two air separation tanks are arranged between the second bottom plate and the second top plate, the upper and lower ends of the two air separation tanks are fixedly connected with a second auxiliary sealing ring, the upper and lower ends of the two air separation tanks are sleeved in the four second sealing grooves respectively, the inner part of the second bottom plate is fixedly sleeved with a second air inlet one-way valve and a third air outlet one-way valve at the lower center of both ends, the air inlet end of the second air inlet one-way valve is fixedly connected with an anti-explosion steel pipe, the air inlet end of the anti-explosion steel pipe is fixedly sleeved with a second air outlet one-way valve, the air inlet end of the second air outlet one-way valve is fixedly sleeved in the inner part of the first bottom plate, the inner part of the second top plate is fixedly sleeved with a fourth air outlet one-way valve and a third air inlet one-way valve at the upper center of both ends, the air outlet end of the fourth air outlet one-way valve is fixedly connected with a gas transmission pipeline, and the air outlet end of the gas transmission pipeline is fixedly connected with the air inlet end of the third air inlet one-way valve.

[0012] Preferably, the support assembly comprises a third bottom plate, the lower side of the third bottom plate is fixedly connected with a third support column at both ends, the upper end of the third bottom plate is fixedly connected with a column at four opposite corners, the outer side of the third bottom plate is fixedly sleeved with a third top plate at the upper center, the inner part of the third bottom plate and the third top plate is fixedly sleeved with a second three-way anti-explosion steel pipe at one side, the lower end of the third top plate is fixedly connected with a plurality of support pieces in annular arrangement, a positioning ring is fixedly connected between the plurality of support pieces, a pressurized inflation valve core is fixedly sleeved in the inner part of the positioning ring, and the air outlet end of the second three-way anti-explosion steel pipe at the upper center is fixedly sleeved with the air inlet end of the pressurized inflation valve core.

[0013] Preferably, the lifting mechanism includes a lower base plate, with guide sleeves fixedly connected to the four diagonal corners of the upper end of the lower base plate. Guide rails are fixedly connected to the center of one side of the upper part of each guide sleeve near both ends. An electric push rod is fixedly connected to the upper end of the lower base plate away from the two guide rails. Guide slide rails are slidably sleeved on the upper outer sides of the two guide rails. Push blocks are fixedly connected to the upper ends of the two guide slide rails. The telescopic end of the electric push rod is fixedly connected to the center of one end of the push block. Pulleys are rotatably connected to both sides of the push block. Guide rods are slidably sleeved longitudinally inside each of the four guide sleeves, and an upper base plate is fixedly connected to the upper ends of the four guide rods. A lower connecting block is fixedly connected to the center of the lower end of the upper base plate.

[0014] Preferably, side plates are fixedly connected to both sides of the lower connecting block that are far apart from each other. An oblique groove is opened through the lower center of each of the two side plates. The two pulleys are slidably sleeved inside the two oblique grooves. A base support is fixedly connected to the upper center of the upper base plate. The gas storage assembly includes a gas storage tank. A gas filling and discharging valve core is fixedly sleeved at the upper end of the gas storage tank. A pressure valve is fixedly connected to one side of the gas filling and discharging valve core.

[0015] Compared with the prior art, the beneficial effects of the present invention are: This high-efficiency hydrogen production and air separation integrated equipment combines multiple optimized components, such as a liquid storage module, an electrolysis module, a stirring module, a magnetic coupling drive module, a hydrogen transfer mechanism, an air separation filter module, a support module, a lifting mechanism, and a gas storage module, forming a compact and stable hydrogen production and storage system. The liquid storage module electrolyzes hydrogen through an electrolyte, while the stirring module ensures the uniformity of the electrolyte, improving electrolysis efficiency. The magnetic coupling drive module effectively reduces wear and makes the equipment more stable in operation. Hydrogen is transported to the gas storage module for storage through the hydrogen transfer mechanism, while the air separation filter module further purifies the hydrogen, removing oxygen and nitrogen to ensure high purity. The lifting mechanism and support module improve the operational flexibility and stability of the equipment. The design of this equipment effectively improves the efficiency and safety of hydrogen production, while reducing equipment maintenance costs and enhancing its adaptability in small and medium-sized application scenarios. Attached Figure Description

[0016] Figure 1 A three-dimensional structural diagram of a high-efficiency integrated hydrogen production and air separation device; Figure 2 A three-dimensional structural diagram of a high-efficiency hydrogen production and air separation integrated device from another perspective; Figure 3 A three-dimensional structural diagram of a magnetic coupling transmission component for a high-efficiency integrated hydrogen production and air separation device; Figure 4 A three-dimensional disassembled structural diagram of a high-efficiency integrated hydrogen production and air separation device; Figure 5 A three-dimensional disassembled structural diagram of a high-efficiency integrated hydrogen production and air separation device from another perspective; Figure 6 A three-dimensional disassembled structural diagram of the liquid storage component of a high-efficiency hydrogen production air separation integrated device; Figure 7 A three-dimensional structural diagram of a positioning boss in a high-efficiency hydrogen production air separation integrated device; Figure 8 A three-dimensional disassembled structural diagram of an electrolysis module in a high-efficiency integrated hydrogen production air separation device; Figure 9 A three-dimensional disassembled structural diagram of the stirring component of a high-efficiency integrated hydrogen production air separation device; Figure 10 A three-dimensional disassembled structural diagram of a magnetic coupling transmission component for a high-efficiency integrated hydrogen production and air separation device; Figure 11 A three-dimensional structural diagram of a sealing cover for a high-efficiency integrated hydrogen production air separation device; Figure 12 A three-dimensional structural diagram of a drive permanent magnet in a high-efficiency integrated hydrogen production and air separation device; Figure 13 A three-dimensional disassembled structural diagram of the hydrogen transmission mechanism in a high-efficiency integrated hydrogen production and air separation device; Figure 14 A three-dimensional disassembled structural diagram of the air separation filter component of a high-efficiency integrated hydrogen production air separation device; Figure 15 A three-dimensional disassembled structural diagram of a support component for a high-efficiency integrated hydrogen production air separation device; Figure 16 This is a three-dimensional disassembled structural diagram of the lifting mechanism of a high-efficiency integrated hydrogen production and air separation equipment.

