Production device for scaling powder

Abstract

The invention belongs to the technical field of soldering flux production, and discloses a production device for soldering flux. Comprising a reaction kettle fixedly connected to the interior of a mounting frame, a feeding port is fixedly connected to the outer side of the reaction kettle, a discharging port is fixedly connected to the bottom end of the reaction kettle, the feeding port and the discharging port are communicated with the interior of the reaction kettle, an electromagnetic valve is mounted in the discharging port, and the electromagnetic valve is used for controlling circulation of liquid in the discharging port. According to the device, through the structural design of the pressurizing mechanism and the stirring mechanism, the pressurizing mechanism increases the pressure in the pressurizing pipe, a defoaming agent in the pressurizing pipe is forced to accelerate circulation, and through cooperation with the structural design of the stirring mechanism, the stirring mechanism enables the side pipe to rotate while stirring raw materials, so that the defoaming agent rapidly reaches the interior of the side pipe, and the defoaming effect is improved. And the defoaming agent is added into the floating foam in a rotary impact manner, so that the defoaming agent is in full contact with the foam, the foam structure is quickly destroyed, and the quick defoaming effect is achieved.

Description

Technical Field

[0001] The present invention relates to the technical field of soldering flux production, and more particularly to a production device for soldering flux. Background Art

[0002] Flux is a chemical substance that can help and promote the welding process, and at the same time has a protective effect and prevents oxidation reactions. Flux can be divided into solid, liquid and gas. Its main functions are "assisting heat conduction", "removing oxides", "reducing the surface tension of the material being welded", "removing oil from the surface of the material being welded and increasing the welding area" and "preventing re-oxidation". In the production of liquid flux, mixing the flux raw materials is particularly important. Therefore, a mixing device is needed for the production and processing of flux.

[0003] The existing mixing devices are mostly composed of a stirring kettle, a motor and a stirring blade, and their working principle is as follows: the flux raw material to be processed is poured into the stirring kettle, and then the motor at the top of the stirring kettle is started. When the motor runs, it drives the stirring blade fixed to its output end to rotate, and the stirring blade is inside the stirring kettle. The rotation of the stirring blade will drive the liquid raw material inside the stirring kettle to circulate continuously inside the stirring kettle, thereby achieving the mixing function. During the mixing process, a defoaming agent is added to the surface of the liquid to solve the problem of foaming during mixing. Finally, the liquid raw material that has been stirred is taken out, and the purpose of raw material mixing in the flux production process can be completed.

[0004] Then, when the existing mixing device is in use, the position where the defoaming agent is added is relatively fixed during the mixing of the liquid raw materials, which is not comprehensive enough. This results in the need to increase the reaction time when the defoaming agent is mixed with the liquid raw materials. At the same time, the existing method of adding the defoaming agent cannot achieve impact-type addition of the defoaming agent, but only adds the defoaming agent inside the stirring tank, which cannot be quickly dispersed into the foam system, thereby increasing the working time required for defoaming. Summary of the invention

[0005] In order to overcome the above-mentioned defects of the prior art, the present invention provides a production device for soldering flux.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a production device for soldering flux, comprising a reactor fixedly connected to the inside of a mounting frame, a feed port fixedly connected to the outside of the reactor, a discharge port fixedly connected to the bottom end of the reactor, the feed port, the discharge port and the inside of the reactor are connected, a solenoid valve is installed inside the discharge port, and the solenoid valve is used to control the circulation of liquid inside the discharge port, a pair of transport racks are fixedly connected to the bottom end of the mounting frame, a conveyor belt is rotatably connected between the pair of transport racks, a plurality of groups of filling bottles are evenly distributed on the top of the conveyor belt, a booster pipe is fixedly connected to the inside of the mounting frame, and the booster pipe The bottom end of the stirring shaft is rotatably connected to the stirring shaft, the stirring shaft is inside the reactor, a pair of stirring blades are fixedly connected to the outside of the stirring shaft, a liquid inlet is fixedly connected to the outside of the boosting pipe, the liquid inlet and the inside of the boosting pipe are connected, a one-way valve is installed inside the liquid inlet, a first piston plate is slidably connected to the inside of the boosting pipe, a vent is fixedly connected to the top of the boosting pipe, a slide groove is provided at the bottom end of the stirring shaft, the slide groove is connected to the inside of the boosting pipe, a second piston plate is slidably connected to the top of the slide groove, a pair of side tubes are fixedly connected to the outside of the stirring shaft, and multiple groups of holes are provided on the outside of the pair of side tubes, and also includes; A booster mechanism is arranged at the top of the reactor, the booster mechanism is used to increase the pressure inside the booster pipe, the booster mechanism comprises a fixed plate, the fixed plate is fixedly connected to the top of the reactor, a motor is fixedly connected to the outside of the fixed plate, the output end of the motor passes through the fixed plate and is transmission-connected to a transmission rod, the outside of the transmission rod is rotationally connected to a limit clamp ring, and the limit clamp ring is fixedly connected to the top of the reactor; A stirring mechanism disposed outside the transmission rod, the stirring mechanism being used to rotate a stirring blade; The blocking mechanism is arranged inside the chute, and is used to block the defoaming agent from entering the chute in a static state.

[0007] Furthermore, the boost mechanism also includes a first sprocket, the first sprocket is fixedly connected to the outer side of the transmission rod, a second sprocket is arranged at the top of the first sprocket, a first chain is wound around the outer sides of the first sprocket and the second sprocket, an extension gear is fixedly connected to the interior of the second sprocket, the extension gear is rotatably connected to the turntable at one end away from the turntable, the outer side of the turntable is rotatably connected to the limiting layer disk, the end of the limiting layer disk facing away from the turntable is fixedly connected to a connecting plate, the bottom end of the connecting plate is fixedly connected to the top of the reactor, the end of the limiting layer disk facing away from the connecting plate is fixedly connected to an arc block, the outer side of the extension gear is rotatably connected to the turntable A supporting clamp ring is dynamically connected, a side rod is fixed between the supporting clamp ring and the arc block, the side rod is used to fix the supporting clamp ring, an inclined block is fixed on the side of the arc block close to the supporting clamp ring, a baffle is meshed on the outer side of the extended gear, a compression spring is rotatably connected between the supporting clamp ring and the baffle, a clamping rod is provided at one end of the turntable close to the baffle, the baffle and the clamping rod are fitted together, a belt is fixed on the outer side of the turntable, a piston rod is fixed on the end of the belt away from the turntable, the piston rod passes through the top end of the boosting pipe and is fixed to the first piston plate, and a first spring is fixed between the first piston plate and the boosting pipe.

[0008] Furthermore, the blocking mechanism includes a pair of first limit rods, both of which penetrate the second piston plate, and the top ends of the pair of first limit rods are fixedly connected with baffles, the baffles are fitted with the second piston plate, and a second spring is fixedly connected between the bottom end of the second piston plate and the slide groove.

