High efficiency rod mixer

Abstract

The application discloses a high-efficiency rod mixing machine, relates to the technical field of rod mixing, and comprises a mixing bin, a discharge port, a feeding port, a motor one, a crushing fly cutter, a mixing assembly, a stirring assembly and a pushing assembly. The mixing assembly can increase the contact area of the original rotation connection between the rotating shaft and the top of the mixing bin, thereby improving the stability of rotation. In the working process of the mixing assembly, the stirring assembly will rotate at the same time to stir the materials on the top of the mixing bin. In the working process of the stirring assembly, the pushing assembly will continuously move up and down to push the powder on the top of the mixing bin downward, thereby accelerating the falling of the powder and preventing the materials from being lifted again by the rod for the next time of rising before falling from between the rotating shaft and the rod, so that the mixing efficiency is improved. After the mixing operation is completed, the discharge port can be opened to allow the materials to freely fall from the discharge port.

Description

Technical Field

[0001] This invention relates to the field of wire rod mixer technology, specifically a high-efficiency wire rod mixer. Background Technology

[0002] In the food industry, the mixing of various seasoning powders is a common and necessary process. Because the high-efficiency coil mixer uses a specially designed spiral to rotate at high speed along the cylinder, the material is driven to rise spirally along the cylinder wall to the top and then tumble downwards, which can achieve a strong convection mixing effect. Therefore, it is widely used in the mixing of food seasoning powders.

[0003] However, since the discharge port of the high-efficiency wire rod mixer is located at the bottom, in order to ensure smooth discharge, the internal shaft of the wire rod mixer is usually only connected to the top surface of the mixer through itself. The motor provides driving force to the shaft. However, during the rotation of the wire rod, the wire rod will carry the material upward and thus generate resistance, which can easily generate unstable centrifugal force on the rotation of the shaft. After long-term operation, the connection between the shaft and the top surface of the mixer can easily become loose, which will cause the shaft to shake during operation and cause damage to the inner wall of the mixer by the wire rod. Furthermore, during the operation of the wire rod mixer, as the wire rod spirals the material upward along the cylinder wall, some material will be carried upward by the wire rod before it has a chance to fall between the shaft and the wire rod. Therefore, it will affect the mixing efficiency and uniformity of the mixer for various seasoning powders.

[0004] Therefore, a high-efficiency wire rod mixer is proposed. Summary of the Invention

[0005] The purpose of this invention is to provide a high-efficiency wire rod mixer to solve the problems raised in the prior art.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a high-efficiency wire rod mixer, comprising a mixing chamber, a discharge port, a feed port, a motor, a crushing blade, a mixing assembly, a stirring assembly, and a pushing assembly; the discharge port is located at the bottom of the mixing chamber, the feed port is located on the upper side wall of the mixing chamber, the motor is fixedly connected to a position near the bottom of the mixing chamber, the crushing blade is fixedly connected to the output shaft of the motor, the mixing assembly is rotatably connected to the top of the mixing chamber, the stirring assembly is located inside the mixing assembly and is rotatably connected to it by being driven by the mixing assembly, and the pushing assembly is located below the stirring assembly and is driven by the stirring assembly. It is telescopically connected to the mixing component; the mixing component can increase the contact area of ​​the original rotating connection between the shaft and the top of the mixing chamber, improve the stability of rotation, and prevent the unstable centrifugal force generated by the rotation of the spiral disc from causing the connection between the shaft and the top of the mixing chamber to loosen. During operation, the motor will drive the crushing fly knife to rotate at high speed. The crushing fly knife can crush and stir the powder at the bottom of the mixing chamber, preventing agglomeration and other adverse phenomena during the mixing process. During the operation of the mixing component, the stirring component will rotate at the same time, which will stir the material at the top of the mixing chamber. The pushing component will continuously move up and down, pushing the powder at the top of the mixing chamber downward quickly, accelerating the falling of the powder.

