Biological enzyme catalytic reactor

Abstract

The utility model relates to the technical field of catalytic reactors, in particular to a bio-enzyme catalytic reactor which can recycle and backfill bio-enzyme particles in the reaction process to realize continuous catalytic production and is good in practicability. Comprising a reaction barrel and a honeycomb body, the reaction barrel cover is rotationally installed on the taking and placing opening of the reaction barrel, the multiple catalyst boxes are inserted into the multiple through grooves of the honeycomb body respectively, the surrounding plate is installed on the reaction barrel cover and surrounds part of the through grooves of the honeycomb body, the motor is installed below the reaction barrel, and the vertical shaft is installed on the motor. The vertical shaft vertically penetrates through the center of the honeycomb body, the lower end of the vertical shaft penetrates through the bottom wall of the reaction barrel to be in transmission connection with an output shaft of the motor, the upper end of the vertical shaft is connected with the center of the reaction barrel cover, the baffle is installed on the vertical shaft, the baffle makes sliding contact with the lower end face of the honeycomb body, the baffle surrounds part of the through groove of the honeycomb body, and the baffle and the surrounding plate are vertically aligned.

Description

Technical Field

[0001] The utility model relates to the technical field of catalytic reactors, in particular to a bio-enzyme catalytic reactor. Background Art

[0002] Bioenzyme catalytic reactor refers to the equipment required for the reaction using bioenzyme as a catalyst, and enzyme can be used as a catalyst for industrial production. Various bioenzyme catalytic reactors are disclosed in the prior art, such as a high-efficiency biocatalytic reactor proposed by the Chinese utility model patent with publication number CN219409745U. The catalytic reactor is matched with a placement room by a fixing block, a mounting block, a screw, a nut, and a cover plate, so that a reaction tank filled with bioenzyme can be conveniently placed in the placement room and limited, thereby reducing the process of recovering the bioenzyme after the reaction is completed. The air intake, an air intake pipe, a feed pump and a return pipe are matched, and the air intake pipe sprays high-flow air into the feed port through the air intake. The high-flow air flow maintains a negative pressure around the feed port, thereby feeding the material into the placement room through the feed port. The material flowing out of the placement room is pressurized by the feed pump and then flows back into the reaction room through the return pipe, thereby protecting the activity of the bioenzyme while circulating the material in the reaction room to prevent blockage.

[0003] However, the above-mentioned existing technology can only recycle the bio-enzyme catalyst particles after the reaction is completed, and cannot recycle and backfill the bio-enzyme particles during the reaction process. Therefore, it cannot achieve continuous catalytic production and has poor practicality. Utility Model Content

[0004] In order to solve the above technical problems, the utility model provides a bio-enzyme catalytic reactor which can recycle and backfill bio-enzyme particles during the reaction process to achieve continuous catalytic production and has good practicality.

