A waste gas treatment device for ion exchange resin production

Abstract

This invention provides a waste gas treatment device for ion exchange resin production, belonging to the field of air purification technology. It includes a purification chamber with two symmetrically arranged connecting pipes on its outer surface. An activated carbon bag removal component is embedded inside the purification chamber. The component includes an insertion hole located in the center of one surface of the purification chamber. Four constraint ports are symmetrically reserved on the inner surface of the insertion hole, and an outer fixing cylinder is embedded inside the insertion hole. A constraint strip is provided on the outer surface of the outer fixing cylinder near the inner side of the constraint ports, and the constraint ports and constraint strips cooperate with each other. Through the cooperation of the activated carbon bag removal component and the magnetic disk, this invention not only allows the activated carbon bag to be removed in a sealed state, preventing the exhaust gas from escaping, but also seals the purification chamber after the activated carbon bag is removed, preventing the escape of unpurified exhaust gas and ensuring the respiratory safety of personnel.

Description

Technical Field

[0001] This invention belongs to the field of air purification technology, specifically relating to a waste gas treatment device for ion exchange resin production. Background Technology

[0002] Ion exchange resin systems are a traditional water treatment process that uses anion and cation exchange resins to replace various anions and cations in water. The demand for ion exchange resins in the water treatment field is very large, accounting for about 90% of the total production of ion exchange resins. They are used to remove various anions and cations from water. During the production of ion exchange resins, tail gas is generated. The tail gas not only contains harmful substances but also has an irritating odor, which affects human health. For example, trimethylamine gas.

[0003] In existing technologies, activated carbon bags are directly used to adsorb and remove waste materials from exhaust gases. However, since activated carbon bags can only adsorb small particles of waste, some large particles will accumulate at the air inlet of the activated carbon bag, causing blockage and affecting the flow rate of exhaust gases. Currently, most systems will install a mesh structure on one side of the air inlet of the activated carbon bag to intercept large particles of waste. However, the mesh structure will gradually become blocked as more and more waste is intercepted, making it difficult to achieve automatic cleaning without stopping the machine. Moreover, when cleaning the mesh structure, the equipment itself is difficult to automatically seal, causing unpurified exhaust gas to overflow from the equipment, affecting the breathing safety of the staff.

[0004] Therefore, a waste gas treatment device for ion exchange resin production is proposed. Summary of the Invention

[0005] The present invention provides a waste gas treatment device for ion exchange resin production, the purpose of which is to solve the problems mentioned above.

[0006] This invention provides a waste gas treatment device for ion exchange resin production, including a purification box. Two connecting pipes are symmetrically arranged on the outer surface of the purification box. An activated carbon bag removal component is embedded inside the purification box. The activated carbon bag removal component includes an insertion hole located in the center of one surface of the purification box. Four constraint ports are symmetrically reserved on the inner surface of the insertion hole. An outer fixing cylinder is embedded inside the insertion hole. A constraint strip is provided on the outer surface of the outer fixing cylinder near the inner side of the constraint ports. The constraint ports and constraint strips cooperate and are movably connected. A through-flow opening is reserved on the outer surface of the outer fixing cylinder, and an inner rotating cylinder is rotatably provided inside the outer fixing cylinder. The outer surface has a through-flow inlet, which coincides with the inner flow inlet. A handle plate is located at the center of one side of the inner rotating cylinder, near the outer side of the outer fixed cylinder. A handle is located on the surface of the handle plate away from the inner rotating cylinder. An activated carbon pack filling frame is located on the inner surface of the inner rotating cylinder. A pair of constraint columns are symmetrically arranged on the inner surface of the purification box. A magnetic disk is magnetically attracted to one side of the outer fixed cylinder. Both constraint columns pass through the magnetic disk. An iron ring is located on one inner surface of the purification box. The iron ring and the magnetic disk are connected by magnetic attraction. A fastening block is located on the other side of the outer fixed cylinder. The fastening block and the purification box are fixed by screws. One end of one of the connecting tubes is equipped with a waste stripping component.

