Mousing-hook device of micro powder machine trapping frame
By processing nearly semicircular wave bead slots in the micro powder machine and installing wave bead screws, the problem of the trap rack falling due to the decoupling of the cylinder coupling shaft and the spring rack is solved, and the stable connection of the trap rack is achieved. Improves the safety and quality of the equipment.
Patent Information
- Application Number
- CN202421104061.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-05-21
- Publication Date
- 2025-02-11
- Estimated Expiration
- 2034-05-21
AI Technical Summary
When the material in the existing micro powder machine is too heavy, the capture rack may be decoupled by the cylinder coupling shaft from the spring rack, causing the capture rack to fall, resulting in safety and quality accidents.
At the contact position of the pneumatic coupling shaft and the spring frame, a nearly semicircular wave bead slot is processed, and a wave bead screw is installed at the contact position of the pneumatic coupling shaft inside the spring frame. The wave bead slot and the wave bead screw are fitted with each other. It plays a limiting role to prevent the spring frame from shaking left and right, and prevent the tapered pin from breaking away from the grooves in the spring frame.
It effectively prevents the capture rack from being decoupled due to the shaking of the spring rack left and right when it is active, avoids the risk of the capture rack falling, and improves the safety and stability of the equipment.
Smart Images

Figure CN222453814U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of micro powder equipment, in particular to an anti-unhooking device for a micro powder machine collecting frame. Background Art
[0002] A micro powder machine is a device for manufacturing micro powders. It can process various raw materials through a series of processes such as crushing, pulverizing, and grading to finally obtain the desired micro powder products. In the prior art, the cylinder is connected to the cylinder coupling shaft, the cylinder coupling shaft passes through the limit block, a cone pin is installed on the cylinder coupling shaft, the cone pin is locked in the spring frame, so that the cylinder coupling shaft is connected to the spring frame, the spring sleeve is arranged on the spring frame, the spring frame passes through the capture frame, when the cylinder drives the pneumatic coupling shaft to move upward, the cylinder coupling shaft pulls the spring frame to move upward, the spring is compressed upward, and the spring frame pulls the capture frame to move upward, when the cylinder drives the cylinder coupling shaft to move downward, the cylinder coupling shaft pulls the spring frame to move downward, the spring recovers, and the spring frame moves downward to the limit block and is limited. The position where the capture frame is stuck stops its downward movement, and the limit block restricts the unlimited downward movement of the capture frame. In this process, when the material is captured by the capture bag and the material in the capture bag accumulates to a certain weight, the capture frame sinks under the action of gravity, and the limit frame sinks with the capture frame. At this time, there is a gap between the limit frame and the limit block. At this time, when the capture frame shakes, the cylinder moves quickly, but due to inertia, the capture frame does not move quickly in an instant. The spring frame may shake left and right because there is no limit. When the spring frame shakes left and right, the cone pin may fall off from the groove in the spring frame, causing the cylinder connecting shaft to be decoupled from the spring frame, thereby the cylinder connecting shaft to be decoupled from the capture frame, causing the capture frame to fall, resulting in safety accidents and quality accidents.
[0003] In summary, a micro powder machine capture frame anti-unhooking device is needed to prevent the cylinder connecting shaft from being unhooked from the spring frame when the material in the capture bag is too heavy, causing the capture frame to fall off. Summary of the invention
[0004] In order to solve the problem of excessive weight of materials in the capture bag of the micro powder machine, the capture frame sinks under the action of gravity, and the limit frame sinks with the capture frame. There is a gap between the limit frame and the limit block. When the capture frame shakes, the cylinder moves quickly. Due to inertia, the capture frame does not move quickly at the moment. The spring frame may shake left and right because there is no limit. When the spring frame shakes left and right, the cone pin may fall off the groove in the spring frame, causing the cylinder coupling shaft to be decoupled from the spring frame, and then the cylinder coupling shaft is decoupled from the capture frame, leading to In order to solve the problem of the collecting frame falling off, the utility model provides an anti-unhooking device for the collecting frame of a micro powder machine. The anti-unhooking device for the collecting frame of the micro powder machine has a simple structure. A pair of nearly semicircular ball grooves are processed at the position where the pneumatic connecting shaft contacts the spring frame, and a pair of ball screws are installed at the position where the inside of the spring frame contacts the pneumatic connecting shaft. The ball grooves and the ball screws are interlocked with each other to play a limiting role, thereby preventing the spring frame from shaking left and right, preventing the cone pin from being dislocated and detaching from the groove in the spring frame, and avoiding the collecting frame from falling off.