[0005] The utility model discloses a bio-enzyme catalytic reactor, comprising a reaction barrel and a honeycomb body, wherein a catalytic chamber is arranged inside the reaction barrel, and the honeycomb body is installed in the catalytic chamber of the reaction barrel; the utility model also comprises a reaction barrel cover, a plurality of catalyst cartridges, a surrounding plate, a motor, a vertical shaft and a baffle, the upper end surface of the reaction barrel is provided with a take-in and put-out port connected with the catalytic chamber, the reaction barrel cover is rotatably mounted on the take-in and put-out port of the reaction barrel, the honeycomb body is provided with a plurality of vertical through slots, the plurality of catalyst cartridges are respectively inserted into the plurality of through slots of the honeycomb body, the plurality of catalyst cartridges are filled with bio-enzyme catalysts, the surrounding plate is installed on the reaction barrel cover, and the upper end of the surrounding plate extends out of the reaction barrel. Above the cover, the lower port of the enclosure is in sliding contact with the upper end of the honeycomb body, and the enclosure surrounds part of the through-slot of the honeycomb body. The motor is installed below the reaction barrel, and the vertical shaft passes vertically through the center of the honeycomb body. The lower end of the vertical shaft passes through the bottom wall of the reaction barrel and is transmission-connected to the output shaft of the motor. The upper end of the vertical shaft is connected to the center of the reaction barrel cover. The baffle is installed on the vertical shaft, and the baffle is in sliding contact with the lower end surface of the honeycomb body. The baffle surrounds part of the through-slot of the honeycomb body, and the baffle is aligned with the enclosure up and down. During operation, multiple catalyst cartridges are filled with bio-enzyme catalysts and are respectively inserted into multiple through-slots of the honeycomb body to allow liquid raw materials to enter the reaction barrel. After the reaction, the liquid raw materials enter the multiple grooves through the bottom of the honeycomb body and react after passing through the bio-enzyme catalysts in the multiple catalyst boxes. The reacted liquid raw materials are discharged from the upper end of the honeycomb body. After the reaction, the motor drives the vertical shaft to rotate, and the vertical shaft drives the baffle and the enclosure to rotate, so that the baffle blocks the lower ports of some of the through grooves of the honeycomb body, and at the same time, the enclosure surrounds the upper ports of some of the through grooves of the honeycomb body. The multiple catalyst boxes in the multiple through grooves of the surrounded honeycomb body are taken out from the outside of the reaction barrel cover through the enclosure, the bio-enzyme catalysts in the multiple catalyst boxes are recovered and regenerated, and new bio-enzyme catalysts are added. The chemical agent is loaded into the multiple catalyst cartridges, and the multiple catalyst cartridges are installed back into some of the through slots of the honeycomb body through the baffle. The motor drives the vertical shaft to rotate again, and the above operation is repeated. The multiple catalyst cartridges in the multiple through slots of the honeycomb body are gradually taken out and the bio-enzyme catalysts therein are replaced, thereby completing the complete update of the bio-enzyme catalyst. During the update process, the multiple catalyst cartridges in the multiple through slots of the other honeycomb bodies that are not blocked by the baffle continue to carry out catalytic reactions. Compared with the existing technology, the bio-enzyme particles can be recycled and backfilled during the reaction process, and continuous catalytic production can be achieved, which is practical.

[0006] Preferably, it also includes a partition, a liquid inlet pipe and a liquid outlet pipe. The partition is installed between the inner wall of the catalytic chamber of the reaction barrel and the outer wall of the honeycomb body. The liquid inlet pipe and the liquid outlet pipe are installed on the outer wall of the reaction barrel. The output end of the liquid inlet pipe is located below the partition, and the input end of the liquid outlet pipe is located above the partition. The liquid raw material is input into the part below the partition of the catalytic chamber of the reaction barrel through the liquid inlet pipe, so that the liquid raw material enters the multiple through grooves from the bottom of the honeycomb body and then contacts and reacts with the biological enzyme catalysts in the multiple catalyst box bodies. The liquid raw material after the reaction is discharged from the upper ports of the multiple through grooves of the honeycomb body. The liquid raw material is collected on the partition and discharged through the liquid outlet pipe. The structure is simple and practical.

[0007] Preferably, it also includes a bearing ring and multiple blades. The bearing ring is rotatably mounted on the lower end of the vertical shaft, and multiple blades are mounted on the circumference of the bearing ring. The bearing ring and the blades are located below the honeycomb body. When the liquid raw material below the honeycomb body flows, it drives the multiple blades and the bearing ring to rotate, which is beneficial to improving the uniformity of the liquid raw material and improving the catalytic reaction effect.

[0008] Preferably, the catalyst box body includes a left box body, a right box body, multiple transverse plates and multiple bio-enzyme catalyst solidified particles. The left box body and the right box body are arranged relative to each other to form a catalytic square box. Multiple transverse plates are provided inside the left box body and the right box body, and multiple through holes are provided on the multiple transverse plates. The multiple transverse plates divide the catalytic square box formed by the left box body and the right box body into multiple receiving chambers, and the multiple bio-enzyme catalyst solidified particles are respectively loaded in the multiple receiving chambers; the catalytic square box formed by the left box body and the right box body is inserted into the through groove of the honeycomb body, and the liquid raw material flows from bottom to top through the multiple receiving chambers in turn through the through holes of the multiple transverse plates and contacts with the bio-enzyme catalyst solidified particles for catalytic reaction, thereby ensuring the catalytic reaction time of the liquid raw material and stable catalytic quality. The left box body and the right box body are convenient to open to take out and replace the multiple bio-enzyme catalyst solidified particles, which has good practicality.

