Efficient mixing device for disinfectant production

Abstract

The invention relates to the field of disinfectant production, and discloses an efficient mixing device for disinfectant production, which comprises a dechlorination recovery mechanism positioned on an overhead frame and used for mixing and inputting sodium hypochlorite and an acidic main material and separating and recovering produced chlorine; the comprehensive feeding mechanism is positioned on the dechlorination recovery mechanism, and is matched with the external transfer tank, the internal operation tank and the transfer pipe to receive the separated chlorine and input auxiliary materials; the mixing synchronizing mechanism is located on the operation kettle, and effective and accurate guiding and synchronous mixing of main materials and auxiliary materials are achieved through the comprehensive feeding mechanism and the mixing synchronizing mechanism. And particularly, in large-scale production, the consistency of product quality and the accurate conveying of raw materials can be maintained, and the raw materials can accurately enter the operation kettle according to the preset proportion and sequence through the superposition design of the large-diameter material guide pipe and the small-diameter material guide pipe, so that the high efficiency and the stability of the reaction process are ensured.

Description

Technical Field

[0001] The invention relates to the technical field of disinfectant production, in particular to a high-efficiency mixing device for disinfectant production. Background Art

[0002] In the current disinfectant production process, mixing devices play a vital role. With the increasing demand for disinfectants in society, higher requirements are also placed on the quality and production efficiency of disinfectants. In the field of disinfectant production, efficient mixing devices are crucial to ensuring the quality of disinfectants.

[0003] In the traditional disinfectant production process, the mixing of raw materials often relies on a single stirring or mixing device, which is prone to uneven mixing of raw materials, thus affecting the quality of the final product and production efficiency. In traditional processes, chlorine is not fully and effectively recovered or treated during the production process, which may cause chlorine leakage, polluting the environment and increasing safety hazards in the production process. The generation of chlorine is often slow or incomplete, resulting in a slow disinfectant production process and large fluctuations in product quality. The transportation and mixing of raw materials often require multiple manual interventions, and raw materials may be wasted due to uneven transportation, resulting in increased production costs. Summary of the Invention

[0004] In response to the shortcomings of the existing technology, the present invention provides a high-efficiency mixing device for disinfectant production, which solves the problems of uneven raw material mixing, incomplete chlorine leakage and recovery, slow production speed, frequent manual intervention and waste of resources in the traditional disinfectant production process, which affect product quality, production efficiency and safety.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions: A high-efficiency mixing device for producing disinfectants, comprising:

[0006] Fixed rack, used for fixing the structure of efficient mixing device for disinfectant production;

[0007] The working kettle is located on a fixed frame and is used to carry the disinfectant raw materials and form a mixing area;

[0008] The top rack is located on the fixed rack and is used to fix the chlorine separation and recovery structure;

[0009] The dechlorination recovery mechanism is located on the top rack and is used to mix and input sodium hypochlorite and acidic main materials, and separate and recover the produced chlorine;

[0010] The integrated feeding mechanism is located on the dechlorination recovery mechanism, and cooperates with the external transfer tank, the internal working tank and the transfer pipe to receive the separated chlorine and input the auxiliary materials;

[0011] The mixing synchronization mechanism is located on the working kettle, and cooperates with the built-in working tank, central gear, bottom feed hopper, top auxiliary material hopper, middle liquid collection tray and suspension frame to transport and mix the main material and auxiliary material of the angle disinfectant.

[0012] Preferably, the working kettle is fixedly connected to the inside of the fixed frame, the overhead rack is fixedly connected to the top of the fixed frame, the dechlorination recovery mechanism is embedded and fixed in the overhead rack, the comprehensive feeding mechanism is arranged on the dechlorination recovery mechanism, and the mixing synchronization mechanism is embedded in the internal center of the comprehensive feeding mechanism and extends to the interior of the comprehensive feeding mechanism, the dechlorination recovery mechanism and the working kettle in sequence.

[0013] Preferably, the dechlorination recovery mechanism includes an external transfer tank, a built-in operating tank and a component warehouse. The external transfer tank is fixedly connected to the top frame, and its outer ring portion has an outwardly extending air delivery cavity. The built-in operating tank is fixedly connected to the inside of the external transfer tank. The outer ring surface of the built-in operating tank is provided with a filter membrane structure, and a gap area is formed between the built-in operating tank and the inner wall of the external transfer tank. The bottom of the built-in operating tank is a bucket-shaped structure. The component warehouse is embedded and fixed on the inner top wall of the built-in operating tank and maintains coaxiality with the built-in operating tank. The transfer pipe is circumferentially fixed to the top input port of the air delivery cavity of the external transfer tank. The top of the built-in operating tank is rotatably connected with an embedded impeller ring. The embedded impeller ring is an annular impeller structure, and its impeller part is embedded in the gap area between the external transfer tank and the built-in operating tank.

[0014] Preferably, the integrated feeding mechanism includes a fixed cylinder and an infusion cabin, the fixed cylinder is fixedly connected to the top of the built-in working tank, the bottom of the bottom hopper is a bucket-shaped structure, and is fixedly connected to the inside of the fixed cylinder, the infusion cabin is wrapped and fixed to the outer wall of the fixed cylinder, and is located above the bottom hopper, the output end of the transfer pipe is fixedly connected to the side input port of the infusion cabin, the fixed cylinder is also located at the side output port of the bottom hopper and is fixedly connected with a circumferentially distributed main material pipe, the top auxiliary hopper is suspended on the top of the infusion cabin, and the bottom end extends into the fixed cylinder, the center liquid collecting pan is fixedly connected between the top auxiliary hopper and the bottom hopper, the side port of the center liquid collecting pan is communicated with the inner port of the infusion cabin, and a cross pipe knot converging to the center is provided inside the center liquid collecting pan.

