Reaction kettle for producing calcium-zinc stabilizer

Abstract

The utility model relates to the technical field of reaction kettles, and discloses a reaction kettle for producing a calcium-zinc stabilizer, which comprises a supporting assembly and three synchronous belts, three second stirring mechanisms and three first stirring mechanisms which are used for mixing and stirring the calcium-zinc stabilizer are respectively arranged close to the upper end and the lower end in the reaction device in an annular sheet column manner, and a rotating assembly for driving the three first stirring mechanisms and the three second stirring mechanisms to rotate is arranged in the center in the reaction device; a driving mechanism used for driving the rotating assembly to rotate is arranged in the center of the upper end of the reaction device, the synchronous assembly ensures synchronous operation of the stirring system, the phenomenon of non-uniform stirring is prevented, the first stirring mechanism and the second stirring mechanism efficiently work through respective transmission systems, full mixing and stirring of materials are achieved, and the production efficiency is improved. And the synchronous belt ensures the coordination among different stirring mechanisms, so that the whole production process is more efficient and stable.

Description

Technical Field

[0001] This utility model relates to the field of reaction vessel technology, and in particular to a reaction vessel for the production of calcium-zinc stabilizers. Background Technology

[0002] The reaction vessel for calcium-zinc stabilizer production is a specialized piece of equipment used to produce calcium-zinc stabilizers, an environmentally friendly stabilizer commonly used in the plastics and rubber industries. It primarily replaces traditional lead salt stabilizers. The reaction vessel promotes the reaction of calcium and zinc compounds in the raw materials with other additives through heating, stirring, and controlled reaction conditions to form the calcium-zinc stabilizer. During production, the reaction vessel provides the necessary temperature and pressure to ensure the uniformity and stability of the reaction. The reaction vessel is typically made of high-temperature and corrosion-resistant materials and features an automated control system to improve production efficiency and product quality. This equipment is widely used in the industrial production of calcium-zinc stabilizers, meets environmental protection requirements, and enjoys strong market demand.

[0003] In the prior art, traditional reaction vessels for the production of calcium-zinc stabilizers typically employ a built-in stirring structure. This structure is relatively simple in design and is mostly a unidirectional stirring system. While this design can meet basic material stirring requirements, it has significant shortcomings. First, unidirectional stirring cannot achieve uniform material distribution, especially when the material in the reaction vessel is viscous or the reaction system is complex. The stirring effect is poor, making it difficult to fully mix all raw materials in a short time. Second, uneven stirring within the reaction vessel can lead to unstable local temperature, pressure, and other conditions, thereby affecting the uniformity and rate of the reaction process. This not only reduces production efficiency but may also lead to unstable final product quality, increasing production costs and risks. Prolonged uneven stirring can also easily cause material deposition or aggregation, affecting the normal operation of the equipment and even increasing the difficulty of maintenance and cleaning. Therefore, the existing stirring structure of reaction vessels has significant limitations in meeting the requirements of efficient production and quality control. Therefore, those skilled in the art provide a reaction vessel for the production of calcium-zinc stabilizers to solve the problems mentioned in the background art. Utility Model Content

[0004] This utility model addresses the shortcomings of existing technologies by providing a reaction vessel for the production of calcium-zinc stabilizers. The specific technical solution is as follows:

[0005] A reaction vessel for producing calcium-zinc stabilizers includes a support assembly and three synchronous belts. A reaction device for producing calcium-zinc stabilizers is mounted on the upper end of the support assembly. Inside the reaction device, three second stirring mechanisms and a first stirring mechanism for mixing and stirring the calcium-zinc stabilizers are arranged in a ring-like arrangement near the upper and lower ends. A rotating assembly for driving the three first and three second stirring mechanisms is located at the center of the reaction device. A drive mechanism for driving the rotating assembly is located at the center of the upper end of the reaction device. A magnetic coupling transmission mechanism for transmitting kinetic energy to the rotating assembly is provided between the rotating assembly and the drive mechanism. A synchronous assembly is located on the lower inner wall of the reaction device.

