A mixing device for reducing ferrotitanium powder in dual production lines

Abstract

The invention discloses a dual production line mixing device for reducing ferrotitanium powder, comprising a processing seat and a processing tank arranged above the processing seat, both sides of the processing tank surface are connected with a feed hopper, and a mounting frame is fixed above the processing seat through a vibration spring rod, and the invention relates to the technical field of reducing ferrotitanium powder production. The dual production line mixing device for reducing ferrotitanium powder, when rotating, can drive a driving frame to slide back and forth continuously up and down through an embedded rod, thereby driving a rack to slide back and forth up and down, realizing that the swing gear continuously rotates forward and reversely, thereby driving the right hollow sleeve to continuously rotate forward and reversely, and under the cooperation of bevel gear 1, middle bevel gear and bevel gear 2, the right hollow sleeve and the left hollow sleeve can rotate in opposite directions relative to each other, thereby enabling the crushing blade to rotate in the opposite direction to the scraper plate, and the scraper plate continuously turns the material back and forth, and after the raw material is turned up, it is crushed and stirred by the crushing blade, and at the same time, the stirring shaft can rotate by itself, thereby realizing that the crushing blade can rotate by itself, realizing crushing and stirring, and improving stirring efficiency.

Description

Technical Field

[0001] The invention relates to the technical field of reduced ferrotitanium powder production, in particular to a reduced ferrotitanium powder double production line mixing device. Background Art

[0002] Reduced ferrotitanium powder is one of the main auxiliary materials for producing welding rods. The current production method of reduced ferrotitanium powder is to use a steamed bun kiln or a tunnel kiln, place ilmenite, reduced pulverized coal, and lime in a ceramic pot for heating and reduction, and then crush, screen, and magnetically separate the obtained ferrotitanium powder. At present, ferrotitanium powder is fired in two rotary kilns and then transported to a mixing device through two production lines to mix titanium powder and iron powder in a certain proportion, and then packaged after mixing. The mixing device currently used for the dual production line of ferrotitanium powder generally has a single stirring structure, which leads to uneven mixing of the raw materials after stirring. Although some mixing devices have multiple stirring structures, they generally require multiple electrical components to drive, and the use cost is high. Therefore, the present invention proposes a dual production line mixing device for reduced ferrotitanium powder to solve the above-mentioned problems. Summary of the invention

[0003] In view of the shortcomings of the prior art, the present invention provides a dual-production line mixing device for reducing ferrotitanium powder, which solves the problems mentioned in the above background technology.

[0004] To achieve the above objectives, the present invention is implemented through the following technical solutions: a reduced titanium iron powder dual production line mixing device, comprising a processing seat and a processing tank arranged above the processing seat, both sides of the processing tank surface are connected with a feed hopper, a mounting frame is fixed above the processing seat through a vibration spring rod, the processing tank is slidably installed under the mounting frame, and a mixing component for stirring and mixing the reduced titanium iron powder is arranged on the mounting frame;

[0005] The mixing component can not only stir the raw materials but also turn the raw materials over, thereby accelerating the mixing of the raw materials and making the mixing of the raw materials more uniform.

[0006] Preferably, the mixing assembly includes a central shaft that passes through and is fixed on the mounting frame, a left hollow sleeve is rotatably mounted on the left side of the central shaft surface, a right hollow sleeve is rotatably mounted on the right side of the central shaft surface, one end of the right hollow sleeve passes through the processing tank and the mounting frame in sequence, a bevel gear 1 is fixed to the end of the right hollow sleeve, an intermediate bevel gear meshing with the bevel gear 1 is rotatably mounted on the surface of the central shaft, a bevel gear 2 meshing with the intermediate bevel gear is fixed to the end of the left hollow sleeve, a hollow ball cover is fixed to the surface of the central shaft through a support rod, an extrusion spring rod is fixed to the surface of the left hollow sleeve, and the end of the extrusion spring rod is fixed through a connecting strip There is a scraper plate, a fixing ring is fixed on the surface of the right hollow sleeve, three evenly distributed support bars are fixed on the surface of the fixing ring, a stirring shaft is passed through the three support bars for rotation, a plurality of crushing blades are fixed on the surface of the stirring shaft, a central gear ring is arranged on the outer periphery of the right hollow sleeve, rolling gears meshing with the central gear ring are fixed on the surfaces of the three stirring shafts, the central gear ring is fixed to the mounting frame through an oblique support rod, a reciprocating drive assembly for driving the right hollow sleeve to continuously rotate forward and reverse is arranged between the mounting frame and the right hollow sleeve, and a vibrating bulk material assembly for controlling the left and right reciprocating vibration of the processing tank is also arranged between the mounting frame and the right hollow sleeve.