[0007] Preferably, the mixing assembly includes a fixed frame, a second motor, a cylindrical box, a top cover, a rotating shaft, and a spiral disc. The fixed frame is fixedly connected to the top of the mixing chamber, the second motor is fixedly connected to the fixed frame, the cylindrical box is rotatably connected to the top of the mixing chamber, the top cover is fixedly connected to the cylindrical box, the rotating shaft is fixedly connected to the output shaft of the second motor, the rotating shaft extends through the cylindrical box into the interior of the mixing chamber, and the rotating shaft is fixedly connected to the cylindrical box. The spiral disc is divided into three sections, each of which is fixedly connected to the rotating shaft via connecting rods and arranged around the rotating shaft. Because the diameter of the cylindrical box is larger than the diameter of the traditional rotating connection between the rotating shaft and the top of the mixing chamber, the contact area with the top of the mixing chamber can be increased, thereby improving the stability of the spiral disc during rotation and preventing the unstable centrifugal force of the spiral disc from causing shaking and damage to the inner wall of the mixer.

[0008] Preferably, the breaking cutter is located at the break gap between the bottommost spiral bar and the middle spiral bar; during the rotation of the spiral bar driven by the shaft, the break gap between the bottommost spiral bar and the middle spiral bar will pass over the breaking cutter and will not interfere with the breaking cutter.

[0009] Preferably, a fan blade is also fixedly connected to the upper cover, and the fan blade is located below the second motor. During the rotation of the second motor driving the shaft, the cylindrical box and the upper cover, the fan blade will rotate around the sleeve, and the fan blade will generate an upward airflow to dissipate heat from the second motor and improve the heat dissipation effect of the second motor.

[0010] Preferably, the stirring assembly includes a large gear, a sleeve, a rotating column, a small gear, and stirring blades. The sleeve is fixedly connected below the second motor, the large gear is fixedly connected below the sleeve, the rotating shaft passes through the middle of the sleeve and the large gear, and the large gear is located inside the cylindrical box. There are five sets of rotating columns, which are equidistantly distributed around the rotating shaft and extend into the mixing chamber. The small gears are fixedly connected above the rotating columns, and all the small gears mesh with the large gears. The stirring blades are fixedly connected to the lower half of the rotating columns. During the rotation of the cylindrical box driven by the second motor, the large gear remains stationary. Therefore, under the meshing action of the small gear and the large gear, the small gear will drive the rotating columns to rotate in the opposite direction on the cylindrical box. Thus, during the rotation of the cylindrical box, all rotating columns rotate and stir along with the entire cylindrical box, while the rotating columns can also drive the stirring blades to rotate in the opposite direction individually, further stirring and mixing the powder in the mixing chamber and improving the mixing efficiency.

[0011] Preferably, the pushing assembly includes a pushing column, a connecting column, a conical block, a connecting rod, a fixing sleeve, a clamping plate, an arc-shaped inclined block, a base, a crossbar, a spring, and a rotating component; the pushing column is slidably connected to the rotating column internally, the connecting column is rotatably connected to the lower part of the pushing column, the conical block is fixedly connected to the lower part of the connecting column, the connecting rod is fixedly connected to the upper part of the pushing column, and the connecting rod passes through the rotating column and the pinion; the fixing sleeve is fixedly connected to the upper cover; the clamping plate is fixedly connected to both sides of the connecting rod, and the top of the connecting rod is slidably connected to the fixing sleeve through the clamping plate; the arc-shaped inclined block is fixedly connected to the pinion, and two sets of arc-shaped inclined blocks are fixedly connected to each set of pinions, and the arc-shaped inclined blocks are symmetrically arranged along the center of the connecting rod; the base is fixedly connected to the connecting rod, and the crossbar is fixedly connected to the base. On both sides, the spring is sleeved on the outside of the connecting rod, and the spring is located between the bottom surface of the base and the bottom surface of the fixed sleeve. In the relaxed state of the spring, the base abuts against the top surface of the small gear. During the rotation of the rotating column on the cylindrical box, the arc-shaped inclined block will rotate with the rotating column. At the same time, since the top of the connecting rod is slidably connected to the fixed sleeve through the clamping plate, the connecting rod and the pushing column will not rotate with the rotation of the rotating column. Therefore, when the arc-shaped inclined block rotates, it will drive the conical block to rise at the same time. When the crossbar passes the highest point of the arc-shaped inclined block, it will be pushed by the spring and fall instantly from the space between the two sets of arc-shaped inclined blocks, thereby pushing the conical block to fall instantly. Therefore, as the arc-shaped inclined block follows the continuous rotation of the rotating column, the pushing column is continuously moved upward to accumulate power, and then pushed downward by the spring force.