[0007] Furthermore, the waste stripping assembly includes an exhaust gas channel, one end of which is fixedly connected to one end of a connecting pipe. The other end of the exhaust gas channel has a connecting channel. A rectangular box is provided on the outer surface of the connecting channel. Two circular boxes are symmetrically arranged on one side wall of the rectangular box. A pair of storage ports are symmetrically arranged inside the rectangular box outside the connecting channel. An insert piece is embedded in one side of each storage port. A movable frame is provided inside the rectangular box. Threaded tubes are provided at the top and bottom of the movable frame. Threaded posts are threaded into each of the threaded tubes. A motor A is provided on the back of the rectangular box, corresponding to the threaded posts. A pair of stripping discs are threaded onto the inner surface of the movable frame. A locking platform A is provided on the inner surface of the stripping discs near the insert piece. Two pairs of displacement platforms are provided on the inner surface of the circular boxes. A movable cover is movably provided between the two pairs of displacement platforms inside the rectangular box. Multiple spiral beryllium copper wires are provided between the movable cover and one side of the circular box. Multiple constraint slots are reserved on the other side of the variable cover. A rotating platform is rotatably provided inside the variable cover. A striking rod A is movable near the center of the variable cover in each of the multiple constraint slots. A striking rod B is movable near the outside of the multiple striking rods A in each of the multiple constraint slots. A traction slot is reserved on the rotating platform facing the multiple striking rods A and B. A displacement column is movable in the center of the rotating platform. A locking platform A is provided on one side of the displacement column near the outside of the variable cover. A rotating disk A is provided on one side of the displacement column. A toothed opening A is reserved on the outer surface of the rotating disk A. A locking platform B is provided on one side of the variable cover facing the locking platform A. A fastening frame is rotatably provided on the outer surface of the displacement column near the space between the locking platform A and the rotating disk A. A traction platform is provided on the outer circumference of the rotating disk A. A gear tooth is provided at the upper end inside the traction platform. A rotating disk B is provided in the center inside the traction platform. A toothed opening B is reserved on the outer surface of the rotating disk B. The toothed openings A and B are engaged.

[0008] Furthermore, a rotating column is located in the center of the other side of the traction platform. A transmission disc A is located on the outer surface of the rotating column. A toothed joint three is reserved on the outer circumference of the transmission disc A. A locking platform B is located on one side of the circular box. A motor B is located on one side of the locking platform B. A flow hood is located on the top of a pair of rectangular boxes. A locking plate is located at the gas flow point of the flow hood. Two pairs of rotating rods are rotatably located on the inner side of the locking plate. An impeller is located on the side of each pair of rotating rods near the flow hood. A transmission disc B is located on one side of each pair of rotating rods. A toothed joint four is reserved on the outer circumference of the transmission disc B. Three chains A are connected between the two pairs of transmission discs B. Chains A are engaged with toothed joint four. A chain B is connected between transmission disc A and a transmission disc B above it. Chain B is engaged with toothed joint three.

[0009] Furthermore, the lower end of the storage port contains liquid, and one side of the threaded column penetrates one side wall of the rectangular box and is fixedly connected to the output end of motor A.

[0010] Furthermore, the threaded post and rectangular box are screwed together, and one of the pair of stripping discs is installed inside the connecting channel.

[0011] Furthermore, the moving cover moves along the displacement stage, and multiple spiral beryllium copper wires are circumferentially distributed at equal intervals. Striking rods A and B each pass through the constraint groove and the corresponding traction groove. Striking rods A and B and the traction groove are movably connected, and the traction groove is arched.

[0012] Furthermore, the displacement column passes through the variable cover, and the clamping platform A and clamping platform B are engaged. The rotating disk A is located between the gear teeth and the rotating disk B. The rotating disk A, gear teeth, and rotating disk B match each other, and the fastening frame and the inner surface of the circular box are fixedly connected.

[0013] Furthermore, the rotating column passes through one side of the circular box and is fixedly connected to the output end of the motor B. The flow hood and the storage port are connected, and the impeller vents towards the flow hood. One of the two pairs of chains A connected to chain B is a three-axis drive disc, and the remaining three of the two pairs of chains A are two-axis drive discs.

[0014] Furthermore, a through hole is reserved on one surface of the handle plate near the lower part of the handle, and two screw holes are reserved on one surface of the outer fixing cylinder. The two screw holes are installed at an angle, one of which coincides with the through hole. A screw rod is threaded into the inside of the screw hole, and the screw rod passes through the through hole. One end of the screw rod is provided with a screw head.

[0015] Furthermore, the interior of the activated carbon pack filling frame is filled with activated carbon packs.

[0016] Beneficial effects:

[0017] 1. This invention utilizes an outer fixed cylinder and an inner rotating cylinder to form a closed cylindrical structure. The activated carbon packs inside the activated carbon pack filling frame are in a sealed state and cannot leak, effectively preventing the exhaust gas in the activated carbon packs from overflowing and affecting the breathing safety of the staff. Furthermore, a magnetic disk is used to seal the insertion hole, thereby sealing the insertion hole and thus sealing the purification box, preventing the unpurified exhaust gas in the purification box from overflowing and affecting the breathing safety of the staff. Through the cooperation of the activated carbon pack removal component and the magnetic disk, not only can the activated carbon pack be removed in a sealed state, preventing the exhaust gas in the activated carbon pack from overflowing, but the purification box is also sealed after the activated carbon pack is removed, preventing the unpurified exhaust gas in the purification box from overflowing and ensuring the breathing safety of the staff.