[0009] Furthermore, the stirring mechanism includes a first spur gear, which is fixed to the outer side of the transmission rod, one side of the first spur gear is meshed with a second spur gear, the interior of the second spur gear is fixed with a rotating rod, the rotating rod passes through the top of the reactor and extends to the interior of the reactor, the end of the rotating rod away from the second spur gear is fixed with a first gear, one side of the first gear is meshed with a second gear, and the second gear is fixed to the outer side of the stirring shaft.

[0010] Furthermore, a third sprocket is fixedly connected to the outer side of the transmission rod, a fourth sprocket is arranged at the top of the transport frame, a second chain is wound between the third sprocket and the fourth sprocket, a telescopic rod is slidably connected to the inside of the discharge port, a filling mechanism is arranged inside the fourth sprocket, and the filling mechanism is used to transport filling bottles and lift the telescopic rod.

[0011] The cam is connected with the second support plate at two ends, and the first support plate and the second support plate are connected with the outer sides of a pair of transport frames respectively. The outer side of the long rod is fixed with a linkage disk, and the end of the linkage disk away from the long rod is fixed with a linkage rod, one end of the conveyor belt is fixed with a connecting rod, and the end of the connecting rod away from the conveyor belt is fixed with a chuck, and four groups of rotating grooves are evenly opened on the outer side of the chuck. An elliptical block is fixed with the outer side of the long rod, and a resistance rod is fitted on the outer side of the elliptical block. The outer side of the resistance rod is slidably connected to a limiting tube, and a concave rod is fixed with the outer side of the limiting tube, and the end of the concave rod away from the limiting tube is fixed with the outer side of the second support plate, and the outer side of the resistance rod is fixed with a Z-shaped rod, and the end of the Z-shaped rod away from the resistance rod is fixed with the outer side of the telescopic rod.

[0012] Furthermore, one end of the clamping rod close to the turntable passes through the turntable and is fixedly connected to the limit plate, a pair of second limit rods are passed through the inside of the limit plate, the pair of second limit rods are both fixedly connected to the turntable, one end of a pair of second limit rods away from the turntable is fixedly connected to a side plate, a pair of third springs are fixedly connected between the side plate and the limit plate, one end of the limit plate close to the side plate is fixedly connected to the first clamping plate, one end of the side plate close to the limit plate is fixedly connected to the second clamping plate, and the first clamping plate and the second clamping plate are both made of plastic material.

[0013] The technical effects and advantages of the production device for soldering flux of the present invention are as follows: (1) Through the structural design of the boosting mechanism and the stirring mechanism, the boosting mechanism increases the pressure inside the boosting pipe, forcing the defoaming agent inside the boosting pipe to circulate faster. Combined with the structural design of the stirring mechanism, the side pipe rotates while stirring the raw materials, so that the defoaming agent quickly reaches the inside of the side pipe, and is added to the floating foam in a rotating impact manner, so that it is fully in contact with the foam, thereby quickly destroying the foam structure and achieving a rapid defoaming effect.

[0014] (2) Through the structural design of the blocking mechanism, it is achieved that in a static state, the defoaming agent inside the boosting pipe is blocked by the second piston plate and cannot enter the inside of the side pipe. When the flow rate of the defoaming agent increases, it means that the internal pressure of the boosting pipe increases. At this time, the internal pressure of the boosting pipe will drive the defoaming agent to squeeze the second piston plate, causing the blocking mechanism to move, allowing the defoaming agent to enter the inside of the side pipe, thereby accelerating the impact of the floating foam inside the reactor.

[0015] (3) Through the structural design of the filling mechanism, it is possible to drive the filling bottle to move evenly without adding an additional power source, and when the filling bottle is stationary, it can be extended into the interior of the filling bottle to facilitate filling and avoid the situation in which the raw materials may be offset due to external influences during the falling process, resulting in some raw materials not being able to fall accurately into the filling bottle. The stability of the device is improved, and the fully automatic filling of the flux raw materials after mixing is achieved. In the production of flux, the mixed raw materials are filled in sequence with the mixing function, which saves the working cost of the additional power source and improves the degree of automation of the device. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0017] Figure 2 It is a schematic cross-sectional view of the reaction kettle in the present invention.

[0018] Figure 3 It is a schematic diagram of the structure of the first sprocket and the second sprocket in the present invention.

[0019] Figure 4 It is a schematic diagram of the structure of the limiting layer disk and the connecting plate in the present invention.

[0020] Figure 5 It is a cross-sectional schematic diagram of the boost pipe in the present invention.

[0021] Figure 6 It is a schematic diagram of a partial explosion in the present invention.

[0022] Figure 7 It is a schematic cross-sectional view of the stirring shaft in the present invention.

[0023] Figure 8 For the present invention Figure 7 A is an enlarged structural diagram of FIG.

[0024] Fig. 9 It is a schematic diagram of the structure of the third sprocket and the fourth sprocket in the present invention.

[0025] Fig.10 For the present invention Fig. 9 Schematic diagram of the enlarged structure at B.

[0026] Fig.11 It is a schematic diagram of the elliptical block and the interference rod structure in the present invention.

[0027] Fig.12 It is a schematic diagram of the structure of the first card board and the second card board in the present invention.

[0028] In the figure: 1. Mounting frame; 2. Reactor; 3. Feed inlet; 4. Discharge outlet; 5. Transport frame; 6. Conveyor belt; 7. Filling bottle; 8. Booster pipe; 9. Stirring shaft; 10. Stirring blade; 11. Liquid inlet; 12. First piston plate; 13. Vent; 14. Second piston plate; 15. Side pipe; 16. Fixed plate; 17. Motor; 18. Transmission rod; 19. Limiting snap ring; 20. First sprocket; 21. Second sprocket; 22. First chain; 23. Extension gear; 24. Turntable; 25. Limiting layer disk; 26. Connecting plate; 27. Arc block; 28. Support snap ring; 29. ​​Oblique block; 30. Baffle; 31. Clamping rod; 32. Belt; 33. Piston rod; 35, first spring; 36, first limiting rod; 37, second spring; 38, first spur gear; 39, second spur gear; 40, rotating rod; 41, first gear; 42, second gear; 43, third sprocket; 44, fourth sprocket; 45, second chain; 46, telescopic rod; 47, long rod; 48, first support plate; 49, second support plate; 50, linkage disk; 51, linkage rod; 52, chuck; 53, elliptical block; 54, abutment rod; 55, limiting tube; 56, concave rod; 57, Z-shaped rod; 58, limiting plate; 59, second limiting rod; 60, side plate; 61, third spring; 62, first clamping plate; 63, second clamping plate. DETAILED DESCRIPTION

[0029] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments 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 creative work are within the scope of protection of the present invention.