[0015] Preferably, the mixing synchronization mechanism includes a traction shaft, a small-diameter feed pipe and a large-diameter feed pipe. The traction shaft is suspended on a suspension frame and driven to rotate by the output motor structure of the suspension frame. The small-diameter feed pipe is fixed to the bottom end of the traction shaft and extends into the working kettle after passing through the top auxiliary hopper, the middle liquid collection tray, the bottom feed hopper and the built-in working tank in sequence. The large-diameter feed pipe is sleeved and fixed on the outer surface of the small-diameter feed pipe. The large-diameter feed pipe extends into the working kettle after passing through the bottom feed hopper, the component bin and the built-in working tank in sequence and is fixedly connected to the rotating axis of the central gear. The small-diameter feed pipe is located at A feed trough 1 is provided at the output position of the bottom of the bottom-mounted feed hopper, a feed trough 2 is provided at the center position of the small-diameter feed pipe located at the center of the central liquid collection tray, a feed trough 3 is provided at the top of the inner surface of the built-in working tank of the large-diameter feed pipe, a discharge trough 1 is provided at the top surface of the built-in working tank of the large-diameter feed pipe, a spiral feed paddle is embedded between the feed trough 3 and the discharge trough 1 on the inner surface of the large-diameter feed pipe, a discharge trough 2 is provided at the output port of the bottom of the built-in working tank of the large-diameter feed pipe, and the area of the large-diameter feed pipe between the discharge trough 1 and the discharge trough 2 is a sealing structure.

[0016] Preferably, the center gear is rotatably connected to the center of the inner wall of the component warehouse, and the interior of the component warehouse is rotatably connected to a circumferentially distributed internal gear ring that surrounds the center gear. The outer ring portion of the inner wall of the component warehouse is rotatably connected to a transfer gear, and the tooth key of the internal gear ring is engaged between the tooth key of the center gear and the transfer gear, and the inner ring portion of the embedded impeller ring is fixedly connected to the internal gear ring.

[0017] Preferably, a top main hopper is fixedly connected to the top of the main material pipe, and a bottom plate structure with inclined sides is provided inside the top main hopper.

[0018] Preferably, a suspended suspension frame is fixedly connected to the top of the overhead auxiliary hopper, and the suspension frame is provided with an output motor structure.

[0019] Preferably, a conical propeller is fixedly connected to an outer surface of the material inlet chute, and the conical propeller is attached to the inner surface of the bottom-mounted feed hopper.

[0020] Preferably, a circumferentially distributed main material mixing paddle is fixedly connected between the discharge trough 2 and the discharge trough 1 on the outer surface of the large-diameter feed pipe, and a comprehensive stirring frame is fixedly connected to the outer surface of the small-diameter feed pipe extending to the position inside the working kettle.

[0021] The present invention provides a high-efficiency mixing device for producing disinfectants. It has the following beneficial effects:

[0022] 1. This invention achieves high efficiency in the disinfectant mixing process: The technical solution utilizes a comprehensive feeding mechanism and a synchronous mixing mechanism to achieve effective and precise guidance and synchronous mixing of the main and auxiliary materials. This is crucial for producing a uniform disinfectant, especially in large-scale production, to maintain consistent product quality. The accurate delivery of raw materials: Through the stacking of large-diameter and small-diameter feed pipes, raw materials can be precisely introduced into the working kettle in a predetermined proportion and sequence, ensuring high efficiency and stability of the reaction process.

[0023] 2. The present invention has the ability to recycle and utilize chlorine: the mechanism includes a structural design of a built-in working tank and an external transfer tank, as well as a system for guiding chlorine through centrifugal force. It can separate chlorine from the reaction system and introduce it into an external recovery device for effective treatment. The chlorine is guided to the infusion cabin to mix with water, and after generating hypochlorous acid solution, it continues to participate in the reaction, thereby realizing the recovery and reuse of chlorine. This process not only improves the efficiency of resource utilization, but also reduces pollution to the environment. While ensuring the efficient generation of chlorine, the technical solution can also separate and recover chlorine in a timely manner to avoid the waste of chlorine. This process enhances the green and environmental protection of the entire disinfectant production. Through the transfer pipe cooling mechanism, the mixing of chlorine and water is accelerated, the generation rate and reaction efficiency of hypochlorous acid are increased, and the temperature control during the reaction process is ensured to be appropriate, thereby improving the generation efficiency of the product.

[0024] 3. This invention features an optimized raw material storage and delivery system: The integrated feed mechanism, including a bottom-mounted feed hopper, an overhead auxiliary hopper, and various partitioning structures, ensures the classified storage and separate input of different raw materials. Each raw material enters the working kettle through precise delivery pipelines, avoiding cross-contamination and ensuring the purity of the reaction. The technical solution's multiple pipeline structures and spiral feed paddles effectively transport various raw materials from different storage points to the working kettle. This complex system, through its rational layout and mechanical operation, ensures a smooth production process and precise raw material delivery.

[0025] 4. The present invention features intelligent and automated systems: the traction shaft, gears, and feed chute work in tandem to automatically transport and mix raw materials throughout the entire process, resulting in simple and efficient operation. The motor-driven synchronous operation makes the entire system's production process controllable and precise, reducing manual intervention and improving production efficiency. By adjusting the operating conditions of components such as the mixing synchronization mechanism and the dechlorination recovery mechanism, parameters such as raw material input and mixing speed can be flexibly adjusted according to production needs, further optimizing the production process and increasing production flexibility.

[0026] 5. This invention offers environmental protection and safety benefits: By effectively recovering and reusing chlorine, harmful gas emissions are reduced, meeting the stringent environmental requirements of modern production processes. Furthermore, the sealed design of the entire device, along with the chlorine treatment and recovery procedures, significantly reduces the risk of chemical leaks and enhances operational safety. Other substances generated by the reaction are intercepted by the membrane structure, preventing pollutants from entering the environment and further ensuring the safety and environmental protection of the production process. BRIEF DESCRIPTION OF THE DRAWINGS

[0027] Figure 1 A three-dimensional schematic diagram of the main structure of the present invention Figure 1 ;

[0028] Figure 2 A three-dimensional schematic diagram of the main structure of the present invention Figure 2 ;

[0029] Figure 3 A three-dimensional schematic diagram of the main structure of the present invention Figure 3 ;

[0030] Figure 4 A three-dimensional schematic diagram of the main structure of the present invention Figure 4 ;

[0031] Figure 5 It is a schematic diagram of the fixed frame and the working kettle combination of the present invention;

[0032] Figure 6 It is a schematic three-dimensional cross-sectional view of the main structure of the present invention;

[0033] Figure 7 It is a schematic cross-sectional view of the main structure of the present invention;

[0034] Figure 8 It is a schematic structural diagram of the dechlorination recovery mechanism of the present invention;

[0035] Figure 9 This is a schematic diagram of the internal structure of the dechlorination recovery system of the present invention;

[0036] Figure 10 It is a schematic cross-sectional view of the structure of the dechlorination recovery mechanism of the present invention;

[0037] Figure 11 It is a schematic diagram of the integrated feeding mechanism assembly of the present invention;

[0038] Figure 12 It is a structural schematic diagram of the comprehensive feeding mechanism of the present invention;

[0039] Figure 13 It is a schematic cross-sectional view of the structure of the comprehensive feeding mechanism of the present invention;

[0040] Figure 14 It is a structural schematic diagram of the hybrid synchronization mechanism of the present invention.