[0018] 2. This invention connects the connecting channel and the exhaust gas channel. When exhaust gas is introduced into the exhaust gas channel, the waste in the exhaust gas is intercepted by the stripping disc. After a certain working cycle, some dust particles will be adsorbed on the stripping disc. A pair of motors A pulls a pair of threaded columns to rotate, which in turn pulls a pair of threaded cylinders to move the moving frame horizontally. Another stripping disc rotates to replace the stripping disc of the corresponding connecting channel. At this time, the stripping disc that has adsorbed a large amount of waste moves to the corresponding circular box inside the rectangular box. At this time, a motor B pulls multiple striking rods A and B to clean the stripping disc. Similarly, the corresponding embedded piece can be removed to open the rectangular box and remove the threaded stripping disc from the moving frame for subsequent replacement operations. A pair of stripping discs work in rotation to ensure the continuous operation of the exhaust gas channel.

[0019] 3. This invention utilizes motor B to drive the rotating column, transmission disc A, and traction platform to rotate. The rotating disc B and gear teeth on the inner surface of the traction platform can alternately drive the rotating disc A to rotate, allowing the fixed clamping platform A and displacement column to rotate back and forth along the fastening frame. When clamping platform A rotates, it can press the engaged clamping platform B, causing the moving cover to move along the displacement platform, and pulling multiple spiral beryllium copper wires to lengthen. Using clamping platform A to lengthen the spiral beryllium copper wires, the moving cover pulls multiple striking rods A and B to move back and forth. Multiple striking rods A and B strike the stripping disc, causing the waste adsorbed on the stripping disc to fall off, so as to intercept the waste in the exhaust gas in the future.

[0020] 4. This invention allows the waste material that is knocked off to fall into the liquid inside the storage port, avoiding interference with the waste gas in the exhaust gas channel and the connecting channel. Furthermore, when the rotating disk A and the displacement column are pulled back and forth by the gear teeth and the rotating disk B, the traction rotating table uses the traction groove to pull multiple striking rods A and B together to expand outward and then converge, allowing multiple striking rods A and B to fully strike the peeling disk, resulting in more even shaking and enhanced cleaning function.

[0021] 5. This invention utilizes the rotational kinetic energy of transmission disc A to pull the connected chain B, which in turn pulls a connected transmission disc B. At this moment, transmission disc B uses the three connected chains A to pull the other three transmission discs B to rotate, causing the stationary rotating rod and impeller to rotate and ventilate the inside of the flow hood. The flow hood guides the gas into the storage port, allowing the waste generated by the impact to flow to the liquid surface, where the liquid surface absorbs it, thus optimizing the processing conditions inside the storage port.

[0022] Other features and advantages of the invention will be set forth in the following description, and will be apparent in part from the description, or may be learned by practicing the invention. The objects and other advantages of the invention may be realized and obtained by means of the structures particularly pointed out in the description and the drawings. Attached Figure Description

[0023] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0024] Figure 1 This is a top view of the present invention;

[0025] Figure 2 This is a schematic diagram of the purification box and activated carbon pack removal component of the present invention.

[0026] Figure 3 This is a cross-sectional view of the purification box of the present invention;

[0027] Figure 4 This is a cross-sectional internal structural diagram of the purification box of the present invention;

[0028] Figure 5 This is a schematic diagram of the outer fixing cylinder structure of the present invention;

[0029] Figure 6 This is a schematic diagram of the inner rotating cylinder structure of the present invention;

[0030] Figure 7 This is a schematic diagram of the waste stripping assembly structure of the present invention;

[0031] Figure 8 This is a partial structural diagram of the waste stripping assembly of the present invention;

[0032] Figure 9 This is a schematic diagram of the internal structure of the waste stripping assembly of the present invention;

[0033] Figure 10 This is a cross-sectional view of the waste stripping assembly of the present invention;

[0034] Figure 11 This is a schematic diagram of the variable frame and stripping disk structure of the present invention;

[0035] Figure 12 This is a schematic diagram of the internal structure of the variable cover of the present invention;

[0036] Figure 13 This is a schematic diagram of the structure of the variable cover and rotating platform of the present invention;

[0037] Figure 14 This is a schematic diagram of the traction mechanism structure of the present invention;

[0038] Figure 15 This is a schematic diagram of the ventilation mechanism structure of the present invention;

