Stirring reaction equipment for thermofuse raw materials

Abstract

The utility model discloses stirring reaction equipment for a thermal fuse raw material, which comprises a base, a shell is arranged in the middle of the base, a heating inner lead is arranged in the shell, a heating component is arranged between the heating inner lead and the shell, a feeding pipe is arranged at a feeding hole of the heating inner lead, the left end of the feeding pipe penetrates through the shell, and the stirring reaction equipment further comprises a heat conduction structure; the heat conduction structure comprises a main shaft, a U-shaped heat conduction groove, pipelines and heat conduction fins, the main shaft is arranged in the middle of the upper side face of the shell, the U-shaped heat conduction groove is formed in the main shaft, the pipelines which are symmetrically distributed are arranged on the upper side face of the main shaft, and the upper ends of the left side and the right side of the U-shaped heat conduction groove communicate with the adjacent pipelines on the upper side; according to the stirring reaction equipment for the thermofuse raw materials, efficient and uniform heating is achieved through a heat conduction structure and a complex and synergistic stirring assembly, and stirring and mixing of the thermofuse raw materials are enhanced.

Description

Technical Field

[0001] This utility model relates to the field of hot melt wire production technology, specifically to a stirring and reaction device for hot melt wire raw materials. Background Technology

[0002] In modern industrial production, hot melt wire is a key material widely used in packaging, textiles, electronics and other fields. As various industries continue to increase their requirements for the quality and performance of hot melt wire, the raw material stirring and reaction process in its production process has become particularly important. The effect of the raw material stirring and reaction directly affects the quality of hot melt wire, such as key performance indicators like tensile strength, melting point and flexibility. Therefore, developing efficient and precise hot melt wire raw material stirring and reaction equipment is of great significance for improving the quality of hot melt wire products and meeting the diversified needs of the market.

[0003] Currently, in the field of hot melt wire raw material stirring and reaction equipment, most common equipment has basic heating and stirring functions. The heating method usually involves setting a heating device on the outside of the reaction vessel, such as resistance wire heating. The heat generated by the resistance wire is used to heat the raw materials in the vessel through heat conduction. The stirring part is relatively diverse. Some equipment adopts a multi-layer stirring blade design. The upper blades are usually larger and propeller-type, used to drive a large amount of material to axially circulate, making the material roll up and down in the vessel and expanding the stirring range. The lower layer uses anchor blades that fit against the bottom of the reaction vessel to prevent material sedimentation and ensure that the material at the bottom of the vessel can also participate in the stirring process. During operation, various hot melt wire raw materials are first added to the reaction vessel in a precise ratio. Then, the heating device is turned on to gradually heat the raw materials to the temperature required for the reaction. During the heating process, the stirring device is started, and the stirring blades begin to rotate at a preset speed and direction. Different types of blades and auxiliary components work together to stir and mix the raw materials, promoting full contact between the raw materials and chemical reaction.

[0004] However, existing technologies have many shortcomings. In terms of heating, traditional resistance wire heating methods have obvious defects, such as uneven heat transfer, which can easily lead to local overheating or underheating of raw materials in the reaction vessel, affecting the consistency of the reaction and product quality. Moreover, this heating method is inefficient and has a slow heating rate, increasing production time and energy consumption. In terms of stirring, when there are large particles in the raw materials, the mixing effect of existing stirring structures is greatly reduced. Large particles are difficult to disperse effectively during stirring and tend to accumulate locally in the vessel, making it impossible for them to fully contact and mix with other small particles and liquid raw materials. Even multi-layer blades cannot completely overcome the mixing problem caused by large particles, resulting in inconsistent final product quality, which is difficult to meet the strict requirements of hot melt wire uniformity in high-end application scenarios. Therefore, we propose a stirring reaction device for hot melt wire raw materials. Utility Model Content

[0005] The technical problem to be solved by this utility model is to overcome the existing defects and provide a stirring and reaction device for hot melt wire raw materials, which can efficiently and uniformly heat and enhance stirring and mixing, and can effectively solve the problems in the background art.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a stirring and reaction device for hot melt wire raw materials, including a base, a shell in the middle of the base, a heating inner core inside the shell, a heating component between the heating inner core and the shell, a feed pipe at the feed inlet of the heating inner core, the left end of the feed pipe penetrating the shell, and a heat-conducting structure.