[0041] Among them, 1. Fixed frame; 2. Working kettle; 3. Top rack; 4. Dechlorination recovery mechanism; 5. Comprehensive feeding mechanism; 6. Mixing synchronization mechanism; 41. External transfer tank; 42. Internal working tank; 43. Component warehouse; 44. Transfer pipe; 45. Embedded impeller ring; 46. Center gear; 47. Transfer gear; 48. Internal gear ring; 51. Fixed cylinder; 52. Bottom feed hopper; 53. Infusion cabin; 54. Main Material pipe; 55. Overhead auxiliary hopper; 56. Overhead main hopper; 57. Centered liquid collecting tray; 58. Suspension frame; 61. Traction shaft; 62. Small diameter feed pipe; 63. Large diameter feed pipe; 64. Feed trough 1; 65. Conical propeller; 66. Feed trough 2; 67. Feed trough 3; 68. Discharge trough 1; 69. Spiral feed paddle; 610. Discharge trough 2; 611. Main material mixing paddle; 612. Integrated stirring frame. DETAILED DESCRIPTION

[0042] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0043] Please see the attached Figure 1 -Attached Figure 4The embodiment of the present invention provides an efficient mixing device for the production of disinfectants, comprising: a fixed frame 1 for fixing the structure of the efficient mixing device for the production of disinfectants, a working kettle 2 located on the fixed frame 1 for carrying disinfectant raw materials and forming a mixing area, a top rack 3 located on the fixed frame 1 for fixing a chlorine separation and recovery structure, the working kettle 2 is fixedly connected to the interior of the fixed frame 1, the top rack 3 is fixedly connected to the top of the fixed frame 1, a dechlorination recovery mechanism 4 is embedded and fixed in the top rack 3, a comprehensive feeding mechanism 5 is arranged on the dechlorination recovery mechanism 4, a mixing synchronization mechanism 6 is embedded in the internal center of the comprehensive feeding mechanism 5, and sequentially extends to the interior of the comprehensive feeding mechanism 5, the dechlorination recovery mechanism 4 and the working kettle 2, the equipment mainly performs production mixing operations for disinfectants, the entire equipment is fixed by the fixed frame 1, and the auxiliary materials and main materials of the disinfectant enter the working kettle located on the fixed frame 1 The working kettle 2 is mixed after the mixing. The overall equipment also includes a dechlorination recovery mechanism 4 that drives the separation and recovery of chlorine. The top of the working kettle 2 is loaded through the overhead frame 3, and the sodium hypochlorite and acidic raw materials mainly used to produce disinfectants will enter the dechlorination recovery mechanism 4 for pre-mixing through the comprehensive feeding mechanism 5 and the integrally embedded mixing synchronization mechanism 6. The chlorine generated by the reaction is re-introduced into the comprehensive feeding mechanism 5. After mixing with the fusion water, the hypochlorous acid raw material is continuously guided by the comprehensive feeding mechanism 5 and the mixing synchronization mechanism 6 and finally discharged into the working kettle 2 for mixing. The mixing synchronization mechanism 6 as a whole includes two sets of pipeline structures that are superimposed and transported separately. Before driving the main material and the auxiliary material to mix, it can be guided to perform the dechlorination recovery operation and transported to the working kettle 2 by another set of pipeline structures. At the same time, the mixing synchronization mechanism 6 itself will form a stirring paddle structure to accelerate the mixing and generation of the disinfectant raw materials.

[0044] Please see the attached Figure 1 -Attached Figure 11The dechlorination recovery mechanism 4 is located on the overhead frame 3 and is used to mix and input sodium hypochlorite and the acidic main material, and separate and recover the produced chlorine. The dechlorination recovery mechanism 4 includes an external transfer tank 41, an internal working tank 42 and a component warehouse 43. The external transfer tank 41 is fixedly connected to the overhead frame 3, and its outer ring portion has an outwardly extending gas transmission cavity. The internal working tank 42 is fixedly connected to the inside of the external transfer tank 41. The outer ring surface of the internal working tank 42 is provided with a filter membrane structure, and a gap area is formed between the internal wall of the external transfer tank 41. The bottom of the internal working tank 42 is a bucket-shaped structure. The component warehouse 43 is embedded in and fixed to the inner top wall of the internal working tank 42 and maintains the same axis with the internal working tank 42. The transfer pipe 44 is circumferentially distributed and fixed to the external transfer tank. 41 is the top input port of the gas delivery cavity, and the top of the built-in working tank 42 is rotatably connected to an embedded impeller ring 45. The embedded impeller ring 45 is an annular impeller structure, and its impeller part is embedded in the gap area between the external transfer tank 41 and the built-in working tank 42. The central gear 46 is rotatably connected to the center of the inner wall of the component warehouse 43. The inside of the component warehouse 43 is rotatably connected to a circumferentially distributed internal gear ring 48, which surrounds the central gear 46. The outer ring part of the inner wall of the component warehouse 43 is rotatably connected to a transfer gear 47. The tooth key of the internal gear ring 48 is engaged between the tooth key of the central gear 46 and the transfer gear 47. The inner ring part of the embedded impeller ring 45 is fixedly connected to the inner gear ring 48. The dechlorination recovery mechanism 4 includes an external transfer tank 41 and a built-in working tank 42 superimposed on each other. Sodium hypochlorite and acidic raw materials are stored separately through the bottom feed hopper 52 included in the comprehensive feeding mechanism 5 and the partition structure inside the bottom feed hopper 52, and then enter the built-in working tank 42 through the large-diameter feed pipe 63 included in the mixing synchronization mechanism 6 for mixing reaction and separation of chlorine. When the built-in working tank 42 is embedded in the external transfer tank 41, a gap area is formed between it and the inner wall of the external transfer tank 41. The component bin 43 installed inside the built-in working tank 42 is responsible for constructing a rotational torque deceleration output operation to drive the embedded impeller ring 45 embedded between the external transfer tank 41 and the built-in working tank 42 to rotate, thereby generating a centrifugal wind force extending outward to drive the separated chlorine to be guided to the external transfer tank 41 and the built-in working tank. 42, and the remaining substances generated by the reaction are blocked by the filter membrane structure installed on the side wall of the built-in working tank 42, and the traction shaft 61 included in the mixing synchronization mechanism 6 is suspended by the suspension frame 58 included in the integrated feeding mechanism 5. At the same time, the output motor structure of the suspension frame 58 drives the traction shaft 61 and the small-diameter feed pipe 62 and the large-diameter feed pipe 63 fixed to the traction shaft 61 to rotate, and the large-diameter feed pipe 63 synchronously drives the central gear 46 installed at the center of the component bin 43 to rotate, and the central gear 46 synchronously drives the meshing inner gear ring 48 around it to rotate, and uses the inner gear ring 48 to guide the rotational torque to the transfer gear 47 embedded in the outer ring part of the inner wall of the component bin 43, and the transfer gear 47 and the central gear 46 are coaxially arranged.At the same time, because the outer diameter of the transfer gear 47 is larger than that of the central gear 46, the transfer gear 47 is driven to rotate at a lower speed than the central gear 46, and the decelerated speed is transmitted to the embedded impeller ring 45, thereby driving the embedded impeller ring 45 to synchronously follow the mixing synchronization mechanism 6 to perform deceleration operation. The outward centrifugal force generated also synchronously drives the chlorine gas entering between the external transfer tank 41 and the internal working tank 42 along the gas transmission cavity installed in the external transfer tank 41 and the transfer pipe 44 to be guided to the integrated feeding mechanism 5. The infusion chamber 53 is sleeved on the outer surface of the fixed cylinder 51 included in the integrated feeding mechanism 5. The integrated feeding mechanism 5 is installed coaxially on the internal working tank 42. The infusion chamber 53 is an annular storage tank structure, which stores water for mixing. After the chlorine gas is guided into the infusion chamber 53 through the transfer pipe 44, the transfer pipe 44 outside the environment will drive the transfer pipe 44 itself to cool down, thereby accelerating the mixing of the chlorine gas with the internal water and forming hypochlorous acid and hydrochloric acid solutions.

