Zeolite rotating wheel adsorption separation device with extended function

Abstract

The invention discloses a zeolite rotating wheel adsorption separation device with an extended function, and relates to the technical field of waste gas treatment equipment. The invention provides a zeolite rotating wheel adsorption separation device with an expansion function, which comprises a rack and the like, the rack is clamped with paired expansion modules, the rack is fixedly connected with a desorption module, the rack is fixedly connected with a cooling module, the rack is fixedly connected with a double-shaft motor, the rack is rotatably connected with a zeolite rotating wheel, and the rack is rotatably connected with a first rotating shaft; the first rotating shaft is fixedly connected with rotating blades and a convex disc, the rack is fixedly connected with paired air cylinders, the rack is fixedly connected with a mounting plate frame, and the mounting plate frame is fixedly connected with one-way valves which are circumferentially distributed at equal intervals. Through the one-way valve, the air cylinder and other parts, the air pressure in the rack can be increased, so that the diffusion rate of gas molecules in zeolite pores is increased, the contact probability of volatile organic compounds and the zeolite surface is increased, the adsorption rate of the zeolite rotating wheel is increased, and the adsorption efficiency of the zeolite rotating wheel adsorption separation device is improved.

Description

Technical Field

[0001] The invention relates to the technical field of waste gas treatment equipment, and in particular to a zeolite rotor adsorption separation device with extended functions. Background Art

[0002] The zeolite wheel adsorption separation device is an environmentally friendly device that efficiently treats large air volumes and low concentrations of volatile organic compounds (VOCs). Its core is based on the adsorption-desorption cycle principle of zeolite molecular sieves. The zeolite molecular sieve has a porous crystal structure and can selectively adsorb different gas molecules through intermolecular forces. VOCs in the exhaust gas will be adsorbed by zeolite at room temperature, and high-temperature heating is required to release the adsorbed organic matter during desorption to achieve desorption and separation. The zeolite wheel is rotated to divide the zones (adsorption zone, desorption zone, cooling zone) so that after adsorption, large air volume exhaust gas only needs a small amount of high-temperature gas for desorption, thereby increasing the exhaust gas concentration several times and greatly reducing the energy consumption of subsequent treatment.

[0003] Since the zeolite rotor selectively adsorbs gas molecules mainly through intermolecular forces when in use, and the adsorption rate is mainly limited by the effective adsorption surface area of ​​the zeolite rotor, the zeolite rotor is usually designed to be honeycomb-shaped to increase the effective adsorption surface area, and the existing zeolite rotor adsorption separation devices are usually used under normal conditions. However, the air pressure under normal conditions is low, and the diffusion rate of gas molecules in the zeolite pores is slow, which makes the contact probability between the adsorbate (such as VOCs) and the zeolite surface low, resulting in a low overall adsorption efficiency of the zeolite rotor adsorption separation device.

[0004] Based on the above situation, the present invention proposes a zeolite rotor adsorption separation device with high adsorption efficiency and extended function. Summary of the invention

[0005] In order to overcome the disadvantage that the existing zeolite rotor adsorption separation device is usually used under normal environment, but the air pressure is low under normal environment, the diffusion rate of gas molecules in the zeolite pores is slow, which makes the contact probability between the adsorbate (such as VOCs) and the zeolite surface low, thus resulting in low overall adsorption efficiency of the zeolite rotor adsorption separation device, the present invention provides a zeolite rotor adsorption separation device with high adsorption efficiency and extended function.

[0006] A zeolite rotor adsorption and separation device with an expansion function comprises a frame, an expansion module, a desorption module, a cooling module, a dual-shaft motor, a zeolite rotor, a rotor blade, a first rotating shaft, a convex disc, an air cylinder, a suction pipe, a discharge pipe, a mounting plate frame and a one-way valve, wherein the frame is clamped with a pair of expansion modules, the frame is fixedly connected with a desorption module, the frame is fixedly connected with a cooling module, the frame is fixedly connected with a dual-shaft motor, the frame is rotatably connected with a zeolite rotor, the zeolite rotor is fixedly connected to an output end of one side of the dual-shaft motor, the frame is rotatably connected with a first rotating shaft, the first rotating shaft is fixedly connected with a rotor blade, the first rotating shaft is fixedly connected with a convex disc, the frame is fixedly connected with a pair of air cylinders, the piston rod of the air cylinder is slidably connected with the convex disc, the air cylinder is fixedly connected and communicated with an suction pipe between the air inlet of the frame, the air cylinder is fixedly connected and communicated with a discharge pipe between the air cylinder and the middle part of the frame, the frame is fixedly connected with a mounting plate frame, the mounting plate frame is rotatably connected with the first rotating shaft, and the mounting plate frame is fixedly connected with circumferentially equidistantly distributed one-way valves.