[0007] Preferably, the reciprocating drive assembly includes a double-headed reduction motor arranged on the outside of the mounting frame, the double-headed reduction motor is fixed to the outside of the mounting frame by a welding plate, a driving shaft is fixed to one end of the output shaft of the double-headed reduction motor, a swing gear is fixed to the surface of the right hollow sleeve, a driving frame is slidably installed on the outside of the mounting frame, a rotating bar is fixed to the surface of the driving shaft, an embedded rod used in conjunction with the driving frame is fixed to the side of the rotating bar, and a rack meshing with the swing gear is fixed at the bottom of the driving frame.

[0008] Preferably, the vibrating bulk material assembly includes an L-shaped rod fixed on the surface of the right hollow sleeve, a ball is embedded in the end of the L-shaped rod, a contact plate is fixed to the inner side of the mounting frame through a curved rod, a wavy groove is provided on the side of the contact plate for use with the ball, a through hole is penetrated on the contact plate for use with the right hollow sleeve, and a pressure spring is fixed between the processing tank and the mounting frame.

[0009] Preferably, a transmission shaft is fixed to the other end of the output shaft of the double-headed reduction motor, and an eccentric lead block is fixed to the surface of the transmission shaft.

[0010] Preferably, a material receiving inclined V-shaped plate is fixed to the inner wall of the processing tank, baffles are fixed on both sides of the surface of the material receiving inclined V-shaped plate, and a vibration motor is fixed below the material receiving inclined V-shaped plate.

[0011] Preferably, a notch for use with the oblique support rod is provided on the surface of the processing tank, and the center of the central gear ring coincides with the center axis.

[0012] Preferably, a discharge trough is provided below the surface of the processing tank, and a blocking door for blocking the discharge trough is installed below the surface of the processing tank. Beneficial Effects

[0013] The present invention provides a dual production line mixing device for reducing ferrotitanium powder. Compared with the prior art, it has the following beneficial effects:

[0014] The reduced titanium iron powder double production line mixing device, when rotating, can drive the driving frame to slide back and forth continuously up and down through the embedded rod, and then drive the rack to slide back and forth up and down, realize the swing gear to continuously rotate forward and reverse, and then drive the right hollow sleeve to continuously rotate forward and reverse, under the cooperation of the bevel gear one, the middle bevel gear and the bevel gear two, realize that the right hollow sleeve and the left hollow sleeve can rotate in the opposite direction relative to each other, so that the crushing blade can rotate in the opposite direction to the scraper plate, the scraper plate continuously turns the material back and forth, and after the raw material is turned up, it is crushed and stirred by the crushing blade, and at the same time the stirring shaft can rotate by itself, so that the crushing blade can rotate by itself, realize crushing and stirring, and improve the stirring efficiency, the setting of the vibration bulk material component can realize the processing tank to vibrate back and forth continuously during stirring, so that the raw material can be shaken, and the mixing efficiency is improved, and at the same time the vibration spring rod is used in combination with the eccentric lead block, so that the entire mounting frame can vibrate up and down, and then drive the processing tank to vibrate, so that the raw materials inside can vibrate up and down to disperse, further improve the mixing efficiency, and realize the full mixing of the raw materials, and only one double-head reduction motor is needed to provide power, effectively reducing the use cost. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0016] Figure 2 This is a schematic diagram of the external structure of the processing tank of the present invention;

[0017] Figure 3 This is a schematic diagram of the internal structure of the processing tank of the present invention;

[0018] Figure 4 is a schematic diagram of the contact disc structure of the present invention;

[0019] Figure 5 This is a schematic diagram of the connection between the right hollow sleeve and the L-shaped rod of the present invention;

[0020] Figure 6 For the present invention Figure 3 A partial enlarged view of the middle A;

[0021] Figure 7 This is a schematic diagram of the internal structure of the hollow ball cover of the present invention;

[0022] Figure 8 It is a schematic diagram of the structure of the reciprocating drive assembly of the present invention.