[0045] Please see the attached Figure 1 -Attached Figure 13The comprehensive feeding mechanism 5 is located on the dechlorination recovery mechanism 4, and cooperates with the external transfer tank 41, the built-in operation tank 42 and the transfer pipe 44 to receive the separated chlorine and input the auxiliary material. The comprehensive feeding mechanism 5 includes a fixed cylinder 51 and an infusion cabin 53. The fixed cylinder 51 is fixedly connected to the top of the built-in operation tank 42. The bottom of the bottom feed hopper 52 is a bucket-shaped structure and is fixedly connected to the inside of the fixed cylinder 51. The infusion cabin 53 is wrapped and fixed on the outer wall of the fixed cylinder 51 and is located above the bottom feed hopper 52. The output end of the transfer pipe 44 is fixedly connected to the side input port of the infusion cabin 53. The fixed cylinder 51 is also located at the side output port of the bottom feed hopper 52 and is fixedly connected. The main material pipe 54 is distributed in a circle, and the top auxiliary hopper 55 is suspended on the top of the infusion cabin 53, and the bottom end extends into the fixed cylinder 51. The middle collecting tray 57 is fixedly connected between the top auxiliary hopper 55 and the bottom infusion hopper 52. The side port of the middle collecting tray 57 is connected to the inner port of the infusion cabin 53. A cross pipe structure converging toward the center is provided inside the middle collecting tray 57. The top of the main material pipe 54 is fixedly connected to the top main hopper 56. The top main hopper 56 is provided with a bottom plate structure inclined on both sides. The top of the top auxiliary hopper 55 is fixedly connected to a suspended suspension frame 58. The suspension frame 58 is provided with an output motor structure. The chlorine gas flows along the gas delivery cavity installed on the external transfer tank 41 and The transfer pipe 44 is guided into the infusion chamber 53 included in the integrated feeding mechanism 5, and the infusion chamber 53 is sleeved on the outer surface of the fixed cylinder 51 included in the integrated feeding mechanism 5. The integrated feeding mechanism 5 is installed on the built-in working tank 42 in a coaxial form. The infusion chamber 53 is an annular storage tank structure, which stores water for mixing. After the chlorine is guided into the infusion chamber 53 through the transfer pipe 44, the external transfer pipe 44 will drive the transfer pipe 44 itself to cool down, thereby accelerating the mixing of chlorine with the internal water and forming hypochlorous acid and hydrochloric acid solutions. The solution extends in multiple circumferential directions into the central liquid collection tray 57 installed in the fixed cylinder 51, and the central liquid collection tray 57 is installed in the fixed cylinder 51. The cross-shaped gathering pipe structure installed in the collection tray 57 will drive the hypochlorous acid and hydrochloric acid solution to gather in the center of the central collection tray 57, while the sodium hypochlorite and acidic raw materials for generating chlorine are respectively guided and input into the bottom feed hopper 52 through the top main hopper 56 suspended on the infusion cabin 53 and the main material pipe 54 installed at the output port of the top main hopper 56. At the same time, the partition structure in the bottom feed hopper 52 is used to separate the two raw materials. The auxiliary materials required for generating the disinfectant are stored and fed through the top auxiliary hopper 55 suspended just above the fixed cylinder 51. The raw materials stored in the overall integrated feeding mechanism 5 will be discharged synchronously with the operation of the mixing synchronization mechanism 6.