[0017] Legend In the diagram: 1. Liquid storage assembly; 101. First support column; 102. First base plate; 103. First top plate; 104. First sealing groove; 105. First main sealing ring; 106. First locking nut; 107. First locking bolt; 108. Explosion-proof glass jar; 109. First auxiliary sealing ring; 1010. Control panel; 1011. Liquid supply pump; 1012. Infusion pipe; 1013. Laser liquid level sensor; 1014. Positioning boss; 2. Electrolysis module; 201. Anti-slip ring; 202. Insulating ring; 203. Anode graphite carbon rod; 204. Cathode graphite carbon rod; 205. Anode conductive wire; 206. Cathode conductive wire; 3. Stirring assembly; 301. Lower support pipe; 302. Sealed bearing; 303. 304. Exhaust pipe; 305. Stirring blade; 306. Inverted conical air inlet funnel; 307. Superhydrophobic mesh fabric; 308. First transmission gear; 4. Magnetic coupling transmission assembly; 401. Upper support frame; 402. Lower support frame; 403. Outer sealing tube; 404. Sealing ring; 405. Inner sealing tube; 406. Sealing cover; 407. Lower transmission rod; 408. Drive coupling rod; 409. Drive permanent magnet; 4010. Upper transmission rod; 4011. Baffle; 4012. Transmission coupling sleeve; 4013. Transmission permanent magnet; 4014. Second transmission gear; 5. Hydrogen transmission mechanism; 501. First support plate; 502. Second support plate; 503. Drive shaft; 504. Third support plate; 505. Docking seat 506. Crankshaft; 507. Connecting rod; 508. Piston head; 509. Sealed cylinder liner; 5010. First intake check valve; 5011. First exhaust check valve; 5012. Synchronous gear; 5013. Worm gear; 5014. Shaft; 5015. Worm; 5016. First tee explosion-proof steel pipe; 5017. Support beam; 5018. Motor; 6. Air separation filter assembly; 601. Second support column; 602. Second base plate; 603. Second locking nut; 604. Second top plate; 605. Second locking bolt; 606. Second sealing groove; 607. Second main sealing ring; 608. Air separation tank; 609. Second auxiliary sealing ring; 6010. Second intake check valve; 6011. Explosion-proof steel pipe; 601 2. Second exhaust check valve; 6013. Third exhaust check valve; 6014. Fourth exhaust check valve; 6015. Gas transmission pipeline; 6016. Third intake check valve; 7. Support assembly; 701. Third support column; 702. Third base plate; 703. Third top plate; 704. Column; 705. Second tee explosion-proof steel pipe; 706. Support plate; 707. Positioning ring; 708. Press-to-charge valve core; 8. Lifting mechanism; 801. Lower base plate; 802. Guide sleeve; 803. Guide rail; 804. Electric push rod; 805. Guide slide rail; 806. Push block; 807. Pulley; 808. Guide rod; 809. Upper base plate; 8010. Lower connecting block; 8011. Side plate; 8012. Inclined slot;8013, base; 9, gas storage assembly; 901, gas tank; 902, inflation / deflation valve core; 903, pressure valve. Detailed Implementation

[0018] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0019] Please see Figure 1 - Figure 5 As shown, the present invention provides a technical solution: a high-efficiency hydrogen production and air separation integrated device, including a liquid storage component 1 for storing electrolyte and a gas storage component 9. The liquid storage component 1 is equipped with an electrolysis module 2 for electrolyzing the electrolyte and a stirring component 3 for fully stirring the electrolyte. A lifting mechanism 8 is provided on one side of the liquid storage component 1 for placing the gas storage component 9 and driving the gas storage component 9 to rise and fall. A support component 7 is provided outside the lifting mechanism 8 for supporting the lifting mechanism 8. An air separation filter component 6 is provided on the side away from the support component 7 for filtering nitrogen and oxygen contained in the hydrogen after electrolysis. A hydrogen transmission mechanism 5 is provided at the lower end of the liquid storage component 1 for transporting hydrogen to the interior of the gas storage component 9. A magnetic coupling transmission component 4 for sealing transmission is provided at the lower center of the interior of the liquid storage component 1. When the hydrogen transmission mechanism 5 is running, it drives the magnetic coupling transmission component 4 to run, and the magnetic coupling transmission component 4 drives the stirring component 3 to rotate.

[0020] Furthermore, this high-efficiency hydrogen production and air separation integrated equipment combines multiple optimized components, such as a liquid storage component 1, an electrolysis module 2, a stirring component 3, a magnetic coupling transmission component 4, a hydrogen transmission mechanism 5, an air separation filtration component 6, a support component 7, a lifting mechanism 8, and a gas storage component 9, forming a compact and stable hydrogen production and storage system. The liquid storage component 1 electrolyzes hydrogen through an electrolyte, while the stirring component 3 ensures the uniformity of the electrolyte, improving electrolysis efficiency. The magnetic coupling transmission component 4 effectively reduces wear and makes the equipment operation more stable. Hydrogen is transported to the gas storage component 9 for storage through the hydrogen transmission mechanism 5, while the air separation filtration component 6 further purifies the hydrogen, removing oxygen and nitrogen to ensure high purity. The lifting mechanism 8 and the support component 7 improve the operational flexibility and stability of the equipment. The design of this equipment effectively improves the efficiency and safety of hydrogen production, while reducing equipment maintenance costs and enhancing its adaptability in small and medium-sized application scenarios.