[0006] As an improvement to the above technical solution, the support assembly includes a support bracket, with multiple support columns arranged in a ring and fixedly connected to the outer side of the support bracket. Anti-slip pads are fixedly connected to the lower ends of each of the support columns. The reaction device includes a reaction vessel, which is fixedly fitted inside the support bracket. A feed sealing ring and a discharge sealing ring are fixedly fitted to the upper and lower ends of one side of the reaction vessel. A sealing cover is hinged to one side of each feed sealing ring and discharge sealing ring. The drive mechanism includes two upright plates, both fixedly connected to the upper center of the upright plates near both sides. A support plate is fixedly connected to the upper end of each of the two upright plates. A drive motor is fixedly connected to the upper end of the support plate, and the output end of the drive motor passes through the upper end of the support plate and extends to the lower end of the support plate.

[0007] As an improvement to the above technical solution, the synchronization component includes a fixed bevel gear, which is fixedly connected to the center of the lower inner wall of the reaction vessel. A positioning rod is fixedly connected to the center of the upper end of the fixed bevel gear. The rotating component includes a rotating rod, which is rotatably sleeved on the outside of the positioning rod. A lower connecting plate is fixedly sleeved at the lower center of the outer side of the rotating rod, and an upper connecting plate is fixedly sleeved at the upper center of the outer side of the rotating rod.

[0008] As an improvement to the above technical solution, the first stirring mechanism includes a first docking plate, which is fixedly connected to one side of the rotating rod. A drive shaft is rotatably sleeved on the lower center of the first docking plate via a bearing. A transmission bevel gear is fixedly connected to one end of the first docking plate near the positioning rod. The transmission bevel gear and the fixed bevel gear are meshed. A drive wheel is fixedly sleeved on the outer side of the drive shaft away from the transmission bevel gear. A first transmission shaft is rotatably sleeved on the upper center of the first docking plate via a bearing. A first transmission wheel and a first synchronous wheel are fixedly connected to the outer ends of the first transmission shaft, respectively. A first transmission belt is sleeved on the outer sides of the drive wheel and the first transmission wheel. A first docking disc is fixedly connected to the outer ends of the drive shaft and the first transmission shaft away from the transmission bevel gear. A first stirring blade is fixedly connected to the two first docking discs away from the first docking plate.

[0009] As an improvement to the above technical solution, the second stirring mechanism includes a second docking plate, which is fixedly connected to one side of the upper connecting plate. A second drive shaft is rotatably sleeved on the lower part of the inner center of the second docking plate via a bearing. A second synchronous wheel and a second drive wheel are respectively fixedly sleeved on the outer ends of the second drive shaft. A third drive shaft is rotatably sleeved on the upper part of the inner center of the second docking plate via a bearing. A third drive wheel is fixedly sleeved on one end of the outer side of the third drive shaft. A second drive belt is sleeved on the outer sides of the second drive wheel and the third drive wheel. A second docking disc is fixedly connected to the end of the second drive shaft and the third drive shaft away from the second docking plate. A second stirring blade is fixedly connected to the two second docking discs at the ends away from the second docking plate.

[0010] As an improvement to the above technical solution, one end of each of the three synchronous belts is fitted onto the outside of the three first synchronous pulleys, and the other end of each of the three synchronous belts is fitted onto the outside of the second synchronous pulleys.

[0011] As an improvement to the above technical solution, the magnetic coupling transmission mechanism includes an outer sealing tube, a connecting plate, and a fixed shaft. The outer sealing tube is fixedly sleeved inside the reaction vessel at the upper center. The connecting plate is fixedly connected to the lower output end of the drive motor. The fixed shaft is fixedly connected to the upper center of the rotating rod. A sealing ring is fixedly sleeved inside the lower center of the outer sealing tube. An inner sealing tube is fixedly sleeved inside the sealing ring. A drive coupling sleeve is fixedly connected to the lower end of the connecting plate. The drive coupling sleeve is rotatably sleeved inside the outer sealing tube and outside the inner sealing tube. Multiple drive permanent magnets are fixedly embedded in a ring arrangement on the inner wall of the outer sealing tube. A transmission coupling rod is fixedly connected to the upper end of the fixed shaft. Transmission permanent magnets are fixedly embedded in a ring arrangement on the outer side of the transmission coupling rod.