[0046] Please see the attached Figure 1 -Attached Figure 14The mixing synchronization mechanism 6 is located on the working kettle 2, and cooperates with the built-in working tank 42, the central gear 46, the bottom feed hopper 52, the top auxiliary hopper 55, the middle liquid collection tray 57 and the suspension frame 58 to transport and mix the main ingredients and auxiliary ingredients of the angle disinfectant. The mixing synchronization mechanism 6 includes a traction shaft 61, a small-diameter feed pipe 62 and a large-diameter feed pipe 63. The traction shaft 61 is suspended on the suspension frame 58 and is driven to rotate by the output motor structure of the suspension frame 58. The small-diameter feed pipe 62 is fixed to the bottom end of the traction shaft 61, and at the same time passes through the top auxiliary hopper 55, the middle liquid collection tray 57, the bottom feed hopper 52, the built-in working tank 42 in sequence and then extends into the working kettle 2. The large-diameter feed pipe 63 is sleeved and fixed on the outer surface of the small-diameter feed pipe 62. The feed pipe 63 passes through the bottom feed hopper 52, the component bin 43, and the built-in working tank 42 in sequence and extends into the working kettle 2. At the same time, it is fixedly connected to the rotation axis of the central gear 46. The small-diameter feed pipe 62 is located at the output part of the bottom of the bottom feed hopper 52 and is provided with a feed trough 1 64. The small-diameter feed pipe 62 is located at the center of the central liquid collection tray 57 and is provided with a feed trough 2 66. The large-diameter feed pipe 63 is located at the top of the inner surface of the built-in working tank 42 and is provided with a feed trough 3 67. The large-diameter feed pipe 63 is located at the top surface of the built-in working tank 42 and is provided with a discharge trough 1 68. The inner surface of the large-diameter feed pipe 63 is also located between the feed trough 3 67 and the discharge trough 1 68. A spiral feed paddle 69 is embedded between the feed trough 3 67 and the discharge trough 1 68. The large-diameter feed pipe 63 is located at the built-in working tank The output port at the bottom of the working tank 42 is provided with a discharge trough 2 610. The area between the large diameter feed pipe 63 and the discharge trough 1 68 and the discharge trough 2 610 is a sealed structure. The outer surface of the feed trough 1 64 is fixedly connected with a conical propeller 65. The conical propeller 65 is attached to the inner surface of the bottom feed hopper 52. The outer surface of the large diameter feed pipe 63 is fixedly connected with a circumferentially distributed main material mixing paddle 611 between the discharge trough 2 610 and the discharge trough 1 68. The outer surface of the small diameter feed pipe 62 extends to the position inside the working kettle 2 and is fixedly connected with an integrated stirring frame 612. The traction shaft 61 included in the mixing synchronization mechanism 6 is suspended by the suspension frame 58 included in the integrated feeding mechanism 5. At the same time, the output motor structure of the suspension frame 58 will drive the traction shaft 61. The shaft 61 and the small-diameter feed tube 62 and the large-diameter feed tube 63 fixed to the traction shaft 61 rotate, and the large-diameter feed tube 63 synchronously drives the central gear 46 installed at the center of the component bin 43 to rotate, and the central gear 46 synchronously drives the surrounding meshing internal gear ring 48 to rotate, and uses the internal gear ring 48 to guide the rotational torque to the transfer gear 47 embedded in the outer ring portion of the inner wall of the component bin 43, and the transfer gear 47 and the central gear 46 are coaxially arranged. At the same time, because the outer diameter of the transfer gear 47 is larger than that of the central gear 46, the transfer gear 47 is driven to rotate at a lower speed than the central gear 46, and the reduced speed is transmitted to the embedded impeller ring 45, thereby driving the embedded impeller ring 45 to synchronously follow the mixing synchronization mechanism 6 to perform a deceleration operation.The outward centrifugal force generated also synchronously drives the chlorine gas that enters between the external transfer tank 41 and the internal working tank 42 along the gas delivery cavity and the transfer pipe 44 added to the external transfer tank 41 to be guided into the infusion cabin 53 included in the comprehensive feeding mechanism 5, and the infusion cabin 53 is sleeved on the outer surface of the fixed cylinder 51 included in the comprehensive feeding mechanism 5. The comprehensive feeding mechanism 5 is installed on the internal working tank 42 in a coaxial form. The infusion cabin 53 is an annular storage tank structure, which stores water for mixing. After the chlorine gas is guided into the infusion cabin 53 through the transfer pipe 44, the external transfer pipe 44 will drive the transfer pipe 44 itself to cool down, thereby accelerating the mixing of the chlorine gas with the internal water and forming hypochlorous acid and hydrochloric acid solution. The liquid extends in multiple circumferential directions into the central liquid collecting tray 57 installed in the fixed cylinder 51, and the cross-shaped gathering pipe structure installed in the central liquid