[0012] Preferably, the rotating component includes a spiral groove, a support rod, a drive column, and a convex plate. The spiral groove is formed around the outside of the connecting column. The support rod is fixedly connected to the bottom of the cylindrical box. The drive column is fixedly connected to the bottom of the support rod. One end of the drive column extends into the spiral groove and is slidably connected to it. The convex plate is fixedly connected to the conical block, and multiple sets of convex plates are arranged around the outer peripheral surface of the conical block. As the conical block rises with the connecting column and the push column, the drive column gradually slides from above the spiral groove to below it. This drives the connecting column and the conical block to rotate along the bottom of the push column via the spiral groove. When the conical block falls instantaneously under the spring force, the drive column drives the conical block to rotate in the opposite direction via the spiral groove. Thus, the drive column can also rotate itself during its reciprocating motion.

[0013] Preferably, the distance between the support rod and the rotating column is greater than the length of the stirring blade. During the rotation of the rotating column with the stirring blade, the stirring blade can pass between the support rod and the rotating column, and the support rod follows the rotation of the cylinder. Combined with the action of the stirring blade rotating alone, the powder material can be further stirred and mixed.

[0014] Compared with the prior art, the beneficial effects of the present invention are:

[0015] 1. The diameter of the cylindrical box of the present invention is larger than the diameter of the rotating connection between the traditional rotating shaft and the top of the mixing chamber, thereby increasing the contact area with the top of the mixing chamber, improving the stability of the spiral bar rotation process, and preventing the shaking caused by the unstable centrifugal force of the spiral bar when the rotating shaft is working, which would cause damage to the inner wall of the mixer.

[0016] 2. In this invention, while the cylindrical box is driven to rotate by the second motor, the large gear remains stationary. Therefore, under the meshing action of the small gear and the large gear, the small gear will drive the rotating column to rotate in the opposite direction on the cylindrical box. Thus, during the rotation of the cylindrical box, all rotating columns rotate and stir along with the entire cylindrical box. At the same time, the rotating columns can also drive the stirring blades to rotate in the opposite direction separately, further stirring and mixing the powder in the mixing chamber, thereby improving the mixing efficiency.

[0017] 3. During the rotation of the rotating column along the cylindrical box, this invention also enables the pushing column to continuously reciprocate upwards to accumulate energy. Then, under the instantaneous thrust of a spring, it pushes the powder downwards, rapidly pushing the powder from the mixing chamber to the lower wire rod for mixing and dispersion, thus improving mixing efficiency. Simultaneously, as the conical block rises, the driving column drives the connecting column and the conical block to rotate along the lower part of the pushing column via a spiral groove. Furthermore, as the conical block falls instantaneously under the spring thrust, the driving column drives the conical block to rotate in the opposite direction via the spiral groove. Thus, the driving column itself rotates during its reciprocating motion, further dispersing the powder by causing the convex plate to rotate. Attached Figure Description

[0018] Figure 1 This is a three-dimensional structural diagram of the overall appearance of the present invention;

[0019] Figure 2 This is a cross-sectional view of the mixing chamber of the present invention;

[0020] Figure 3 This is a schematic diagram of the hybrid component of the present invention;

[0021] Figure 4 This is a schematic diagram of the crushing blade of the present invention;

[0022] Figure 5 This is a schematic diagram of the stirring assembly structure of the present invention;

[0023] Figure 6 This is a three-dimensional structural diagram of the driving component of the present invention;

[0024] Figure 7 This is a cross-sectional view of the driving component of the present invention;

[0025] Figure 8 This is a three-dimensional structural diagram of the rotating component of the present invention.