[0007] The heat-conducting structure includes a main shaft, a U-shaped heat-conducting groove, pipes, and heat-conducting fins. The main shaft is located in the middle of the upper side of the outer shell. The U-shaped heat-conducting groove is opened inside the main shaft. The upper side of the main shaft is provided with symmetrically distributed pipes. The upper ends of the left and right sides of the U-shaped heat-conducting groove are connected to the adjacent pipes on the upper side. The outer arc surface of the main shaft is provided with uniformly distributed heat-conducting fins. The outer arc surface of the main shaft is fitted with a stirring assembly. Through the heat-conducting structure and the complex and coordinated stirring assembly, efficient and uniform heating is achieved, and the stirring and mixing of the hot melt wire raw material is enhanced.

[0008] Furthermore, a control switch group is provided on the upper side of the base, and the input end of the control switch group is electrically connected to an external power source for stable control.

[0009] Furthermore, the mixing assembly includes a mixing tank, crushing rollers, and mixing blades. The mixing tanks are rotatably connected to the lower end of the outer arc surface of the main shaft. The outer arc surface of the upper mixing tank is provided with uniformly distributed crushing rollers, and the outer arc surface of the lower mixing tank is provided with uniformly distributed mixing blades, thereby increasing the mixing effect.

[0010] Furthermore, the stirring assembly also includes a mounting plate, a slide rail, a protective plate, a connecting shaft, a connecting plate, and baffles. The top wall of the outer shell is provided with a mounting plate via a mounting rod. The lower side of the mounting plate is provided with a slide rail. The left and right ends of the slide rail are slidably connected to the slide rail. The middle of each protective plate is rotatably connected to a connecting shaft. The outer arc surface of the connecting shaft is provided with evenly distributed baffles. The connecting plates are respectively located at the front end of the upper side of the upper stirring tank and the rear end of the upper side of the lower stirring tank. The lower end of each connecting shaft is rotatably connected to the upper side of the adjacent lower connecting plate to increase the stirring effect.

[0011] Furthermore, the stirring assembly also includes a bearing, a rotating drum, gear one, gear two, and an internal gear ring. The mounting plate has symmetrically distributed arc-shaped grooves in its middle. The upper ends of the connecting shafts all pass through the adjacent arc-shaped grooves on the upper side. Gear two is provided at the upper end of each connecting shaft. An internal gear ring is provided on the upper side of the mounting plate. The rotating drum is rotatably connected to the middle of the mounting plate through a bearing. The main shaft is located inside the rotating drum. Gear one is provided at the lower end of the outer arc surface of the rotating drum. Two gear twos are respectively meshed with gear one and the internal gear ring to increase the stirring effect.

[0012] Furthermore, the top wall of the outer shell is rotatably connected to a gear via a rotating shaft, and a driven gear is provided at the upper end of the outer arc surface of the rotating barrel. The driven gear meshes with the gear. A motor is installed on the upper side of the outer shell, and the output shaft of the motor is fixedly connected to the center of the upper end face of the rotating shaft. The input end of the motor is electrically connected to the output end of the control switch group for stable driving.

[0013] Furthermore, the heating component is a heating wire, which is provided between the inner core and the outer shell. The input end of the heating wire is electrically connected to the output end of the control switch group for heating.

[0014] Furthermore, the discharge pipe at the lower end of the heating inner core penetrates the lower side wall of the outer shell and is exposed outside the outer shell. An electric valve is connected in series in the middle of the discharge pipe. The input end of the electric valve is electrically connected to the output end of the control switch group to facilitate material discharge.