[0030] See also Figure 1 - Figure 8As shown, a production device for soldering flux comprises a reactor 2 fixedly connected to the inside of a mounting frame 1, a feed port 3 is fixedly connected to the outside of the reactor 2, a discharge port 4 is fixedly connected to the bottom end of the reactor 2, the feed port 3, the discharge port 4 and the inside of the reactor 2 are connected, a solenoid valve is installed inside the discharge port 4, and the solenoid valve is used to control the circulation of liquid inside the discharge port 4, a pair of transport racks 5 are fixedly connected to the bottom end of the mounting frame 1, a conveyor belt 6 is rotatably connected between the pair of transport racks 5, a plurality of groups of filling bottles 7 are evenly distributed on the top of the conveyor belt 6, a booster pipe 8 is fixedly connected to the inside of the mounting frame 1, and a stirring shaft 9 is rotatably connected to the bottom end of the booster pipe 8, The stirring shaft 9 is located inside the reactor 2, a pair of stirring blades 10 are fixedly connected to the outside of the stirring shaft 9, a liquid inlet 11 is fixedly connected to the outside of the boosting pipe 8, the liquid inlet 11 is connected to the inside of the boosting pipe 8, a one-way valve is installed inside the liquid inlet 11, a first piston plate 12 is slidably connected to the inside of the boosting pipe 8, a vent 13 is fixedly connected to the top of the boosting pipe 8, a slide groove is provided at the bottom end of the stirring shaft 9, the slide groove is connected to the inside of the boosting pipe 8, a second piston plate 14 is slidably connected to the top of the slide groove, a pair of side pipes 15 are fixedly connected to the outside of the stirring shaft 9, a pair of side pipes 15 are provided with multiple groups of holes on the outside, and also include; A booster mechanism is arranged at the top of the reactor 2, and is used to increase the pressure inside the booster pipe 8. The booster mechanism includes a fixed plate 16, and the fixed plate 16 is fixedly connected to the top of the reactor 2. A motor 17 is fixedly connected to the outer side of the fixed plate 16. The output end of the motor 17 passes through the fixed plate 16 and is connected to a transmission rod 18. The outer side of the transmission rod 18 is rotatably connected to a limit clamp ring 19, and the limit clamp ring 19 is fixedly connected to the top of the reactor 2. A stirring mechanism disposed outside the transmission rod 18, the stirring mechanism being used to rotate the stirring blade 10; The blocking mechanism is arranged inside the chute, and is used to block the defoaming agent from entering the chute in a static state.

[0031] The electromagnetic valve inside the discharge port 4 is in a closed state, and the flux raw materials to be mixed are poured into the reactor 2 through the feed port 3. When the motor 17 is running, the transmission rod 18 is driven to rotate, and the rotation of the transmission rod 18 drives the stirring shaft 9 to rotate through the stirring mechanism, and the stirring shaft 9 then drives a pair of stirring blades 10 to stir the flux raw materials inside the reactor 2. As the flux raw materials are mixed, a large amount of foam will be generated, and it is necessary to add a defoaming agent to the inside of the reactor 2. Then, when the existing mixing device is used, the position of adding the defoaming agent is relatively fixed during the mixing of the liquid raw materials, which is not comprehensive enough. This results in the need to add a reaction when the defoaming agent is mixed with the liquid raw materials. The defoaming agent is added to the reactor 2 in a single manner, which cannot be quickly dispersed into the foam system, thereby increasing the working time required for defoaming. In order to solve the above problems, when the embodiment of the present invention is used, the defoaming agent is first added to the inside of the boosting pipe 8 through the liquid inlet 11. When the transmission rod 18 rotates, it will synchronously drive the boosting mechanism to operate. The operation of the boosting mechanism will drive the first piston plate 12 inside the boosting pipe 8 to move up and down continuously. When the first piston plate 12 moves downward, the first piston plate 12 will squeeze the inside of the boosting pipe 8 under the first piston plate 12. The air in the boost pipe 8 increases the pressure inside the boost pipe 8. It should be noted that since a one-way valve is installed inside the liquid inlet 11, the defoaming agent inside the boost pipe 8 will not flow out through the liquid inlet 11. When the pressure inside the boost pipe 8 increases, the defoaming agent inside the boost pipe 8 will squeeze the second piston plate 14, so that the position of the second piston plate 14 moves, thereby squeezing the blocking mechanism, and the defoaming agent will enter the inside of the chute. When the second piston plate 14 moves to the bottom of the pair of side pipes 15, the defoaming agent inside the chute will enter the inside of the pair of side pipes 15 and spray out from the holes opened on the outside of the pair of side pipes 15. 5 is fixedly connected to the outer side of the stirring shaft 9. With the rotation of the stirring shaft 9, the stirring shaft 9 will drive a pair of side tubes 15 to rotate synchronously. At this time, the defoaming agent inside the side tube 15 will hit the floating foam inside the reactor 2 in a rotating impact manner. The defoaming agent inside the side tube 15 is added in a rotating impact manner, which can ensure that the defoaming agent is evenly distributed in the foam system, avoids the problem of poor defoaming effect caused by uneven distribution of the defoaming agent, and improves the defoaming efficiency. Finally, after the mixing of the flux raw materials is completed, the solenoid valve inside the discharge port 4 is opened, and the flux raw materials inside the reactor 2 will fall into the filling bottle 7 under the action of gravity.

[0032] like Figure 1 - Figure 7As shown, the boosting mechanism also includes a first sprocket 20, which is fixedly connected to the outer side of the transmission rod 18, and a second sprocket 21 is arranged at the top of the first sprocket 20, and a first chain 22 is wound around the outer sides of the first sprocket 20 and the second sprocket 21, and an extension gear 23 is fixedly connected inside the second sprocket 21, and the extension gear 23 is rotatably connected to the turntable 24 at one end away from the turntable 24, and the outer side of the turntable 24 is rotatably connected to a limiting layer disk 25, and the end of the limiting layer disk 25 facing away from the turntable 24 is fixedly connected to a connecting plate 26, and the bottom end of the connecting plate 26 is fixedly connected to the top of the reactor 2, and the end of the limiting layer disk 25 facing away from the connecting plate 26 is fixedly connected to an arc block 27, and the outer side of the extension gear 23 is rotatably connected to A support snap ring 28, a side rod is fixedly connected between the support snap ring 28 and the arc block 27, and the side rod is used to fix the support snap ring 28. A bevel block 29 is fixedly connected to the side of the arc block 27 close to the support snap ring 28. A baffle 30 is meshed on the outer side of the extended gear 23, and a compression spring is rotatably connected between the support snap ring 28 and the baffle 30. A clamping rod 31 is provided at one end of the turntable 24 close to the baffle 30, and the baffle 30 and the clamping rod 31 are in contact with each other. A belt 32 is fixedly connected to the outer side of the turntable 24, and a piston rod 33 is fixedly connected to the end of the belt 32 away from the turntable 24. The piston rod 33 passes through the top of the boost pipe 8 and is fixedly connected to the first piston plate 12, and a first spring 35 is fixedly connected between the first piston plate 12 and the boost pipe 8.