[0007] Preferably, the convex disc is oval in shape.

[0008] Preferably, both the suction pipe and the discharge pipe are fixedly connected with a check valve.

[0009] Preferably, an increasing speed mechanism is also included, which is arranged on the frame. The increasing speed mechanism includes an air pump, an expansion block, a speed sensor and a friction wheel. The air pump is fixedly connected to the frame, the frame is fixedly connected to the expansion block, the expansion block and the air pump are connected through a pipeline, the mounting plate frame is fixedly connected to the speed sensor, the speed sensor is electrically connected to the air pump, the speed sensor is rotatably connected to the friction wheel, and the friction wheel is in contact and cooperate with the first rotating shaft.

[0010] Preferably, a transformer mechanism is also included, which is arranged on the frame. The transformer mechanism includes a compression block, a pull rope, a guide wheel, a rotating disk, a support frame, an elastic component and a moving rod. The pairs of compression blocks are fixed to the frame, and the frame is rotatably connected to a pair of guide wheels. The output end on the other side of the dual-axis motor is fixedly connected to the rotating disk. The frame is fixedly connected to a pair of support frames, and the support frames are fixedly connected to the elastic component. The telescopic end of the elastic component is fixedly connected to the moving rod. The moving rod is slidably connected to the rotating disk. The support frame is slidably connected to the pull rope, one end of the pull rope is fixedly connected to the moving rod, and the other end of the pull rope passes around the guide wheel and is fixed to the compression block.

[0011] Preferably, the rotating disk is provided with a slide groove, and the slide groove is elliptical.

[0012] Preferably, a friction mechanism is also included, which is arranged on the frame. The friction mechanism includes a friction disk, a second rotating shaft and a transmission belt. The second rotating shaft is rotatably connected to the frame, the second rotating shaft is fixedly connected to the friction disk, the friction disk is in contact with the filter screen on the zeolite rotor, and a transmission belt is wound between the second rotating shaft and the first rotating shaft.

[0013] Preferably, the friction disk is provided with air holes which are evenly distributed around the circumference.

[0014] Preferably, a vibration mechanism is also included, which is arranged on the frame. The vibration mechanism includes a spring rack and a top ball. The spring racks that are evenly distributed around the circumference are fixed to the frame, the spring racks are in contact with the rotating blades, the rotating blades are fixed with top balls that are evenly distributed around the circumference, and the top balls are squeezed and fitted with the spring racks.

[0015] The present invention has the following advantages: 1. The present invention can intermittently increase the air pressure inside the frame through components such as a one-way valve and an air cylinder, thereby increasing the diffusion rate of gas molecules in the pores of the zeolite and increasing the contact probability between volatile organic matter and the zeolite surface, thereby increasing the adsorption rate of the zeolite wheel and improving the adsorption efficiency of the zeolite wheel adsorption separation device.

[0016] 2. The present invention uses components such as an air pump and an expansion block to reduce the cross-sectional area of ​​the frame air inlet when the exhaust gas volume is small, thereby increasing the gas flow rate and ensuring that the rotor blades can rotate continuously, thereby ensuring that components such as the air cylinder can still intermittently increase the air pressure inside the frame and improve the overall adsorption efficiency of the device, thereby improving the practicality and versatility of this zeolite rotor adsorption separation device.

[0017] 3. The present invention can intermittently increase or decrease the air pressure inside the frame through components such as compression blocks and guide wheels, thereby not only increasing the diffusion rate of gas molecules in the zeolite pores and the adsorption rate of the zeolite wheel by increasing the pressure, but also increasing the frame's suction rate of exhaust gas by reducing the pressure, thereby improving the exhaust gas treatment efficiency of the zeolite wheel adsorption separation device.

[0018] 4. The present invention can pre-loosen impurities adhering to the filter screen through components such as friction discs and transmission belts, so that the impurities on the filter screen can be taken away by the desorption module during subsequent desorption, thereby preventing the filter screen from being blocked by impurities and improving the operating stability of the zeolite wheel adsorption separation device.