[0015] Compared with the prior art, the beneficial effects of this utility model are as follows: This stirring and reaction equipment for hot melt wire raw materials has the following advantages:

[0016] 1. The stirring and reaction equipment for this hot melt wire raw material has excellent heat conduction and heating uniformity. The design of the heat conduction structure greatly improves the heating efficiency and uniformity. The U-shaped heat conduction groove and pipes are interconnected and, together with the heat conduction fins, can quickly and evenly transfer heat to all areas within the heating element. Whether it is near the heating source or in a relatively remote corner, the hot melt wire raw material can be heated evenly, effectively avoiding local overheating or underheating. This not only improves the stability and consistency of the hot melt wire raw material reaction, but also helps to improve product quality and reduce the defect rate.

[0017] 2. This hot melt wire raw material stirring and reaction equipment also has an enhanced stirring and mixing effect. The stirring components are cleverly designed. The crushing roller in the upper stirring tank can pre-crush larger particles of raw materials to reduce their particle size, creating better conditions for subsequent stirring and mixing. The stirring blades in the lower stirring tank are responsible for fully stirring the crushed raw materials, allowing different types of raw materials to be mixed evenly and promoting the chemical reaction. In addition, the turbulence plates on the connecting shaft create turbulence in the material as the connecting shaft rotates, further disrupting the flow trajectory of the material and increasing the contact opportunities between materials, making the mixing effect more ideal. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the structure of this utility model;

[0019] Figure 2 This is a cross-sectional view of the right end of the present invention.

[0020] Figure 3 This is an enlarged structural schematic diagram of point A of this utility model;

[0021] Figure 4 This is a partial structural schematic diagram of the stirring assembly of this utility model;

[0022] Figure 5 This is a partial cross-sectional structural diagram of the mounting plate of this utility model;

[0023] Figure 6 This is a structural schematic diagram showing a cross-section of the front end of the main shaft of this utility model;

[0024] Figure 7 This is a schematic diagram of the front plane of this utility model.

[0025] In the diagram: 1. Base; 2. Mixing assembly; 201. Mounting plate; 202. Bearing; 203. Rotary drum; 204. Gear 1; 205. Gear 2; 206. Internal gear ring; 207. Slide rail; 208. Protective plate; 209. Connecting shaft; 210. Mixing drum; 211. Crushing roller; 212. Mixing blade; 213. Connecting plate; 214. Baffle plate; 3. Heat-conducting structure; 31. Main shaft; 32. U-shaped heat-conducting groove; 33. Pipe; 34. Heat-conducting fins; 4. Outer shell; 5. Heating inner core; 6. Heating wire; 7. Electric valve; 8. Driven gear; 9. Gear; 10. Rotary shaft; 11. Motor; 12. Feed pipe; 13. Control switch assembly. Detailed Implementation

[0026] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0027] Please see Figure 1-7 This embodiment provides a technical solution: a stirring and reaction device for hot melt wire raw materials, including a base 1, a control switch group 13 on the upper side of the base 1, the input end of the control switch group 13 being electrically connected to an external power source, a shell 4 in the middle of the base 1, a heating inner core 5 inside the shell 4, a thermometer that can be installed on the front side of the shell 4, the probe of the thermometer extending into the interior of the heating inner core 5, a heating component (heating wire 6) between the heating inner core 5 and the shell 4, the input end of the heating wire 6 being electrically connected to the output end of the control switch group 13, and a heating component (heating wire 6) between the heating inner core 5 and the shell 4. The discharge pipe penetrates the lower side wall of the outer shell 4 and is exposed outside the outer shell 4. An electric valve 7 is connected in series in the middle of the discharge pipe. The input end of the electric valve 7 is electrically connected to the output end of the control switch group 13. A feed pipe 12 is provided at the feed inlet of the heating inner shell 5. The left end of the feed pipe 12 penetrates the outer shell 4. The hot melt wire raw material enters the heating inner shell 5 through the feed pipe 12. After the stirring reaction is completed, the operator opens the electric valve 7 through the control switch group 13. The reacted material in the heating inner shell 5 is discharged from the equipment through the discharge pipe under the action of gravity. After the discharge is completed, the electric valve 7 is closed to wait for the next reaction operation. This facilitates the processing of the hot melt wire raw material and also includes a heat-conducting structure 3.