[0033] When the limiting clamp ring 19 rotates, it will drive the first sprocket 20 to rotate. When the first sprocket 20 rotates, it will drive the second sprocket 21 to rotate through the first chain 22. When the second sprocket 21 rotates, it will drive the extension gear 23 to rotate. Since the outer side of the extension gear 23 is meshed with a baffle 30, the rotation of the extension gear 23 will synchronously drive the baffle 30 to rotate. Since the baffle 30 is blocked by the clamping rod 31 during the rotation, the baffle 30 will apply pressure to the clamping rod 31. Therefore, when the baffle 30 rotates, it will drive the rotating disk 24 through the clamping rod 31 to rotate along the limiting layer disk 25. The rotation of the turntable 24 will pull the belt 32, and the belt 32 will be forced to drive the first piston plate 12 to move upward through the piston rod 33. It should be noted that due to the effect of the one-way valve inside the liquid inlet 11, when the first piston plate 12 is upward, the outside air can enter the inside of the boost pipe 8 from the liquid inlet 11 to ensure that the first piston plate 12 will not be blocked during the rising process. The upward movement of the first piston plate 12 will squeeze the first spring 35, causing the first spring 35 to deform and generate elastic potential energy. As the baffle plate 30 continues to rotate, the baffle plate 30 will hit the inclined block 2 9, since the position of the inclined block 29 is fixed, the baffle 30 is displaced along the inclined surface of the inclined block 29 at this time, and the baffle 30 slides on the outer side of the lengthened gear 23 at this time, and squeezes the compression spring, so that the compression spring is deformed and generates elastic potential energy. When the baffle 30 deviates to the top of the inclined surface of the inclined block 29, the distance moved by the baffle 30 just exceeds the length of the clamping rod 31 itself, and the pressure applied by the baffle 30 to the clamping rod 31 ends instantly, and the first spring 35 ends, and the elastic potential energy is released instantly, pushing the first piston plate 12 to move downward and reset, and the first piston plate 1 When the first piston plate 12 moves downward, the air inside the boosting pipe 8 is squeezed, and the flow of the defoaming agent inside the boosting pipe 8 is accelerated. As the first piston plate 12 is reset, the first piston plate 12 pulls the belt 32 through the piston rod 33 to reset. The belt 32 resets and drives the turntable 24 to rotate in the opposite direction to reset. The turntable 24 drives the clamping rod 31 back to the starting point. At this time, when the baffle 30 rotates over the inclined block 29, the compression of the compression spring by the baffle 30 ends, and the compression spring instantly releases its elastic potential energy to push the baffle 30 to reset, ensuring that the baffle 30 can rotate and fit the clamping rod 31 again.

[0034] like Figure 7 and Figure 8 As shown, the blocking mechanism includes a pair of first limiting rods 36, and the pair of first limiting rods 36 both penetrate the second piston plate 14. The top ends of the pair of first limiting rods 36 are fixedly connected with baffles, and the baffles are fitted with the second piston plate 14. A second spring 37 is fixedly connected between the bottom end of the second piston plate 14 and the slide groove.

[0035] In the initial state, the second piston plate 14 is supported by the second spring 37 and is parallel to the top of the slide groove, ensuring that the defoaming agent in the boosting pipe 8 does not enter the inside of the slide groove. When the internal pressure of the boosting pipe 8 increases, the second piston plate 14 cannot withstand the pressure from above, that is, the pressure inside the boosting pipe 8. The second piston plate 14 will move downward and squeeze the second spring 37, causing the second spring 37 to deform and generate elastic potential energy. When the second piston plate 14 moves downward and is lower than the height of the pair of side pipes 15, the defoaming agent in the boosting pipe 8 will pass through the slide groove. The force increases, thereby quickly entering the inside of the side tube 15, and impacting the foam inside the reactor 2 through the holes on the outside of the side tube 15. Through the above-mentioned structural design, it is achieved that in a static state, the defoaming agent inside the boosting tube 8 is blocked by the second piston plate 14 and cannot enter the inside of the side tube 15. When the flow rate of the defoaming agent is accelerated, it means that the internal pressure of the boosting tube 8 increases. At this time, the internal pressure of the boosting tube 8 will drive the defoaming agent to squeeze the second piston plate 14, so that the blocking mechanism moves, and the defoaming agent enters the inside of the side tube 15, thereby accelerating the impact of the foam inside the reactor 2.

[0036] like Figure 2 As shown, the stirring mechanism includes a first spur gear 38, which is fixedly connected to the outer side of the transmission rod 18, a second spur gear 39 is meshed on one side of the first spur gear 38, a rotating rod 40 is fixedly connected inside the second spur gear 39, the rotating rod 40 passes through the top of the reactor 2 and extends to the inside of the reactor 2, a first gear 41 is fixedly connected to one end of the rotating rod 40 away from the second spur gear 39, a second gear 42 is meshed on one side of the first gear 41, and the second gear 42 is fixedly connected to the outer side of the stirring shaft 9.

[0037] When the transmission rod 18 rotates, it will drive the first spur gear 38 to rotate, and the rotation of the first spur gear 38 will drive the second spur gear 39 to rotate. The rotation of the second spur gear 39 will drive the rotating rod 40 to rotate. The rotation of the rotating rod 40 drives the first gear 41 at its bottom end to rotate. Since the first gear 41 and the second gear 42 are meshed, and the second gear 42 is fixed to the outside of the stirring shaft 9, when the first gear 41 rotates, it will drive the stirring shaft 9 to rotate through the second gear 42. The rotation of the stirring shaft 9 will eventually drive a pair of stirring blades 10 to rotate, thereby stirring the flux raw materials inside the reactor 2.

[0038] like Fig. 9 - Fig.11 As shown, a third sprocket 43 is fixedly connected to the outer side of the transmission rod 18, a fourth sprocket 44 is arranged at the top of the transport frame 5, a second chain 45 is wound between the third sprocket 43 and the fourth sprocket 44, a telescopic rod 46 is slidably connected to the inside of the discharge port 4, a filling mechanism is arranged inside the fourth sprocket 44, and the filling mechanism is used to transport the filling bottles 7 and the lifting telescopic rod 46.

[0039] The flux raw material inside the reactor 2 falls into the filling bottle 7. Since there is a certain distance between the discharge port 4 and the filling bottle 7, the position of the flux raw material may be offset due to external influences during its falling process, resulting in that part of the raw material cannot accurately fall into the filling bottle 7. At the same time, in the process of transporting the filling bottle 7 by the conveyor belt 6, an additional power source is required, which increases the working cost. In order to solve the above problems, when the embodiment of the present invention is used, the filling bottle 7 is first evenly laid on the surface of the conveyor belt 6. At this time, the rotation of the transmission rod 18 will drive the third sprocket 43 to rotate, and the rotation of the third sprocket 43 will drive the fourth sprocket 44 to rotate through the second chain 45, and the rotation of the fourth sprocket 44 will drive the filling mechanism to operate. The operation of the filling mechanism will drive the conveyor belt 6 to rotate, and transport the filling bottle 7 to the bottom of the telescopic rod 46, thereby avoiding the application of an additional power source to the conveyor belt 6. When the filling mechanism stops rotating the conveyor belt 6, the filling mechanism just drives the telescopic rod 46 to move downward and extend into the filling bottle. The inside of the bottle 7 is opened, at this time, the solenoid valve inside the discharge port 4 is opened, and the raw materials inside the reactor 2 will be directly transported to the inside of the filling bottle 7 through the inside of the telescopic rod 46, avoiding the distance between the filling bottle 7 and the discharge port 4, which leads to the problem of inaccurate filling. It should be noted that when the raw materials are filled into the filling bottle 7, the raw materials inside the reactor 2 are still in a stirring state, which can ensure that the raw materials will not be static during the filling process, avoiding the precipitation of the raw materials and affecting the performance. After the filling of a group of filling bottles 7 is completed, the solenoid valve inside the discharge port 4 is closed, and the filling mechanism is in a non-stop state at this time. The filling mechanism will first drive the telescopic rod 46 to move upward. It should be noted that the telescopic rod 46 will not hit the solenoid valve when moving upward. When the telescopic rod 46 is separated from the inside of the filling bottle 7, the filling mechanism drives the conveyor belt 6 to move again to avoid the telescopic rod 46 hitting the filling bottle 7, and move the next group of filling bottles 7 to the bottom of the telescopic rod 46, thereby repeating the above actions.