[0005] In order to achieve the above object, the technical solution of the utility model is as follows:
[0006] A micro powder machine capture frame anti-unhooking device, the micro powder machine capture frame anti-unhooking device comprises a hopper, a feed port, a capture bag, a capture frame, a capture chamber, a cylinder, a cylinder connecting shaft, a guide positioning cylinder, a guide block, a guide cylinder, a limit frame, a limit block, a cone pin, a spring frame, a spring, an exhaust pipe, a ball groove, a ball screw and a U-shaped groove, a discharge port is arranged at the bottom of the hopper, a fixing piece is arranged on the upper side wall of the hopper, a feed port is arranged on the side of the hopper close to the top, the top of the hopper is connected to the capture chamber, the upper part of the outside of the capture chamber is connected to the cylinder, one side of the capture chamber is connected to the exhaust pipe, the top of the capture chamber is connected to the guide positioning cylinder, the guide positioning cylinder is connected to the guide cylinder through the guide block, the guide cylinder and the limit frame are fixedly connected to the capture frame, the limit frame is installed in the guide cylinder, and the limit block is movably arranged The spring frame is provided with a cylinder coupling shaft slot which passes through the spring frame, and the upper end of the spring frame passes through the capture frame and extends into the limit frame. The spring sleeve is arranged on the upper end of the spring frame, and the ball groove is arranged at the end where the cylinder coupling shaft is connected to the spring frame, and the ball screw is arranged on the inner walls on both sides of the lower end of the spring frame, and the U-shaped groove is arranged at the upper end of the spring frame. One end of the cylinder coupling shaft is connected to the cylinder, and the other end of the cylinder coupling shaft passes through the guide positioning cylinder and the limit block in sequence. The cylinder coupling shaft is locked in the U-shaped groove by the cone pin and passes through the cylinder coupling shaft slot to be connected with the spring frame, the ball groove and the ball screw are engaged, and the bottom of the capture bag is hoisted on the capture frame, and the opening of the capture bag is movably connected to the fixing member.
[0007] Furthermore, a spring stopper is provided on one side of the capture frame close to the capture bag, the diameter of the spring stopper is larger than the diameter of the spring, and the diameter of the spring stopper is smaller than the diameter of the stopper frame.
[0008] Furthermore, the capture bag is an antistatic filter bag.
[0009] Furthermore, the ball bearing groove is a nearly semicircular groove, and the ball bearing screw is a steel ball facing the cylinder connecting shaft groove.
[0010] Furthermore, the diameter of the limit block is larger than the diameter of the limit frame, and the diameter of the limit block is smaller than the diameter of the guide cylinder.
[0011] The features of this utility model are mainly reflected in:
[0012] The utility model provides an anti-unhooking device for a micro powder machine collecting frame. The anti-unhooking device for the micro powder machine collecting frame has a simple structure. A pair of nearly semicircular ball grooves are processed at the position where the pneumatic connecting shaft contacts the spring frame, and a pair of ball screws are installed at the position where the inside of the spring frame contacts the pneumatic connecting shaft. The ball grooves and the ball screws are engaged with each other to play a limiting role, thereby preventing the spring frame from shaking left and right, causing the cone pin to be dislocated and separated from the groove in the spring frame, and preventing the collecting frame from falling. BRIEF DESCRIPTION OF THE DRAWINGS
[0013] Figure 1 This is a schematic diagram of the structure of the anti-unhooking device for the micro powder machine collection frame of the utility model.
[0014] Figure 2 This is a schematic diagram of the pneumatic coupling shaft and the spring frame of the utility model before being connected
[0015] Figure 3 Schematic diagram of the connection between the pneumatic coupling shaft and the spring frame of the utility model
[0016] Figure 4 A top view of the pneumatic coupling shaft and spring frame of the utility model
[0017] Figure 5 This is a schematic diagram of the U-shaped groove structure of the utility model
[0018] Among them, the figure numbers are as follows: 1-hopper, 101-discharge port, 102-fixing part, 2-feed port, 3-capture bag, 4-capture frame, 5-capture chamber, 6-cylinder, 7-cylinder connecting shaft, 8-guide positioning cylinder, 9-guide block, 10-guide cylinder, 11-limiting frame, 12-limiting block, 13-taper pin, 14-spring frame, 141-cylinder coupling slot, 15-spring, 16-spring limit block, 17-exhaust port, 18-ball groove, 19-ball screw, 191-steel ball, 20-U-shaped groove. DETAILED DESCRIPTION
[0019] The following will be combined with the accompanying drawings of the structural schematic diagram of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments of the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.