[0028] Heat-conducting structure 3 includes a main shaft 31, a U-shaped heat-conducting groove 32, pipes 33, and heat-conducting fins 34. The main shaft 31 is located in the middle of the upper side of the outer casing 4. A U-shaped heat-conducting groove 32 is formed inside the main shaft 31. Symmetrically distributed pipes 33 are located on the upper side of the main shaft 31. The upper ends of both sides of the U-shaped heat-conducting groove 32 are connected to the adjacent pipes 33 on the upper side. A protective chamber is located on the upper side of the outer casing 4. The upper side wall of the protective chamber has clearance openings corresponding to the two protective chambers. (An additional input pipe is added outside the equipment. One end of this pipe is connected to an external heat transfer oil supply source, and the other end is sealed to the pipe 33 on the left side. An extraction assembly is installed on the outside of the pipe 33 on the right side. The extraction assembly can be a small centrifugal pump, the power of which is determined by the required flow rate of the heat transfer oil circulation.) The pump head is selected appropriately. The inlet of the centrifugal pump is connected to the pipe 33, and the outlet is connected to an external heat transfer oil recovery device or cooling circulation system to realize the recycling of heat transfer oil. The outer arc surface of the main shaft 31 is provided with uniformly distributed heat transfer fins 34. The outer arc surface of the main shaft 31 is fitted with a stirring assembly 2. The stirring assembly 2 includes a stirring tank 210, a crushing roller 211, and stirring blades 212. The stirring tank 210 is rotatably connected to the lower end of the outer arc surface of the main shaft 31. The outer arc surface of the upper stirring tank 210 is provided with uniformly distributed crushing rollers 211, and the outer arc surface of the lower stirring tank 210 is provided with uniformly distributed stirring blades 212. The stirring assembly 2 also includes a mounting plate 201, a slide rail 207, a guard plate 208, a connecting shaft 209, a connecting plate 213, and a stirrer. The top wall of the outer shell 4 is provided with a mounting plate 201 via a mounting rod. A slide rail 207 is provided on the lower side of the mounting plate 201. Protective plates 208 are slidably connected to both ends of the slide rail 207. A connecting shaft 209 is rotatably connected to the middle of each protective plate 208. Uniformly distributed baffles 214 are provided on the outer arc surface of the connecting shaft 209. Connecting plates 213 are respectively located at the front end of the upper side of the upper mixing tank 210 and the rear end of the upper side of the lower mixing tank 210. The lower end of the connecting shaft 209 is rotatably connected to the upper side of the adjacent lower connecting plate 213. The mixing assembly 2 also includes a bearing 202, a rotating tank 203, a first gear 204, a second gear 205, and an internal gear ring 206. Symmetrically distributed arcs are formed in the middle of the mounting plate 201. The upper ends of the connecting shafts 209 pass through the adjacent upper arc-shaped grooves. Each upper end of the connecting shaft 209 is equipped with a second gear 205. An internal gear ring 206 is provided on the upper side of the mounting plate 201. A rotating drum 203 is rotatably connected to the middle of the mounting plate 201 via a bearing 202. The main shaft 31 is located inside the rotating drum 203. A first gear 204 is provided at the lower end of the outer arc surface of the rotating drum 203. Two second gears 205 mesh with the first gear 204 and the internal gear ring 206, respectively. A gear 9 is rotatably connected to the top wall of the outer casing 4 via a rotating shaft 10. A driven gear 8 is provided at the upper end of the outer arc surface of the rotating drum 203, meshing with the gear 9. A motor 11 is mounted on the upper side of the outer casing 4. The output shaft of the motor 11 is fixedly connected to the center of the upper end face of the rotating shaft 10.The input terminal of motor 11 is electrically connected to the output terminal of control switch group 13. When an external power source is connected to control switch group 13 and the equipment is turned on, control switch group 13 provides power control for all electrical components of the equipment. At this time, motor 11 starts under the control of control switch group 13. The output shaft of motor 11 drives rotating shaft 10 to rotate 180 degrees in both directions, causing gear 9 connected to rotating shaft 10 to rotate accordingly in both directions. Gear 9 meshes with driven gear 8 on rotating drum 203, causing rotating drum 203 to rotate alternately in clockwise and counterclockwise directions. When rotating drum 203 rotates, gear 204 at the lower end of the outer arc surface of rotating drum 203 meshes with two gears 205. Since gears 205 mesh with gear 204 and internal gear ring 206 respectively... The meshing connection, a gear transmission structure, causes the connecting shaft 209 to rotate with the rotating drum 203. The lower end of the connecting shaft 209 is fixedly connected to the connecting plate 213, which is respectively installed on the front end of the upper side of the upper mixing drum 210 and the rear end of the upper side of the lower mixing drum 210. Therefore, the mixing drum 210 will revolve and rotate under the drive of the connecting shaft 209. The crushing roller 211 on the outer arc surface of the upper mixing drum 210 crushes the larger particles of hot melt wire raw material during rotation, reducing their particle size to facilitate subsequent mixing and reaction. The stirring blades 212 on the outer arc surface of the lower mixing drum 210 stir the hot melt wire raw material, promoting thorough mixing between different raw materials. At the same time, the baffles 214 evenly distributed on the outer arc surface of the connecting shaft 209... As the connecting shaft 209 rotates, turbulence is created in the hot melt wire material inside the heating inner core 5, further enhancing the mixing effect and making the material more uniform. The control switch group 13 supplies power to the heating wire 6, which generates heat. This heat is transferred between the heating inner core 5 and the outer shell 4, heating the material inside the heating inner core 5. A thermometer installed on the front side of the outer shell 4 can monitor the temperature inside the heating inner core 5 in real time and provide feedback to the operator. At the same time, the external heat transfer oil supply is turned on, and the heat transfer oil flows into the pipe 33 through the input pipe. Since the pipe 33 is connected to the U-shaped heat transfer groove 32, the heat transfer oil enters the interior of the U-shaped heat transfer groove 32 under pressure. The temperature of the heat transfer oil is set according to the optimal temperature required for the reaction of the hot melt wire material. As the heat transfer oil flows within the U-shaped heat transfer groove 32, it transfers heat to the surrounding main shaft 31 and heat transfer fins 34 through the walls of the U-shaped heat transfer groove 32. The heat transfer fins 34 increase the heat dissipation area, allowing heat to be distributed more quickly and evenly to the raw materials inside the heating inner core 5, providing a suitable temperature environment for the stirring reaction of the raw materials. After heat transfer, the heat transfer oil flows from the other end of the U-shaped heat transfer groove 32 into another pipe 33. At this time, the extraction component (centrifugal pump) is activated to extract the heat transfer oil in the pipe 33 and transport it to an external recovery device. The external input pipe is connected to the pipe 33, realizing the circulation of the heat transfer oil within the U-shaped heat transfer groove 32. This provides more efficient and even heat for the stirring reaction of the hot melt wire raw materials, improving product quality and reducing energy consumption.Enhance the mixing effect of hot melt wire raw materials.