[0040] like Fig. 9 - Fig.11As shown, the filling mechanism includes a long rod 47, the long rod 47 is fixedly connected to the inside of the fourth sprocket 44, the two ends of the long rod 47 are rotatably connected to the first support plate 48 and the second support plate 49, the first support plate 48 and the second support plate 49 are respectively fixedly connected to the outer sides of a pair of transport frames 5, the outer side of the long rod 47 is fixedly connected to a linkage disk 50, the end of the linkage disk 50 away from the long rod 47 is fixedly connected to a linkage rod 51, one end of the conveyor belt 6 is fixedly connected to a connecting rod, and the end of the connecting rod away from the conveyor belt 6 is fixedly connected to a chuck 52 Four groups of rotating grooves are evenly opened on the outer side of the chuck 52, an elliptical block 53 is fixedly connected to the outer side of the long rod 47, a resistance rod 54 is fitted on the outer side of the elliptical block 53, the outer side of the resistance rod 54 is slidably connected to a limiting tube 55, a concave rod 56 is fixedly connected to the outer side of the limiting tube 55, one end of the concave rod 56 away from the limiting tube 55 is fixedly connected to the outer side of the second support plate 49, a Z-shaped rod 57 is fixedly connected to the outer side of the resistance rod 54, one end of the Z-shaped rod 57 away from the resistance rod 54 is fixedly connected to the outer side of the telescopic rod 46.

[0041] In the initial state, the telescopic rod 46 is in the filling bottle 7 to fill the raw material. As the fourth sprocket 44 rotates, the fourth sprocket 44 drives the elliptical block 53 to rotate through the long rod 47. When the protruding part of the elliptical block 53 rotates and reaches the turntable 24, the elliptical block 53 applies pressure to the resistance rod 54, forcing the resistance rod 54 to move upward along the inside of the limiting tube 55. The upward movement of the resistance rod 54 will drive the telescopic rod 46 to move upward, and the upward movement of the telescopic rod 46 will be separated from the filling bottle 7. At this time, the raw material is also filled. The long rod 47 drives the linkage rod 51 through the linkage disk 50, just reaching the rotating groove outside the chuck 52. The linkage rod 51 applies a squeezing force to the rotating groove, forcing the chuck 52 to rotate. It should be noted that each time the linkage rod 51 squeezes the rotating groove to push the chuck 52 to rotate, the linkage rod 51 can make the chuck 52 rotate 45° in a single pass through the rotating groove, and the chuck 52 rotates 45°, which will drive the conveyor belt 6 to rotate a certain distance through the connecting rod, and the distance that the conveyor belt 6 rotates is just enough to make the next group of filling bottles 7 arrive under the telescopic rod 46, so as to repeat the above action and fill the next group of filling bottles 7. Through the above structural design, the fully automatic filling of the flux raw materials after mixing is realized. For the production of flux, with the mixing function, the mixed raw materials are filled in turn, which saves the working cost of applying an additional power source and improves the degree of automation of the device.

[0042] like Figure 6 and Fig.12As shown, one end of the clamping rod 31 close to the turntable 24 passes through the turntable 24 and is fixedly connected to the limit plate 58, a pair of second limit rods 59 are passed through the inside of the limit plate 58, the pair of second limit rods 59 are both fixedly connected to the turntable 24, one end of the pair of second limit rods 59 away from the turntable 24 is fixedly connected to the side plate 60, a pair of third springs 61 are fixedly connected between the side plate 60 and the limit plate 58, one end of the limit plate 58 close to the side plate 60 is fixedly connected to the first clamping plate 62, and one end of the side plate 60 close to the limit plate 58 is fixedly connected to the second clamping plate 63, and the first clamping plate 62 and the second clamping plate 63 are both made of plastic material.

[0043] When there is no need to continue adding defoaming agent to the interior of the reactor 2, the limit plate 58 is moved. The limit plate 58 drives the clamping rod 31 to move toward the direction of the side plate 60. When the limit plate 58 moves, it squeezes the second limit rod 59, causing the second limit rod 59 to deform and generate elastic potential energy. As the clamping rod 31 moves, the clamping rod 31 is inside the turntable 24, and the baffle plate 30 cannot apply an extrusion force to the clamping rod 31 when rotating, thereby failing to drive the turntable 24 to rotate, and the pressurizing mechanism is then in a stopped state, thereby avoiding the baffle plate 30 from continuously hitting the clamping rod 31 when there is no need to add defoaming agent, causing the device to be worn and reducing the service life of the device. As the limit plate 58 moves, the limit plate 58 will synchronously drive the first clamping plate When the first clamping plate 62 moves, when the first clamping plate 62 squeezes the inclined surface of the second clamping plate 63, the first clamping plate 62 and the second clamping plate 63 will be deformed. When the first clamping plate 62 passes through the inclined surface of the second clamping plate 63, the first clamping plate 62 and the second clamping plate 63 are instantly reset, so as to be locked together, and the limit plate 58 cannot be reset. At this time, the staff does not need to pull the limit plate 58, and the clamping rod 31 will continue to be inside the turntable 24. When the clamping rod 31 needs to be reset, it is only necessary to pull the contact points of the first clamping plate 62 and the second clamping plate 63 upward and downward respectively, so that the first clamping plate 62 and the second clamping plate 63 are disengaged, and the second limit rod 59 is no longer subjected to force, and the elastic potential energy is instantly released, which drives the clamping rod 31 to reset through the limit plate 58.