[0039] Attached reference numerals: 1. Purification box; 2. Connecting pipe; 3. Activated carbon bag removal assembly; 31. Insertion hole; 32. Constraint port; 33. Outer fixing cylinder; 34. Constraint strip; 35. Outer flow port; 36. Inner rotating cylinder; 37. Inner flow port; 38. Handle plate; 39. Handle; 4. Activated carbon bag filling frame; 5. Constraint column; 6. Magnetic disk; 7. Iron ring; 8. Fastening block; 9. Waste stripping assembly; 91. Exhaust gas passage; 92. Connecting passage; 93. Rectangular box; 94. Circular box; 95. Storage port; 96. Embedded piece; 97. Variable frame; 98. Threaded cylinder; 99. Threaded column; 910. Motor A; 911. Stripping disk; 912. Locking platform A; 913. Displacement stage; 914. Variable cover; 915. Spiral beryllium copper wire; 916. Constraint groove; 917. Rotating stage; 918. Striking rod A; 919. Striking rod B; 920. Traction groove; 921. Displacement column; 922. Locking platform A; 923. Rotating disc A; 924. Locking platform B; 925. Fastening frame; 926. Traction stage; 927. Gear tooth; 928. Rotating disc B; 929. Rotating column; 930. Transmission disc A; 931. Locking platform B; 932. Motor B; 933. Flow cover; 934. Locking piece; 935. Rotating rod; 936. Impeller; 937. Transmission disc B; 938. Chain A; 939. Chain B. Detailed Implementation

[0040] To make the objectives, technical solutions, and advantages of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. The same reference numerals in the drawings represent the same components. It should be noted that the described embodiments are only some, not all, of the embodiments of the present invention. All other embodiments obtained by those skilled in the art based on the described embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0041] Example 1

[0042] Reference Figure 1-6A medical air purification device includes a purification box 1. Two connecting pipes 2 are symmetrically arranged on the outer surface of the purification box 1. An activated carbon pack removal component 3 is embedded inside the purification box 1. The activated carbon pack removal component 3 includes an insertion hole 31 located at the center of one surface of the purification box 1. Four constraint ports 32 are symmetrically reserved on the inner surface of the insertion hole 31. An outer fixing cylinder 33 is embedded inside the insertion hole 31. A constraint strip 34 is provided on the outer surface of the outer fixing cylinder 33 near the inner side of the constraint ports 32. The constraint ports 32 and constraint strips 34 cooperate, and the constraint strips 34 are movably connected to the constraint ports 32. An external flow port 35 is reserved on the outer surface of the outer fixing cylinder 33, and an inner rotating cylinder 36 is rotatably provided inside the outer fixing cylinder 33. An internal flow port 37 is reserved on the outer surface of the inner rotating cylinder 36. The external flow port 35 and the internal flow port 37 overlap. One side of the inner rotating cylinder 36 is located near the center of the outer... A handle plate 38 is provided on the outer side of the fixed cylinder 33. A handle 39 is provided on the surface of the handle plate 38 away from the inner rotating cylinder 36. A through hole is reserved on one surface of the handle plate 38 below the handle 39. Two screw holes are reserved on one surface of the outer fixed cylinder 33. The two screw holes are installed at 90 degrees. One screw hole coincides with the through hole. A screw rod is threaded into the inside of the screw hole. The screw rod passes through the through hole and has a screw head at one end. An activated carbon bag filling frame 4 is provided on the inner surface of the inner rotating cylinder 36. The activated carbon bag filling frame 4 is filled with activated carbon bags. A pair of constraint posts 5 are symmetrically provided on the inner surface of the purification box 1. A magnetic disk 6 is magnetically attracted to one side of the outer fixed cylinder 33. Both of the constraint posts 5 pass through the magnetic disk 6. An iron ring 7 is provided on one inner surface of the purification box 1. The iron ring 7 and the magnetic disk 6 are connected by magnetic attraction. A fastening block 8 is provided on the other side of the outer fixed cylinder 33. The fastening block 8 and the purification box 1 are fixed by screws. A waste stripping component 9 is provided at one end of one of the connecting pipes 2.

[0043] When the activated carbon pack needs to be replaced after prolonged use, unscrew the screw on the handle plate 38. The handle plate 38 is now rotatable. Rotate the handle plate 38 90 degrees. The handle plate 38 pulls the inner rotating cylinder 36 to rotate 90 degrees simultaneously. The inner rotating cylinder 36 rotates inside the outer fixed cylinder 33. At this time, the inner flow port 37 on the inner rotating cylinder 36 is misaligned with the outer flow port 35 on the outer fixed cylinder 33. The outer fixed cylinder 33 and the inner rotating cylinder 36 form a closed cylindrical structure. The activated carbon pack in the activated carbon pack filling frame 4 is sealed and cannot leak, effectively preventing the exhaust gas in the activated carbon pack from overflowing and affecting the breathing safety of the staff.