[0020] like Figure 1As shown, a micro powder machine capture frame anti-unhooking device, the micro powder machine capture frame anti-unhooking device includes a hopper 1, a feed port 2, a capture bag 3, a capture frame 4, a capture chamber 5, a cylinder 6, a cylinder connecting shaft 7, a guide positioning cylinder 8, a guide block 9, a guide cylinder 10, a limit frame 11, a limit block 12, a cone pin 13, a spring frame 14, a spring 15, an exhaust pipe 17, a ball groove 18, a ball screw 19 and a U-shaped groove 20. The hopper 1 is used to temporarily store materials after being crushed by the micro powder machine, the capture bag 3 is used to collect dust and materials sucked by the exhaust pipe, the capture frame 4 can lift the bottom of the capture bag 3 so that the opening of the capture bag 3 is downward, which is convenient for capturing dust and materials. The guide positioning cylinder 8, the guide block 9 and the guide cylinder 10 are used in combination. It can ensure that the capture frame 4 will not tilt when it is active, and at the same time it can bear the weight of the capture frame 4, avoiding that the weight of the entire capture frame 4 is borne entirely by the pneumatic coupling shaft 7, causing the pneumatic coupling shaft 7 to deform. The upper end of the spring frame 14 is cylindrical, and the diameter of the lower end is larger than that of the upper end. The spring 15 can be sleeved on the upper end of the spring frame 14. The ball groove 18 and the ball screw 19 are used in conjunction. The ball screw is composed of a spring, a steel ball, and a shell. The steel ball 191 can slide in the ball groove 18. The U-shaped groove 20 can lock the cone pin 13 in the spring frame 14, connect the pneumatic coupling shaft 7 and the spring frame 14, so that the pneumatic coupling shaft 7 and the capture frame 4 are connected. A discharge port 101 is provided at the bottom of the hopper 1. The material collected in the hopper 1 can be discharged through the discharge port 101. A fixing part 102 is provided on the upper side wall of the hopper 1. The fixing part 102 is used to fix the capture bag 3. A feed port 2 is provided on the side of the hopper 1 close to the upper side. The crushed material enters the hopper 1 from the feed port 2. The upper side of the hopper 1 is connected to the capture chamber 5. The hopper 1 and the capture chamber 5 form a closed space. The upper side of the capture chamber 5 is connected to the cylinder 6. One side of the capture chamber 5 is connected to the exhaust pipe 17. The top of the capture chamber 5 is connected to the guide positioning cylinder 8. The guide positioning cylinder 8 is connected to the guide cylinder 10 through the guide block 9. The guide cylinder 10 is fixedly connected to the capture frame 4. The guide cylinder 10 can move up and down on the guide positioning cylinder 8 under the action of the guide block 9. The guide cylinder 10 and the limit frame 11 are fixedly connected to the capture frame 4, and the limit frame 11 is installed in the guide cylinder 10. The guide positioning cylinder 8, the guide cylinder 10 and the limit frame 11 are on the same axis. The limit block 12 is movably arranged on the limit frame 11. The diameter of the limit block 12 is larger than the diameter of the limit frame 11, and the diameter of the limit block 12 is smaller than the diameter of the guide cylinder 10, so that the limit frame 11 can prevent the limit block 12 from falling infinitely. The cone pin 13 is installed at the position where the cylinder coupling shaft 7 is connected to the upper end of the spring frame 14. The cone pin 13 is locked in the spring frame 14 through the U-shaped groove 20. The spring frame 14 is provided with a cylinder coupling shaft slot 141 passing through the spring frame.The other end of the cylinder coupling shaft 7 passes through the cylinder coupling shaft slot 141 and is connected to the spring frame 14. The upper end of the spring frame 14 passes through the capture frame 4 and extends into the limit frame 11. Because the spring frame 14 passes through the capture frame 4, when the pneumatic coupling shaft 7 moves up and down, the capture frame 4 can be driven to move up and down by the spring frame 14. The spring 15 is sleeved on the upper end of the spring frame 14. The ball groove 18 is set at the end where the cylinder coupling shaft 7 is connected to the spring frame 14. The ball screw 19 is set on the inner walls on both sides of the lower end of the spring frame 14. The U-shaped groove 20 is set at the upper end of the spring frame 14. One end of the cylinder coupling shaft 7 is connected to the cylinder 6. The cylinder coupling The other end of the shaft 7 passes through the guide positioning cylinder 8 and the limit block 12 in sequence. The cylinder coupling shaft 7 is locked in the U-shaped groove 20 through the cone pin 13 and passes through the cylinder coupling shaft slot 141 to connect with the spring frame 14. The ball groove 18 and the ball screw 19 are embedded, and the steel ball 191 can only slide in the ball groove 18, so that the spring frame 14 can only move up and down, and cannot shake left and right, thereby limiting the left and right shaking of the spring frame 14, thereby avoiding the capture frame 4 from being unhooked during movement. The bottom of the capture bag 3 is hoisted on the capture frame 4, and the opening of the capture bag 3 is movably connected to the fixing piece 102. The capture bag 3 can be connected to the fixing piece 102 by means of a drawstring, a clamp, etc.