[0044] Working principle: the solenoid valve inside the discharge port 4 is in a closed state, and the flux raw materials to be mixed are poured into the reactor 2 through the feed port 3. When the motor 17 is running, it drives the transmission rod 18 to rotate, and the rotation of the transmission rod 18 drives the stirring shaft 9 to rotate through the stirring mechanism, and the stirring shaft 9 then drives a pair of stirring blades 10 to stir the flux raw materials inside the reactor 2. As the flux raw materials are mixed, a large amount of foam will be generated, and it is necessary to add a defoaming agent to the inside of the reactor 2. Then, when the existing mixing device is in use, the position of adding the defoaming agent is relatively fixed during the mixing of the liquid raw materials, which is not comprehensive enough. This results in the need to increase the reaction time when the defoaming agent is mixed with the liquid raw materials. At the same time, the existing method of adding the defoaming agent cannot achieve the impact-type addition of the defoaming agent. , simply adding the defoaming agent inside the reactor 2 cannot quickly disperse into the foam system, which increases the working time required for defoaming. In order to solve the above problems, when the embodiment of the present invention is used, the defoaming agent is first added to the inside of the boosting pipe 8 through the liquid inlet 11. When the transmission rod 18 rotates, it will synchronously drive the boosting mechanism to operate. The operation of the boosting mechanism will drive the first piston plate 12 inside the boosting pipe 8 to move up and down continuously. When the first piston plate 12 moves downward, the first piston plate 12 will squeeze the air below the first piston plate 12 inside the boosting pipe 8, so that the pressure inside the boosting pipe 8 becomes larger. It should be noted that since a one-way valve is installed inside the liquid inlet 11, the defoaming agent inside the boosting pipe 8 will not flow out through the liquid inlet 11. When the pressure inside the boost pipe 8 increases, the defoaming agent inside the boost pipe 8 will squeeze the second piston plate 14, causing the position of the second piston plate 14 to move, thereby squeezing the blocking mechanism, and the defoaming agent will enter the inside of the chute. When the second piston plate 14 moves to the bottom of the pair of side pipes 15, the defoaming agent inside the chute will enter the inside of the pair of side pipes 15 and be sprayed out from the holes opened on the outside of the pair of side pipes 15. Since the pair of side pipes 15 are fixedly connected to the outside of the stirring shaft 9, the stirring shaft 9 will drive the pair of side pipes 15 to rotate synchronously with the rotation of the stirring shaft 9. At this time, the defoaming agent inside the side pipe 15 will hit the floating foam inside the reactor 2 in a rotating impact manner. The defoaming agent inside the side pipe 15 can be added in a rotating impact manner. In order to ensure that the defoaming agent is evenly distributed in the foam system, the problem of poor defoaming effect caused by uneven distribution of the defoaming agent is avoided, and the defoaming efficiency is improved. Finally, after the mixing of the flux raw materials is completed, the solenoid valve inside the discharge port 4 is opened, and the flux raw materials inside the reactor 2 will fall into the filling bottle 7 under the action of gravity. When the limit clamp ring 19 rotates, it will drive the first sprocket 20 to rotate. The rotation of the first sprocket 20 will drive the second sprocket 21 to rotate through the first chain 22, and the rotation of the second sprocket 21 will drive the extension gear 23 to rotate. Since the outer side of the extension gear 23 is meshed with a baffle 30, the rotation of the extension gear 23 will synchronously drive the baffle 30 to rotate. Since the baffle 30 is blocked by the clamping rod 31 during the rotation,The baffle plate 30 will apply pressure to the clamping rod 31. Therefore, when the baffle plate 30 rotates, it will drive the turntable 24 through the clamping rod 31 to rotate along the limiting layer disk 25. The rotation of the turntable 24 will pull the belt 32. The belt 32 will be forced to drive the first piston plate 12 to move upward through the piston rod 33. It should be noted that due to the effect of the one-way valve inside the liquid inlet 11, when the first piston plate 12 is upward, the outside air can enter the inside of the boost pipe 8 from the liquid inlet 11 to ensure that the first piston plate 12 will not be obstructed during its ascent. The upward movement of the first piston plate 12 will squeeze the first spring 35, causing the first spring 35 to deform and generate elastic potential energy. As the baffle plate 30 continues to rotate, the baffle plate 30 will hit the inclined surface of the inclined block 29. The position of the block 29 is fixed, and the baffle plate 30 is displaced along the inclined surface of the inclined block 29. The baffle plate 30 slides on the outer side of the lengthened gear 23 and squeezes the compression spring, so that the compression spring is deformed and generates elastic potential energy. When the baffle plate 30 is offset to the top of the inclined surface of the inclined block 29, the distance moved by the baffle plate 30 just exceeds the length of the clamping rod 31 itself. The pressure applied by the baffle plate 30 to the clamping rod 31 ends instantly, and the first spring 35 ends, releasing the elastic potential energy instantly, pushing the first piston plate 12 to move downward and reset. When the first piston plate 12 moves downward, it will squeeze the air inside the boost pipe 8 and accelerate the flow of the defoaming agent inside the boost pipe 8. As the first piston plate 12 is reset, the first piston plate 12 will pull the piston rod 33 The belt 32 is reset, and the reset of the belt 32 drives the rotating disk 24 to rotate in the opposite direction and reset. The rotating disk 24 then drives the clamping rod 31 back to the starting point. At this time, when the baffle plate 30 rotates over the inclined block 29, the compression of the compression spring by the baffle plate 30 ends, and the compression spring instantly releases its elastic potential energy, pushing the baffle plate 30 to reset, ensuring that the baffle plate 30 can rotate and fit with the clamping rod 31 again. In the initial state, the second piston plate 14 is supported by the second spring 37 and is parallel to the top of the slide groove, ensuring that the defoaming agent inside the boosting pipe 8 does not enter the inside of the slide groove. When the internal pressure of the boosting pipe 8 increases, the second piston plate 14 cannot withstand the pressure from above, that is, when the pressure inside the boosting pipe 8, the second piston plate 14 will move downward and squeeze the second spring 37, so that the second spring 3 7 is deformed and generates elastic potential energy. When the second piston plate 14 moves downward and is lower than the height of the pair of side tubes 15, the defoaming agent in the boosting tube 8 will pass through the slide groove, and with the increase of pressure, it will quickly enter the inside of the side tube 15, and impact the floating foam inside the reactor 2 through the holes on the outside of the side tube 15. Through the above-mentioned structural design, it is achieved that in a static state, the defoaming agent in the boosting tube 8 is blocked by the second piston plate 14 and cannot enter the inside of the side tube 15. When the flow rate of the defoaming agent is accelerated, it means that the internal