[0044] Then, the outer fixing cylinder 33 is pulled out of the purification chamber 1. During the pulling process, the movement of the constraint strip 34 is constrained by the constraint port 32, and the outer fixing cylinder 33 moves in a straight line. The magnetic disk 6, which is magnetically attracted to one end of the outer fixing cylinder 33, moves along the constraint column 5. When the outer fixing cylinder 33 is completely pulled out of the insertion hole 31, the magnetic disk 6 contacts the iron ring 7 under traction. The iron ring 7 and the magnetic disk 6 attract each other, so that the magnetic disk 6 is tightly attached to the iron ring 7. The magnetic disk 6 is used to block the insertion hole 31, thereby sealing the insertion hole 31 and sealing the purification chamber 1. This prevents the unpurified exhaust gas in the purification chamber 1 from overflowing and affecting the breathing safety of the staff. Through the cooperation of the activated carbon bag removal component 3 and the magnetic disk 6, not only can the activated carbon bag be removed in a sealed state to prevent the exhaust gas in the activated carbon bag from overflowing, but the purification chamber 1 is also sealed after the activated carbon bag is removed, preventing the unpurified exhaust gas in the purification chamber 1 from overflowing and ensuring the breathing safety of the staff.

[0045] Example 2

[0046] Reference Figure 1 , Figure 7-15 The waste stripping assembly 9 includes an exhaust gas channel 91. One end of the exhaust gas channel 91 is fixedly connected to one end of a connecting pipe 2. The other end of the exhaust gas channel 91 is provided with a connecting channel 92. A rectangular box 93 is provided on the outer surface of the connecting channel 92. Two circular boxes 94 are symmetrically provided on one side wall of the rectangular box 93. A pair of storage ports 95 are symmetrically provided inside the rectangular box 93 outside the connecting channel 92. An insert piece 96 is embedded in one side of each pair of storage ports 95. A movable frame 97 is provided inside the rectangular box 93. Threaded tubes 98 are provided at the top and bottom of the movable frame 97. Threaded posts 99 are threaded into each pair of threaded tubes 98. A motor A910 is provided on the back of the rectangular box 93 at a position corresponding to the threaded posts 99. A pair of stripping discs 911 are threaded into the inner surface of the movable frame 97. A locking platform A912 is provided on the inner surface of the stripping discs 911 near the insert piece 96.

[0047] Liquid is stored at the lower end of the storage port 95. One side of the threaded post 99 passes through one side wall of the rectangular box 93 and is fixed to the output end of the motor A910. The threaded post 99 and the rectangular box 93 are screwed together. One of the pair of peeling discs 911 is installed inside the connecting channel 92.

[0048] Connect the connecting channel 92 and the exhaust gas channel 91. When exhaust gas is introduced into the exhaust gas channel 91, the waste in the exhaust gas is intercepted by the stripping disc 911. After a certain working cycle, some dust particles will be adsorbed on the stripping disc 911. A pair of motors A910 pull a pair of threaded columns 99 to rotate, which in turn causes a pair of threaded cylinders 98 to pull the moving frame 97 to move horizontally in a straight line. Another stripping disc 911 takes turns replacing the stripping disc 911 of the corresponding connecting channel 92. At this time, the stripping disc 911 that has adsorbed a large amount of waste moves inside the rectangular box 93 to the location of the corresponding circular box 94. At this time, a motor B932 pulls multiple striking rods A918 and striking rods B919 to clean the stripping disc 911. Similarly, the corresponding insert 96 can be removed to open the rectangular box 93 and remove the threaded stripping disc 911 from the moving frame 97 for subsequent replacement operations. A pair of stripping discs 911 work in turn to ensure the continuous operation of the exhaust gas channel 91.

[0049] The inner surface of the circular box 94 is provided with two pairs of displacement stages 913. A movable cover 914 is provided between the two pairs of displacement stages 913 inside the rectangular box 93. Multiple spiral beryllium copper wires 915 are provided between the movable cover 914 and one side of the circular box 94. Multiple constraint grooves 916 are reserved on the other side of the movable cover 914. A rotating platform 917 is rotatably provided inside the movable cover 914. A striking rod A918 is movably provided near the center of the movable cover 914 inside each of the multiple constraint grooves 916. A striking rod B919 is movably provided near the outside of each of the multiple striking rods A918 inside each of the multiple constraint grooves 916. Traction grooves 920 are reserved on the rotating platform 917 directly opposite the multiple striking rods A918 and B919. A movable displacement column 921 is provided in the center. A locking platform A922 is provided on one side of the displacement column 921 near the outside of the variable cover 914. A rotating disk A923 is provided on one side of the displacement column 921. A toothed opening is reserved on the outer surface of the rotating disk A923. A locking platform B924 is provided on one side of the variable cover 914 facing the locking platform A922. A fastening frame 925 is rotatably provided on the outer surface of the displacement column 921 near the locking platform A922 and the rotating disk A923. A traction platform 926 is provided on the outer circumference of the rotating disk A923. A gear tooth 927 is provided at the upper end inside the traction platform 926. A rotating disk B928 is provided in the center inside the traction platform 926. A toothed opening is reserved on the outer surface of the rotating disk B928. The toothed opening and the toothed opening engage with each other.