[0019] 5. The present invention can intermittently knock the rotor blades and make them vibrate through components such as the spring rack and the top ball, thereby preventing impurities in the exhaust gas from adhering to the rotor blades and affecting the rotation of the rotor blades, thereby improving the operating stability of the zeolite rotor adsorption separation device. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention.

[0021] Figure 2 It is a three-dimensional structural schematic diagram of components such as a rack, an expansion module and a desorption module of the present invention.

[0022] Figure 3 It is a three-dimensional structural schematic diagram of the desorption module, cooling module, dual-axis motor and other components of the present invention.

[0023] Figure 4 It is a schematic diagram of the three-dimensional structure of the dual-axis motor and the zeolite rotor of the present invention.

[0024] Figure 5 It is a schematic diagram of the three-dimensional structure of the rotor blade, the first rotating shaft, the flange and other components of the present invention.

[0025] Figure 6 It is a three-dimensional structural schematic diagram of the first rotating shaft, the convex plate and the air cylinder and other components of the present invention.

[0026] Figure 7 It is a three-dimensional structural schematic diagram of the mounting plate frame and the one-way valve of the present invention.

[0027] Figure 8 It is a three-dimensional structural schematic diagram of the air pump, expansion block, rotation speed sensor and other components of the present invention.

[0028] Fig. 9 It is a schematic diagram of the three-dimensional structure of the compression block, the pull rope, the guide wheel and other components of the present invention.

[0029] Fig.10 It is a schematic diagram of the three-dimensional structure of the guide wheel, rotating disk, support frame and other components of the present invention.

[0030] Fig.11 It is a schematic diagram of the three-dimensional structure of the support frame, elastic component, moving rod and other components of the present invention.

[0031] Fig.12 It is a three-dimensional structural schematic diagram of the friction disc, the second rotating shaft, the transmission belt and other components of the present invention.

[0032] Fig.13 It is a three-dimensional structural schematic diagram of the bomb rack, top ball, rotating blade and other components of the present invention.

[0033] The meanings of the reference numerals in the figure are as follows: 1: frame, 11: extension module, 12: desorption module, 13: cooling module, 14: dual-axis motor, 15: zeolite rotor, 16: rotor blades, 17: first rotating shaft, 18: cam, 19: air cylinder, 110: suction pipe, 111: discharge pipe, 112: mounting plate frame, 113: one-way valve, 2: air pump, 21: expansion block, 22: speed sensor, 23: friction wheel, 3: compression block, 31: pull rope, 32: guide wheel, 33: rotating disk, 34: support frame, 35: elastic component, 36: moving rod, 4: friction disk, 41: second rotating shaft, 42: transmission belt, 5: spring rack, 51: top ball. DETAILED DESCRIPTION

[0034] In order to make the purpose, technical solution and advantages of the present invention clearer, the present invention will be further described in detail below with reference to the accompanying drawings. It is hereby stated that the directional terms such as up, down, left, right, front, back, inside, outside, etc. that appear or will appear in the text of the present invention are only based on the accompanying drawings of the present invention, and are not specific limitations of the present invention.

[0035] Example 1

[0036] A zeolite rotor adsorption separation device with extended functions, such as Figure 1-Figure 7 As shown, it includes a frame 1, an expansion module 11, a desorption module 12, a cooling module 13, a dual-axis motor 14, a zeolite rotor 15, a rotor blade 16, a first rotating shaft 17, a convex disc 18, an air cylinder 19, a suction pipe 110, a discharge pipe 111, a mounting plate frame 112 and a one-way valve 113. The expansion module 11 is clamped on both the front and rear sides of the frame 1, the desorption module 12 is fixedly connected inside the frame 1, the cooling module 13 is fixedly connected inside the frame 1, the dual-axis motor 14 is fixedly connected inside the frame 1, the zeolite rotor 15 is rotatably connected inside the frame 1, the filter screen is fixedly connected to the right side of the zeolite rotor 15, and the zeolite rotor 15 is connected to the left side of the dual-axis motor 14. The output end is fixed, and the first rotating shaft 17 is rotatably connected to the right side of the frame 1. A rotating blade 16 is fixed to the right side of the first rotating shaft 17, and a convex plate 18 is fixed to the left side of the first rotating shaft 17. Air cylinders 19 are fixed to the upper and lower sides of the frame 1, and the piston rod of the air cylinder 19 is slidably connected to the convex plate 18. A suction pipe 110 is fixedly connected and communicated between the air cylinder 19 and the air inlet of the frame 1, and a discharge pipe 111 is fixedly connected and communicated between the air cylinder 19 and the middle part of the frame 1. A mounting plate frame 112 is fixedly connected to the right side of the frame 1, and the mounting plate frame 112 is rotatably connected to the first rotating shaft 17. The middle part of the mounting plate frame 112 is fixedly connected to one-way valves 113 equidistantly distributed around the circumference.