[0023] In the figure: 1-processing seat, 2-processing tank, 3-feeding hopper, 4-vibration spring rod, 5-mounting frame, 6-mixing assembly, 61-center shaft, 62-left hollow sleeve, 63-right hollow sleeve, 64-bevel gear 1, 65-middle bevel gear, 66-bevel gear 2, 67-support rod, 68-hollow ball cover, 69-extrusion spring rod, 610-connecting strip, 611-scraper plate, 612-fixing ring, 613-support strip, 614-stirring shaft, 615-crushing blade, 616-center gear ring, 617-rolling gear, 6 18-oblique support rod, 7-reciprocating drive assembly, 71-double-head reduction motor, 72-drive shaft, 73-swing gear, 74-drive frame, 75-rotating bar, 76-embedded rod, 77-rack, 8-vibrating bulk material assembly, 81-L-shaped rod, 82-ball, 83-curved rod, 84-contact plate, 85-wave curved groove, 86-through hole, 87-pressure spring, 9-drive shaft, 10-eccentric lead block, 11-material receiving inclined V-shaped plate, 12-baffle, 13-vibration motor, 14-notch, 15-discharge trough, 16-blocking door. DETAILED DESCRIPTION

[0024] 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.

[0025] See also Figure 1-Figure 8 The present invention provides a technical solution: a reduced titanium iron powder dual production line mixing device, comprising a processing seat 1 and a processing tank 2 arranged above the processing seat 1, both sides of the surface of the processing tank 2 are connected with a feed hopper 3, the setting of the feed hopper 3 is convenient for adding titanium powder and iron powder into the processing tank 2 respectively, a mounting frame 5 is fixed above the processing seat 1 through a vibration spring rod 4, the processing tank 2 is slidably installed under the mounting frame 5, and a mixing component 6 for stirring and mixing the reduced titanium iron powder is arranged on the mounting frame 5. The mixing component 6 can not only stir the raw materials but also turn the raw materials, accelerate the mixing of the raw materials, so that the raw materials are mixed more evenly.

[0026] In this embodiment, the mixing assembly 6 includes a central shaft 61 that passes through and is fixed on the mounting frame 5. The central shaft 61 also processes the tank 2. The processing tank 2 can slide left and right relative to the central shaft 61. The processing tank 2 passes through the surface of the central shaft 61 on the left side and is rotatably installed with a left hollow sleeve 62. The surface of the central shaft 61 on the right side is rotatably installed with a right hollow sleeve 63. One end of the right hollow sleeve 63 passes through the processing tank 2 and the mounting frame 5 in sequence. The right hollow sleeve 63 can rotate relative to the processing tank 2. A bevel gear 64 is fixed to the end of the right hollow sleeve 63. An intermediate bevel gear 65 meshing with the bevel gear 64 is rotatably installed on the surface of the central shaft 61. The left hollow sleeve 63 is fixed to the end of the right hollow sleeve 63. The end of the core sleeve 62 is fixed with a bevel gear 66 meshing with the intermediate bevel gear 65. The surface of the central shaft 61 is fixed with a hollow ball cover 68 through a support rod 67. The surface of the left hollow sleeve 62 is fixed with an extrusion spring rod 69. The end of the extrusion spring rod 69 is fixed with a scraper plate 611 through a connecting strip 610. The arrangement of the extrusion spring rod 69 facilitates the scraper plate 611 to fit the inner wall of the processing tank 2, so as to scrape and flip the raw materials on the inner wall of the processing tank 2. The surface of the right hollow sleeve 63 is fixed with a fixing ring 612. The surface of the fixing ring 612 is fixed with three evenly distributed support strips 613. The three support strips A stirring shaft 614 is rotatably passed through 613, and a plurality of crushing blades 615 are fixed on the surface of the stirring shaft 614. The arrangement of the bevel gear 1 64, the intermediate bevel gear 65 and the bevel gear 2 66 facilitates the right hollow sleeve 63 and the left hollow sleeve 62 to rotate in the opposite direction relative to each other, thereby enabling the crushing blades 615 to rotate in the opposite direction with the scraper plate 611, thereby improving the mixing efficiency. A central gear ring 616 is arranged on the outer periphery of the right hollow sleeve 63, and rolling gears 617 meshing with the central gear ring 616 are fixed on the surfaces of the three stirring shafts 614. The central gear ring 616 is fixed to the mounting frame 5 through an oblique support rod 618. The three rolling gears 617 can move and rotate around the surface of the central gear ring 616, thereby driving the entire stirring shaft 614 to move with the rotation of the right hollow sleeve 63, and at the same time, the stirring shaft 614 can also rotate, thereby realizing the self-rotation of the crushing blade 615, thereby improving the stirring efficiency and making the mixing more uniform. The crushing blade 615 is never in contact with the scraper plate 611. A reciprocating drive component 7 for driving the right hollow sleeve 63 to continuously rotate forward and reverse is arranged between the mounting frame 5 and the right hollow sleeve 63. A vibrating bulk material component 8 for controlling the left and right reciprocating vibration of the processing tank 2 is also arranged between the mounting frame 5 and the right hollow sleeve 63.