[0026] In the diagram: 1. Mixing chamber; 11. Discharge port; 12. Feed port; 2. Motor 1; 21. Crushing blade; 3. Mixing assembly; 31. Fixing frame; 32. Cylindrical box; 33. Top cover; 331. Fan blade; 34. Rotating shaft; 35. Spiral wire; 36. Motor 2; 4. Mixing assembly; 41. Large gear; 411. Tube sleeve; 42. Rotating column; 43. Small gear; 44. Mixing blade; 5. Pushing assembly; 51. Pushing column; 52. Connecting column; 53. Conical block; 54. Connecting rod; 55. Fixing sleeve; 56. Clamping plate; 57. Arc-shaped inclined block; 58. Base; 59. Crossbar; 510. Spring; 511. Rotating component; 5111. Spiral groove; 5112. Support rod; 5113. Drive column; 5114. Protruding plate. Detailed Implementation

[0027] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0028] Please see Figures 1 to 8 This invention provides a high-efficiency wire rod mixer, the technical solution of which is as follows:

[0029] Reference Figures 1 to 4 This high-efficiency wire rod mixer includes a mixing chamber 1, a discharge port 11, a feed port 12, a motor 2, a crushing blade 21, a mixing assembly 3, a stirring assembly 4, and a pushing assembly 5. The discharge port 11 is located at the bottom of the mixing chamber 1, and the feed port 12 is located on the upper side wall of the mixing chamber 1. The motor 2 is fixedly connected near the bottom of the mixing chamber 1. The crushing blade 21 is fixedly connected to the output shaft of the motor 2. The mixing assembly 3 is rotatably connected to the top of the mixing chamber 1. The stirring assembly 4 is located inside the mixing assembly 3 and is driven to rotate with it. The pushing assembly 5 is located below the stirring assembly 4 and is driven to extend and retract with it. In use, various food seasoning powders can be poured into the mixing chamber 1 from the inlet, and then the mixing assembly 3 is started to mix the various seasoning powders. Simultaneously, the mixing assembly 3 can increase the original connection between the mixing chamber 1 and the top of the mixing chamber 1, which was originally only connected by a rotating shaft 34. The contact area is increased to improve the stability of rotation and prevent the unstable centrifugal force generated by the rotation of the spiral bar 35 from causing the connection between the rotating shaft 34 and the top surface of the mixing chamber 1 to loosen. During this process, the motor 2 will drive the crushing fly knife 21 to rotate at high speed. The crushing fly knife 21 can crush and stir the powder at the bottom of the mixing chamber 1 to prevent agglomeration and other adverse phenomena during the mixing process. During the operation of the mixing component 3, the stirring component 4 will rotate at the same time to stir the material at the top of the mixing chamber 1. At the same time, during the operation of the stirring component 4, the pushing component 5 will continuously move up and down to push the powder at the top of the mixing chamber 1 downward quickly, accelerate the falling of the powder, and prevent some material from being driven by the bar to rise again before it has a chance to fall between the rotating shaft 34 and the bar, thereby accelerating the mixing efficiency. After the mixing operation is completed, the discharge port 11 can be opened to allow the material to fall freely from the discharge port 11.

[0030] Reference Figures 2 to 4The mixing assembly 3 includes a fixed frame 31, a second motor 36, a cylindrical box 32, a top cover 33, a rotating shaft 34, and a spiral coil 35. The fixed frame 31 is fixedly connected to the top of the mixing chamber 1. The second motor 36 is fixedly connected to the fixed frame 31. The cylindrical box 32 is rotatably connected to the top of the mixing chamber 1. The top cover 33 is fixedly connected to the cylindrical box 32. The rotating shaft 34 is fixedly connected to the output shaft of the second motor 36. The rotating shaft 34 extends through the cylindrical box 32 into the interior of the mixing chamber 1 and is fixedly connected to the cylindrical box 32. The spiral coil 35 is divided into three sections, each of which is fixedly connected to the rotating shaft 34 via a connecting rod 54 and is arranged around the rotating shaft 34. The assembly is used for mixing various seasoning powders. When cooperating, motor 2 36 is started first. Motor 2 36 will drive the cylindrical box 32 to rotate along the top of the mixing chamber 1 through the rotating shaft 34. At the same time, the rotating shaft 34 will drive the spiral bar 35 to rotate at high speed along the cylinder. The material will be driven to spiral up along the cylinder wall to the top and then roll down, achieving a strong convection mixing effect. Since the diameter of the cylindrical box 32 is larger than the diameter of the traditional rotating shaft 34 and the top of the mixing chamber 1, the contact area with the top of the mixing chamber 1 can be increased, which improves the stability of the spiral bar 35 during rotation and prevents the unstable centrifugal force of the spiral bar 35 from causing swaying and damage to the inner wall of the mixer.