[0037] like Figure 5 and Figure 6 As shown, the protruding disc 18 is oval in shape.

[0038] like Figure 5 and Figure 6 As shown, check valves are fixedly connected inside the suction pipe 110 and the discharge pipe 111 .

[0039] When workers need to process volatile organic compounds in the exhaust gas, they can first remove the front and rear two expansion modules 11, and install a temperature and humidity adjustment module or a heat exchange module on the expansion module 11 as needed, so as to expand the function of the device. After the installation is completed and the expansion module 11 is installed back on the rack 1, the exhaust gas outlet pipe can be connected to the air inlet on the right side of the rack 1. At this time, the exhaust gas will first flow through the rotor 16 and pass through the one-way valve 113 to enter the inside of the rack 1, and then pass through the filter screen and the adsorption area of ​​the zeolite wheel 15 and finally be discharged from the air outlet on the left side of the rack 1, wherein the filter screen can filter impurities in the exhaust gas, and the zeolite wheel 15 can remove volatile organic compounds in the exhaust gas. During the process, the worker also needs to start the dual-axis motor 14. The output shaft on the left side of the dual-axis motor 14 will drive the zeolite rotor 15 to rotate slowly clockwise. When the adsorption area of ​​the zeolite rotor 15 rotates to correspond to the desorption module 12, the desorption module 12 will perform high-temperature desorption on the volatile organic matter adsorbed by the zeolite rotor 15 and perform subsequent treatment on the gas. When the adsorption area of ​​the zeolite rotor 15 continues to rotate to correspond to the cooling module 13, the cooling module 13 will cool the zeolite rotor 15 and enable it to continue to adsorb the exhaust gas. During this period, when the exhaust gas flows through the rotor blade 16, the rotor blade 16 will start to rotate under the action of the exhaust gas, and the first rotating shaft 17 and the convex disc 18 will also The convex disc 18 rotates with the rotor blade 16. Since the convex disc 18 is elliptical, the rotation of the convex disc 18 will first drive the piston rods of the upper and lower gas cylinders 19 to move backwards. Since the suction pipe 110 and the discharge pipe 111 are both fixedly connected with check valves, the backward movement of the upper and lower piston rods will inject the gas in the gas cylinder 19 into the right side of the frame 1 through the discharge pipe 111, thereby increasing the air pressure on the right side of the frame 1, thereby increasing the diffusion rate of gas molecules in the zeolite pores and the contact probability of volatile organic compounds with the zeolite surface, thereby increasing the adsorption rate of the zeolite rotor 15. At this time, although the air pressure on the left side of the mounting plate frame 112 is greater than the air pressure on the right side, due to the presence of the one-way valve 113, The gas inside the frame 1 cannot flow back to the right and release pressure. As the exhaust gas passes through the zeolite rotor 15, the air pressure on the left side of the mounting plate frame 112 drops and becomes lower than the air pressure on the right side. The exhaust gas at the air inlet continues to enter the frame 1 through the one-way valve 113. When the convex plate 18 continues to rotate with the rotating blades 16 and the first rotating shaft 17, the convex plate 18 causes the piston rods of the upper and lower air cylinders 19 to move toward each other and reset, and the exhaust gas at the air inlet of the frame 1 is sucked into the air cylinder 19 through the suction pipe 110 for replenishment. This cycle can intermittently increase the air pressure inside the frame 1 and improve the adsorption efficiency of the zeolite rotor 15. After the exhaust gas treatment is completed, the dual-axis motor 14, the desorption module 12 and the cooling module 13 can be turned off.