[0050] The variable cover 914 moves along the displacement stage 913. Multiple spiral beryllium copper wires 915 are circumferentially distributed at equal intervals. Striking rods A918 and B919 each pass through the constraint groove 916 and the corresponding traction groove 920. Striking rods A918 and B919 and traction groove 920 are movably connected. The traction groove 920 is arched. The displacement column 921 passes through the variable cover 914. The locking platform A922 and locking platform B924 are engaged. The rotating disk A923 is located between the gear teeth 927 and the rotating disk B928. The rotating disk A923 matches the gear teeth 927 and the rotating disk B928. The fastening frame 925 is fixed to the inner surface of the circular box 94.

[0051] Motor B932 drives the rotating column 929, transmission disc A930, and traction table 926 to rotate. The rotating disc B928 and gear 927 on the inner surface of the traction table 926 alternately drive the rotating disc A923 to rotate, causing the fixed clamping platform A922 and displacement column 921 to rotate back and forth along the fastening frame 925. When clamping platform A922 rotates, it presses against the engaged clamping platform B924, causing the moving cover 914 to move along the displacement table 913, and simultaneously stretching multiple spiral beryllium copper wires 915. Clamping platform A922 stretches the spiral beryllium copper wires 915, causing the moving cover 914 to pull multiple striking rods A918 and B919 to move back and forth. The multiple striking rods A918 and B919... The stripping disc 911 strikes, causing the waste adsorbed on it to fall off, so as to intercept the waste in the exhaust gas later. The waste that falls off can fall into the liquid in the storage port 95, so as to avoid the waste from interfering with the exhaust gas in the exhaust gas channel 91 and the connecting channel 92. When the rotating disc A923 and the displacement column 921 are pulled back and forth by the gear teeth 927 and the rotating disc B928, the rotating table 917 pulls multiple striking rods A918 and B919 together to expand outward and then converge after expansion, so that multiple striking rods A918 and B919 can fully strike the stripping disc 911, resulting in more even shaking and enhanced cleaning function.

[0052] On the other side of the traction platform 926, a rotating column 929 is located in the center. A transmission disc A930 is located on the outer surface of the rotating column 929. The outer circumference of the transmission disc A930 has pre-reserved teeth. A locking platform B931 is located on one side of the circular box 94, and a motor B932 is located on one side of the locking platform B931. A flow hood 933 is located on the top of each pair of rectangular boxes 93. A locking plate 934 is located at the gas flow point of the flow hood 933. Two pairs of rotating rods 934 are rotatably mounted on the inner side of the locking plate 934. 35. Impellers 936 are provided on one side of each pair of rotating rods 935 near the flow cover 933. A transmission disc B937 is provided on one side of each pair of rotating rods 935. The outer circumferential surface of the transmission disc B937 is reserved with teeth four. Three chains A938 are connected between the two pairs of transmission discs B937. Chains A938 are engaged with teeth four. Chains B939 are connected between the transmission disc A930 and the upper transmission disc B937. Chains B939 are engaged with teeth three.

[0053] The rotating column 929 passes through one side of the circular box 94 and is fixedly connected to the output end of the motor B932. The flow shroud 933 and the storage port 95 are connected. The impeller 936 vents towards the flow shroud 933. One of the two pairs of chains A938 connected to chain B939 is a three-axis drive disc. The remaining three of the two pairs of chains A938 are two-axis drive discs.

[0054] The rotational energy of the transmission disc A930 pulls the connected chain B939, which in turn pulls a connected transmission disc B937. At this moment, the transmission disc B937 uses the three connected chains A938 to pull the other three transmission discs B937 to rotate, causing the stationary rotating rod 935 and impeller 936 to rotate, ventilating the inside of the flow hood 933. The flow hood 933 guides the gas into the storage port 95, allowing the waste generated by the impact to flow to the liquid surface, where the liquid surface absorbs it, thus optimizing the processing conditions inside the storage port 95.