[0009] Preferably, it also includes an installation slide groove, a card slot and a connecting slide, and one side of the left box body and the right box body are rotatably connected by a hinge, and an installation slide groove is provided on the other side of the right box body, and a card slot is provided on the other side of the left box body, the installation slide groove and the card slot are arranged relative to each other, one end of the connecting slide groove is slidably installed in the installation slide groove, and the other end of the connecting slide groove is carded in the card slot; when the left box body and the right box body are docked, the connecting slide groove is slid along the installation slide groove so that the other end of the connecting slide groove is carded into the card slot, so that the other side of the left box body and the right box body are connected, and the connecting slide groove is slid along the installation slide groove so that the other end of the connecting slide groove is taken out of the card slot, so that the other side of the left box body and the right box body are disconnected, which is convenient for opening the left box body and the right box body, and has good practicality.

[0010] Preferably, it also includes a turntable, a push cylinder, a mounting plate, a vertical rod, a hook plate and a spring. The turntable is installed on the reaction barrel cover, the lower end of the piston rod of the push cylinder is connected to the rotating end of the turntable, the mounting plate is connected to the fixed end of the push cylinder, the upper ends of the multiple vertical rods are connected to the mounting plate, the multiple vertical rods are respectively matched and aligned with the through grooves of the honeycomb body, the lower ends of the multiple vertical rods are provided with slide grooves, and the multiple hook plates are respectively elastically mounted in the slide grooves of the multiple vertical rods through multiple springs; when multiple catalyst cartridges need to be taken out, the piston rod of the push cylinder contracts to drive the mounting plate and the multiple vertical rods to descend, so that The lower ends of the multiple vertical rods are respectively inserted into the top through holes of the catalytic square box composed of multiple left box bodies and multiple right box bodies, and the elastic force of the multiple springs pops out the multiple hook plates, so that the multiple hook plates hook the horizontal plates on the top of the catalytic square box, and the piston rod of the push cylinder extends to drive the mounting plate and the multiple vertical rods to rise, thereby pulling the multiple catalyst box bodies out of the partial through grooves of the honeycomb body, and the turntable drives the push cylinder to rotate, so that the mounting plate rotates, and the catalyst box bodies are moved out of the outside of the reaction barrel, so that the multiple catalyst box bodies can be quickly taken out and backfilled, thereby improving work efficiency.

[0011] Compared with the prior art, the present invention has the following beneficial effects: the bio-enzyme particles can be recycled and backfilled during the reaction process, continuous catalytic production can be achieved, and the practicality is good. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 It is a structural diagram of the utility model;

[0013] Figure 2 This is a front sectional structural diagram of the present utility model;

[0014] Figure 3 This is an axonometric structural diagram of the present utility model;

[0015] Figure 4 It is a structural diagram of the honeycomb body, catalyst box body, enclosure, motor and vertical shaft;

[0016] Figure 5 It is a structural diagram of the enclosure, motor, vertical shaft, baffle, bearing ring and blades;

[0017] Figure 6 It is a structural schematic diagram of the catalyst box and other structures;

[0018] Figure 7 It is a schematic diagram of the structure of the catalyst box and other structures in a decomposed state;

[0019] Figure 8 It is a structural diagram of structures such as a turntable, a push cylinder, a mounting plate and a vertical rod.

[0020] Markings in the accompanying drawings: 1. reaction barrel; 2. honeycomb body; 3. reaction barrel cover; 4. catalyst box body; 5. enclosure; 6. motor; 7. vertical axis; 8. baffle; 9. partition; 10. liquid inlet pipe; 11. liquid outlet pipe; 12. bearing ring; 13. blade; 14. left box body; 15. right box body; 16. horizontal plate; 17. bio-enzyme catalyst solidified particles; 18. mounting slide; 19. card slot; 20. connecting slide; 21. turntable; 22. push cylinder; 23. mounting plate; 24. vertical rod; 25. hook plate; 26. spring. DETAILED DESCRIPTION

[0021] To facilitate understanding of the present invention, a more comprehensive description of the present invention will be provided below with reference to the accompanying drawings. The present invention can be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to provide a more thorough and comprehensive understanding of the present invention.