[0040] Example 2

[0041] On the basis of Example 1, Figure 2 and Figure 8 As shown, it also includes a speed increasing mechanism, which is arranged on the frame 1. The speed increasing mechanism includes an air pump 2, an expansion block 21, a speed sensor 22 and a friction wheel 23. The air pump 2 is fixedly connected to the upper right side of the frame 1. The expansion block 21 is fixedly connected to the right side of the frame 1. The expansion block 21 is connected to the air pump 2 through a pipeline. The speed sensor 22 is fixedly connected to the left side of the mounting plate frame 112. The speed sensor 22 is electrically connected to the air pump 2. The friction wheel 23 is rotatably connected to the left side of the speed sensor 22, and the friction wheel 23 is in contact with the first rotating shaft 17.

[0042] When the rotor blades 16 and the first rotating shaft 17 and other components rotate under the action of the exhaust gas, the friction disc 4 will also start to rotate under the action of the friction force between the first rotating shaft 17, and the speed sensor 22 can then monitor the speed of the rotor blades 16 and other components through the friction wheel 23. When the exhaust gas volume is small and the flow rate is slow, the speed of the rotor blades 16, the first rotating shaft 17 and the friction wheel 23 will also drop or even stop. At this time, the speed sensor 22 detects that the speed of the rotor blades 16 and other components is low, and the air pump 2 will be started through the controller, and gas will be injected into the expansion block 21 through the air pump 2 and the pipeline. The expansion block 21 will then expand and press the air intake of the frame 1. The opening is partially blocked, thereby reducing the cross-sectional area of ​​the air inlet of the frame 1, thereby increasing the flow rate of the exhaust gas and ensuring that the rotor blade 16 can continue to rotate under the action of the exhaust gas, thereby ensuring that the air cylinder 19 and other components can still intermittently increase the air pressure inside the frame 1 and improve the overall adsorption efficiency of the device. When the exhaust gas volume returns to a normal level, the speed sensor 22 will detect that the speed of the rotor blade 16 and other components is high. At this time, the speed sensor 22 will start the air pump 2 through the controller, and extract the gas in the expansion block 21 through the air pump 2 and the pipeline. The expansion block 21 immediately returns to its original state, and the speed of the rotor blade 16 and other components also returns to normal.

[0043] like Figure 9-11 As shown, a transformer mechanism is also included, which is arranged on the frame 1. The transformer mechanism includes a compression block 3, a pull rope 31, a guide wheel 32, a rotating disk 33, a support frame 34, an elastic component 35 and a moving rod 36. The two compression blocks 3 are respectively fixed to the front and rear sides of the frame 1. The front and rear sides of the frame 1 are both rotatably connected with the guide wheels 32. The output end of the right side of the dual-axis motor 14 is fixedly connected to the rotating disk 33. The front and rear sides of the frame 1 are both fixedly connected to the support frame 34. The two support frames 34 are fixedly connected to the elastic component 35 on the side close to each other. The telescopic end of the elastic component 35 is fixedly connected to the moving rod 36. The moving rod 36 is slidably connected to the rotating disk 33. The right side of the support frame 34 is slidably connected with the pull rope 31. One end of the pull rope 31 is fixedly connected to the adjacent moving rod 36, and the other end of the pull rope 31 passes around the guide wheel 32 and is fixedly connected to the adjacent compression block 3.

[0044] like Fig. 9 and Fig.10As shown, a slide groove is provided in the middle of the rotating disk 33, and the slide groove is elliptical.

[0045] When the output shaft on the left side of the dual-axis motor 14 drives the zeolite wheel 15 to rotate, the output shaft on the right side of the dual-axis motor 14 drives the rotating disk 33 to rotate. Since the slide groove on the rotating disk 33 is elliptical, the rotation of the rotating disk 33 drives the moving rods 36 on the front and rear sides to move back and forth toward and away from each other. When the gas in the gas cylinder 19 enters the interior of the frame 1 through the discharge pipe 111, the rotating disk 33 drives the moving rods 36 on the front and rear sides to move toward each other, and the elastic component 35 is stretched immediately. The movement of the moving rods 36 on the front and rear sides will pull the compression block 3 through the pull rope 31 to expand the compression block 3. At this time, the total amount of gas on the right side of the frame 1 increases and the overall capacity decreases. Therefore, the air pressure on the right side of the frame 1 increases to a large extent. The rise of the zeolite wheel 15 further increases the adsorption rate of the zeolite wheel 15. When the air cylinder 19 inhales the exhaust gas at the air inlet of the frame 1 through the suction pipe 110 for replenishment, the rotating disk 33 will drive the moving rods 36 on the front and rear sides to move back to reset, and the elastic component 35 will immediately return to its original state, and the pull rope 31 will immediately relax. The compression block 3 will also shrink and return to its original state under the action of its own elasticity. During this period, part of the gas inside the frame 1 will pass through the zeolite wheel 15 and be discharged to the left. Therefore, at this time, the total amount of gas on the right side of the frame 1 is reduced and the overall capacity is increased. Therefore, the air pressure on the right side of the frame 1 will drop to a large extent, thereby increasing the suction rate of the exhaust gas at the air inlet of the frame 1, thereby improving the exhaust gas treatment efficiency of the device.