collecting tray 57 drives the hypochlorous acid and hydrochloric acid solution to gather in the center of the central liquid collecting tray 57, while the sodium hypochlorite and acidic raw materials for generating chlorine are respectively guided into the bottom feed hopper 52 through the top main hopper 56 suspended on the infusion cabin 53 and the main material pipe 54 installed at the output port of the top main hopper 56. At the same time, the partition structure in the bottom feed hopper 52 is used to separate the two raw materials, and the auxiliary materials required for generating the disinfectant are stored and fed through the top auxiliary hopper 55 suspended just above the fixed cylinder 51. The raw materials stored in the integrated feeding mechanism 5 will follow the mixing synchronization mechanism. 6 is operated and the materials are discharged synchronously. The large-diameter feed pipe 63 included in the mixing synchronization mechanism 6 is wrapped on the outer surface of the small-diameter feed pipe 62. Under the action of the suspension of the traction shaft 61, the small-diameter feed pipe 62 will successively penetrate the top auxiliary hopper 55, the middle liquid collection tray 57, the bottom feed hopper 52 and the axial area of the built-in working tank 42 and finally enter the working kettle 2. The large-diameter feed pipe 63 sleeved on the surface of the small-diameter feed pipe 62 successively penetrates the bottom feed hopper 52, the component bin 43 and the axial area of the built-in working tank 42 and finally enters the working kettle 2. The side wall of the small-diameter feed pipe 62 located at the output part of the top auxiliary hopper 55 is equipped with a feed trough 64 for the entry of auxiliary materials. At the same time, the conical propeller 65 installed on the outside of the feed trough 64 will start Finally, it fits along the inner conical surface of the top auxiliary material hopper 55. When the traction shaft 61 drives the small-diameter feed pipe 62 to rotate, it will synchronously drive the conical propeller 65 to rotate, driving the auxiliary material in the top auxiliary material hopper 55 along the small-diameter feed pipe 62 until it is guided into the working kettle 2. The outer surface of the small-diameter feed pipe 62 at the height of the axis of the middle liquid collecting tray 57 is provided with a feed groove 2 66. Through the cross-collecting pipe structure inside the middle liquid collecting tray 57, the hypochlorous acid and hydrochloric acid solution gathered in the center will be driven along the feed groove 2 66 into the working kettle 2 and come into contact with the auxiliary material. The large-diameter feed pipe 63 sleeved on the surface of the small-diameter feed pipe 62 is located on the side wall of the output part of the bottom feed hopper 52 and is provided with a feed groove 3 67 for sodium hypochlorite and acidic raw materials to enter.The outer surface of the large diameter feed pipe 63 extending to the height of the top wall of the built-in working tank 42 is equipped with a discharge trough 1 68 for outputting sodium hypochlorite and acidic raw materials into the built-in working tank 42. At the same time, a spiral feeding paddle 69 is embedded in the inner wall area of the large diameter feed pipe 63 between the feed trough 3 67 and the feed trough 1 68. When the large diameter feed pipe 63 rotates along the small diameter feed pipe 62, the spiral feeding paddle 69 will rotate synchronously and respectively draw the sodium hypochlorite and acidic raw materials stored separately in the bottom feed hopper 52 into the large diameter feed pipe 63 along the feed trough 3 67, and then output them to the built-in working tank 42 through the discharge trough 1 68, driving the two to contact each other in the built-in working tank 42. At the same time, the main material mixing paddle 611 installed on the large diameter feed pipe 63 will also rotate in the built-in working tank 42 to accelerate the pre-mixing of sodium hypochlorite and acidic raw materials in the built-in working tank 42 and generate chlorine gas, which will re The newly generated products are guided into the infusion chamber 53 to form hypochlorous acid, while the remaining products are introduced into the large-diameter feed pipe 63 along the bottom bucket structure of the built-in working tank 42 and the discharge trough 2 610 installed on the side wall of the large-diameter feed pipe 63. The large-diameter feed pipe 63 finally guides the remaining products into the working kettle 2, where they come into contact with the auxiliary materials and the hypochlorous acid and hydrochloric acid solution. The small-diameter feed pipe 62 rotating in the working kettle 2 is also equipped with an integrated stirring rack 612 that can drive the remaining products, hypochlorous acid and hydrochloric acid solution, and auxiliary materials to stir and mix. As the traction shaft 61, small-diameter feed pipe 62, and large-diameter feed pipe 63 rotate synchronously, the entire equipment, including the dechlorination recovery mechanism 4 and the integrated feeding mechanism 5, will operate synchronously, and various raw materials will also enter the working kettle 2 synchronously. At the same time, the chlorine gas generated by the mixing of the raw materials is separated and recycled, and the mixing of the disinfectant raw materials in the working kettle 2 is accelerated.