[0027] In this embodiment, the reciprocating drive assembly 7 includes a double-headed reduction motor 71 arranged on the outside of the mounting frame 5. The double-headed reduction motor 71 is electrically connected to the external power supply and controlled by the control switch. Its output shaft runs through the entire motor housing. The double-headed reduction motor 71 is fixed to the outside of the mounting frame 5 by a welding plate. A driving shaft 72 is fixed to one end of the output shaft of the double-headed reduction motor 71. A swing gear 73 is fixed to the surface of the right hollow sleeve 63. A driving frame 74 is slidably installed on the outside of the mounting frame 5. A rotating bar 75 is fixed to the surface of the driving shaft 72. An embedded rod 76 used in conjunction with the driving frame 74 is fixed to the side of the rotating bar 75. A rack 77 meshing with the swing gear 73 is fixed below the driving frame 74. When rotating, the rotating bar 75 can drive the driving frame 74 to slide back and forth continuously up and down through the embedded rod 76, thereby driving the rack 77 to slide back and forth up and down, thereby realizing continuous forward and reverse rotation of the swing gear 73.

[0028] The vibrating bulk material assembly 8 comprises an L-shaped rod 81 fixed on the surface of the right hollow sleeve 63, and a ball 82 is embedded and installed at the end of the L-shaped rod 81. A contact plate 84 is fixed to the inner side of the mounting frame 5 through a curved rod 83. A wavy groove 85 for cooperating with the ball 82 is arranged on the side of the contact plate 84. A through hole 86 for cooperating with the right hollow sleeve 63 is penetrated and opened on the contact plate 84. A pressure spring 87 is fixed between the processing tank 2 and the mounting frame 5. The ball 82 can roll in any direction at the end of the L-shaped rod 81, similar to the principle of a ballpoint pen ball. The ball 82 contacts the wavy groove 85 under the action of the elastic force of the pressure spring 87. When the entire L-shaped rod 81 rotates with the right hollow sleeve 63, the ball 82 can move in accordance with the wavy groove 85. Under the action of the elastic force of the pressure spring 87, the entire processing tank 2 can be continuously shaken left and right with a small amplitude, so that the raw materials inside can be dispersed, thereby improving the mixing efficiency and making the raw materials mixed more evenly.

[0029] In this embodiment, a transmission shaft 9 is fixed to the other end of the output shaft of the double-headed reduction motor 71, and an eccentric lead block 10 is fixed to the surface of the transmission shaft 9. A plurality of vibration spring rods 4 are provided. When the eccentric lead block 10 rotates as a whole, the entire mounting frame 5 is driven to vibrate up and down, thereby driving the processing tank 2 to vibrate, so that the raw materials inside it can be vibrated and dispersed.

[0030] In this embodiment, a material receiving inclined V-shaped plate 11 is fixed to the inner wall of the processing tank 2, baffles 12 are fixed on both sides of the surface of the material receiving inclined V-shaped plate 11, and a vibration motor 13 is fixed below the material receiving inclined V-shaped plate 11. During the forward and reverse rotation of the swing gear 73, the scraper plate 611 will not contact the material receiving inclined V-shaped plate 11. The swing range of the scraper plate 611 is before and after the material receiving inclined V-shaped plate 11. The vibration motor 13 is electrically connected to an external power supply and controlled by a control switch. During vibration, the titanium powder and iron powder that fall on the material receiving inclined V-shaped plate 11 will be shaken off and fall through the gap between the two baffles 12 to achieve preliminary mixing of the titanium powder and the iron powder. The material receiving inclined V-shaped plate 1 is arranged below the two feed hoppers 3 to facilitate material receiving.