[0012] Compared with the prior art, the beneficial effects of this utility model are:

[0013] This reaction vessel for calcium-zinc stabilizer production achieves efficient stirring and mixing during the production process through the precise combination of various structures. The reaction device provides stable support through support components, while the inlet and outlet sealing rings ensure airtightness. The drive mechanism transmits power through a rotating component, and the magnetic coupling transmission mechanism effectively reduces friction loss and improves transmission efficiency. The synchronization component ensures the synchronous operation of the stirring system, preventing uneven stirring. The first and second stirring mechanisms work efficiently through their respective transmission systems, achieving thorough mixing and stirring of the materials. The synchronous belt ensures coordination between different stirring mechanisms, making the entire production process more efficient and stable. This design greatly improves production efficiency and material mixing uniformity, while reducing equipment wear and extending equipment lifespan. Attached Figure Description

[0014] Figure 1 This is a three-dimensional structural diagram of a reaction vessel used in the production of a calcium-zinc stabilizer;

[0015] Figure 2 A three-dimensional disassembled structural diagram of a reaction vessel used in the production of a calcium-zinc stabilizer;

[0016] Figure 3 This is a three-dimensional structural diagram of the drive mechanism;

[0017] Figure 4 A three-dimensional structural diagram of the synchronization component;

[0018] Figure 5 This is a three-dimensional disassembled structural diagram of the first stirring mechanism;

[0019] Figure 6 This is a three-dimensional disassembled structural diagram of the second stirring mechanism;

[0020] Figure 7 This is a three-dimensional disassembled structural diagram of a magnetic coupling transmission mechanism;

[0021] Figure 8 This is a schematic diagram of the three-dimensional structure of the sealing ring;

[0022] Figure 9 A schematic diagram of the three-dimensional structure for driving the permanent magnet.

[0023] Legend

[0024] 1. Support assembly; 101. Support bracket; 102. Support column; 103. Anti-slip pad; 2. Reaction device; 201. Reaction tank; 202. Feed sealing ring; 203. Discharge sealing ring; 204. Sealing cover; 3. Drive mechanism; 301. Vertical plate; 302. Support plate; 303. Drive motor; 4. Synchronization assembly; 401. Fixed bevel gear; 402. Positioning rod; 5. Rotation assembly; 501. Rotating rod; 502. Lower connecting plate; 503. Upper connecting plate; 6. Synchronization belt; 7. First stirring mechanism; 701. First docking plate; 702. Drive shaft; 703. Transmission bevel gear; 704. Drive wheel; 705. First transmission shaft; 706. First transmission... 707. First synchronous pulley; 708. First transmission belt; 709. First docking plate; 7010. First stirring blade; 8. Second stirring mechanism; 801. Second docking plate; 802. Second transmission shaft; 803. Second synchronous pulley; 804. Second transmission wheel; 805. Third transmission shaft; 806. Third transmission wheel; 807. Second transmission belt; 808. Second docking plate; 809. Second stirring blade; 9. Magnetic coupling transmission mechanism; 901. Outer sealing tube; 902. Connecting plate; 903. Fixed shaft; 904. Sealing ring; 905. Inner sealing tube; 906. Drive coupling sleeve; 907. Drive permanent magnet; 908. Transmission coupling rod; 909. Transmission permanent magnet. Detailed Implementation

[0025] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present utility model and are not intended to limit the present utility model.