[0046] like Figure 2 and Fig.12 As shown, it also includes a friction mechanism, which is arranged on the frame 1. The friction mechanism includes a friction disc 4, a second rotating shaft 41 and a transmission belt 42. The second rotating shaft 41 is rotatably connected to the front side of the frame 1. The friction disc 4 is fixedly connected to the left side of the second rotating shaft 41. The friction disc 4 is in contact with the filter screen on the zeolite rotor 15. A transmission belt 42 is wound between the second rotating shaft 41 and the first rotating shaft 17.

[0047] like Figure 2 and Fig.12 As shown, the friction disc 4 is provided with air holes in the middle thereof which are evenly spaced around the circumference.

[0048] When the rotor blades 16 and the first rotating shaft 17 rotate under the action of the exhaust gas, the first rotating shaft 17 will also drive the second rotating shaft 41 and the friction disk 4 to rotate through the transmission belt 42, wherein the circumferentially equidistant air holes on the friction disk 4 are mainly used to avoid a significant impact on the flow of the exhaust gas, and the rotation of the friction disk 4 can pre-loosen the impurities adhering to the filter screen of the zeolite rotor 15, so that the impurities on the filter screen can be taken away by the desorption module 12 during the subsequent desorption, thereby preventing the filter screen from being blocked by impurities. Although the impurities will be loosened under the action of the friction disk 4, the loosened impurities will still stick to the filter screen under the action of the exhaust gas flow, so as to prevent the impurities from falling and accumulating inside the frame 1.

[0049] like Figure 2 and Fig.13 As shown, a vibration mechanism is also included, which is arranged on the frame 1. The vibration mechanism includes a spring frame 5 and a top ball 51. The spring frames 5 that are evenly distributed around the circumference are fixed to the right side of the frame 1. The spring frame 5 is in contact with the rotor blade 16. The rotor blade 16 is fixed with top balls 51 that are evenly distributed around the circumference. The top ball 51 is pressed and fitted with the spring frame 5.

[0050] When the rotor blade 16 rotates under the action of the exhaust gas, the top beads 51 evenly distributed on the circumference will also rotate with the rotor blade 16. When the top beads 51 rotate to contact and squeeze the adjacent spring rack 5, the spring rack 5 will be deformed and separated from the rotor blade 16. When the top beads 51 continue to rotate to separate from the spring rack 5, the spring rack 5 will restore its original shape under the action of its own elasticity and knock the rotor blade 16, so that the rotor blade 16 can vibrate and shake off the impurities adhered to the rotor blade 16, thereby preventing the impurities from affecting the rotation of the rotor blade 16. The impurities that are shaken off will continue to move to the left with the exhaust gas and fall on the filter screen of the zeolite rotor 15, waiting for the desorption module 12 to perform subsequent treatment on the impurities.

[0051] The above descriptions are merely embodiments of the present invention and are not intended to limit the patent scope of the present invention. Any equivalent structure or equivalent process transformation made using the contents of the present invention specification, or directly or indirectly applied in other related technical fields, are also included in the patent protection scope of the present invention.