[0031] In this embodiment, a notch 14 is provided on the surface of the processing tank 2 for use with the oblique support rod 618 . The notch 14 facilitates the left and right movement of the processing tank 2 , and the center gear ring 616 coincides with the center of the center axis 61 .

[0032] In this embodiment, a discharge trough 15 is provided below the surface of the processing tank 2, and a blocking door 16 is installed below the surface of the processing tank 2 to block the discharge trough 15. The blocking door 16 is hinged on the surface of the processing tank 2 and is connected to the processing tank 2 through an existing locking structure, which is not shown in the accompanying drawings. It is an existing connection technology used to control the opening or closing of the discharge trough 15, and then control the discharge. The depth of the raw material poured into the processing tank 2 does not exceed the lowest point of the movement of the rolling gear 617, ensuring that the rolling gear 617 can rotate normally, and a small amount of raw material retained on each gear does not affect the normal transmission of the gear.

[0033] Meanwhile, the contents not described in detail in this specification belong to the prior art known to those skilled in the art.

[0034] During operation, titanium powder and iron powder raw materials are added into the processing tank 2 through two feeding hoppers 3 respectively, and the vibration motor 13 is started, thereby driving the receiving material inclined V-shaped plate 11 to vibrate. During the vibration, the titanium powder and iron powder falling on the receiving material inclined V-shaped plate 11 will be shaken and fall through the gap between the two baffles 12 to achieve preliminary mixing of the titanium powder and the iron powder. At the same time, the double-head reduction motor 71 is started, thereby driving the rotating bar 75 to rotate. When the rotating bar 75 rotates, it can drive the drive through the embedded rod 76 The frame 74 continuously slides up and down, thereby driving the rack 77 to slide up and down, realizing that the swing gear 73 continuously rotates forward and reversely, thereby driving the right hollow sleeve 63 continuously rotates forward and reversely, and under the cooperation of the bevel gear 1 64, the middle bevel gear 65 and the bevel gear 2 66, the right hollow sleeve 63 and the left hollow sleeve 62 can rotate in the opposite direction relative to each other, thereby making the crushing blade 615 rotate in the opposite direction to the scraper plate 611, and the scraper plate 611 continuously flips the material back and forth, and after the raw material is flipped up, it is crushed by the crushing blade 615. The mixing and crushing process is carried out, and at the same time, the three rolling gears 617 can move and rotate around the surface of the central gear ring 616, thereby driving the entire mixing shaft 614 to move with the rotation of the right hollow sleeve 63, and at the same time, the mixing shaft 614 can also be rotated, thereby realizing the self-rotation of the mixing blade 615, realizing mixing and crushing, and improving the mixing efficiency. At the same time, when the entire L-shaped rod 81 rotates with the right hollow sleeve 63, the ball 82 can move in accordance with the wave groove 85. Under the elastic force of the pressure spring 87, the entire processing tank 2 can be continuously shaken slightly left and right, so that the raw materials inside it can be dispersed. When the eccentric lead block 10 rotates with the double-headed reduction motor 71, it cooperates with the vibration spring rod 4 to realize the up and down vibration of the entire mounting frame 5, thereby driving the processing tank 2 to vibrate, so that the raw materials inside it can be vibrated and dispersed. The titanium powder and the iron powder can be constantly turned over and stirred, and can also be bumped up and down, left and right, so as to achieve rapid and uniform mixing. After the mixing is completed, the mixture can be taken out by opening the blocking door 16.