[0026] Example

[0027] A reaction vessel for the production of calcium-zinc stabilizers, please refer to... Figures 1-2As shown, the device includes a support assembly 1 and three synchronous belts 6. A reaction device 2 for the production of calcium-zinc stabilizers is mounted on the upper end of the support assembly 1. Inside the reaction device 2, three second stirring mechanisms 8 and first stirring mechanisms 7 are arranged in a ring at the upper and lower ends for mixing and stirring the calcium-zinc stabilizers. A rotating assembly 5 is located at the center of the reaction device 2 to drive the three first stirring mechanisms 7 and three second stirring mechanisms 8. A drive mechanism 3 is located at the center of the upper end of the reaction device 2 to drive the rotating assembly 5. A magnetic coupling transmission mechanism 9 is located between the rotating assembly 5 and the drive mechanism 3 to transfer kinetic energy to drive the rotating assembly 5. A synchronous assembly 4 is located on the lower inner wall of the reaction device 2. This equipment achieves calcium-zinc stabilizer production through the precise coordination of various structures. The reaction device 2 provides stable support through the support component 1, while the feed sealing ring 202 and discharge sealing ring 203 ensure airtightness. The drive mechanism 3 transmits power through the rotation component 5, and the magnetic coupling transmission mechanism 9 effectively reduces friction loss and improves transmission efficiency. The synchronization component 4 ensures the synchronous operation of the stirring system and prevents uneven stirring. The first stirring mechanism 7 and the second stirring mechanism 8 work efficiently through their respective transmission systems to achieve full mixing and stirring of materials. The synchronous belt 6 ensures coordination between different stirring mechanisms, making the entire production process more efficient and stable. This design greatly improves production efficiency and material mixing uniformity, while reducing equipment wear and extending the service life of the equipment.

[0028] like Figures 2-3As shown, the support assembly 1 includes a support bracket 101, with multiple support columns 102 fixedly connected in a ring on the outer side of the support bracket 101. Anti-slip pads 103 are fixedly connected to the lower ends of each support column 102. The reaction device 2 includes a reaction vessel 201, which is fixedly fitted inside the support bracket 101. A feed sealing ring 202 and a discharge sealing ring 203 are fixedly fitted on both the upper and lower ends of one side of the reaction vessel 201. A sealing cover 204 is hinged to one side of each of the feed sealing ring 202 and the discharge sealing ring 203. The drive mechanism 3 includes two vertical plates 301, both fixedly connected to the upper center of each vertical plate 301 near both sides. A support plate 302 is fixedly connected to the upper end of each vertical plate 301. A drive motor 303 is fixedly connected to the upper end of the plate 302. The output end of the drive motor 303 passes through the upper end of the support plate 302 and extends to the lower end of the support plate 302. The support assembly 1 forms a stable foundation with the support column 102 through the support bracket 101. The anti-slip pad 103 at the lower end of the support column 102 ensures the stability of the equipment during operation. The reaction device 2 is located inside the support bracket 101. The support device provides a sturdy support structure, which allows the reaction tank 201 to be stably fixed. The reaction tank 201 is equipped with an inlet sealing ring 202 and an outlet sealing ring 203 to ensure that the material does not leak during the reaction. The sealing cover 204 provides an additional sealing function to prevent gas or material leakage during the reaction process and improve safety.

[0029] like Figure 4 As shown, the synchronization component 4 includes a fixed bevel gear 401, which is fixedly connected to the center of the lower inner wall of the reaction vessel 201. A positioning rod 402 is fixedly connected to the center of the upper end of the fixed bevel gear 401. The rotation component 5 includes a rotating rod 501, which is rotatably sleeved on the outside of the positioning rod 402. A lower connecting plate 502 is fixedly sleeved at the lower center of the outer side of the rotating rod 501, and an upper connecting plate 503 is fixedly sleeved at the upper center of the outer side of the rotating rod 501. The synchronization component 4 achieves rotational synchronization through the fixed bevel gear 401. The positioning rod 402 and the rotation component 5 are rotatably sleeved together, ensuring the synchronization of the three components. The first stirring mechanism 7 and the three second stirring mechanisms 8 operate synchronously, avoiding uneven reaction caused by asynchrony. The drive mechanism 3 provides rotational force through the fixedly connected vertical plate 301 and support plate 302. The drive motor 303 drives the drive assembly to rotate. The power of the drive mechanism 3 is transmitted to the three first stirring mechanisms 7 and the three second stirring mechanisms 8 through the rotating assembly 5. This rotation method ensures the normal operation of each stirring mechanism during the reaction. The rotating assembly 5 transmits power through the magnetic coupling transmission mechanism 9, realizing contactless power transmission, reducing mechanical friction, and thus improving the service life of the equipment.