[0022] Example 1

[0023] like Figures 1 to 5 As shown, a bio-enzyme catalytic reactor comprises a reaction barrel 1 and a honeycomb body 2, a catalytic chamber is arranged inside the reaction barrel 1, and the honeycomb body 2 is installed in the catalytic chamber of the reaction barrel 1; it also comprises a reaction barrel cover 3, multiple catalyst cartridges 4, a surrounding plate 5, a motor 6, a vertical shaft 7 and a baffle 8, the upper end surface of the reaction barrel 1 is provided with a take-in and put-out port connected to the catalytic chamber, the reaction barrel cover 3 is rotatably mounted on the take-in and put-out port of the reaction barrel 1, the honeycomb body 2 is provided with multiple vertical through-slots, the multiple catalyst cartridges 4 are respectively inserted into the multiple through-slots of the honeycomb body 2, the multiple catalyst cartridges 4 are filled with bio-enzyme catalysts, the surrounding plate 5 is installed on the reaction barrel cover 3, the upper end port of the surrounding plate 5 extends above the reaction barrel cover 3, the lower end port of the surrounding plate 5 is in sliding contact with the upper end of the honeycomb body 2, the surrounding plate 5 surrounds part of the through-slots of the honeycomb body 2, the motor 6 is installed below the reaction barrel 1, and the vertical shaft 7 vertically passes through the honeycomb body 2 The center, the lower end of the vertical shaft 7 passes through the bottom wall of the reaction barrel 1 and is transmission-connected to the output shaft of the motor 6, the upper end of the vertical shaft 7 is connected to the center of the reaction barrel cover 3, the baffle 8 is installed on the vertical shaft 7, the baffle 8 is in sliding contact with the lower end surface of the honeycomb body 2, the baffle 8 surrounds part of the through groove of the honeycomb body 2, and the baffle 8 is aligned with the surrounding plate 5 up and down; it also includes a partition 9, a liquid inlet pipe 10 and a liquid outlet pipe 11, the partition 9 is installed between the inner wall of the catalytic chamber of the reaction barrel 1 and the outer wall of the honeycomb body 2, the liquid inlet pipe 10 and the liquid outlet pipe 11 are installed on the outer wall of the reaction barrel 1, the output end of the liquid inlet pipe 10 is located below the partition 9, and the input end of the liquid outlet pipe 11 is located above the partition 9; it also includes a bearing ring 12 and a plurality of blades 13, the bearing ring 12 is rotatably mounted on the lower end of the vertical shaft 7, a plurality of blades 13 are circumferentially mounted on the bearing ring 12, and the bearing ring 12 and the blades 13 are located below the honeycomb body 2.

[0024] During operation, multiple catalyst boxes 4 are filled with bio-enzyme catalysts and are respectively inserted into multiple through grooves of the honeycomb body 2. The liquid raw material is input into the part below the partition 9 of the catalytic chamber of the reaction barrel 1 through the liquid inlet pipe 10. When the liquid raw material below the honeycomb body 2 flows, it pushes multiple blades 13 and bearing rings 12 to rotate, which is beneficial to improving the uniformity of the liquid raw material, so that the liquid raw material enters the multiple through grooves from the bottom of the honeycomb body 2 and then contacts and reacts with the bio-enzyme catalysts in the multiple catalyst boxes 4. The liquid raw material after the reaction is discharged from the upper ports of the multiple through grooves of the honeycomb body 2, and the liquid raw material is collected on the partition 9 and discharged through the liquid outlet pipe 11. After the reaction period, the motor 6 drives the vertical shaft 7 to rotate, and the vertical shaft 7 drives the baffle 8 and the enclosure 5 to rotate, so that the baffle 8 blocks the lower ports of some through grooves of the honeycomb body 2, and at the same time the enclosure 5 blocks some through grooves of the honeycomb body 2. The upper port is surrounded, and the multiple catalyst cartridges 4 in the multiple through slots of the enclosed honeycomb body 2 are taken out through the enclosing plate 5 outside the reaction barrel cover 3, the bio-enzyme catalysts in the multiple catalyst cartridges 4 are recovered and regenerated, and new bio-enzyme catalysts are loaded into the multiple catalyst cartridges 4, and the multiple catalyst cartridges 4 are returned to some through slots of the honeycomb body 2 through the enclosing plate 5. The motor 6 drives the vertical shaft 7 to rotate again, and the above operation is repeated. The multiple catalyst cartridges 4 in the multiple through slots of the honeycomb body 2 are gradually taken out and the bio-enzyme catalysts therein are replaced, thereby completing the complete update of the bio-enzyme catalyst. During the update process, the multiple catalyst cartridges 4 in the multiple through slots of the other honeycomb body 2 that are not blocked by the baffle 8 continue to carry out catalytic reaction. Compared with the existing technology, the bio-enzyme particles can be recovered and backfilled during the reaction process, and continuous catalytic production can be achieved.