pressure of the boosting tube 8 is increased. At this time, the internal pressure of the boosting tube 8 will drive the defoaming agent to squeeze the second piston plate 14, so that the blocking mechanism moves, and the defoaming agent enters the inside of the side tube 15, thereby accelerating the impact of the floating foam inside the reactor 2.When the transmission rod 18 rotates, it will drive the first spur gear 38 to rotate, and the rotation of the first spur gear 38 will drive the second spur gear 39 to rotate. The rotation of the second spur gear 39 will drive the rotating rod 40 to rotate. The rotation of the rotating rod 40 drives the first gear 41 at its bottom end to rotate. Since the first gear 41 and the second gear 42 are meshed, and the second gear 42 is fixed to the outside of the stirring shaft 9, when the first gear 41 rotates, the stirring shaft 9 will be driven to rotate through the second gear 42. The rotation of the stirring shaft 9 will eventually drive the pair of stirring blades 10 to rotate, thereby stirring the flux raw materials inside the reactor 2. The flux raw materials inside the reactor 2 fall into the filling bottle 7. Since there is a certain distance between the discharge port 4 and the filling bottle 7, during the falling process of the flux raw materials In the process of conveying the filling bottles 7, the position may be offset due to external influences, resulting in that some raw materials cannot accurately fall into the filling bottles 7. At the same time, in the process of conveyor belt 6 transporting the filling bottles 7, an additional power source is required, which increases the working cost. In order to solve the above problems, when the embodiment of the present invention is used, the filling bottles 7 are first evenly laid on the surface of the conveyor belt 6. At this time, the rotation of the transmission rod 18 will drive the third sprocket 43 to rotate, and the rotation of the third sprocket 43 will drive the fourth sprocket 44 to rotate through the second chain 45. The rotation of the fourth sprocket 44 will drive the filling mechanism to operate. The operation of the filling mechanism will drive the conveyor belt 6 to rotate, and the filling bottles 7 will be transported to the bottom of the telescopic rod 46, thereby avoiding the additional application of a power source to the conveyor belt 6. When the filling mechanism stops the transmission, the conveyor belt 6 will rotate. When the conveyor belt 6 rotates, the filling mechanism just drives the telescopic rod 46 to move downward and extend into the filling bottle 7. At this time, the solenoid valve inside the discharge port 4 is opened, and the raw materials inside the reactor 2 will pass through the inside of the telescopic rod 46 and be directly transported to the inside of the filling bottle 7, avoiding the distance between the filling bottle 7 and the discharge port 4, which leads to the problem of inaccurate filling. It should be noted that when the raw materials are filled into the filling bottle 7, the raw materials inside the reactor 2 are still in a stirring state, which can ensure that the raw materials will not be static during the filling process, avoiding the precipitation of the raw materials and affecting the performance. When the filling of a group of filling bottles 7 is completed, the solenoid valve inside the discharge port 4 is closed, and the filling mechanism is in a non-stop state at this time, and the filling mechanism will First, the telescopic rod 46 is driven to move upward. It should be noted that the telescopic rod 46 will not hit the solenoid valve when moving upward. When the telescopic rod 46 is separated from the interior of the filling bottle 7, the filling mechanism drives the conveyor belt 6 to move again to prevent the telescopic rod 46 from hitting the filling bottle 7, and the next group of filling bottles 7 are moved to the bottom of the telescopic rod 46, thereby repeating the above action. In the initial state, the telescopic rod 46 is in the interior of the filling bottle 7 to fill the raw material. As the fourth sprocket 44 rotates, the fourth sprocket 44 drives the elliptical block 53 to rotate through the long rod 47. When the protruding part of the elliptical block 53 rotates and reaches the turntable 24, the elliptical block 53 applies pressure to the resistance rod 54, forcing the resistance rod 54 to move upward along the inside of the limiting tube 55. The resistance rod 54 moves upward,The telescopic rod 46 will be driven to move upward, and the telescopic rod 46 will be separated from the filling bottle 7 when it moves upward. At this time, the raw material is also filled. The long rod 47 drives the linkage rod 51 through the linkage plate 50, and just reaches the rotating groove outside the chuck 52. The linkage rod 51 applies an extrusion force to the rotating groove, forcing the chuck 52 to rotate. It should be noted that each time the linkage rod 51 squeezes the rotating groove to push the chuck 52 to rotate, the linkage rod 51 can make the chuck 52 rotate 45° in a single pass through the rotating groove, and the chuck 52 rotates 45°, which will drive the conveyor belt 6 to rotate a certain distance through the connecting rod, and the distance that the conveyor belt 6 rotates is just enough to make The next group of filling bottles 7 arrives under the telescopic rod 46, and the above action is repeated to fill the next group of filling bottles 7. Through the above structural design, the fully automatic filling of the flux raw materials after mixing is realized. For the production of flux, the mixed raw materials are filled in sequence with the mixing function, which saves the working cost of additional power source and improves the automation degree of the device. When there is no need to continue adding defoaming agent to the inside of the reactor 2, the limit plate 58 is moved. The limit plate 58 drives the clamping rod 31 to move toward the direction of the side plate 60. When the limit plate 58 moves, it squeezes the second limit rod 59, so that the second limit rod 59 is deformed and generates elastic potential energy. With the movement of the clamping rod 31, the clamping rod 31 is inside the turntable 24, and the baffle plate 30 cannot apply an extrusion force to the clamping rod 31 when rotating, and thus cannot drive the turntable 24 to rotate. The booster mechanism is then in a stopped state, which prevents the baffle plate 30 from continuously hitting the clamping rod 31 when there is no need to add defoaming agent, causing the device to be worn and reducing the service life of the device. With the movement of the limit plate 58, the limit plate 58 will synchronously drive the first clamping plate 62 to move. When the first clamping plate 62 squeezes the inclined surface of the second clamping plate 63, the first clamping plate 62 and the second clamping plate 63 are The plate 63 will be deformed. When the first clamping plate 62 passes through the inclined surface of the second clamping plate 63, the first clamping plate 62 and the second clamping plate 63 will be reset instantly, and thus be locked together. The limit plate 58 cannot be reset. At this time, the staff does not need to pull the limit plate 58, and the clamping rod 31 will continue to be inside the turntable 24. When the clamping rod 31 needs to be reset, it is only necessary to pull the contact points of the first clamping plate 62 and the second clamping plate 63 upward and downward respectively, so that the first clamping plate 62 and the second clamping plate 63 are disengaged, and the second limit rod 59 stops being stressed, and the elastic potential energy is released instantly, which drives the clamping rod 31 to reset through the limit plate 58.