[0021] In the preferred embodiment of this technical solution, please refer to Figure 6 andFigure 7 As shown, the liquid storage assembly 1 includes several first support columns 101, with a first base plate 102 fixedly connected to the upper end of each first support column 101. A first top plate 103 is provided on the upper end of the first base plate 102. First sealing grooves 104 are formed at the upper part of the inner center edge of the first base plate 102 and at the lower part of the inner center edge of the first top plate 103. First main sealing rings 105 are fixedly fitted at the upper and lower parts of the inner center of the first sealing grooves 104. Four first locking nuts 106 are fixedly embedded at each of the four diagonal points. Four first locking bolts 107 are rotatably sleeved at the center of the first top plate 103 near each of the four diagonal points. The four first locking bolts 107 are threaded into the four first locking nuts 106. The four first locking bolts 107 and the four first locking nuts 106 are detachably assembled. An explosion-proof glass jar 108 is disposed between the first bottom plate 102 and the first top plate 103. First sealing rings 109 are fixedly connected to both the upper and lower ends of the explosion-proof glass jar 108. The upper and lower ends of the tank 108 are respectively fitted inside the two first sealing grooves 104 near their edges. The upper end of the first main sealing ring 105 at the upper end abuts against the lower end of the first sealing groove 104 at the upper end, and the lower end of the first main sealing ring 105 at the lower end abuts against the upper end of the first sealing groove 104 at the lower end. The explosion-proof glass tank 108 is detachably connected to the first bottom plate 102 and the first top plate 103. A control panel 1010 is fixedly fitted inside the upper center of the first top plate 103. The upper end of the first top plate 103 is fixed near one of its corners. A liquid supply pump 1011 is fixedly connected, and the liquid supply pump 1011 is connected to the control panel 1010 for communication. The outlet end of the liquid supply pump 1011 is fixedly connected to a delivery pipe 1012, which passes through the first top plate 103 and leads to the interior of the explosion-proof glass tank 108. A laser liquid level sensor 1013 is fixedly connected to one side of the lower center of the first top plate 103 for communication. The laser liquid level sensor 1013 is connected to the control panel 1010 for communication. A first sealing groove 104 is fixedly connected to both ends of one side of the lower center of the first bottom plate 102.

[0022] Furthermore, the liquid storage component 1 is one of the core components of this equipment, mainly responsible for storing electrolyte and providing the liquid environment required for electrolysis. The internal electrolysis module 2 uses current to electrolyze the electrolyte to generate hydrogen. The liquid storage component 1 is also equipped with a stirring component 3 to fully stir the electrolyte, ensuring its uniformity and improving electrolysis efficiency. The magnetic coupling transmission component 4 drives the stirring component 3 to rotate during operation, avoiding electrolyte sedimentation and unevenness. In addition, the gas storage component 9 is raised and lowered on one side of the liquid storage component 1 through the lifting mechanism 8, further providing hydrogen storage space and enabling flexible equipment operation. Through the magnetic coupling transmission component 4, this structure can achieve contactless and efficient transmission, effectively reducing wear and maintenance requirements.

[0023] In the preferred embodiment of this technical solution, please refer to Figure 8 As shown, the electrolysis module 2 includes two vertically arranged anti-slip rings 201. The two anti-slip rings 201 are fixedly fitted inside the explosion-proof glass jar 108, and the two anti-slip rings 201 are detachably connected to the explosion-proof glass jar 108. An insulating ring 202 is fixedly fitted inside the two anti-slip rings 201. Several anode graphite carbon rods 203 are fixedly arranged in a ring near the edge of the inner center of the upper two insulating rings 202, and several cathode graphite carbon rods 203 are fixedly arranged in a ring near the edge of the inner center of the lower insulating ring 202. The anode graphite carbon rod 204 and several anode graphite carbon rods 203 are connected in series with anode conductive wires 205 at their upper ends. Several cathode graphite carbon rods 204 are connected in series with cathode conductive wires 206 at their lower ends. The outer side of several anode graphite carbon rods 203 is fitted inside the lower insulating ring 202. The several anode graphite carbon rods 203 and several cathode graphite carbon rods 204 are arranged in a cross ring. One end of the anode conductive wires 205 and cathode conductive wires 206 passes through the first top plate 103 and is connected to the control panel 1010 for communication.

[0024] Furthermore, the electrolysis module 2 includes an anode graphite carbon rod 203 and a cathode graphite carbon rod 204, which are housed within an insulating ring 202 and undergo electrolysis via current. During electrolysis, the chemical reactions at the anode and cathode cause the electrolyte to decompose, releasing hydrogen (H2) and oxygen (O2). The cross-ring arrangement of the anode and cathode graphite carbon rods 204 helps improve the efficiency of the electrolysis reaction and ensures the uniformity of the electrolyte. The anode conductive wire 205 and the cathode conductive wire 206 provide current supply, enabling the electrolysis module 2 to operate continuously and efficiently. The design of this module optimizes the electrolysis process, significantly improves hydrogen production efficiency, and reduces energy loss.