[0030] like Figure 5As shown, the first stirring mechanism 7 includes a first docking plate 701, which is fixedly connected to one side of the rotating rod 501. A drive shaft 702 is rotatably sleeved on the lower center of the first docking plate 701 via a bearing. A transmission bevel gear 703 is fixedly connected to one end of the first docking plate 701 near the positioning rod 402, and the transmission bevel gear 703 and the fixed bevel gear 401 are meshed. A drive wheel 704 is fixedly sleeved on the outer side of the drive shaft 702 away from the transmission bevel gear 703. A first transmission shaft 705 is rotatably sleeved on the upper center of the first docking plate 701 via a bearing. A first transmission wheel 706 and a first synchronous wheel 707 are fixedly connected to the outer ends of the first transmission shaft 705. A first transmission belt 708 is sleeved on the outer sides of the drive wheel 704 and the first transmission wheel 706. A first docking plate 709 is fixedly connected to the end of the first drive shaft 705 away from the drive bevel gear 703. A first stirring blade 7010 is fixedly connected to the end of each of the two first docking plates 709 away from the first docking plate 701. The first stirring mechanism 7 consists of the first docking plate 701 and the drive shaft 702. The drive shaft 702 is connected to the drive bevel gear 703. The drive bevel gear 703 meshes with the fixed bevel gear 401 to transmit power, causing the first stirring blade 7010 to rotate, thereby completing the mixing and stirring of the materials. The drive wheel 704 is connected to the first drive wheel 706 through the first drive belt 708, ensuring the operation and efficiency of the first stirring mechanism 7. When the first stirring blade 7010 revolves, it can also rotate on its own axis. This structural design ensures that the first stirring mechanism 7 can efficiently and stably complete the stirring of the reaction materials.

[0031] like Figure 6As shown, the second stirring mechanism 8 includes a second docking plate 801, which is fixedly connected to one side of the upper connecting plate 503. A second drive shaft 802 is rotatably sleeved on the lower center of the second docking plate 801 via a bearing. A second synchronous pulley 803 and a second drive pulley 804 are respectively fixedly sleeved on both ends of the outer side of the second drive shaft 802. A third drive shaft 805 is rotatably sleeved on the upper center of the second docking plate 801 via a bearing. A third drive pulley 806 is fixedly sleeved on one end of the outer side of the third drive shaft 805. A second drive belt 807 is sleeved on the outer sides of the second drive pulley 804 and the third drive pulley 806. The second drive shaft 802 and the third drive shaft 805 are located away from the second... A second docking plate 808 is fixedly connected to one end of the docking plate 801. A second stirring blade 809 is fixedly connected to the two second docking plates 808 at the ends away from the second docking plate 801. The second stirring mechanism 8 is connected to the rotating component 5 through the second docking plate 801. The second drive shaft 802 and the third drive shaft 805 drive the second stirring blade 809 to rotate, thereby achieving uniform stirring of the material. The second drive shaft 802 and the third drive shaft 805 are connected by a second drive belt 807. When the second stirring blade 809 revolves around the revolution, it will also rotate synchronously on its own axis, ensuring the coordinated work between different drive shafts. This design effectively improves the uniformity and efficiency of stirring and optimizes the mixing effect in the reaction process.