[0055] Working principle:

[0056] First, the connecting channel 92 is connected to the exhaust gas channel 91. When exhaust gas is introduced into the exhaust gas channel 91, the waste material in the exhaust gas is intercepted by the stripping disc 911. After a certain working cycle, some dust particles will be adsorbed on the stripping disc 911. A pair of motors A910 are used to drive a pair of threaded columns 99 to rotate, which in turn causes a pair of threaded cylinders 98 to drive the moving frame 97 to move horizontally in a straight line. Another stripping disc 911 rotates with the stripping disc 911 in the corresponding connecting channel 92. At this time, the stripping disc 911 that has adsorbed a large amount of waste material moves from the rectangular box 93 to the corresponding circular box 94. At this moment, a motor B932 is used to drive multiple striking rods A918 and B919 to clean the stripping disc 911. The corresponding insert 96 can be removed to open the rectangular box 93, and the threaded stripping disc 911 can be removed from the moving frame 97 for subsequent replacement operations. A pair of stripping discs 911 work alternately to ensure the continuous operation of the exhaust gas passage 91. Then, the motor B932 is used to pull the rotating column 929, the transmission disc A930, and the traction table 926 to rotate. The rotating disc B928 and the gear teeth 927 on the inner surface of the traction table 926 can alternately pull the rotating disc A923 to rotate, so that the fixed clamping platform A922 and the displacement column 921 rotate back and forth along the fastening frame 925. When the clamping platform A922 rotates, it can press the meshing clamping platform B924, so that the moving cover 914 moves along the displacement table 913, and pulls multiple spiral beryllium copper wires 91. 5. The spiral beryllium copper wire 915 is stretched using the clamping platform A922, causing the moving cover 914 to pull multiple striking rods A918 and B919 back and forth. These striking rods strike the stripping disc 911, causing the waste adsorbed on it to fall off, facilitating subsequent interception of waste in the exhaust gas. Furthermore, the dislodged waste falls into the liquid in the storage port 95, preventing it from interfering with the exhaust gas in the exhaust gas passage 91 and connecting passage 92. When the rotating disc A923 and displacement column 921 are pulled back and forth by the gear teeth 927 and rotating disc B928, the pulling rotating platform 917 uses the traction groove 920 to pull multiple striking rods A918 and B919. The multiple striking rods A918 and B919, after expanding and converging outwards, can fully strike the stripping disc 911, resulting in more even vibration and enhanced cleaning function. Finally, the rotation of the transmission disc A930 pulls the connected chain B939, which in turn pulls a connected transmission disc B937. At this moment, the transmission disc B937 uses three connected chains A938 to pull the other three transmission discs B937 to rotate, causing the stationary rotating rod 935 and impeller 936 to rotate, ventilating the inside of the flow hood 933. The flow hood 933 guides the gas into the storage port 95, allowing the waste generated by the impact to flow to the liquid surface, where the liquid surface absorbs it, optimizing the processing conditions inside the storage port 95.

[0057] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of this invention is defined by the appended claims and their equivalents.

Claims

1. A waste gas treatment device for ion exchange resin production, characterized in that, The device includes a purification chamber with two symmetrically arranged connecting pipes on its outer surface. An activated carbon pack removal component is embedded inside the purification chamber. This component includes an insertion hole located in the center of one surface of the purification chamber. Four constraint ports are symmetrically provided on the inner surface of the insertion hole, and an outer fixing cylinder is embedded inside the insertion hole. A constraint strip is provided on the outer surface of the outer fixing cylinder near the inner side of the constraint ports. The constraint ports and constraint strips cooperate and are movably connected. An external flow port is provided through the outer surface of the outer fixing cylinder, and an inner rotating cylinder is rotatably provided inside the outer fixing cylinder. An internal flow port is provided through the outer surface of the inner rotating cylinder. The external and internal flow ports overlap. A handle plate is located at the center of one side of the inner rotating cylinder, near the outer side of the outer fixed cylinder. A handle is located on the surface of the handle plate away from the inner rotating cylinder. An activated carbon pack filling frame is located on the inner surface of the inner rotating cylinder. A pair of constraint columns are symmetrically arranged on the inner surface of the purification box. A magnetic disk is magnetically attracted to one side of the outer fixed cylinder. Both of the constraint columns pass through the magnetic disk. An iron ring is located on one inner surface of the purification box. The iron ring and the magnetic disk are connected by magnetic attraction. A fastening block is located on the other side of the outer fixed cylinder. The fastening block and the purification box are fixed by screws. A waste stripping component is located at one end of one of the connecting tubes. The waste stripping assembly includes an exhaust gas channel. One end of the exhaust gas channel is fixedly connected to one end of a connecting pipe. The other end of the exhaust gas channel has a connecting channel. A rectangular box is provided on the outer surface of the connecting channel. Two circular boxes are symmetrically arranged on one side wall of the rectangular box. A pair of storage ports are symmetrically arranged inside the rectangular box outside the connecting channel. An insert piece is embedded in one side of each pair of storage ports. A movable frame is provided inside the rectangular box. Threaded tubes are provided at the top and bottom of the movable frame. Threaded posts are threaded into each pair of threaded tubes. A motor A is provided on the back of the rectangular box, corresponding to the threaded posts. A pair of stripping discs are threaded onto the inner surface of the movable frame. A locking platform A is provided on the inner surface of the stripping discs near the insert piece. Two pairs of displacement platforms are provided on the inner surface of the circular boxes. A movable cover is movably provided between the two pairs of displacement platforms inside the rectangular box. Multiple spiral beryllium copper wires are provided between the movable cover and one side of the circular box. On the other side of the cover, multiple constraint slots are reserved. Inside the movable cover, a rotating platform is rotatably provided. Inside the multiple constraint slots, striking rods A are movably provided near the center of the movable cover. Inside the multiple constraint slots, striking rods B are movably provided near the outside of the multiple striking rods A. Traction slots are reserved on the rotating platform facing the multiple striking rods A and B. A displacement column is movably provided in the center of the rotating platform. A locking platform A is provided on one side of the displacement column near the outside of the movable cover. A rotating disk A is provided on one side of the displacement column. A toothed opening A is reserved on the outer surface of the rotating disk A. A locking platform B is provided on one side of the movable cover facing the locking platform A. A fastening frame is rotatably provided on the outer surface of the displacement column near the space between the locking platform A and the rotating disk A. A traction platform is provided on the outer circumference of the rotating disk A. A gear tooth is provided at the upper end inside the traction platform. A rotating disk B is provided in the center inside the traction platform. A toothed opening B is reserved on the outer surface of the rotating disk B. The first tooth and the second tooth mesh with each other.