[0025] Example 2

[0026] like Figure 6 and Figure 7 As shown, on the basis of Example 1, the catalyst box body 4 includes a left box body 14, a right box body 15, a plurality of transverse plates 16 and a plurality of bio-enzyme catalyst solidified particles 17, the left box body 14 and the right box body 15 are arranged relative to each other to form a catalytic square box, a plurality of transverse plates 16 are provided inside the left box body 14 and the right box body 15, a plurality of through holes are provided on the plurality of transverse plates 16, and the plurality of transverse plates 16 divide the catalytic square box formed by the left box body 14 and the right box body 15 into a plurality of receiving chambers, and the plurality of bio-enzyme catalyst solidified particles 17 are respectively loaded in the plurality of receiving chambers; it also includes an installation slide 18, a card slot 19 and a connecting slide 20, one side of the left box body 14 and the right box body 15 are rotatably connected by a hinge, the other side of the right box body 15 is provided with an installation slide 18, and the other side of the left box body 14 is provided with a card slot 19, the installation slide 18 and the card slot 19 are arranged relative to each other, one end of the connecting slide 20 is slidably installed in the installation slide 18, and the other end of the connecting slide 20 is carded with the card slot 19.

[0027] When the left box body 14 and the right box body 15 are docked, the connecting slide 20 is slid along the installation slide groove 18 so that the other end of the connecting slide 20 is card-fitted into the card slot 19, so that the other sides of the left box body 14 and the right box body 15 are connected, so that the catalytic box composed of the left box body 14 and the right box body 15, the catalytic box composed of the left box body 14 and the right box body 15 is inserted into the through groove of the honeycomb body 2, and the liquid raw material flows from bottom to top through the through holes of multiple cross plates 16 in sequence through multiple holding chambers and contacts the bio-enzyme catalyst solidified particles 17 for catalytic reaction, ensuring the catalytic reaction time of the liquid raw material and stable catalytic quality, and sliding the connecting slide 20 along the installation slide groove 18 so that the other end of the connecting slide 20 is removed from the card slot 19, so that the other side of the left box body 14 and the right box body 15 are disconnected, which is convenient for removing and replacing multiple bio-enzyme catalyst solidified particles 17.

[0028] Example 3

[0029] like Figure 1 、 Figure 3 and Figure 8 As shown, on the basis of Example 1, it also includes a turntable 21, a push cylinder 22, a mounting plate 23, a vertical rod 24, a hook plate 25 and a spring 26. The turntable 21 is installed on the reaction barrel cover 3, the lower end of the piston rod of the push cylinder 22 is connected to the rotating end of the turntable 21, the mounting plate 23 is connected to the fixed end of the push cylinder 22, the upper ends of multiple vertical rods 24 are connected to the mounting plate 23, and the multiple vertical rods 24 are respectively matched and aligned with the through grooves of the honeycomb body 2. The lower ends of the multiple vertical rods 24 are all provided with slide grooves, and the multiple hook plates 25 are respectively slidably and elastically installed in the slide grooves of the multiple vertical rods 24 through multiple springs 26.

[0030] When multiple catalyst box bodies 4 need to be taken out, the piston rod of the push cylinder 22 contracts and drives the mounting plate 23 and multiple vertical rods 24 to descend, so that the lower ends of the multiple vertical rods 24 are respectively inserted into the top through holes of the catalytic box formed by the multiple left box bodies 14 and the multiple right box bodies 15, and the elastic force of the multiple springs 26 pops out the multiple hook plates 25, so that the multiple hook plates 25 hook the horizontal plate 16 on the top of the catalytic box. The piston rod of the push cylinder 22 extends and drives the mounting plate 23 and multiple vertical rods 24 to rise, thereby pulling the multiple catalyst box bodies 4 out of the partial through grooves of the honeycomb body 2, and the turntable 21 drives the push cylinder 22 to rotate, so that the mounting plate 23 rotates, and the catalyst box bodies 4 are moved out of the outside of the reaction barrel 1, so that the multiple catalyst box bodies 4 can be quickly taken out and backfilled, thereby improving work efficiency.