[0025] In the preferred embodiment of this technical solution, please refer to Figure 9 As shown, the stirring assembly 3 includes a lower support pipe 301, which is fixedly sleeved at the center of the first base plate 102. A sealed bearing 302 is fixedly sleeved at the upper part of the outer center of the lower support pipe 301. An exhaust pipe 303 is fixedly sleeved on the outer ring of the sealed bearing 302. Multiple stirring blades 304 are fixedly connected in a longitudinally equidistant annular arrangement on the outer side of the exhaust pipe 303. An inverted conical air inlet funnel 305 is fixedly connected to the upper air inlet end of the exhaust pipe 303. A superhydrophobic mesh fabric 306 is glued to the upper end of the inverted conical air inlet funnel 305 by an adhesive process. A first transmission gear 307 is fixedly sleeved at the lower part of the outer side of the exhaust pipe 303.

[0026] Furthermore, the stirring assembly 3 is fixedly connected to the liquid storage assembly 1 via the lower support pipe 301. Through the multiple stirring blades 304 on the outside of the exhaust pipe 303, the electrolyte can be fully stirred to ensure uniform temperature and concentration distribution of the electrolyte and improve electrolysis efficiency. The exhaust pipe 303 is equipped with an inverted conical air inlet funnel 305 to enhance the airflow intake effect and improve stirring efficiency. The sealed bearing 302 ensures the stability and sealing of the stirring assembly 3 during operation and avoids leakage. This design not only improves the fluidity of the electrolyte but also reduces the accumulation of impurities in the electrolyte and optimizes the quality and efficiency of hydrogen production.

[0027] In the preferred embodiment of this technical solution, please refer to Figure 10 - Figure 12 As shown, the magnetic coupling transmission assembly 4 includes an upper support frame 401, a lower support frame 402, and an outer sealing tube 403. The upper support frame 401 is fixedly connected to one side of the upper center of the first base plate 102. The lower support frame 402 is fixedly connected to the side of the lower center of the first base plate 102 near the upper support frame 401. The outer sealing tube 403 is fixedly sleeved inside the first base plate 102 near the side of the lower support frame 402. A sealing ring 404 is fixedly connected to the lower end of the outer sealing tube 403. An inner sealing tube 405 is fixedly sleeved on the inner wall of the sealing ring 404. A sealing cap 406 is fixedly connected to the top end of the inner sealing tube 405. A lower transmission rod 407 is rotatably sleeved at the center of the lower support frame 402 via a bearing. A drive coupling rod 408 is fixedly connected to the top end of the lower transmission rod 407. The driving coupling rod 408 is rotatably sleeved inside the inner sealing tube 405. Multiple driving permanent magnets 409 are fixedly embedded in a ring on the outer side of the driving coupling rod 408. The upper transmission rod 4010 is rotatably sleeved at the center of the upper support frame 401 through a bearing. A cover 4011 is fixedly connected to the lower end of the upper transmission rod 4010. A transmission coupling sleeve 4012 is fixedly connected to the lower end of the cover 4011. The transmission coupling sleeve 4012 is rotatably sleeved inside the outer sealing tube 403 outside the inner sealing tube 405. Multiple transmission permanent magnets 4013 are fixedly embedded in a ring inside the transmission coupling sleeve 4012. A second transmission gear 4014 is fixedly sleeved on the upper outer side of the upper transmission rod 4010. The second transmission gear 4014 and the first transmission gear 307 are engaged in gear meshing transmission.

[0028] Furthermore, the magnetic coupling transmission assembly 4 is composed of an upper support frame 401, a lower support frame 402, and an outer sealing pipe 403, which plays the role of transmitting power and driving the stirring assembly 3 to operate. The design of this assembly utilizes the driving coupling rod 408 and the driving permanent magnet 409 for transmission, avoiding mechanical contact and thus reducing equipment wear. By transmitting power through magnetic force, the exhaust pipe 303 in the stirring assembly 3 is driven to rotate, causing the stirring blade 304 to drive the electrolyte flow. Since there is no physical contact, maintenance costs are reduced, the service life of the equipment is improved, and the stability of operation is ensured.

[0029] In the preferred embodiment of this technical solution, please refer to Figure 13 As shown, the hydrogen transmission mechanism 5 includes a first support plate 501, two second support plates 502, a drive shaft 503, a third support plate 504, and two docking seats 505. The first support plate 501 is fixedly connected between two first support columns 101 on one side. The two second support plates 502 are fixedly connected to the lower part of the first base plate 102, away from the center of the first support plate 501, near both ends. The drive shaft 503 is fixedly connected to the lower end of the lower transmission rod 407. The third support plate 504 is fixedly connected to the lower end of the first base plate 102, away from the two second support plates 502. The two docking seats 505 are respectively rotatably sleeved by bearings. Inside the two positioning bosses 1014, a support beam 5017 is fixedly connected at the lower center between the two second support plates 502. Crankshafts 506 are fixedly connected to the lower ends of the two mating seats 505, and connecting rods 507 are rotatably connected to the inside of the two crankshafts 506 via bearings. Piston heads 508 are rotatably connected to the ends of the two connecting rods 507 away from the crankshafts 506. Sealing cylinder liners 509 are fixedly fitted at both ends of the center inside the third support plate 504. Two piston heads 508 are slidably fitted inside the two sealing cylinder liners 509. A first intake check valve 5010 and a second... A one-way valve 5011 is provided. Three synchronous gears 5012 are arranged laterally at the lower ends of the two crankshafts 506. The central synchronous gear 5012 is fixedly sleeved on the lower outer side of the drive shaft 503. Two synchronous gears 5012 on each side are fixedly connected to the lower ends of the two crankshafts 506. The diameter of the central synchronous gear 5012 is smaller than that of the two side synchronous gears. The central synchronous gear 5012 and the two side synchronous gears 5012 are connected by gear meshing. A worm gear 5013 is fixedly sleeved on the lower outer side of the drive shaft 503. The first support plate 501 and the support beam 5017 are located at their internal centers. A rotating shaft 5014 is rotatably connected to one side via a bearing, and a worm gear 5015 is fitted on the outside of the rotating shaft 5014. The worm gear 5015 and the worm wheel 5013 are connected by a helical gear transmission. A first three-way explosion-proof steel pipe 5016 is provided at the lower end of the third support plate 504. The two ports of the first three-way explosion-proof steel pipe 5016 on one side are respectively fixedly fitted on the air inlet ends of the two first air inlet one-way valves 5010. A motor 5018 is fixedly connected to one end of the support beam 5017 near the rotating shaft 5014. The rotating end of the motor 5018 is fixedly connected to one end of the rotating shaft 5014, and the motor 5018 is connected to the control panel 1010 for communication.