[0031] Reference Figure 4 The breaking blade 21 is located at the break gap between the bottom section of the spiral bar 35 and the middle section of the spiral bar 35. During the rotation of the spiral bar 35 driven by the rotating shaft 34, the break gap between the bottom section of the spiral bar 35 and the middle section of the spiral bar 35 will pass over the breaking blade 21 and will not interfere with the breaking blade 21.

[0032] Reference Figure 3 and Figure 5 The upper cover 33 is also fixedly connected to the fan blade 331, and the fan blade 331 is located below the motor 2 36. When the motor 2 36 drives the rotating shaft 34, the cylindrical box 32 and the upper cover 33 to rotate, the fan blade 331 will rotate around the sleeve 411. The fan blade 331 will generate an upward airflow to dissipate heat at the motor 2 36 and improve the heat dissipation effect of the motor 2 36.

[0033] Reference Figure 5The stirring assembly 4 includes a large gear 41, a sleeve 411, a rotating column 42, a small gear 43, and a stirring blade 44. The sleeve 411 is fixedly connected below the motor 36, the large gear 41 is fixedly connected below the sleeve 411, the rotating shaft 34 passes through the middle of the sleeve 411 and the large gear 41, and the large gear 41 is located inside the cylindrical box 32. There are five sets of rotating columns 42, which are equidistantly distributed around the rotating shaft 34 as the center, and the bottom of the rotating columns 42 extends into the mixing chamber 1. The small gears 43 are fixedly connected above the rotating columns 42, and each small gear 43... Engaging with the large gear 41, the stirring blade 44 is fixedly connected to the lower half of the rotating column 42. During the rotation of the cylindrical box 32 driven by the motor 36, the large gear 41 will remain stationary. Therefore, under the meshing action of the small gear 43 and the large gear 41, the small gear 43 will drive the rotating column 42 to rotate in the opposite direction on the cylindrical box 32. Thus, during the rotation of the cylindrical box 32, all rotating columns 42 rotate and stir along with the cylindrical box 32 as a whole. At the same time, the rotating column 42 can also drive the stirring blade 44 to rotate in the opposite direction individually, further stirring and mixing the powder in the mixing chamber 1, and improving the mixing efficiency.

