Honeycomb type zeolite molecular sieve rotating wheel

Abstract

A honeycomb type zeolite molecular sieve rotating wheel comprises a main supporting table, heating blocks, upper cooling pipes, an inner zeolite bearing wheel, a servo motor, a main driving gear, an oxidation processor and honeycomb type zeolite blocks, a supporting base is arranged at the bottom of the main supporting table, heating block mounting tables are arranged on the two sides of the main supporting table, and upper cooling pipe mounting tables are arranged on the two sides of the main supporting table; the upper cooling pipe mounting table is located on the upper portion of the heating block mounting table, a heating block mounting groove is formed in the inner side of the heating block mounting table and matched with the heating block, the heating block mounting groove is connected with the heating block, the heating block is inserted into the heating block mounting groove to be fixed, and an upper cooling pipe mounting groove is formed in the upper cooling pipe mounting table. The upper cooling pipe installation groove is matched with an upper cooling pipe and connected with the upper cooling pipe, and the upper cooling pipe is inserted into the upper cooling pipe installation groove to be fixed.

Description

Technical Field

[0001] The utility model relates to the field of honeycomb zeolite, in particular to a honeycomb zeolite molecular sieve rotary wheel. Background Art

[0002] The existing patent (Publication No.: CN208642230U) proposes a honeycomb zeolite molecular sieve rotary wheel, which includes a frame and a rotating cylinder. Rotating shafts are arranged at both ends of the rotating cylinder. An adsorption air hood and a desorption air hood are respectively arranged on the frame on both sides of the rotating cylinder. Zeolite adsorption blocks are filled inside the rotating cylinder. An exhaust gas inlet pipe is arranged on the adsorption air hood at one end, an exhaust pipe is arranged on the adsorption air hood at the other end, and an intake pipe is arranged on the desorption air hood on the side where the exhaust pipe is arranged. However, for the device, "an exhaust gas inlet pipe is arranged on the adsorption air hood at one end", and the gas flowing into the exhaust gas inlet pipe will directly enter the zeolite adsorption blocks, resulting in a small diffusion degree when the gas flows in, affecting the contact area between the gas and the zeolite adsorption blocks, and thus affecting the adsorption effect and adsorption efficiency of VOCs. Summary of the Invention

[0003] Aiming at the above deficiencies of the existing technology, the utility model provides a honeycomb zeolite molecular sieve rotary wheel. When performing VOCs treatment operations, VOCs gas is injected into the honeycomb zeolite blocks through an exhaust gas input pipe. The honeycomb zeolite blocks adsorb the exhaust gas in the VOCs, and the gas stripped of the exhaust gas is discharged from the gas discharge port. When the honeycomb zeolite blocks adsorbed with exhaust gas rotate to the lower side, they are heated by heating blocks. The heated VOCs discharge the exhaust gas and are injected into the oxidation processor through an exhaust gas supply pipe. After being processed, the exhaust gas flows back into the honeycomb zeolite blocks through an exhaust gas return pipe, and finally is discharged from the gas discharge port after the honeycomb zeolite blocks move back to the upper part again. By horizontally arranging the exhaust gas input pipe, arranging multiple groups of air flow separation plates inside the exhaust gas input table, and designing the inclination angle at the end of the honeycomb zeolite blocks, it is ensured that when the VOCs are injected into the honeycomb zeolite blocks, they have a large contact area, increasing the adsorption effect of the honeycomb zeolite blocks on the VOCs, with a better adsorption effect and a higher VOCs treatment efficiency.

[0004] The purpose of the utility model is achieved through the following technical solutions:

[0005] A honeycomb zeolite molecular sieve rotor, comprising a main support platform, a heating block, an upper cooling pipe, an inner zeolite carrier wheel, a servo motor, a main drive gear, an oxidation processor, and honeycomb zeolite blocks. The bottom of the main support platform has a support base. Both sides of the main support platform have heating block mounting platforms, and both sides of the main support platform have upper cooling pipe mounting platforms. The upper cooling pipe mounting platforms are located above the heating block mounting platforms. The inner side of the heating block mounting platform has a heating block mounting groove, which is adapted to the heating block. The heating block mounting groove is connected to the heating block, and the heating block is inserted into the heating block mounting groove for fixation. The inner part of the upper cooling pipe mounting platform has an upper cooling pipe mounting groove, which is adapted to the upper cooling pipe. The upper cooling pipe mounting groove is connected to the upper cooling pipe, and the upper cooling pipe is inserted into the upper cooling pipe mounting groove for fixation. One side of the main support platform has an inclined surface, and the inner part of the main support platform has a carrier wheel mounting groove, which is adapted to the inner zeolite carrier wheel.