[0030] Furthermore, the hydrogen transmission mechanism 5 is connected to the magnetic coupling transmission assembly 4 via the drive shaft 503, driving hydrogen from the liquid storage assembly 1 in the electrolysis process to the gas storage assembly 9. The design of this mechanism includes a first support plate 501, a second support plate 502, a third support plate 504, and a crankshaft 506. The connecting rod 507 drives the piston head 508 to slide in the sealed cylinder liner 509, ensuring smooth hydrogen transmission. At the same time, the synchronous gear 5012 and worm gear 5015 inside the hydrogen transmission mechanism 5 cooperate with each other to ensure the stability and efficiency of the transmission. Through precise mechanical design, this mechanism effectively improves the reliability and efficiency of hydrogen transmission.

[0031] In the preferred embodiment of this technical solution, please refer to Figure 14As shown, the air separation filter assembly 6 includes a second base plate 602, which is assembled on one side of the first base plate 102. Second support columns 601 are fixedly connected to both ends of the lower side of the second base plate 602. Second locking nuts 603 are fixedly embedded at four opposite corners inside the second base plate 602. A second top plate 604 is provided at the upper end of the second base plate 602. Second locking bolts 605 are rotatably sleeved at four opposite corners inside the second top plate 604. The outer lower parts of the four second locking bolts 605 are threaded into the four second locking nuts 603, and the four second locking bolts 605 and the second top plate 604 are... The four second locking nuts 603 are detachably assembled. Second sealing grooves 606 are provided at the lower center of the second top plate 604 and the upper center of the second bottom plate 602. Second main sealing rings 607 are fixedly fitted onto the lower two and upper two second sealing grooves 606. Two air separation tanks 608 are disposed between the second bottom plate 602 and the second top plate 604. Second auxiliary sealing rings 609 are fixedly connected to the upper and lower ends of the two air separation tanks 608. The upper and lower ends of the two air separation tanks 608 are respectively fitted into the four second sealing grooves 606, with the upper two... The upper end of the second auxiliary sealing ring 609 abuts against the lower ends of the two upper main sealing rings 607, and the lower ends of the two lower auxiliary sealing rings 609 abut against the upper ends of the two lower main sealing rings 607. The two air separation tanks 608 are detachably connected to the second bottom plate 602 and the second top plate 604. The two air separation tanks 608 are respectively filled with carbon molecular sieve and zeolite molecular sieve. The lower ends of the center of the second bottom plate 602 are respectively fixedly fitted with a second inlet one-way valve 6010 and a third outlet one-way valve 6013. The inlet end of the second inlet one-way valve 6010 is fixedly connected to an explosion-proof steel pipe 6011. The inlet end of pipe 6011 is fixedly fitted with a second outlet check valve 6012. The inlet end of the second outlet check valve 6012 is fixedly fitted at the center inside the first base plate 102. The inlet end of the first three-way explosion-proof steel pipe 5016 is fixedly fitted on the outlet end of the third outlet check valve 6013. The upper ends of the center inside the second top plate 604 are respectively fixedly fitted with a fourth outlet check valve 6014 and a third inlet check valve 6016. The outlet end of the fourth outlet check valve 6014 is fixedly connected to a gas transmission pipe 6015. The outlet end of the gas transmission pipe 6015 is fixedly connected to the inlet end of the third inlet check valve 6016.

[0032] Furthermore, the air separation filter assembly 6 is mainly used to separate oxygen and nitrogen from the hydrogen produced by electrolysis, ensuring the purity of the stored hydrogen. The air separation filter assembly 6 separates gases through the air separation tank 608 equipped with carbon molecular sieves and zeolite molecular sieves. Hydrogen enters the air separation tank 608 through the second inlet check valve 6010. After the sieving process, the hydrogen is separated from oxygen and nitrogen. The filtered hydrogen enters the gas storage assembly 9 through the gas transmission pipeline 6015, ensuring that the purity of the stored hydrogen meets the standard requirements. This design enables the equipment to provide high-purity hydrogen efficiently and reliably, meeting the needs of industrial applications.