Claims

1. A zeolite rotor adsorption separation device with an expansion function, comprising a frame (1), the frame (1) being clamped with a pair of expansion modules (11), the frame (1) being fixedly connected with a desorption module (12), the frame (1) being fixedly connected with a cooling module (13), the frame (1) being fixedly connected with a dual-axis motor (14), the frame (1) being rotatably connected with a zeolite rotor (15), the zeolite rotor (15) being fixedly connected to an output end on one side of the dual-axis motor (14), characterized in that: The machine also includes a rotating blade (16), a first rotating shaft (17), a convex disc (18), an air cylinder (19), a suction pipe (110), a discharge pipe (111), a mounting plate frame (112) and a one-way valve (113). The frame (1) is rotatably connected to the first rotating shaft (17). The first rotating shaft (17) is fixedly connected to the rotating blade (16). The first rotating shaft (17) is fixedly connected to the convex disc (18). The frame (1) is fixedly connected to a pair of air cylinders (19). The air cylinders (19 ) is slidably connected to the convex disc (18), a suction pipe (110) is fixedly connected and communicated between the air cylinder (19) and the air inlet of the frame (1), a discharge pipe (111) is fixedly connected and communicated between the air cylinder (19) and the middle of the frame (1), a mounting plate frame (112) is fixedly connected to the frame (1), the mounting plate frame (112) is rotatably connected to the first rotating shaft (17), and one-way valves (113) are fixedly connected to the mounting plate frame (112) which are equidistantly distributed around the circumference.

2. The zeolite rotor adsorption separation device with extended function according to claim 1, characterized in that: Wherein the convex disc (18) is oval.

3. The zeolite rotor adsorption separation device with extended function according to claim 2, characterized in that: The suction pipe (110) and the discharge pipe (111) are both fixedly connected with a check valve.

4. The zeolite rotor adsorption separation device with extended function according to claim 3, characterized in that: The invention also includes a speed increasing mechanism, which is arranged on the frame (1), and includes an air pump (2), an expansion block (21), a rotation speed sensor (22) and a friction wheel (23). The air pump (2) is fixedly connected to the frame (1), the frame (1) is fixedly connected to the expansion block (21), the expansion block (21) and the air pump (2) are connected via a pipeline, the mounting plate frame (112) is fixedly connected to the rotation speed sensor (22), the rotation speed sensor (22) is electrically connected to the air pump (2), the rotation speed sensor (22) is rotationally connected to the friction wheel (23), and the friction wheel (23) is in contact with the first rotating shaft (17).

5. The zeolite rotor adsorption separation device with extended function according to claim 4, characterized in that: The invention also comprises a transformer mechanism, which is arranged on the frame (1). The transformer mechanism comprises a compression block (3), a pull rope (31), a guide wheel (32), a rotating disk (33), a support frame (34), an elastic component (35) and a moving rod (36). The pair of compression blocks (3) are fixedly connected to the frame (1). The frame (1) is rotatably connected to the pair of guide wheels (32). The output end of the other side of the dual-axis motor (14) is fixedly connected to the rotating disk (33). The frame (1) is fixedly connected to the pair of supporting frames (34). The supporting frames (34) are fixedly connected to the elastic component (35). The telescopic end of the elastic component (35) is fixedly connected to the moving rod (36). The moving rod (36) is slidably connected to the rotating disk (33). The support frame (34) is slidably connected to the pull rope (31). One end of the pull rope (31) is fixedly connected to the moving rod (36). The other end of the pull rope (31) passes around the guide wheel (32) and is fixedly connected to the compression block (3).

6. The zeolite rotor adsorption separation device with extended function according to claim 5, characterized in that: The rotating disk (33) is provided with a slide groove, and the slide groove is elliptical.

7. The zeolite rotor adsorption separation device with extended function according to claim 6, characterized in that: The invention also comprises a friction mechanism, which is arranged on the frame (1), and comprises a friction disc (4), a second rotating shaft (41) and a transmission belt (42). The second rotating shaft (41) is rotatably connected to the frame (1), the second rotating shaft (41) is fixedly connected to the friction disc (4), the friction disc (4) is in contact with a filter screen on the zeolite wheel (15), and a transmission belt (42) is wound between the second rotating shaft (41) and the first rotating shaft (17).

8. The zeolite rotor adsorption separation device with extended function according to claim 7, characterized in that: The friction disc (4) is provided with air holes which are evenly spaced around the circumference.

9. The zeolite rotor adsorption separation device with extended function according to claim 8, characterized in that: The invention also comprises a vibration mechanism, which is arranged on the frame (1), and comprises a spring frame (5) and a top ball (51). The spring frames (5) are equidistantly distributed around the circumference and are fixedly connected to the frame (1). The spring frames (5) are in contact with the rotating blades (16). The rotating blades (16) are fixedly connected with the top balls (51) equidistantly distributed around the circumference. The top balls (51) are pressed and matched with the spring frames (5).

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