[0006] The inner zeolite carrier wheel is connected to the carrier wheel mounting groove and rotates inside the carrier wheel mounting groove. The inner side of the inner zeolite carrier wheel has a zeolite carrier seat, and the inner part of the zeolite carrier seat has a zeolite mounting groove, which is adapted to the honeycomb zeolite blocks. The honeycomb zeolite blocks are connected to the zeolite mounting groove, and the honeycomb zeolite blocks are inserted into the zeolite mounting groove for fixation. The inner side of the zeolite carrier seat has a driven gear ring. The inner side of the inclined surface has a motor mounting platform, and the servo motor is fixedly connected to the side of the motor mounting platform.

[0007] The transmission shaft of the servo motor passes through the motor mounting platform and is fixedly connected to the main drive gear. The main drive gear meshes with the driven gear ring. The inner side of the carrier wheel mounting groove has a processing mechanism mounting platform, and the top of the processing mechanism mounting platform has a processing mechanism mounting seat. The oxidation processor is fixedly connected to the top of the processing mechanism mounting seat. One side of the main support platform corresponding to the inclined surface has an exhaust gas supply pipe, and the exhaust gas supply pipe corresponds to the position of the oxidation processor.

[0008] Beneficial effects: 1. When the honeycomb zeolite molecular sieve rotor of the present utility model performs VOCs treatment operations, the VOCs gas is injected into the interior of the honeycomb zeolite blocks through the exhaust gas input pipe. The honeycomb zeolite blocks adsorb the exhaust gas in the VOCs, and the gas with the exhaust gas stripped is discharged from the gas discharge port. When the honeycomb zeolite blocks adsorbed with exhaust gas rotate to the lower side, they are heated by the heating block. The heated VOCs discharge the exhaust gas and are injected into the oxidation processor through the exhaust gas supply pipe. After being processed, they flow back into the honeycomb zeolite blocks through the exhaust gas return pipe and are finally discharged from the gas discharge port after the honeycomb zeolite blocks move back to the upper part again. By horizontally arranging the exhaust gas input pipe, arranging multiple groups of air flow partition plates inside the exhaust gas input platform, and designing the inclination angle at the end of the honeycomb zeolite blocks, it is ensured that when the VOCs are injected into the interior of the honeycomb zeolite blocks, they have a large contact area, increasing the adsorption effect of the honeycomb zeolite blocks on the VOCs, with a better adsorption effect and higher VOCs treatment efficiency.

[0009] 2. The upper part of the main support platform of the present utility model is equipped with an upper cooling pipe, and the bottom of the main support platform is equipped with a heating block. The heating block can accelerate the rotation to heat up the honeycomb zeolite stones located below the main support platform, increasing the desorption efficiency of the VOCs adsorbed inside the honeycomb zeolite stones. At the same time, the upper cooling pipe can accelerate the cooling of the honeycomb zeolite stones, thereby increasing the adsorption capacity of the honeycomb zeolite stones for VOCs, further accelerating the cycle of adsorption and desorption of VOCs by the honeycomb zeolite stones, and further increasing the treatment efficiency of this device for VOCs.

[0010] 3. The main support platform of the present utility model adopts a relatively large annular design, so that when the honeycomb zeolite stones are switched between the upper cooling pipe and the heating block, the honeycomb zeolite stones have sufficient time to heat up or cool down. At the same time, it ensures that the honeycomb zeolite stones have sufficient time for desorption and adsorption, further increasing the treatment effect of this device on VOCs.

[0011] 4. The honeycomb zeolite stones installed inside the inner zeolite carrier wheel of the present utility model adopt a split design and are each independently installed, enabling each honeycomb zeolite stone to be replaced individually, increasing the convenience of maintaining and replacing the honeycomb zeolite stones. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 It is a schematic structural diagram of a honeycomb zeolite molecular sieve rotating wheel according to the present utility model.