[0033] In the preferred embodiment of this technical solution, please refer to Figure 15 As shown, the support assembly 7 includes a third base plate 702, which is assembled and connected to the first base plate 102 on the side away from the second base plate 602. Third support columns 701 are fixedly connected to both ends of the lower side of the third base plate 702. Upright columns 704 are fixedly connected to the four diagonal points of the upper end of the third base plate 702. Third top plates 703 are fixedly fitted onto the upper outer sides of the four third base plates 702. Second explosion-proof tee fittings are fixedly fitted onto one side of the center of the third base plate 702 and the third top plate 703. The two air inlets of the second three-way explosion-proof steel pipe 705 are fixedly sleeved on the air outlets of the two first air outlet check valves 5011 respectively. Several support plates 706 are fixedly connected in a ring at the center of the lower end of the third top plate 703. Positioning rings 707 are fixedly connected between the support plates 706. Press-to-charge valve cores 708 are fixedly sleeved inside the positioning rings 707. The air outlet of the second three-way explosion-proof steel pipe 705 is fixedly sleeved on the air inlet of the press-to-charge valve core 708.

[0034] Furthermore, the support assembly 7 provides stable support for the liquid storage assembly 1 and other components, ensuring that the equipment is stable and does not shake during operation. The support assembly 7 firmly fixes the various parts of the equipment together through multiple third support columns 701 and support plates 706 to prevent vibration from affecting the normal operation of the equipment. In addition, the support assembly 7 also plays a role in supporting and protecting the complex internal mechanism of the equipment, ensuring the stability of the overall structure under long-term high-load operation and improving the overall reliability of the equipment.

[0035] In the preferred embodiment of this technical solution, please refer to Figure 16As shown, the lifting mechanism 8 includes a lower base plate 801, which is fixedly connected to the upper end of the third base plate 702. Guide sleeves 802 are fixedly connected to the four opposite corners of the upper end of the lower base plate 801. Guide rails 803 are fixedly connected to the center of one side of the upper part of each guide sleeve 802 near both ends. An electric push rod 804 is fixedly connected to the upper end of the lower base plate 801 away from the two guide rails 803. Guide slide rails 805 are slidably fitted onto the upper outer sides of the two guide rails 803. Push blocks 806 are fixedly connected to the upper ends of the two guide slide rails 805. The telescopic end of the electric push rod 804 is aligned with the center of one end of the push block 806. The push block 806 is fixedly connected to pulleys 807 on both sides. Guide rods 808 are slidably mounted inside the four guide sleeves 802. The upper base plate 809 is fixedly connected to the upper end of the four guide rods 808. The lower connecting block 8010 is fixedly connected to the center of the lower end of the upper base plate 809. Side plates 8011 are fixedly connected to the two sides of the lower connecting block 8010 that are far apart from each other. The oblique slots 8012 are opened through the lower center of the two side plates 8011. The two pulleys 807 are slidably mounted inside the two oblique slots 8012 respectively. The bottom support 8013 is fixedly connected to the center of the upper end of the upper base plate 809.

[0036] Furthermore, the lifting mechanism 8 drives the gas storage component 9 to rise and fall via the electric push rod 804, ensuring flexible operation of the equipment. The electric push rod 804, in conjunction with the guide rail 805 and pulley 807, enables the gas storage component 9 to rise and fall smoothly in the vertical direction, facilitating adjustment and maintenance by operators. Through the control of the electric push rod 804, the lifting mechanism 8 can achieve automatic lifting and falling without manual operation, reducing the risk and workload of manual operation. This mechanism improves the automation level of the equipment and enhances its adaptability under different working conditions.

[0037] In the preferred embodiment of this technical solution, please refer to Figure 16 As shown, the gas storage assembly 9 includes a gas storage tank 901, which is placed inside the base 8013. The gas storage tank 901 and the base 8013 are detachably connected. A filling and discharging valve core 902 is fixedly sleeved at the upper end of the gas storage tank 901, and a pressure valve 903 is fixedly connected to one side of the filling and discharging valve core 902.

[0038] Furthermore, the gas storage component 9 stores hydrogen through the gas storage tank 901 and ensures the safe and stable release of the gas. The gas storage tank 901, through the cooperation of the filling and discharging valve core 902 and the pressure valve 903, controls the entry and exit of hydrogen, ensuring the stable operation of the storage system. The gas storage component 9 works in conjunction with the lifting mechanism 8 to ensure the effective storage and rapid delivery of hydrogen. The design of this structure ensures the high efficiency of the equipment during uninterrupted operation and optimizes the storage and management of hydrogen, enabling hydrogen to be quickly obtained and used when needed.

[0039] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0040] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A high-efficiency hydrogen production air separation integrated device, comprising a liquid storage component (1) for storing electrolyte and a gas storage component (9), characterized in that: The liquid storage component (1) is equipped with an electrolysis module (2) for electrolyzing the electrolyte. The liquid storage component (1) is equipped with a stirring component (3) for fully stirring the electrolyte. A lifting mechanism (8) is provided on one side of the liquid storage component (1) for placing the gas storage component (9) and driving the gas storage component (9) to rise and fall. A support component (7) is provided on the outside of the lifting mechanism (8) for supporting the lifting mechanism (8). An air separation filter component (6) is provided on the side away from the support component (7) for filtering the nitrogen and oxygen contained in the hydrogen after electrolysis. A hydrogen transmission mechanism (5) is provided at the lower end of the liquid storage component (1) for transporting hydrogen to the gas storage component (9). A magnetic coupling transmission component (4) for sealing transmission is provided at the lower center of the liquid storage component (1). When the hydrogen transmission mechanism (5) is running, it drives the magnetic coupling transmission component (4) to run. When the magnetic coupling transmission component (4) is running, it drives the stirring component (3) to rotate.