[0032] like Figure 4 As shown, one end of each of the three synchronous belts 6 is fitted onto the outside of the three first synchronous pulleys 707, and the other end of each of the three synchronous belts 6 is fitted onto the outside of the second synchronous pulleys 803. The synchronous belts 6, through their connection with the first synchronous pulleys 707 and the second synchronous pulleys 803, ensure the synchronous movement of multiple stirring mechanisms. This synchronous structure avoids the time difference between different stirring blades, ensuring uniform mixing of materials in the entire reactor. The efficient operation of the synchronous belts 6 enables the equipment to complete sufficient material mixing in a short time, improving production efficiency and stability.

[0033] like Figures 7-9As shown, the magnetic coupling transmission mechanism 9 includes an outer sealing tube 901, a connecting plate 902, and a fixed shaft 903. The outer sealing tube 901 is fixedly sleeved inside the reaction vessel 201 at a position near the center. The connecting plate 902 is fixedly connected to the output end of the drive motor 303 at a position near the bottom. The fixed shaft 903 is fixedly connected to the center of the upper end of the rotating rod 501. A sealing ring 904 is fixedly sleeved inside the outer sealing tube 901 at a position near the center. An inner sealing tube 905 is fixedly sleeved inside the sealing ring 904. The lower end of the connecting plate 902 is fixedly connected to... A drive coupling sleeve 906 is rotatably fitted inside the outer sealing tube 901 and outside the inner sealing tube 905. Multiple drive permanent magnets 907 are fixedly embedded in a ring arrangement on the inner wall of the outer sealing tube 901. A transmission coupling rod 908 is fixedly connected to the upper end of a fixed shaft 903. Transmission permanent magnets 909 are fixedly embedded in a ring arrangement on the outer side of the transmission coupling rod 908. The magnetic coupling transmission mechanism 9 transmits the power of the drive motor 303 to the rotating assembly 5 through the outer sealing tube 901, connecting disc 902, and fixed shaft 903. The magnetic coupling design effectively avoids physical contact and reduces wear. The magnetic force between the drive permanent magnets 907 and the transmission permanent magnets 909 inside the outer sealing tube 901 causes the drive coupling sleeve 906 to rotate, thereby driving the rotating assembly 5 to rotate. This contactless transmission method ensures the stability of power transmission and improves transmission efficiency.

[0034] Working Principle: The support assembly 1 forms a stable foundation with the support bracket 101 and the support column 102. The anti-slip pads 103 at the lower end of the support column 102 ensure the stability of the equipment during operation. The reaction device 2 is located inside the support bracket 101. The support assembly provides a robust support structure, allowing the reaction tank 201 to be stably fixed. The reaction tank 201 is equipped with an inlet sealing ring 202 and an outlet sealing ring 203 to ensure that the material does not leak during the reaction. The sealing cover 204 provides an additional sealing function to prevent gas or material leakage during the reaction, improving safety. The synchronization assembly 4 achieves rotational synchronization through the fixed bevel gear 401. The positioning rod 402 is rotatably sleeved with the rotating assembly 5, ensuring the three first stirring mechanisms are synchronized. The first stirring mechanism 7 and the three second stirring mechanisms 8 operate synchronously, avoiding uneven reaction caused by asynchrony. The drive mechanism 3 provides rotational force through the fixedly connected vertical plate 301 and support plate 302. The drive motor 303 drives the drive assembly to rotate. The power of the drive mechanism 3 is transmitted to the three first stirring mechanisms 7 and the three second stirring mechanisms 8 through the rotating assembly 5. This rotation method ensures the normal operation of each stirring mechanism during the reaction. The rotating assembly 5 transmits power through the magnetic coupling transmission mechanism 9, realizing contactless power transmission, reducing mechanical friction, and thus improving the service life of the equipment. The first stirring mechanism 7 consists of a first docking plate 701 and a drive shaft 702, which is connected to the transmission bevel gear 703 through the drive shaft 702. 03 meshes with the fixed bevel gear 401 to transmit power, causing the first stirring blade 7010 to rotate, thereby completing the mixing and stirring of materials. The drive wheel 704 is connected to the first transmission wheel 706 through the first transmission belt 708, ensuring the operation and efficiency of the first stirring mechanism 7. When the first stirring blade 7010 revolves, it can also rotate on its own axis. This structural design ensures that the first stirring mechanism 7 can efficiently and stably complete the stirring of the reactants. The second stirring mechanism 8 is connected to the rotating assembly 5 through the second docking plate 801. The second transmission shaft 802 and the third transmission shaft 805 drive the second stirring blade 809 to rotate, thereby achieving uniform stirring of materials. The second transmission shaft 802 and the third transmission shaft 805 are connected by the second transmission belt 807. The stirring blade 809 rotates synchronously on its own axis while revolving around the revolution, ensuring coordinated work between different drive shafts. This design effectively improves the uniformity and efficiency of stirring and optimizes the mixing effect during the reaction process. The synchronous belt 6, through its connection with the first synchronous pulley 707 and the second synchronous pulley 803, ensures the synchronous movement between multiple stirring mechanisms. This synchronous structure avoids time differences between different stirring blades, ensuring uniform mixing of materials throughout the entire reactor. The efficient operation of the synchronous belt 6 enables the equipment to complete sufficient material mixing in a short time, improving production efficiency and stability. The magnetic coupling transmission mechanism 9 transmits the power of the drive motor 303 to the rotating component 5 through the outer sealing pipe 901, connecting plate 902, and fixed shaft 903.The magnetic coupling design effectively avoids physical contact and reduces wear. The magnetic force between the driving permanent magnet 907 and the transmission permanent magnet 909 inside the outer sealing tube 901 causes the driving coupling sleeve 906 to rotate, thereby driving the rotating assembly 5 to rotate. This contactless transmission method ensures the stability of power transmission and improves transmission efficiency.