[0029] The working principle of the stirring and reaction equipment for hot melt wire raw materials provided by this utility model is as follows: When an external power source is connected to the control switch group 13 and the equipment is turned on, the control switch group 13 provides power control to all electrical components of the entire equipment. At this time, the motor 11 starts under the control of the control switch group 13. The output shaft of the motor 11 drives the rotating shaft 10 to rotate 180 degrees in both directions, causing the gear 9 connected to the rotating shaft 10 to also rotate accordingly in both directions. The gear 9 meshes with the driven gear 8 on the rotating drum 203, causing the rotating drum 203 to rotate alternately in clockwise and counterclockwise directions. The gear 204 at the lower end of the outer arc surface of the rotating drum 203 rotates during this process. The two gears 205 mesh with each other. Since gear 205 meshes with gear 1 204 and internal gear ring 206 respectively, this gear transmission structure causes the connecting shaft 209 to rotate with the rotating drum 203. The lower end of the connecting shaft 209 is fixedly connected to the connecting plate 213. The connecting plate 213 is installed on the front end of the upper side of the upper mixing drum 210 and the rear end of the upper side of the lower mixing drum 210 respectively. Therefore, the mixing drum 210 will revolve and rotate under the drive of the connecting shaft 209. The crushing roller 211 on the outer arc surface of the upper mixing drum 210 crushes the larger particles of hot melt wire raw material during the rotation, making its particle size smaller, which is convenient for subsequent mixing and reaction.The stirring blades 212 on the outer arc surface of the lower stirring tank 210 stir the hot melt wire raw materials, promoting thorough mixing between different raw materials. Simultaneously, the turbulence-generating blades 214 evenly distributed on the outer arc surface of the connecting shaft 209, as the connecting shaft 209 rotates, create turbulence in the hot melt wire raw materials within the heating inner core 5, further enhancing the mixing effect and making the material mixture more uniform. The control switch group 13 supplies power to the heating wire 6, which generates heat. This heat is transferred between the heating inner core 5 and the outer shell 4, heating the raw materials within the heating inner core 5. A thermometer installed on the front side of the outer shell 4 can monitor the temperature within the heating inner core 5 in real time and provide feedback to the operator. At the same time, the external heat transfer oil supply is turned on, and the heat transfer oil flows into the pipe 33 through the input pipe. Since the pipe 33 is connected to the U-shaped heat transfer groove 32, the heat transfer oil enters the U-shaped heat transfer groove 32 under pressure. The temperature of the heat transfer oil is determined according to... The optimal temperature required for the reaction of the hot melt wire raw materials is set. During the flow of the heat transfer oil within the U-shaped heat transfer groove 32, heat is transferred to the surrounding main shaft 31 and heat transfer fins 34 through the wall of the U-shaped heat transfer groove 32. The heat transfer fins 34 increase the heat dissipation area, allowing heat to be distributed more quickly and evenly to the raw materials within the heating inner core 5, providing a suitable temperature environment for the stirring reaction of the raw materials. After heat transfer, the heat transfer oil flows from the other end of the U-shaped heat transfer groove 32 into another pipe 33. At this time, the extraction component (centrifugal pump) is activated, extracting the heat transfer oil in pipe 33 and transporting it to an external recovery device. The hot melt wire raw materials enter the heating inner core 5 through the feed pipe 12. After the stirring reaction is completed, the operator opens the electric valve 7 through the control switch group 13. The reacted material in the heating inner core 5 is discharged from the equipment through the discharge pipe under gravity. After discharge, the electric valve 7 is closed, awaiting the next reaction operation.