[0013] Figure 2 It is a partial sectional view structure diagram of a honeycomb zeolite molecular sieve rotating wheel according to the present utility model.

[0014] Figure 3 It is a partial exploded view of a honeycomb zeolite molecular sieve rotating wheel according to the present utility model.

[0015] Figure 4 It is a schematic structural diagram of the main support platform according to the present utility model.

[0016] Figure 5 It is a schematic structural diagram of the inner zeolite carrier wheel according to the present utility model.

[0017] Figure 6 It is a schematic structural diagram of the honeycomb zeolite stone according to the present utility model. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0018] The following further describes the present utility model in detail according to the drawings and embodiments:

[0019] Embodiment 1:

[0020] A honeycomb zeolite molecular sieve rotor, comprising a main support platform 1, a heating block 3, an upper cooling pipe 6, an inner zeolite carrier wheel 9, a servo motor 14, a main drive gear 15, an oxidation processor 17, and honeycomb zeolite blocks 20. The bottom of the main support platform 1 is provided with a support base 4, and both sides of the main support platform 1 are provided with heating block mounting platforms 2. The main support platform 1 adopts a relatively large annular design, so that when the honeycomb zeolite blocks 20 are switched between the upper cooling pipe 6 and the heating block 3, the honeycomb zeolite blocks 20 have enough time to heat up or cool down, and at the same time ensure that the honeycomb zeolite blocks 20 have enough time for desorption and adsorption, further increasing the treatment effect of this device on VOCs. Both sides of the main support platform 1 are provided with upper cooling pipe mounting platforms 5, and the upper cooling pipe mounting platforms 5 are located above the heating block mounting platforms 2. The inner side of the heating block mounting platform 2 is provided with a heating block mounting groove 23, and the heating block mounting groove 23 is adapted to the heating block 3. The heating block mounting groove 23 is connected to the heating block 3, and the heating block 3 is inserted into the heating block mounting groove 23 for fixation. The inner part of the upper cooling pipe mounting platform 5 is provided with an upper cooling pipe mounting groove 24, and the upper cooling pipe mounting groove 24 is adapted to the upper cooling pipe 6. The upper cooling pipe mounting groove 24 is connected to the upper cooling pipe 6, and the upper cooling pipe 6 is inserted into the upper cooling pipe mounting groove 24 for fixation. The upper cooling pipe 6 is installed on the upper part of the main support platform 1, and the heating block 3 is installed at the bottom of the main support platform 1. The heating block 3 can accelerate the heating of the honeycomb zeolite blocks 20 on the lower side of the main support platform 1, increasing the desorption efficiency of the VOCs adsorbed inside the honeycomb zeolite blocks 20. At the same time, the upper cooling pipe 6 can accelerate the cooling of the honeycomb zeolite blocks 20 to increase the adsorption capacity of the honeycomb zeolite blocks 20 for VOCs, further accelerating the cycle of adsorption and desorption of the honeycomb zeolite blocks 20 for VOCs, and further increasing the treatment efficiency of this device for VOCs. One side of the main support platform 1 has an inclined surface 12, and the inner part of the main support platform 1 has a carrier wheel mounting groove 25, and the inner zeolite carrier wheel 9 is adapted to the carrier wheel mounting groove 25.

[0021] Embodiment 2:

[0022] In the present utility model, the inner zeolite carrier wheel 9 is connected to the carrier wheel mounting groove 25, and the honeycomb zeolite blocks 20 installed inside the inner zeolite carrier wheel 9 adopt a split design and are each independently installed, enabling each honeycomb zeolite block 20 to be replaced separately, increasing the convenience of maintenance and replacement of the honeycomb zeolite blocks 20. The inner zeolite carrier wheel 9 rotates inside the carrier wheel mounting groove 25. The inner side of the inner zeolite carrier wheel 9 has a zeolite carrier seat 26, and the inner part of the zeolite carrier seat 26 has a zeolite mounting groove 21, and the honeycomb zeolite blocks 20 are adapted to the zeolite mounting groove 21. The honeycomb zeolite blocks 20 are connected to the zeolite mounting groove 21, and the honeycomb zeolite blocks 20 are inserted into the zeolite mounting groove 21 for fixation. The inner side of the zeolite carrier seat 26 has a driven gear ring 10, and the inner side of the inclined surface 12 has a motor mounting platform 13, and the side of the motor mounting platform 13 is fixedly connected to the servo motor 14.