[0034] Reference Figures 5 to 7The pushing component 5 includes a pushing column 51, a connecting column 52, a conical block 53, a connecting rod 54, a fixing sleeve 55, a clamping plate 56, an arc-shaped inclined block 57, a base 58, a crossbar 59, a spring 510, and a rotating component 511. The pushing column 51 is slidably connected to the rotating column 42 internally, the connecting column 52 is rotatably connected to the lower part of the pushing column 51, the conical block 53 is fixedly connected to the lower part of the connecting column 52, and the connecting rod 54 is fixedly connected to the upper part of the pushing column 51. The connecting rod 54 passes through the rotating column 42 and the pinion 43. The fixing sleeve 55 is fixedly connected to the upper cover 33. The connecting rod 54 is fixedly connected to both sides of the connecting rod 54 by a clamping plate 56, and the top of the connecting rod 54 is slidably connected to the fixing sleeve 55 via the clamping plate 56. Arc-shaped inclined blocks 57 are fixedly connected to the pinions 43, with two sets of arc-shaped inclined blocks 57 fixedly connected to each set of pinions 43. The arc-shaped inclined blocks 57 are symmetrically arranged along the center of the connecting rod 54. The base 58 is fixedly connected to the connecting rod 54, and the crossbar 59 is fixedly connected to both sides of the base 58. A spring 510 is sleeved on the outside of the connecting rod 54, and the spring 510 is located between the bottom surface of the base 58 and the fixing sleeve 55. In the relaxed state of spring 510, base 58 abuts against the top surface of pinion 43; as rotating column 42 rotates on cylindrical box 32, arc-shaped inclined block 57 will rotate with rotating column 42. Simultaneously, because the top of connecting rod 54 is slidably connected to fixed sleeve 55 via clamp 56, connecting rod 54 and push column 51 will not rotate with rotating column 42. Therefore, when arc-shaped inclined block 57 rotates, it will drive base 58 to gradually rise against the force of spring 510 via crossbar 59, thereby driving connecting rod 54, push column 51, and connecting column 52 to rotate. 2 and the cone block 53 rise simultaneously. When the crossbar 59 passes the highest point of the arc-shaped inclined block 57, it will be pushed by the spring 510 and fall instantly from the space between the two sets of arc-shaped inclined blocks 57, thereby pushing the cone block 53 to fall instantly. Therefore, as the arc-shaped inclined block 57 follows the continuous rotation of the rotating column 42, the pushing column 51 continuously moves upward to accumulate power, and then pushes the powder downward instantly under the push of the spring 510. This can quickly push the powder above the mixing chamber 1 downward to the lower wire rod for mixing and dispersing, thereby improving the mixing efficiency.

[0035] Reference Figure 7 and Figure 8The rotating component 511 includes a spiral groove 5111, a support rod 5112, a drive column 5113, and a protruding plate 5114. The spiral groove 5111 is formed around the outside of the connecting column 52. The support rod 5112 is fixedly connected to the bottom of the cylindrical box 32. The drive column 5113 is fixedly connected to the bottom of the support rod 5112. One end of the drive column 5113 extends into the spiral groove 5111 and slides in connection with the spiral groove 5111. The protruding plate 5114 is fixedly connected to the conical block 53, and multiple sets of protruding plates 5114 are arranged around the outer peripheral surface of the conical block 53. The conical block 53 follows the connecting column 52 and the push column. During the upward movement of 51, the drive column 5113 will gradually slide from above the spiral groove 5111 to below the spiral groove 5111. Then, through the spiral groove 5111, the connecting column 52 and the conical block 53 will rotate along the lower part of the drive column 51. When the conical block 53 is pushed down by the spring 510, the drive column 5113 will drive the conical block 53 to rotate in the opposite direction through the spiral groove 5111. In the process of the drive column 5113 moving up and down, it can also rotate itself, thereby driving the convex plate 5114 to rotate, which will further disperse the powder.

[0036] Reference Figure 8 The distance between the support rod 5112 and the rotating column 42 is greater than the length of the stirring blade 44. During the rotation of the rotating column 42 with the stirring blade 44, the stirring blade 44 can pass between the support rod 5112 and the rotating column 42. The support rod 5112 follows the rotation of the cylinder. With the combined action of the support rod 5112 and the stirring blade 44 rotating alone, the powder material can be further stirred and mixed.

[0037] Working principle: During the mixing operation, various food seasoning powders are first poured into the mixing chamber 1 through the inlet. Then, motor 2 36 is started. Motor 2 36 drives the cylindrical box 32 to rotate along the top of the mixing chamber 1 through the rotating shaft 34. At the same time, the rotating shaft 34 drives the spiral disc 35 to rotate at high speed along the cylinder. The material spirals up along the cylinder wall to the top and then rolls down, achieving a strong convection mixing effect. Since the diameter of the cylindrical box 32 is larger than the diameter of the traditional rotating shaft 34 and the top of the mixing chamber 1, the contact area with the top of the mixing chamber 1 can be increased, which improves the stability of the spiral disc 35 during rotation and prevents the unstable centrifugal force of the spiral disc 35 from causing swaying and damage to the inner wall of the mixer. While the cylindrical box 32 is driven to rotate by the motor 36, the large gear 41 will remain stationary. Therefore, under the meshing action of the small gear 43 and the large gear 41, the small gear 43 will drive the rotating column 42 to rotate in the opposite direction on the cylindrical box 32. Thus, during the rotation of the cylindrical box 32, all rotating columns 42 rotate and stir along with the cylindrical box 32 as a whole. At the same time, the rotating columns 42 can also drive the stirring blades 44 to rotate in the opposite direction individually, further stirring and mixing the powder in the mixing chamber 1, and improving the mixing efficiency.