[0030] It is worth noting that the electric valve 7 disclosed in the above embodiments can be an AGMZO series, the motor 11 is an ASD-A2 series servo motor, and the control switch group 13 is provided with control buttons that correspond one-to-one with the electric valve 7 and the motor 11 and are used to control their switching.

[0031] The above description is merely an embodiment of this utility model and does not limit the patent scope of this utility model. Any equivalent structural or procedural transformations made based on the content of this utility model specification and drawings, or direct or indirect applications in other related technical fields, are similarly included within the patent protection scope of this utility model.

Claims

1. A kind of hot-melt fuse raw material stirring reaction equipment, including base (1), the middle part of base (1) is equipped with shell (4), the inside of shell (4) is equipped with heating inner dan (5), heating component is equipped between heating inner dan (5) and shell (4), the feed inlet of heating inner dan (5) is equipped with feed pipe (12), the left end of feed pipe (12) penetrates shell (4), it is characterized by: Also include heat conduction structure (3); Heat conduction structure (3): it includes main shaft (31), U-shaped heat conduction groove (32), pipeline (33) and heat conduction fin (34), the upper side middle part of the shell (4) is equipped with main shaft (31), the inside of main shaft (31) is equipped with U-shaped heat conduction groove (32), the upper side of main shaft (31) is equipped with symmetrically distributed pipeline (33), the left and right sides upper end of U-shaped heat conduction groove (32) are connected with the pipeline (33) adjacent to the upper side, the outer arc surface of main shaft (31) is equipped with evenly distributed heat conduction fin (34), the outer arc surface of main shaft (31) is fitted with stirring assembly (2).