[0023] Example 3:

[0024] The transmission shaft of the servo motor 14 described in the present utility model passes through the motor mounting table 13 and is fixedly connected to the main drive gear 15. The main drive gear 15 meshes with the driven gear ring 10. Inside the carrier wheel mounting groove 25, there is a processing mechanism mounting table 11. On the top of the processing mechanism mounting table 11, there is a processing mechanism mounting seat 16. On the top of the processing mechanism mounting seat 16, an oxidation processor 17 is fixedly connected. On one side of the main support table 1 corresponding to the inclined surface 12, there is an exhaust gas supply pipe 19, and the exhaust gas supply pipe 19 corresponds to the position of the oxidation processor 17.

[0025] Example 4:

[0026] On the other side of the exhaust gas supply pipe 19 described in the present utility model, an oxidation processor 17 is fixedly connected. On the side of the main support table 1 opposite to the inclined surface 12, there is an exhaust gas return pipe 18, and the exhaust gas return pipe 18 corresponds to the position of the oxidation processor 17. On the other side of the exhaust gas return pipe 18, an oxidation processor 17 is fixedly connected. On the top of the inclined surface 12, there is an exhaust gas input table 7.

[0027] Example 5:

[0028] Inside the exhaust gas input table 7 described in the present utility model, there is an air flow partition plate 22. On the side of the exhaust gas input table 7, there is an exhaust gas input pipe 8. When this honeycomb zeolite molecular sieve rotor performs VOCs treatment operations, VOCs gas is injected into the inside of the honeycomb zeolite blocks 20 through the exhaust gas input pipe 8. The honeycomb zeolite blocks 20 adsorb the exhaust gas inside the VOCs. The gas with the exhaust gas stripped is discharged from the gas discharge port 27. When the honeycomb zeolite blocks 20 adsorbed with exhaust gas rotate to the lower side, they are heated by the heating block 3. The heated VOCs discharge the exhaust gas and are injected into the oxidation processor 17 through the exhaust gas supply pipe 19. After being processed, they flow back into the honeycomb zeolite blocks 20 through the exhaust gas return pipe 18, and finally are discharged from the gas discharge port 27 after the honeycomb zeolite blocks 20 move back to the upper part again. By horizontally arranging the exhaust gas input pipe 8, arranging multiple groups of air flow partition plates 22 inside the exhaust gas input table 7, and designing the inclination angle at the end of the honeycomb zeolite blocks 20, it is ensured that when VOCs are injected into the inside of the honeycomb zeolite blocks 20, they have a large contact area, increasing the adsorption effect of the honeycomb zeolite blocks 20 on VOCs, with a better adsorption effect and higher VOCs treatment efficiency. On the side of the main support table 1 opposite to the inclined surface 12, there is a gas discharge port 27, and the gas discharge port 27 corresponds to the position of the exhaust gas input table 7.

[0029] Example 6:

[0030] Installation steps of the utility model: Insert the honeycomb zeolite block 20 into the zeolite installation groove 21 of the inner zeolite carrier wheel 9 for fixation, insert the inner zeolite carrier wheel 9 into the carrier wheel installation groove 25 of the main support platform 1, fix the oxidation processor 17 on the upper part of the processing mechanism mounting seat 16 of the main support platform 1, fixedly connect the waste gas supply pipe 19 of the main support platform 1 with the oxidation processor 17, fixedly connect the waste gas return pipe 18 of the main support platform 1 with the oxidation processor 17, fixedly connect the side of the motor mounting platform 13 of the main support platform 1 with the servo motor 14, pass the transmission shaft of the servo motor 14 through the motor mounting platform 13 and fixedly connect it with the main driving gear 15, make the main driving gear 15 mesh with the driven gear ring 10 of the inner zeolite carrier wheel 9, insert the heating block 3 into the heating block installation groove 23 of the main support platform 1, insert the upper cooling pipe 6 into the upper cooling pipe installation groove 24 of the main support platform 1, and the installation of this device is completed.