[0038] Simultaneously, as the rotating column 42 rotates along the cylindrical box 32, the arc-shaped inclined block 57 will rotate along with the rotating column 42. Since the top of the connecting rod 54 is slidably connected to the fixed sleeve 55 via the clamping plate 56, the connecting rod 54 and the pushing column 51 will not rotate with the rotating column 42. Therefore, when the arc-shaped inclined block 57 rotates, it will drive the base 58 to gradually rise against the force of the spring 510 via the crossbar 59, thereby causing the connecting rod 54, the pushing column 51, the connecting column 52, and the conical block 53 to rise simultaneously. When the crossbar 59 passes the highest point of the arc-shaped inclined block 57, it will be pushed by the spring 510 and fall instantly from the space between the two sets of arc-shaped inclined blocks 57, thereby pushing the cone block 53 to fall instantly. Therefore, as the arc-shaped inclined block 57 follows the continuous rotation of the rotating column 42, the pushing column 51 continuously moves upward to accumulate power, and then pushes the powder downward instantly under the push of the spring 510. This can quickly push the powder above the mixing chamber 1 to the lower wire rod for mixing and dispersing, thereby improving the mixing efficiency. Simultaneously, as the conical block 53 rises along with the connecting column 52 and the pushing column 51, the driving column 5113 gradually slides from above the spiral groove 5111 to below it. This spiral groove 5111 drives the connecting column 52 and the conical block 53 to rotate below the pushing column 51. During the momentary descent of the conical block 53 under the thrust of the spring 510, the driving column 5113 again drives the conical block 53 to rotate in the opposite direction via the spiral groove 5111. Thus, the driving column 5113 also rotates itself during its reciprocating motion, further dispersing the powder by rotating the convex plate 5114. After the powder is mixed, the discharge port 11 can be opened to allow the powder to fall freely from it.

[0039] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above, and that the invention can be implemented in other specific forms without departing from its spirit or essential characteristics. Therefore, the embodiments should be considered in all respects as exemplary and non-limiting, and the scope of the invention is defined by the appended claims rather than the foregoing description. Thus, all variations falling within the meaning and scope of equivalents of the claims are intended to be included within the present invention. No reference numerals in the claims should be construed as limiting the scope of the claims.