2. The waste gas treatment device for ion exchange resin production according to claim 1, characterized in that: A rotating column is located in the center of the other side of the traction platform. A transmission disc A is located on the outer surface of the rotating column. The outer circumference of the transmission disc A is reserved with toothed teeth three. A locking platform B is located on one side of the circular box. A motor B is located on one side of the locking platform B. A flow hood is located on the top of a pair of rectangular boxes. A locking plate is located at the gas flow point of the flow hood. Two pairs of rotating rods are rotatably located on the inside of the locking plate. An impeller is located on the side of each pair of rotating rods near the flow hood. A transmission disc B is located on one side of each pair of rotating rods. A toothed teeth four are reserved on the outer circumference of the transmission disc B. Three chains A are connected between the two pairs of transmission discs B. Chains A are engaged with toothed teeth four. Chain B is connected between transmission disc A and the upper transmission disc B. Chain B is engaged with toothed teeth three.

3. The waste gas treatment device for ion exchange resin production according to claim 1, characterized in that: The lower end of the storage port contains liquid, and one side of the threaded column passes through one side wall of the rectangular box and is fixedly connected to the output end of motor A.

4. The waste gas treatment device for ion exchange resin production according to claim 1, characterized in that: The threaded post and rectangular box are screwed together, and one of the pair of stripping discs is installed inside the connecting channel.

5. The waste gas treatment device for ion exchange resin production according to claim 1, characterized in that: The moving cover moves along the displacement stage, and multiple spiral beryllium copper wires are circumferentially distributed at equal intervals. Strike rods A and B each pass through the constraint groove and the corresponding traction groove. Strike rods A and B and the traction groove are movably connected, and the traction groove is arched.

6. The waste gas treatment device for ion exchange resin production according to claim 1, characterized in that: The displacement column passes through the variable cover, and the clamping platform A and clamping platform B are meshed together. The rotating disk A is located between the gear teeth and the rotating disk B. The rotating disk A, gear teeth, and rotating disk B are matched with each other, and the fastening frame and the inner surface of the circular box are fixed together.

7. The waste gas treatment device for ion exchange resin production according to claim 1, characterized in that: The rotating column passes through one side of the circular box and is fixed to the output end of motor B. The flow hood and the storage port are connected. The impeller vents towards the flow hood. One of the transmission discs connected to chain B in the two pairs of chains A is a three-axis transmission disc. The remaining three transmission discs in the two pairs of chains A are two-axis transmission discs.

8. The waste gas treatment device for ion exchange resin production according to claim 1, characterized in that: A through hole is pre-drilled on one surface of the handle plate near the bottom of the handle, and two screw holes are pre-drilled on one surface of the outer fixing cylinder. The two screw holes are installed at a 90-degree angle, and one of the screw holes coincides with the through hole. A screw rod is threaded into the inside of the screw hole, and the screw rod passes through the through hole. One end of the screw rod is provided with a screw head.

9. The waste gas treatment device for ion exchange resin production according to claim 1, characterized in that: The interior of the activated carbon pack filling frame is filled with activated carbon packs.

Images