[0047] Working principle: First, the equipment is mainly used for the production and mixing of disinfectants. The whole equipment is fixed by a fixed frame 1, and the auxiliary materials and main materials of the disinfectant are mixed after entering the working kettle 2 located on the fixed frame 1. The whole equipment also includes a dechlorination recovery mechanism 4 that drives the separation and recovery of chlorine. The top of the working kettle 2 is loaded through the top frame 3, and the sodium hypochlorite and acidic raw materials used to produce disinfectants will enter the dechlorination recovery mechanism 4 through the comprehensive feeding mechanism 5 and the integrally embedded mixing synchronization mechanism 6 for pre-mixing, and the chlorine generated by the reaction will be reintroduced into the comprehensive feeding mechanism 5. After mixing with the fusion water, the hypochlorous acid raw material will continue to be guided by the comprehensive feeding mechanism 5 and the mixing synchronization mechanism 6 and finally discharged into the working kettle. 2, and the mixing synchronization mechanism 6 as a whole includes two sets of respectively superimposed and separately conveyed pipeline structures. Before the main material and the auxiliary material are mixed, they can be guided to perform the dechlorination recovery operation and transported to the working kettle 2 by another set of pipeline structures. At the same time, the mixing synchronization mechanism 6 itself will form a stirring paddle structure to accelerate the mixing and generation of the disinfectant raw materials. First, the dechlorination recovery mechanism 4 includes an external transfer tank 41 and a built-in working tank 42 superimposed on each other. Sodium hypochlorite and acidic raw materials will be stored separately through the bottom feed hopper 52 included in the comprehensive feeding mechanism 5 and the partition structure in the bottom feed hopper 52, and then enter the built-in working tank 42 through the large-diameter feed pipe 63 included in the mixing synchronization mechanism 6 for mixing reaction and separation of chlorine. When the internal working tank 42 is embedded in the external transfer tank 41, a gap area is formed between it and the inner wall of the external transfer tank 41, and the component bin 43 installed inside the internal working tank 42 is responsible for constructing a rotational torque deceleration output operation to drive the embedded impeller ring 45 embedded between the external transfer tank 41 and the internal working tank 42 to rotate, thereby generating a centrifugal wind force extending outward to drive the separated chlorine gas to be guided into the gap area between the external transfer tank 41 and the internal working tank 42, and the remaining substances generated by the reaction are blocked by the filter membrane structure installed on the side wall of the internal working tank 42, and the traction shaft 61 included in the mixing synchronization mechanism 6 is suspended by the suspension frame 58 included in the comprehensive feeding mechanism 5, and the output motor structure of the suspension frame 58 will The traction shaft 61 and the small-diameter feed tube 62 and the large-diameter feed tube 63 fixed to the traction shaft 61 are driven to rotate. The large-diameter feed tube 63 synchronously drives the central gear 46 installed at the center of the component bin 43 to rotate. The central gear 46 synchronously drives the surrounding meshing internal gear ring 48 to rotate, and uses the internal gear ring 48 to guide the rotational torque to the transfer gear 47 embedded in the outer ring portion of the inner wall of the component bin 43. The transfer gear 47 and the central gear 46 are coaxially arranged. At the same time, because the outer diameter of the transfer gear 47 is larger than that of the central gear 46, the transfer gear 47 is driven to rotate at a lower speed than the central gear 46, and the decelerated speed is transmitted to the embedded impeller ring 45, thereby driving the embedded impeller ring 45 to synchronously follow the mixing synchronization mechanism 6 to perform deceleration operation.The outward centrifugal force generated also synchronously drives the chlorine gas that enters between the external transfer tank 41 and the internal working tank 42 along the gas delivery cavity and the transfer pipe 44 added to the external transfer tank 41 to be guided into the infusion cabin 53 included in the comprehensive feeding mechanism 5, and the infusion cabin 53 is sleeved on the outer surface of the fixed cylinder 51 included in the comprehensive feeding mechanism 5. The comprehensive feeding mechanism 5 is installed on the internal working tank 42 in a coaxial form. The infusion cabin 53 is an annular storage tank structure, which stores water for mixing. After the chlorine gas is guided into the infusion cabin 53 through the transfer pipe 44, the external transfer pipe 44 will drive the transfer pipe 44 itself to cool down, thereby accelerating the mixing of the chlorine gas with the internal water and forming hypochlorous acid and hydrochloric acid solution. The liquid extends in multiple circumferential directions into the central liquid collecting tray 57 installed in the fixed cylinder 51, and the cross-shaped gathering pipe structure installed in the central liquid collecting tray 57 drives the hypochlorous acid and hydrochloric acid solution to gather in the center of the central liquid collecting tray 57, while the sodium hypochlorite and acidic raw materials for generating chlorine are respectively guided into the bottom feed hopper 52 through the top main hopper 56 suspended on the infusion cabin 53 and the main material pipe 54 installed at the output port of the top main hopper 56. At the same time, the partition structure in the bottom feed hopper 52 is used to separate the two raw materials, and the auxiliary materials required for generating the disinfectant are stored and fed through the top auxiliary hopper 55 suspended just above the fixed cylinder 51. The raw materials stored in the integrated feeding mechanism 5 will follow the mixing synchronization mechanism. 6 is operated and the materials are discharged synchronously. The large-diameter feed pipe 63 included in the mixing synchronization mechanism 6 is wrapped on the outer surface of the small-diameter feed pipe 62. Under the action of the suspension of the traction shaft 61, the small-diameter feed pipe 62 will successively penetrate the top auxiliary hopper 55, the middle liquid collection tray 57, the bottom feed hopper 52 and the axial area of the built-in working tank 42 and finally enter the working kettle 2. The large-diameter feed pipe 63 sleeved on the surface of the small-diameter feed pipe 62 successively penetrates the bottom feed hopper 52, the component bin 43 and the axial area of the built-in working tank 42 and finally enters the working kettle 2. The side wall of the small-diameter feed pipe 62 located at the output part of the top auxiliary hopper 55 is equipped with a feed trough 64 for the entry of auxiliary materials. At the same time, the conical propeller 65 installed on the outside of the feed trough 64 will start Finally, it fits along the inner conical surface of the top auxiliary material hopper 55. When the traction shaft 61 drives the small-diameter feed pipe 62 to rotate, it will synchronously drive the conical propeller 65 to rotate, driving the auxiliary material in the top auxiliary material hopper 55 along the small-diameter feed pipe 62 until it is guided into the working kettle 2. The outer surface of the small-diameter feed pipe 62 at the height of the axis of the middle liquid collecting tray 57 is provided with a feed groove 2 66. Through the cross-collecting pipe structure inside the middle liquid collecting tray 57, the hypochlorous acid and hydrochloric acid solution gathered in the center will be driven along the feed groove 2 66 into the working kettle 2 and come into contact with the auxiliary material. The large-diameter feed pipe 63 sleeved on the surface of the small-diameter feed pipe 62 is located on the side wall of the output part of the bottom feed hopper 52 and is provided with a feed groove 3 67 for sodium hypochlorite and acidic raw materials to enter.The outer surface of the large diameter feed pipe 63 extending to the height of the top wall of the built-in working tank 42 is equipped with a discharge trough 1 68 for outputting sodium hypochlorite and acidic raw materials into the built-in working tank 42. At the same time, a spiral feeding paddle 69 is embedded in the inner wall area of the large diameter feed pipe 63 between the feed trough 3 67 and the feed trough 1 68. When the large diameter feed pipe 63 rotates along the small diameter feed pipe 62, the spiral feeding paddle 69 will rotate synchronously and respectively draw the sodium hypochlorite and acidic raw materials stored separately in the bottom feed hopper 52 into the large diameter feed pipe 63 along the feed trough 3 67, and then output them to the built-in working tank 42 through the discharge trough 1 68, driving the two to contact each other in the built-in working tank 42. At the same time, the main material mixing paddle 611 installed on the large diameter feed pipe 63 will also rotate in the built-in working tank 42 to accelerate the pre-mixing of sodium hypochlorite and acidic raw materials in the built-in working tank 42 and generate chlorine gas, which will re The newly generated products are guided into the infusion chamber 53 to form hypochlorous acid, while the remaining products are introduced into the large-diameter feed pipe 63 along the bottom bucket structure of the built-in working tank 42 and the discharge trough 2 610 installed on the side wall of the large-diameter feed pipe 63. The large-diameter feed pipe 63 finally guides the remaining products into the working kettle 2, where they come into contact with the auxiliary materials and the hypochlorous acid and hydrochloric acid solution. The small-diameter feed pipe 62 rotating in the working kettle 2 is also equipped with an integrated stirring rack 612 that can drive the remaining products, hypochlorous acid and hydrochloric acid solution, and auxiliary materials to stir and mix. As the traction shaft 61, small-diameter feed pipe 62, and large-diameter feed pipe 63 rotate synchronously, the entire equipment, including the dechlorination recovery mechanism 4 and the integrated feeding mechanism 5, will operate synchronously, and various raw materials will also enter the working kettle 2 synchronously. At the same time, the chlorine gas generated by the mixing of the raw materials is separated and recycled, and the mixing of the disinfectant raw materials in the working kettle 2 is accelerated.