2. The high-efficiency hydrogen production and air separation integrated equipment according to claim 1, characterized in that: The liquid storage assembly (1) includes several first support columns (101), with a first base plate (102) fixedly connected to the upper end of each first support column (101). A first top plate (103) is provided on the upper end of the first base plate (102). A first sealing groove (104) is provided at the upper part of the inner center edge of the first base plate (102) and at the lower part of the inner center edge of the first top plate (103). A first main sealing ring (105) is fixedly fitted at the upper part of the inner center edge of the first sealing groove (104) and at the lower part of the inner center edge of the first sealing groove (104). A first locking nut (106) is fixedly embedded at the four diagonal corners of the inner center of the first base plate (102). A first locking bolt (107) is rotatably fitted at the four diagonal corners of the inner center of the first top plate (103). The four first locking bolts (107) are respectively threaded into the four first locking bolts (107). An explosion-proof glass jar (108) is provided between (102) and the first top plate (103). The explosion-proof glass jar (108) is fixedly connected to the upper and lower ends of the first sealing ring (109). The center of the upper and lower ends of the explosion-proof glass jar (108) is respectively fitted inside the two first sealing grooves (104). The control panel (1010) is fixedly fitted inside the center of the first top plate (103) near the upper part. A liquid supply pump (1011) is fixedly connected to the upper end of the first top plate (103) near one of its corners. The outlet end of the liquid supply pump (1011) is fixedly connected to a liquid delivery pipe (1012). The liquid delivery pipe (1012) passes through the first top plate (103) and leads to the interior of the explosion-proof glass jar (108). A laser liquid level sensor (1013) is fixedly connected to the center of the lower end of the first top plate (103) near one side. The first sealing grooves (104) are fixedly connected to the center of the lower part of the first bottom plate (102) near both ends.

3. The high-efficiency hydrogen production and air separation integrated equipment according to claim 1, characterized in that: The electrolysis module (2) includes two vertically arranged anti-slip rings (201). An insulating ring (202) is fixedly fitted inside the two anti-slip rings (201). Several anode graphite carbon rods (203) are fixedly fitted in a ring at the center near the edge of the two insulating rings (202) at the upper part. Several cathode graphite carbon rods (204) are fixedly fitted in a ring at the center near the edge of the insulating ring (202) at the lower part. Anode conductive wires (205) are connected in series to the upper ends of several anode graphite carbon rods (203). Cathode conductive wires (206) are connected in series to the lower ends of several cathode graphite carbon rods (204). The outer side of several anode graphite carbon rods (203) is fitted inside the lower insulating ring (202). Several anode graphite carbon rods (203) and several cathode graphite carbon rods (204) are arranged in a cross-ring pattern.

4. The high-efficiency hydrogen production and air separation integrated equipment according to claim 1, characterized in that: The stirring assembly (3) includes a lower support pipe (301), a sealed bearing (302) is fixedly sleeved at the upper center of the outer side of the lower support pipe (301), an air extraction pipe (303) is fixedly sleeved on the outer ring of the sealed bearing (302), a plurality of stirring blades (304) are fixedly connected in a longitudinally equidistant annular arrangement on the outer side of the air extraction pipe (303), an inverted conical air inlet funnel (305) is fixedly connected at the upper air inlet end of the air extraction pipe (303), and a superhydrophobic mesh fabric (306) is glued to the upper end of the inverted conical air inlet funnel (305) by an adhesive process, and a first transmission gear (307) is fixedly sleeved at the lower outer side of the air extraction pipe (303).

5. The high-efficiency hydrogen production and air separation integrated equipment according to claim 1, characterized in that: The magnetic coupling transmission assembly (4) includes an upper support frame (401), a lower support frame (402), and an outer sealing tube (403). A sealing ring (404) is fixedly connected to the lower end of the outer sealing tube (403). An inner sealing tube (405) is fixedly sleeved on the inner wall of the sealing ring (404). A sealing cap (406) is fixedly connected to the top end of the inner sealing tube (405). A lower transmission rod (407) is rotatably sleeved at the center of the lower support frame (402) via a bearing. A driving coupling rod (408) is fixedly connected to the top end of the lower transmission rod (407). The driving coupling rod (408) is rotatably sleeved inside the inner sealing tube (405). Multiple driving permanent magnets (409) are fixedly embedded in a ring on the outer side. An upper transmission rod (4010) is rotatably sleeved at the center of the upper support frame (401) through a bearing. A cover (4011) is fixedly connected to the lower end of the upper transmission rod (4010). A transmission coupling sleeve (4012) is fixedly connected to the lower end of the cover (4011). The transmission coupling sleeve (4012) is rotatably sleeved inside the outer sealing tube (403) outside the inner sealing tube (405). Multiple transmission permanent magnets (4013) are fixedly embedded in a ring inside the transmission coupling sleeve (4012). A second transmission gear (4014) is fixedly sleeved on the upper side of the outer side of the upper transmission rod (4010).