2. A hot melt fuse raw material stirring reaction apparatus according to claim 1, characterized by: The upper side of the base (1) is provided with a control switch group (13), and the input end of the control switch group (13) is electrically connected with an external power supply.

3. A hot melt fuse raw material stirring reaction apparatus according to claim 2, characterized by: The stirring assembly (2) comprises stirring barrels (210), crushing rollers (211) and stirring blades (212), the stirring barrels (210) are respectively rotatably connected to the lower end of the outer arc surface of the main shaft (31), the outer arc surface of the upper stirring barrel (210) is provided with evenly distributed crushing rollers (211), and the outer arc surface of the lower stirring barrel (210) is provided with evenly distributed stirring blades (212).

4. The apparatus according to claim 3, wherein: The stirring assembly (2) further comprises a mounting plate (201), a sliding rail (207), a guard plate (208), a connecting shaft (209), a connecting plate (213) and a spoiler (214), the top wall of the shell (4) is provided with the mounting plate (201) through a mounting rod, the lower side of the mounting plate (201) is provided with the sliding rail (207), the left and right ends of the sliding rail (207) are slidably connected with the guard plates (208), the middle parts of the guard plates (208) are rotatably connected with the connecting shafts (209), the outer arc surfaces of the connecting shafts (209) are provided with evenly distributed spoilers (214), the connecting plates (213) are respectively arranged on the front end of the upper side of the upper stirring barrel (210) and the rear end of the upper side of the lower stirring barrel (210), and the lower ends of the connecting shafts (209) are rotatably connected with the upper sides of the adjacent connecting plates (213).

5. A hot melt fuse raw material stirring reaction apparatus according to claim 4, characterized by: The stirring assembly (2) further comprises a bearing (202), a rotating barrel (203), a gear one (204), a gear two (205) and an inner tooth ring (206), the middle part of the mounting plate (201) is provided with symmetrically distributed arc-shaped grooves, the upper ends of the connecting shafts (209) pass through the adjacent arc-shaped grooves, the upper ends of the connecting shafts (209) are provided with the gear two (205), the upper side of the mounting plate (201) is provided with the inner tooth ring (206), the middle part of the mounting plate (201) is rotatably connected with the rotating barrel (203) through the bearing (202), the main shaft (31) is located in the inside of the rotating barrel (203), and the lower end of the outer arc surface of the rotating barrel (203) is provided with the gear one (204). Two gear two (205) are respectively meshed with the gear one (204) and the inner tooth ring (206).

6. A hot melt fuse raw material stirring reaction apparatus according to claim 5, characterized by: The top wall of the shell (4) is rotatably connected with a gear (9) through a rotating shaft (10), the outer arc surface upper end of the rotating barrel (203) is provided with a driven gear (8), the driven gear (8) is meshingly connected with the gear (9), the upper side of the shell (4) is provided with a motor (11), the output shaft of the motor (11) is fixedly connected with the center of the upper end surface of the rotating shaft (10), and the input end of the motor (11) is electrically connected with the output end of the control switch group (13).

7. The apparatus according to claim 2, wherein: The heating assembly is a heating wire (6), the heating wire (6) is arranged between the heating inner core (5) and the shell (4), and the input end of the heating wire (6) is electrically connected with the output end of the control switch group (13).

8. The apparatus according to claim 2, wherein: The discharge pipe arranged at the lower end of the heating inner core (5) penetrates the lower side wall of the shell (4) and is exposed outside the shell (4), a solenoid valve (7) is connected in series at the middle portion of the discharge pipe, and the input end of the solenoid valve (7) is electrically connected with the output end of the control switch group (13).

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