[0035] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present utility model should be included within the protection scope of the present utility model.

Claims

1. A reaction vessel for producing calcium-zinc stabilizers, comprising a support assembly (1) and three synchronous belts (6), characterized in that: The upper end of the support component (1) is provided with a reaction device (2) for the production reaction of calcium and zinc stabilizer. Inside the reaction device (2), three second stirring mechanisms (8) and first stirring mechanisms (7) for mixing and stirring calcium and zinc stabilizer are arranged in a ring at the upper and lower ends respectively. The center of the reaction device (2) is provided with a rotating component (5) for driving the three first stirring mechanisms (7) and three second stirring mechanisms (8) to rotate. The center of the upper end of the reaction device (2) is provided with a driving mechanism (3) for driving the rotating component (5) to rotate. A magnetic coupling transmission mechanism (9) for transmitting kinetic energy to drive the rotating component (5) to rotate is provided between the rotating component (5) and the driving mechanism (3). The lower inner wall of the reaction device (2) is provided with a synchronization component (4).

2. The reaction vessel for producing calcium-zinc stabilizer according to claim 1, characterized in that: The support assembly (1) includes a support bracket (101), and multiple support columns (102) are fixedly connected in a ring on the outer side of the support bracket (101). Anti-slip pads (103) are fixedly connected to the lower ends of each of the multiple support columns (102). The reaction device (2) includes a reaction vessel (201), which is fixedly fitted inside the support bracket (101). An inlet sealing ring (202) and an outlet sealing ring (203) are fixedly fitted on both the upper and lower ends of one side of the reaction vessel (201). The sealing cover (204) is hinged to one side of both the material sealing ring (202) and the discharge sealing ring (203). The driving mechanism (3) includes two upright plates (301). The two upright plates (301) are fixedly connected to the upper center of the upright plate (301) near both sides. The upper end of the two upright plates (301) is fixedly connected to a support plate (302). The upper end of the support plate (302) is fixedly connected to a drive motor (303). The output end of the drive motor (303) passes through the upper end of the support plate (302) and extends to the lower end of the support plate (302).

3. The reaction vessel for producing calcium-zinc stabilizer according to claim 2, characterized in that: The synchronization component (4) includes a fixed bevel gear (401), which is fixedly connected to the center of the lower inner wall of the reaction vessel (201). A positioning rod (402) is fixedly connected to the center of the upper end of the fixed bevel gear (401). The rotating component (5) includes a rotating rod (501), which is rotatably sleeved on the outside of the positioning rod (402). A lower connecting plate (502) is fixedly sleeved at the lower center of the outer side of the rotating rod (501), and an upper connecting plate (503) is fixedly sleeved at the upper center of the outer side of the rotating rod (501).