Claims

1. A high-efficiency wire rod mixer, characterized in that: The wire rod mixer includes a mixing chamber (1), a discharge port (11), a feed port (12), a motor (2), a crushing blade (21), a mixing component (3), a stirring component (4), and a pushing component (5); the discharge port (11) is located at the bottom of the mixing chamber (1), the feed port (12) is located on the upper side wall of the mixing chamber (1), the motor (2) is fixedly connected to the lower part of the mixing chamber (1), the crushing blade (21) is fixedly connected to the output shaft of the motor (2), the mixing component (3) is rotatably connected to the top of the mixing chamber (1), the stirring component (4) is located inside the component and is rotatably connected to it by the mixing component (3), and the pushing component (5) is located below the stirring component (4) and is telescopically connected to it by the stirring component (4); The hybrid assembly (3) includes a fixed frame (31), a second motor (36), a cylindrical box (32), a top cover (33), a rotating shaft (34), and a spiral bar (35). The stirring assembly (4) includes a large gear (41), a sleeve (411), a rotating column (42), a small gear (43), and stirring blades (44). The pushing assembly (5) includes a pushing column (51), a connecting column (52), a conical block (53), a connecting rod (54), a fixing sleeve (55), a clamping plate (56), an arc-shaped inclined block (57), a base (58), a crossbar (59), a spring (510), and a rotating component (511); the pushing column (51) is slidably connected to the rotating column (42) inside, the connecting column (52) is rotatably connected to the lower part of the pushing column (51), the conical block (53) is fixedly connected to the lower part of the connecting column (52), the connecting rod (54) is fixedly connected to the upper part of the pushing column (51), and the connecting rod (54) is set through the rotating column (42) and the pinion (43); the fixing sleeve (55) is fixedly connected to the upper cover (33), and the clamping plate (56) is fixedly connected to the upper cover (33). The connecting rod (54) is fixedly connected to both sides of the connecting rod (54), and the top of the connecting rod (54) is slidably connected to the fixed sleeve (55) through the clamp plate (56). The arc-shaped inclined block (57) is fixedly connected to the pinion (43). Two sets of arc-shaped inclined blocks (57) are fixedly connected to each set of pinion (43), and the arc-shaped inclined blocks (57) are symmetrically arranged along the center of the connecting rod (54). The base (58) is fixedly connected to the connecting rod (54). The crossbar (59) is fixedly connected to both sides of the base (58). The spring (510) is sleeved on the outside of the connecting rod (54), and the spring (510) is located between the bottom surface of the base (58) and the fixed sleeve (55). When the spring (510) is relaxed, the base (58) abuts against the top surface of the pinion (43). The rotating component (511) includes a spiral groove (5111), a support rod (5112), a drive column (5113), and a convex plate (5114). The spiral groove (5111) is opened around the outside of the connecting column (52). The support rod (5112) is fixedly connected to the bottom of the cylindrical box (32). The drive column (5113) is fixedly connected to the bottom of the support rod (5112). One end of the drive column (5113) extends into the spiral groove (5111) and is slidably connected to the spiral groove (5111). The convex plate (5114) is fixedly connected to the conical block (53), and multiple sets of the convex plate (5114) are arranged around the outer peripheral surface of the conical block (53).

2. The high-efficiency wire rod mixer according to claim 1, characterized in that: The fixed frame (31) is fixedly connected to the top of the mixing chamber (1). The second motor (36) is fixedly connected to the fixed frame (31). The cylindrical box (32) is rotatably connected to the top of the mixing chamber (1). The upper cover (33) is fixedly connected to the cylindrical box (32). The rotating shaft (34) is fixedly connected to the output shaft of the second motor (36). The rotating shaft (34) passes through the cylindrical box (32) and extends into the interior of the mixing chamber (1). The rotating shaft (34) is fixedly connected to the cylindrical box (32). The spiral bar (35) is divided into three sections, all of which are fixedly connected to the rotating shaft (34) through the connecting rod (54) and are arranged around the rotating shaft (34).

3. The high-efficiency wire rod mixer according to claim 2, characterized in that: The breaking cutter (21) is located at the break gap between the bottom section of the spiral bar (35) and the middle section of the spiral bar (35).

4. The high-efficiency wire rod mixer according to claim 3, characterized in that: A fan blade (331) is also fixedly connected to the upper cover (33), and the fan blade (331) is located below the motor (36).

5. The high-efficiency wire rod mixer according to claim 4, characterized in that: The sleeve (411) is fixedly connected to the bottom of the motor (36), the large gear (41) is fixedly connected to the bottom of the sleeve (411), the rotating shaft (34) passes through the middle of the sleeve (411) and the large gear (41), and the large gear (41) is located in the cylindrical box (32). There are five sets of rotating columns (42). The rotating columns (42) are equidistantly distributed around the rotating shaft (34) with the rotating shaft (34) as the center, and the bottom of the rotating columns (42) extends into the mixing chamber (1). The small gear (43) is fixedly connected to the top of the rotating column (42), and the small gear (43) meshes with the large gear (41). The stirring blade (44) is fixedly connected to the lower half of the rotating column (42).

6. The high-efficiency wire rod mixer according to claim 5, characterized in that: The distance between the support rod (5112) and the rotating column (42) is greater than the length of the stirring blade (44).

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