[0048] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. An efficient mixing device for the production of disinfectants, characterized in that, include: A fixed frame (1) for fixing the structure of a high-efficiency mixing device for producing disinfectants; The working kettle (2) is located on the fixed frame (1) and is used to carry the disinfectant raw materials and form a mixing area; The top rack (3) is located on the fixed frame (1) and is used to fix the chlorine separation and recovery structure; The dechlorination recovery mechanism (4) is located on the top rack (3) and is used to mix and input sodium hypochlorite and acidic main materials, and separate and recover the produced chlorine; The integrated feeding mechanism (5) is located on the dechlorination recovery mechanism (4), and cooperates with the external transfer tank (41), the internal operation tank (42) and the transfer pipe (44) to receive the separated chlorine gas and input the auxiliary material; The mixing synchronization mechanism (6) is located on the working kettle (2), and cooperates with the built-in working tank (42), the central gear (46), the bottom feeding hopper (52), the top auxiliary material hopper (55), the middle liquid collecting tray (57) and the suspension frame (58) to convey and mix the main material and auxiliary material of the angle disinfectant.

2. A high-efficiency mixing device for disinfectant production according to claim 1, characterized in that: The working kettle (2) is fixedly connected to the interior of the fixed frame (1), the top frame (3) is fixedly connected to the top of the fixed frame (1), the dechlorination recovery mechanism (4) is embedded and fixed in the top frame (3), the integrated feeding mechanism (5) is arranged on the dechlorination recovery mechanism (4), and the mixing synchronization mechanism (6) is embedded in the interior center of the integrated feeding mechanism (5) and extends sequentially to the interior of the integrated feeding mechanism (5), the dechlorination recovery mechanism (4) and the working kettle (2).

3. A high-efficiency mixing device for disinfectant production according to claim 1, characterized in that: The dechlorination recovery mechanism (4) comprises an external transfer tank (41), an internal operation tank (42) and a component bin (43). The external transfer tank (41) is fixedly connected to the top frame (3), and its outer ring portion has an outwardly extending air delivery cavity. The internal operation tank (42) is fixedly connected to the interior of the external transfer tank (41). The outer ring surface of the internal operation tank (42) is provided with a filter membrane structure, and a gap area is formed between the internal operation tank (42) and the inner wall of the external transfer tank (41). The bottom of the internal working tank (42) is a bucket-shaped structure. The component bin (43) is embedded and fixed on the inner top wall of the internal working tank (42) and keeps the same axis as the internal working tank (42). The transfer pipe (44) is circumferentially distributed and fixed on the top input port of the gas delivery cavity of the external transfer tank (41). The top of the internal working tank (42) is rotatably connected to an embedded impeller ring (45). The embedded impeller ring (45) is an annular impeller structure, and its impeller part is embedded in the gap area between the external transfer tank (41) and the internal working tank (42).

4. A high-efficiency mixing device for disinfectant production according to claim 1, characterized in that: The integrated feeding mechanism (5) comprises a fixed cylinder (51) and a liquid infusion cabin (53). The fixed cylinder (51) is fixedly connected to the top of the built-in working tank (42). The bottom of the bottom-mounted feeding hopper (52) is a bucket-shaped structure and is fixedly connected to the inside of the fixed cylinder (51). The liquid infusion cabin (53) is wrapped and fixed to the outer wall of the fixed cylinder (51) and is located above the bottom-mounted feeding hopper (52). The output end of the transfer pipe (44) is fixedly connected to the side input port of the liquid infusion cabin (53). The fixed cylinder (51) At the same time, a main material pipe (54) distributed in a circumferential manner is fixedly connected to the side output port of the bottom feed hopper (52). The top auxiliary hopper (55) is suspended on the top of the infusion chamber (53), and the bottom end extends into the fixed cylinder (51). The middle liquid collecting tray (57) is fixedly connected between the top auxiliary hopper (55) and the bottom feed hopper (52). The side port of the middle liquid collecting tray (57) is communicated with the inner port of the infusion chamber (53). A cross pipe structure converging toward the center is provided inside the middle liquid collecting tray (57).

5. A high-efficiency mixing device for disinfectant production according to claim 1, characterized in that: The mixing synchronization mechanism (6) includes a traction shaft (61), a small-diameter feed pipe (62) and a large-diameter feed pipe (63). The traction shaft (61) is suspended on a suspension frame (58) and driven to rotate by an output motor structure of the suspension frame (58). The small-diameter feed pipe (62) is fixed to the bottom end of the traction shaft (61) and sequentially passes through an overhead auxiliary hopper (55), a middle liquid collecting tray (57), a bottom feed hopper (52), and a built-in working tank (42) before extending into the working kettle (2). The large-diameter feed pipe (63) is sleeved and fixed on the outer surface of the small-diameter feed pipe (62). The large-diameter feed pipe (63) sequentially passes through the bottom feed hopper (52), a component bin (43), and a built-in working tank (42) before extending into the working kettle (2). The large-diameter feed pipe (63) is fixed to the rotation axis of the central gear (46). The small-diameter feed pipe (62) is located at A feed trough 1 (64) is provided at the bottom output portion of the bottom feed hopper (52); a feed trough 2 (66) is provided at the center position of the small-diameter feed pipe (62) located on the center of the middle liquid collecting tray (57); a feed trough 3 (67) is provided at the top of the inner surface of the built-in working tank (42); a discharge trough 1 (68) is provided at the top of the built-in working tank (42); a spiral feed paddle (69) is embedded between the feed trough 3 (67) and the discharge trough 1 (68) on the inner surface of the large-diameter feed pipe (63); a discharge trough 2 (610) is provided at the bottom output port of the large-diameter feed pipe (63); and the area of the large-diameter feed pipe (63) between the discharge trough 1 (68) and the discharge trough 2 (610) is a sealed structure.

6. A high-efficiency mixing device for disinfectant production according to claim 3, characterized in that: The central gear (46) is rotatably connected to the center of the inner wall of the component chamber (43); the inner wall of the component chamber (43) is rotatably connected to a circumferentially distributed internal gear ring (48) that surrounds the central gear (46); the outer ring portion of the inner wall of the component chamber (43) is rotatably connected to a transfer gear (47); the tooth key of the internal gear ring (48) is engaged between the tooth keys of the central gear (46) and the transfer gear (47); and the inner ring portion of the embedded impeller ring (45) is fixedly connected to the inner gear ring (48).

7. A high-efficiency mixing device for disinfectant production according to claim 4, characterized in that: The top of the main material pipe (54) is fixedly connected to an overhead main material hopper (56), and a bottom plate structure with inclined sides is provided inside the overhead main material hopper (56).

8. A high-efficiency mixing device for disinfectant production according to claim 4, characterized in that: A suspended suspension frame (58) is fixedly connected to the top of the overhead auxiliary hopper (55), and the suspension frame (58) is provided with an output motor structure.

9. A high-efficiency mixing device for disinfectant production according to claim 5, characterized in that: The outer surface of the first material introduction trough (64) is fixedly connected with a conical propeller (65), and the conical propeller (65) is attached to the inner surface of the bottom feed hopper (52).

10. A high-efficiency mixing device for disinfectant production according to claim 5, characterized in that: A main material mixing paddle (611) distributed circumferentially is fixedly connected between the second discharge trough (610) and the first discharge trough (68) on the outer surface of the large-diameter feed pipe (63), and a comprehensive stirring frame (612) is fixedly connected to the outer surface of the small-diameter feed pipe (62) extending to the position inside the working kettle (2).

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