[0031] The above is only the preferred embodiment of the utility model and is not intended to limit the utility model. It should be noted that for those of ordinary skill in the art in this technical field, without departing from the technical principle of the utility model, several improvements and modifications can be made, and these improvements and modifications should also be regarded as the protection scope of the utility model.

Claims

1. A honeycomb zeolite molecular sieve rotor, characterized in that : It comprises a main support platform (1), a heating block (3), an upper cooling tube (6), an inner zeolite bearing wheel (9), a servo motor (14), a main driving gear (15), an oxidation processor (17), and a honeycomb zeolite block (20). The main support platform (1) has a supporting base (4) at the bottom, and heating block mounting platforms (2) are provided on both sides of the main support platform (1). The main support platform (1) has upper cooling tube mounting platforms (5) on both sides. The upper cooling tube mounting platforms (5) are located on the upper part of the heating block mounting platform (2). The inner side of the heating block mounting platform (2) has a heating block mounting groove (23). The heating block mounting groove (23) is adapted to the heating block (3). The heating block mounting groove (23) is connected to the heating block (3). The heating block (3) is inserted into the heating block mounting groove (23) and fixed inside. The upper cooling tube mounting platform (5) has an upper cooling tube mounting groove (24) inside. The upper cooling tube mounting groove (24) is connected to the heating block (3). The upper cooling tube (6) is adapted to the upper cooling tube installation groove (24), the upper cooling tube (6) is connected to the upper cooling tube (6), the upper cooling tube (6) is inserted into the upper cooling tube installation groove (24) and fixed, one side of the main support platform (1) has an inclined surface (12), the main support platform (1) has a bearing wheel installation groove (25) inside, the inner zeolite bearing wheel (9) is adapted to the bearing wheel installation groove (25); the inner zeolite bearing wheel (9) is connected to the bearing wheel installation groove (25), the inner zeolite bearing wheel (9) rotates inside the bearing wheel installation groove (25), the inner side of the inner zeolite bearing wheel (9) has a zeolite bearing seat (26), the zeolite bearing seat (26) has a zeolite installation groove (21), the honeycomb zeolite block (20) is adapted to the zeolite installation groove (21), the honeycomb zeolite block (20) is connected to the zeolite installation groove (21), the honeycomb zeolite block (20) is inserted into the zeolite installation groove (21) and fixed.

2. A honeycomb zeolite molecular sieve rotor according to claim 1, characterized in that The inner side of the zeolite bearing seat (26) is provided with a driven gear ring (10), the inner side of the inclined surface (12) is provided with a motor mounting platform (13), and the side of the motor mounting platform (13) is fixedly connected to a servo motor (14).

3. A honeycomb zeolite molecular sieve rotor according to claim 2, characterized in that The transmission shaft of the servo motor (14) passes through the motor mounting platform (13) and is fixedly connected to the main driving gear (15), the main driving gear (15) is meshed with the driven gear ring (10), the inner side of the load-bearing wheel mounting groove (25) is provided with a processing mechanism mounting platform (11), the top of the processing mechanism mounting platform (11) is provided with a processing mechanism mounting seat (16), the top of the processing mechanism mounting seat (16) is fixedly connected to the oxidation processor (17), and the side of the main support platform (1) corresponding to the inclined surface (12) is provided with an exhaust gas supply pipe (19), and the exhaust gas supply pipe (19) corresponds to the position of the oxidation processor (17).

4. A honeycomb zeolite molecular sieve rotor according to claim 3, characterized in that The other side of the waste gas supply pipe (19) is fixedly connected to the oxidation processor (17); the main support platform (1) has a waste gas return pipe (18) on the side opposite to the inclined surface (12); the waste gas return pipe (18) corresponds to the position of the oxidation processor (17); the other side of the waste gas return pipe (18) is fixedly connected to the oxidation processor (17); and the top of the inclined surface (12) has a waste gas input platform (7).

5. The honeycomb zeolite molecular sieve rotor according to claim 4, characterized in that The exhaust gas input platform (7) has an airflow partition plate (22) inside, and a side of the exhaust gas input platform (7) has an exhaust gas input pipe (8). The main support platform (1) has a gas outlet (27) on the side opposite to the inclined surface (12), and the gas outlet (27) corresponds to the position of the exhaust gas input platform (7).

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