6. The high-efficiency hydrogen production and air separation integrated equipment according to claim 1, characterized in that: The hydrogen transmission mechanism (5) includes a first support plate (501), two second support plates (502), a drive shaft (503), a third support plate (504), and two docking seats (505). A support beam (5017) is fixedly connected to the lower center of the two second support plates (502). A crankshaft (506) is fixedly connected to the lower end of each of the two docking seats (505), and a connecting rod (507) is rotatably sleeved inside the two crankshafts (506) through bearings. The ends of the two connecting rods (507) away from the crankshafts (506) are both A piston head (508) is rotatably sleeved. Sealing cylinder sleeves (509) are fixedly sleeved at both ends of the inner center of the third support plate (504). The two piston heads (508) are slidably sleeved inside the two sealing cylinder sleeves (509). A first intake check valve (5010) and a first exhaust check valve (5011) are fixedly sleeved on one side of each of the two sealing cylinder sleeves (509). Three synchronous gears (5012) are arranged laterally at the lower ends of the two crankshafts (506). The synchronous gears (5012) are fixedly sleeved on the drive shaft near the center. Two synchronous gears (5012) are fixedly connected to the lower ends of two crankshafts (506) at the lower center of the outer side of the shaft (503). The synchronous gear (5012) at the center and the two synchronous gears (5012) at the sides are engaged by gear meshing. A worm gear (5013) is fixedly sleeved at the lower outer side of the drive shaft (503). A rotating shaft (5014) is rotatably sleeved on one side of the center of the first support plate (501) and the support beam (5017) through a bearing. A worm gear is sleeved on the outer side of the rotating shaft (5014). 5015), the worm (5015) and the worm wheel (5013) are connected by a helical gear transmission. The lower end of the third support plate (504) is provided with a first three-way explosion-proof steel pipe (5016). The two ports of the first three-way explosion-proof steel pipe (5016) on one side are respectively fixedly sleeved on the air inlet end of the two first air inlet one-way valves (5010). A motor (5018) is fixedly connected to one end of the support beam (5017) near the rotating shaft (5014). The rotating end of the motor (5018) is fixedly connected to one end of the rotating shaft (5014).

7. The high-efficiency hydrogen production and air separation integrated equipment according to claim 1, characterized in that: The air separation filter assembly (6) includes a second base plate (602). Second support columns (601) are fixedly connected to both ends of the lower side of the second base plate (602). Second locking nuts (603) are fixedly embedded at four opposite corners inside the second base plate (602). A second top plate (604) is provided at the upper end of the second base plate (602). Second locking bolts (605) are rotatably fitted at four opposite corners inside the second top plate (604). The four second locking bolts (605) are located at the lower outer edges. The threaded connection is inside four second locking nuts (603). A second sealing groove (606) is provided at the lower center of the second top plate (604) and the upper center of the second bottom plate (602). A second main sealing ring (607) is fixedly fitted at the lower center of the two lower sealing grooves (606) and the upper center of the two upper sealing grooves (606). Two air separation tanks (608) are arranged between the second bottom plate (602) and the second top plate (604). (608) A second set of sealing rings (609) are fixedly connected to both the upper and lower ends. The upper and lower ends of the two air separation tanks (608) are respectively fitted inside the four second sealing grooves (606). A second inlet one-way valve (6010) and a third outlet one-way valve (6013) are respectively fixedly fitted at the lower ends of the center of the second bottom plate (602). An explosion-proof steel pipe (6011) is fixedly connected to the inlet end of the second inlet one-way valve (6010). The second outlet one-way valve is fixedly fitted to the inlet end of the explosion-proof steel pipe (6011). The valve (6012) has its inlet end fixedly sleeved at the center of the first base plate (102). The second top plate (604) has its inlet end fixedly sleeved at the upper ends of its inner center, with a fourth outlet check valve (6014) and a third inlet check valve (6016) respectively. The outlet end of the fourth outlet check valve (6014) is fixedly connected to a gas transmission pipe (6015), and the outlet end of the gas transmission pipe (6015) is fixedly connected to the inlet end of the third inlet check valve (6016).

8. The high-efficiency hydrogen production and air separation integrated equipment according to claim 1, characterized in that: The support assembly (7) includes a third base plate (702), with a third support column (701) fixedly connected to both ends of the lower side of the third base plate (702), and columns (704) fixedly connected to the four diagonal ends of the upper end of the third base plate (702). A third top plate (703) is fixedly fitted on the upper outer side of the four third base plates (702). A second three-way explosion-proof steel pipe (705) is fixedly fitted on one side of the inner center of the third base plate (702) and the third top plate (703). Several support pieces (706) are fixedly connected in a ring at the lower center of the third top plate (703). A positioning ring (707) is fixedly connected between the several support pieces (706). A press-to-charge valve core (708) is fixedly fitted inside the positioning ring (707). The air outlet end of the second three-way explosion-proof steel pipe (705) is fixedly fitted on the air inlet end of the press-to-charge valve core (708).

9. The high-efficiency hydrogen production and air separation integrated equipment according to claim 1, characterized in that: The lifting mechanism (8) includes a lower base plate (801). Guide sleeves (802) are fixedly connected to the four diagonal corners of the upper end of the lower base plate (801). Guide rails (803) are fixedly connected to the center of one side of the upper part of the guide sleeves (802) near both ends. An electric push rod (804) is fixedly connected to the upper end of the lower base plate (801) away from the two guide rails (803). Guide slide rails (805) are slidably sleeved on the upper outer side of the two guide rails (803). 805) A push block (806) is fixedly connected to the upper end. The telescopic end of the electric push rod (804) on one side is fixedly connected to the center of one end of the push block (806). Both sides of the push block (806) are rotatably connected to pulleys (807). The four guide sleeves (802) are longitudinally slidably fitted with guide rods (808). The upper ends of the four guide rods (808) are fixedly connected to an upper base plate (809). The lower end of the upper base plate (809) is fixedly connected to a lower connecting block (8010).

10. The high-efficiency hydrogen production and air separation integrated equipment according to claim 9, characterized in that: The lower connecting block (8010) has side plates (8011) fixedly connected to both sides that are far apart from each other. The two side plates (8011) have oblique slots (8012) through the lower center of the interior. The two pulleys (807) are respectively slidably sleeved inside the two oblique slots (8012). The upper base plate (809) has a base support (8013) fixedly connected to the upper center. The gas storage component (9) includes a gas storage tank (901). The gas storage tank (901) has a charging / discharging valve core (902) fixedly sleeved at the upper end of the tank opening. A pressure valve (903) is fixedly connected to one side of the charging / discharging valve core (902).

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