4. The reaction vessel for producing calcium-zinc stabilizer according to claim 3, characterized in that: The first stirring mechanism (7) includes a first docking plate (701), which is fixedly connected to one side of the rotating rod (501). A drive shaft (702) is rotatably sleeved on the lower center of the first docking plate (701) via a bearing. A transmission bevel gear (703) is fixedly connected to one end of the first docking plate (701) near the positioning rod (402). The transmission bevel gear (703) and the fixed bevel gear (401) are meshed. A drive wheel (704) is fixedly sleeved on the outer side of the drive shaft (702) away from the transmission bevel gear (703). 701) A first drive shaft (705) is rotatably sleeved on the upper part of the inner center via a bearing. A first drive wheel (706) and a first synchronous wheel (707) are fixedly connected to the outer ends of the first drive shaft (705). A first drive belt (708) is sleeved on the outer sides of the drive wheel (704) and the first drive wheel (706). A first docking plate (709) is fixedly connected to the end of the drive shaft (702) and the first drive shaft (705) away from the drive bevel gear (703). A first stirring blade (7010) is fixedly connected to the end of the two first docking plates (709) away from the first docking plate (701).

5. The reaction vessel for producing calcium-zinc stabilizer according to claim 3, characterized in that: The second stirring mechanism (8) includes a second docking plate (801), which is fixedly connected to one side of the upper connecting plate (503). A second drive shaft (802) is rotatably sleeved on the lower part of the inner center of the second docking plate (801) via a bearing. A second synchronous wheel (803) and a second drive wheel (804) are respectively fixedly sleeved on both ends of the outer side of the second drive shaft (802). A third drive shaft (804) is rotatably sleeved on the upper part of the inner center of the second docking plate (801) via a bearing. 05), a third transmission wheel (806) is fixedly sleeved on one end of the outer side of the third transmission shaft (805), a second transmission belt (807) is sleeved on the outer side of the second transmission wheel (804) and the third transmission wheel (806), a second docking plate (808) is fixedly connected to one end of the second transmission shaft (802) and the third transmission shaft (805) away from the second docking plate (801), and a second stirring blade (809) is fixedly connected to one end of the two second docking plates (808) away from the second docking plate (801).

6. The reaction vessel for producing calcium-zinc stabilizer according to claim 5, characterized in that: One end of each of the three synchronous belts (6) is fitted onto the outside of the three first synchronous pulleys (707), and the other end of each of the three synchronous belts (6) is fitted onto the outside of the second synchronous pulley (803).

7. The reaction vessel for producing calcium-zinc stabilizer according to claim 3, characterized in that: The magnetic coupling transmission mechanism (9) includes an outer sealing tube (901), a connecting plate (902), and a fixed shaft (903). The outer sealing tube (901) is fixedly sleeved inside the reaction vessel (201) at the upper center. The connecting plate (902) is fixedly connected to the lower output end of the drive motor (303). The fixed shaft (903) is fixedly connected to the upper center of the rotating rod (501). A sealing ring (904) is fixedly sleeved inside the lower center of the outer sealing tube (901). The sealing ring (904) contains... An inner sealing tube (905) is fixedly sleeved on the part, and a drive coupling sleeve (906) is fixedly connected to the lower end of the connecting plate (902). The drive coupling sleeve (906) is rotatably sleeved inside the outer sealing tube (901) and outside the inner sealing tube (905). Multiple drive permanent magnets (907) are fixedly embedded in a ring on the inner wall of the outer sealing tube (901). A transmission coupling rod (908) is fixedly connected to the upper end of the fixed shaft (903), and a transmission permanent magnet (909) is fixedly embedded in a ring on the outer side of the transmission coupling rod (908).

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