[0045] The above is only a specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art can easily think of changes or substitutions within the technical scope disclosed by the present invention, which should be included in the protection scope of the present invention. Therefore, the protection scope of the present invention should be based on the protection scope of the claims.

Claims

1. A production device for soldering flux, comprising a reactor (2) fixedly connected to the inside of a mounting frame (1), a feed port (3) fixedly connected to the outside of the reactor (2), a discharge port (4) fixedly connected to the bottom of the reactor (2), the feed port (3), the discharge port (4) and the inside of the reactor (2) are connected to each other, a solenoid valve is installed inside the discharge port (4), and the solenoid valve is used to control the flow of liquid inside the discharge port (4), a pair of transport frames (5) fixedly connected to the bottom of the mounting frame (1), a conveyor belt (6) rotatably connected between the pair of transport frames (5), a plurality of groups of filling bottles (7) evenly distributed on the top of the conveyor belt (6), a pressurizing pipe (8) fixedly connected to the inside of the mounting frame (1), and a stirring shaft (9) rotatably connected to the bottom end of the pressurizing pipe (8), The stirring shaft (9) is located inside the reactor (2), a pair of stirring blades (10) are fixedly connected to the outside of the stirring shaft (9), a liquid inlet (11) is fixedly connected to the outside of the boosting pipe (8), the liquid inlet (11) and the inside of the boosting pipe (8) are connected, a one-way valve is installed inside the liquid inlet (11), a first piston plate (12) is slidably connected to the inside of the boosting pipe (8), a vent (13) is fixedly connected to the top of the boosting pipe (8), a slide groove is provided at the bottom end of the stirring shaft (9), the slide groove is connected to the inside of the boosting pipe (8), a second piston plate (14) is slidably connected to the top of the slide groove, a pair of side tubes (15) are fixedly connected to the outside of the stirring shaft (9), and a plurality of groups of holes are provided on the outside of the pair of side tubes (15), characterized in that; Also includes; A booster mechanism is arranged at the top of the reaction kettle (2), the booster mechanism is used to increase the pressure inside the booster pipe (8), the booster mechanism comprises a fixed plate (16), the fixed plate (16) is fixedly connected to the top of the reaction kettle (2), a motor (17) is fixedly connected to the outer side of the fixed plate (16), an output end of the motor (17) passes through the fixed plate (16) and is transmission-connected to a transmission rod (18), the outer side of the transmission rod (18) is rotationally connected to a limit clamp ring (19), and the limit clamp ring (19) is fixedly connected to the top of the reaction kettle (2); a stirring mechanism disposed outside the transmission rod (18), the stirring mechanism being used to rotate the stirring blade (10); The blocking mechanism is arranged inside the chute, and is used to block the defoaming agent from entering the chute in a static state.

2. The production device for soldering flux according to claim 1, characterized in that: The boost mechanism further comprises a first sprocket (20), the first sprocket (20) being fixedly connected to the outer side of the transmission rod (18), a second sprocket (21) being arranged at the top end of the first sprocket (20), a first chain (22) being wound around the outer sides of the first sprocket (20) and the second sprocket (21), an extended gear (23) being fixedly connected inside the second sprocket (21), an end of the extended gear (23) away from the rotating disk (24) being rotatably connected to the rotating disk (24), the outer side of the rotating disk (24) being rotatably connected to a limiting layer disk (25), an end of the limiting layer disk (25) away from the rotating disk (24) being fixedly connected to a connecting plate (26), the bottom end of the connecting plate (26) being fixedly connected to the top end of the reaction kettle (2), an end of the limiting layer disk (25) away from the connecting plate (26) being fixedly connected to an arc block (27), and the outer side of the extended gear (23) being rotatably connected to a supporting clamp ring (28), a side rod is fixedly connected between the support snap ring (28) and the arc block (27), and the side rod is used to fix the support snap ring (28). A bevel block (29) is fixedly connected to the side of the arc block (27) close to the support snap ring (28). A baffle plate (30) is meshed on the outer side of the extended gear (23), and a compression spring is rotatably connected between the support snap ring (28) and the baffle plate (30). A clamping rod (31) is provided at one end of the turntable (24) close to the baffle plate (30), and the baffle plate (30) and the clamping rod (31) are in close contact with each other. A belt (32) is fixedly connected to the outer side of the turntable (24), and a piston rod (33) is fixedly connected to the end of the belt (32) away from the turntable (24). The piston rod (33) passes through the top end of the boosting pipe (8) and is fixedly connected to the first piston plate (12). A first spring (35) is fixedly connected between the first piston plate (12) and the boosting pipe (8).

3. The production device for soldering flux according to claim 2, characterized in that: The blocking mechanism comprises a pair of first limiting rods (36), the pair of first limiting rods (36) both penetrate the second piston plate (14), the top ends of the pair of first limiting rods (36) are fixedly connected with a baffle plate, the baffle plate is in contact with the second piston plate (14), and a second spring (37) is fixedly connected between the bottom end of the second piston plate (14) and the slide groove.

4. The production device for soldering flux according to claim 3, characterized in that: The stirring mechanism comprises a first spur gear (38), the first spur gear (38) being fixedly connected to the outer side of a transmission rod (18), a second spur gear (39) being meshed on one side of the first spur gear (38), a rotating rod (40) being fixedly connected inside the second spur gear (39), the rotating rod (40) passing through the top of the reaction kettle (2) and extending into the interior of the reaction kettle (2), a first gear (41) being fixedly connected at one end of the rotating rod (40) away from the second spur gear (39), a second gear (42) being meshed on one side of the first gear (41), and the second gear (42) being fixedly connected to the outer side of a stirring shaft (9).

5. The production device for soldering flux according to claim 4, characterized in that: A third sprocket (43) is fixedly connected to the outer side of the transmission rod (18), a fourth sprocket (44) is arranged at the top end of the transport frame (5), a second chain (45) is wound between the third sprocket (43) and the fourth sprocket (44), a telescopic rod (46) is slidably connected to the inside of the discharge port (4), and a filling mechanism is arranged inside the fourth sprocket (44), the filling mechanism is used to transport the filling bottle (7) and lift the telescopic rod (46).

6. The production device for soldering flux according to claim 5, characterized in that: The filling mechanism comprises a long rod (47), the long rod (47) being fixedly connected to the inside of the fourth sprocket (44), the two ends of the long rod (47) being rotatably connected to a first support plate (48) and a second support plate (49), the first support plate (48) and the second support plate (49) being fixedly connected to the outer sides of a pair of transport frames (5), respectively, the outer side of the long rod (47) being fixedly connected to a linkage disk (50), the end of the linkage disk (50) facing away from the long rod (47) being fixedly connected to a linkage rod (51), one end of the conveyor belt (6) being fixedly connected to a connecting rod, and the end of the connecting rod facing away from the conveyor belt (6) being fixedly connected to a chuck (52), Four groups of rotation grooves are evenly arranged on the outer side of the chuck (52); an elliptical block (53) is fixedly connected to the outer side of the long rod (47); a resisting rod (54) is fitted to the outer side of the elliptical block (53); a limiting tube (55) is slidably connected to the outer side of the resisting rod (54); a concave rod (56) is fixedly connected to the outer side of the limiting tube (55); an end of the concave rod (56) away from the limiting tube (55) is fixedly connected to the outer side of the second support plate (49); a Z-shaped rod (57) is fixedly connected to the outer side of the resisting rod (54); an end of the Z-shaped rod (57) away from the resisting rod (54) is fixedly connected to the outer side of the telescopic rod (46).

7. The production device for soldering flux according to claim 6, characterized in that: One end of the clamping rod (31) close to the rotating disk (24) passes through the rotating disk (24) and is fixedly connected to the limiting plate (58); a pair of second limiting rods (59) pass through the interior of the limiting plate (58); the pair of second limiting rods (59) are both fixedly connected to the rotating disk (24); one end of the pair of second limiting rods (59) away from the rotating disk (24) is fixedly connected to the side plate (60); a pair of third springs (61) are fixedly connected between the side plate (60) and the limiting plate (58); one end of the limiting plate (58) close to the side plate (60) is fixedly connected to the first clamping plate (62); one end of the side plate (60) close to the limiting plate (58) is fixedly connected to the second clamping plate (63); the first clamping plate (62) and the second clamping plate (63) are both made of plastic material.

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