[0031] like Figures 1 to 8As shown, a bio-enzyme catalytic reactor of the present invention is provided. When it is working, first, a plurality of catalyst cartridges 4 are filled with bio-enzyme catalysts and then respectively inserted into a plurality of through grooves of the honeycomb body 2. The liquid raw material is input into the portion below the catalytic chamber partition 9 of the reaction barrel 1 through the liquid inlet pipe 10, so that the liquid raw material enters the plurality of through grooves from the bottom of the honeycomb body 2 and then contacts and reacts with the bio-enzyme catalysts in the plurality of catalyst cartridges 4. The liquid raw material after the reaction is discharged from the upper ports of the plurality of through grooves of the honeycomb body 2. The liquid raw materials are collected on the partition 9 and discharged through the liquid outlet pipe 11. After a period of reaction, the motor 6 drives the vertical shaft 7 to rotate, and the vertical shaft 7 drives the baffle 8 and the enclosure 5 to rotate, so that the baffle 8 blocks the lower end of the partial through-groove of the honeycomb body 2, and at the same time, the enclosure 5 surrounds the upper end of the partial through-groove of the honeycomb body 2. Then, the piston rod of the push cylinder 22 contracts and drives the mounting plate 23 and the plurality of vertical rods 24 to descend, so that the lower ends of the plurality of vertical rods 24 are respectively inserted into the plurality of left box bodies 14 and the plurality of right box bodies 15. The top through-hole of the formed catalytic box is ejected by the elastic force of multiple springs 26, so that the multiple hook plates 25 hook the horizontal plate 16 on the top of the catalytic box, and the piston rod of the push cylinder 22 is extended to drive the mounting plate 23 and the multiple vertical rods 24 to rise, thereby pulling out the multiple catalyst box bodies 4 from the partial through-slots of the honeycomb body 2, and the turntable 21 drives the push cylinder 22 to rotate, so that the mounting plate 23 rotates, and the catalyst box bodies 4 are moved out of the outside of the reaction barrel 1, and the multiple left box bodies 14 and the multiple right box bodies 15 are opened to replace the multiple bio-enzyme catalyst solidified particles 17, and the multiple catalyst box bodies 4 are put back into the partial through-slots of the honeycomb body 2 through the enclosure 5. The motor 6 drives the vertical shaft 7 to rotate again, and finally repeats the above operation, and the multiple catalyst box bodies 4 in the multiple through-slots of the honeycomb body 2 are gradually taken out and the bio-enzyme catalysts therein are replaced, completing the complete update of the bio-enzyme catalyst. During the updating process, the multiple catalyst box bodies 4 in the multiple through-slots of the other honeycomb body 2 that are not blocked by the baffle 8 continue to carry out the catalytic reaction.

[0032] The main functions achieved by this utility model are:

[0033] 1. It can recycle and backfill the bio-enzyme particles during the reaction process to achieve continuous catalytic production, which is very practical;

[0034] 2. By making the liquid raw material flow through multiple holding chambers filled with bio-enzyme catalyst particles, the catalytic reaction time is guaranteed and the catalytic quality is improved;

[0035] 3. Multiple catalyst boxes can be quickly taken out and bio-enzyme catalyst particles can be quickly replaced.

[0036] The installation method, connection method or setting method of the bio-enzyme catalytic reactor of the present invention are all common mechanical methods, and any method that can achieve its beneficial effects can be implemented; the reaction barrel 1, reaction barrel cover 3, motor 6, vertical shaft 7, partition 9, liquid inlet pipe 10, liquid outlet pipe 11, bearing ring 12, blade 13, bio-enzyme catalyst solidified particles 17, turntable 21, push cylinder 22, vertical rod 24, hook plate 25, and spring 26 of the bio-enzyme catalytic reactor of the present invention are purchased on the market, and technical personnel in this industry only need to install and operate them according to the accompanying instruction manual, without the need for technical personnel in this field to make creative labor.

[0037] All technical and scientific terms used herein have the same meanings as those commonly understood by those skilled in the art to which this invention pertains. The terms used herein in the specification of this invention are intended solely for the purpose of describing specific embodiments and are not intended to limit the invention. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

[0038] The above is only a preferred embodiment of the present invention. It should be pointed out that for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the technical principles of the present invention. These improvements and modifications should also be regarded as the scope of protection of the present invention.