[0035] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0036] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A dual-production line mixing device for reducing ferrotitanium powder, comprising a processing seat (1) and a processing tank (2) arranged above the processing seat (1), wherein both sides of the surface of the processing tank (2) are connected to a feed hopper (3), characterized in that: A mounting frame (5) is fixed above the processing seat (1) via a vibration spring rod (4), the processing tank (2) is slidably mounted below the mounting frame (5), and a mixing component (6) for stirring and mixing the reduced ferrotitanium powder is arranged on the mounting frame (5); The mixing component (6) can not only stir the raw materials but also turn the raw materials over, thereby accelerating the mixing of the raw materials and making the mixing of the raw materials more uniform; The mixing assembly (6) comprises a central shaft (61) which passes through and is fixed on the mounting frame (5); a left hollow sleeve (62) is rotatably mounted on the left side of the surface of the central shaft (61); a right hollow sleeve (63) is rotatably mounted on the right side of the surface of the central shaft (61); one end of the right hollow sleeve (63) passes through the processing tank (2) and the mounting frame (5) in sequence; a bevel gear 1 (64) is fixed to the end of the right hollow sleeve (63); an intermediate bevel gear (65) meshing with the bevel gear 1 (64) is rotatably mounted on the surface of the central shaft (61); a bevel gear 2 (66) meshing with the intermediate bevel gear (65) is fixed to the end of the left hollow sleeve (62); a hollow ball cover (68) is fixed to the surface of the central shaft (61) via a support rod (67); an extrusion spring rod (69) is fixed to the surface of the left hollow sleeve (62); and a scraper plate (611) is fixed to the end of the extrusion spring rod (69) via a connecting strip (610). ), a fixing ring (612) is fixed on the surface of the right hollow sleeve (63), three evenly distributed support bars (613) are fixed on the surface of the fixing ring (612), a stirring shaft (614) is rotatably penetrated through the three support bars (613), a plurality of crushing blades (615) are fixed on the surface of the stirring shaft (614), a central gear ring (616) is arranged on the outer periphery of the right hollow sleeve (63), rolling gears (617) meshing with the central gear ring (616) are fixed on the surfaces of the three stirring shafts (614), the central gear ring (616) is fixed to the mounting frame (5) via an oblique support rod (618), a reciprocating driving component (7) for driving the right hollow sleeve (63) to continuously rotate forward and reverse is arranged between the mounting frame (5) and the right hollow sleeve (63), and a vibrating bulk material component (8) for controlling the left and right reciprocating vibration of the processing tank (2) is also arranged between the mounting frame (5) and the right hollow sleeve (63); The reciprocating drive assembly (7) comprises a double-headed reduction motor (71) arranged on the outside of the mounting frame (5), the double-headed reduction motor (71) being fixed to the outside of the mounting frame (5) by means of a welding plate, a driving shaft (72) being fixed to one end of the output shaft of the double-headed reduction motor (71), a swing gear (73) being fixed to the surface of the right hollow sleeve (63), a driving frame (74) being slidably mounted on the outside of the mounting frame (5), a rotating bar (75) being fixed to the surface of the driving shaft (72), an embedded rod (76) being used in conjunction with the driving frame (74) being fixed to the side of the rotating bar (75), and a rack (77) being meshed with the swing gear (73) being fixed to the bottom of the driving frame (74); The vibrating bulk material assembly (8) comprises an L-shaped rod (81) fixed to the surface of the right hollow sleeve (63), a ball bearing (82) being embedded and mounted at the end of the L-shaped rod (81), a contact plate (84) being fixed to the inner side of the mounting frame (5) via a curved rod (83), a wavy curved groove (85) for use with the ball bearing (82) being provided on the side of the contact plate (84), a through hole (86) for use with the right hollow sleeve (63) being penetrated and opened on the contact plate (84), and a pressure spring (87) being fixed between the processing tank (2) and the mounting frame (5).

2. A dual production line mixing device for reducing ferrotitanium powder according to claim 1, characterized in that: A transmission shaft (9) is fixed to the other end of the output shaft of the double-headed reduction motor (71), and an eccentric lead block (10) is fixed to the surface of the transmission shaft (9).

3. A dual production line mixing device for reducing ferrotitanium powder according to claim 1, characterized in that: A material receiving inclined V-shaped plate (11) is fixed to the inner wall of the processing tank (2), baffles (12) are fixed on both sides of the surface of the material receiving inclined V-shaped plate (11), and a vibration motor (13) is fixed below the material receiving inclined V-shaped plate (11).

4. A dual production line mixing device for reducing ferrotitanium powder according to claim 1, characterized in that: The surface of the processing tank (2) is provided with a notch (14) for use with the oblique support rod (618), and the center of the central gear ring (616) coincides with the center of the central axis (61).

5. The reduced ferrotitanium powder dual production line mixing device according to claim 1, characterized in that: A material discharge trough (15) is provided below the surface of the processing tank (2), and a material blocking door (16) is installed below the surface of the processing tank (2) for blocking the material discharge trough (15).

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