Claims

1. A bio-enzyme catalytic reactor, comprising a reaction barrel (1) and a honeycomb body (2), wherein a catalytic chamber is provided inside the reaction barrel (1), and the honeycomb body (2) is installed in the catalytic chamber of the reaction barrel (1); characterized in that: The invention also includes a reaction barrel cover (3), a plurality of catalyst cartridges (4), a panel (5), a motor (6), a vertical shaft (7) and a baffle (8); the upper end surface of the reaction barrel (1) is provided with a take-in and take-out port communicating with the catalyst chamber; the reaction barrel cover (3) is rotatably mounted on the take-in and take-out port of the reaction barrel (1); the honeycomb body (2) is provided with a plurality of vertical through slots; the plurality of catalyst cartridges (4) are respectively inserted into the plurality of through slots of the honeycomb body (2); the plurality of catalyst cartridges (4) are filled with bio-enzyme catalysts; the panel (5) is mounted on the reaction barrel cover (3); the upper end of the panel (5) extends above the reaction barrel cover (3); the lower end of the panel (5) is The port is in sliding contact with the upper end of the honeycomb body (2), the enclosure (5) surrounds part of the through slot of the honeycomb body (2), the motor (6) is installed below the reaction barrel (1), the vertical shaft (7) vertically passes through the center of the honeycomb body (2), the lower end of the vertical shaft (7) passes through the bottom wall of the reaction barrel (1) and is transmission-connected with the output shaft of the motor (6), the upper end of the vertical shaft (7) is connected to the center of the reaction barrel cover (3), the baffle (8) is installed on the vertical shaft (7), the baffle (8) is in sliding contact with the lower end surface of the honeycomb body (2), the baffle (8) surrounds part of the through slot of the honeycomb body (2), and the baffle (8) and the enclosure (5) are aligned up and down.

2. A bio-enzyme catalytic reactor according to claim 1, characterized in that: The invention also includes a partition (9), a liquid inlet pipe (10) and a liquid outlet pipe (11), wherein the partition (9) is installed between the inner wall of the catalytic chamber of the reaction barrel (1) and the outer wall of the honeycomb body (2), and the liquid inlet pipe (10) and the liquid outlet pipe (11) are installed on the outer wall of the reaction barrel (1), the output end of the liquid inlet pipe (10) is located below the partition (9), and the input end of the liquid outlet pipe (11) is located above the partition (9).

3. A bio-enzyme catalytic reactor according to claim 2, characterized in that: The invention also includes a bearing ring (12) and a plurality of blades (13). The bearing ring (12) is rotatably mounted on the lower end of the vertical shaft (7). The plurality of blades (13) are circumferentially mounted on the bearing ring (12). The bearing ring (12) and the blades (13) are located below the honeycomb body (2).

4. A bio-enzyme catalytic reactor according to claim 1, characterized in that: The catalyst box body (4) comprises a left box body (14), a right box body (15), a plurality of transverse plates (16) and a plurality of bio-enzyme catalyst solidified particles (17). The left box body (14) and the right box body (15) are arranged relative to each other to form a catalyst square box. The left box body (14) and the right box body (15) are both provided with a plurality of transverse plates (16). The plurality of transverse plates (16) are each provided with a plurality of through holes. The plurality of transverse plates (16) divide the catalyst square box formed by the left box body (14) and the right box body (15) into a plurality of receiving chambers. The plurality of bio-enzyme catalyst solidified particles (17) are respectively loaded into the plurality of receiving chambers.

5. A bio-enzyme catalytic reactor according to claim 4, characterized in that: The utility model also includes a mounting slide groove (18), a card slot (19) and a connecting slide plate (20). One side of the left box body (14) and the right box body (15) are rotatably connected by a hinge. The other side of the right box body (15) is provided with a mounting slide groove (18), and the other side of the left box body (14) is provided with a card slot (19). The mounting slide groove (18) and the card slot (19) are arranged relative to each other. One end of the connecting slide plate (20) is slidably installed in the mounting slide groove (18), and the other end of the connecting slide plate (20) is card-fitted with the card slot (19).

6. A bio-enzyme catalytic reactor according to claim 1, characterized in that: The invention also includes a turntable (21), a push cylinder (22), a mounting plate (23), a vertical rod (24), a hook plate (25) and a spring (26). The turntable (21) is mounted on the reaction barrel cover (3). The lower end of the piston rod of the push cylinder (22) is connected to the rotating end of the turntable (21). The mounting plate (23) is connected to the fixed end of the push cylinder (22). The upper ends of the plurality of vertical rods (24) are connected to the mounting plate (23). The plurality of vertical rods (24) are respectively matched and aligned with the through grooves of the honeycomb body (2). The lower ends of the plurality of vertical rods (24) are all provided with slide grooves. The plurality of hook plates (25) are respectively slidably and elastically mounted on the slide grooves of the plurality of vertical rods (24) through the plurality of springs (26).

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