[0021] A spring limit block 16 is provided on one side of the capture frame 4 close to the capture bag 3. The diameter of the spring limit block 16 is larger than the diameter of the spring 15, and the diameter of the spring limit block 16 is smaller than the diameter of the limit frame 11, so that the spring 15 is limited within the range of the spring limit block 16 without deviation. The capture bag 3 is an anti-static filter bag, the ball groove 18 is a nearly semicircular groove, and the ball screw 19 is a steel ball 191 facing the cylinder coupling shaft groove 141. The steel ball 191 moves up and down in the nearly semicircular ball groove 18 and cannot deviate left and right, thereby limiting the spring frame 14 to only move up and down, and the spring frame 14 will not deviate left and right due to shaking, thereby preventing the cone pin 13 from being unhooked in the spring frame 14.
[0022] like Figure 2 , 3As shown in , 4, and 5, before the equipment is operated, the pneumatic coupling shaft 7 is inserted into the spring frame 14, one end A of the cone pin 13 coincides with A", and the other end B of the cone pin 13 coincides with B", and the spring frame 14 is rotated, and the cone pin 13 moves in the U-shaped groove 20 opened in the spring frame 14, so that one end A of the cone pin 13 moves from A" to A'" and coincides with A', and the other end B of the cone pin 13 moves from B" to B'" and coincides with B', and the cone pin 13 is locked in the spring frame 14. When the material in the capture bag 3 is heavier, the capture frame 4 sinks under the action of gravity, driving the limit frame 11 to sink. At this time, there is a gap between the limit frame 11 and the limit block 12. If the capture rack 4 is shaken at this time, the cylinder 6 moves quickly. Under the action of inertia, the capture rack 4 does not move quickly for a moment. Due to the left and right shaking of the spring frame 14, one end A of the cone pin 13 shakes from A' to A'" position, and the other end B of the cone pin 13 shakes from B' to B''' position. When the cylinder 6 drives the cylinder connecting shaft 7 to move upward quickly, one end A of the cone pin 13 is pulled upward from A''' to A" position, and the other end B of the cone pin 13 is pulled upward from B''' to B'' position, and the cone pin 13 is unhooked from the spring frame 14, thereby unhooking from the capture rack 4, causing the capture rack 4 to fall, resulting in safety accidents and quality accidents.
[0023] A nearly semicircular ball groove 18 is provided at one end of the cylinder coupling shaft 7, and two symmetrical ball screws 19 are provided near the bottom of the spring frame 14. When the cone pin 13 locks the spring frame 14, the ball groove 18 and the ball screw 19 are engaged, and the steel ball 191 moves up and down in the nearly semicircular ball groove 18, which can limit the spring frame 14 to move up and down only along the pneumatic coupling shaft 7 at the position where the ball groove 18 is provided, and cannot swing left and right, thereby preventing the cone pin 13 from being decoupled from the spring frame 14 due to the swinging of the spring frame 14 during the movement, thereby decoupling the capture frame 4.
[0024] According to the above process, the spring frame can be prevented from shaking left and right, so that the cone pin is dislocated and separated from the groove in the spring frame, thereby preventing the capture frame from falling.
[0025] In summary, the anti-unhooking device of the micro powder machine capture frame has a simple structure. A pair of nearly semicircular ball grooves are processed at the position where the pneumatic connecting shaft contacts the spring frame, and a pair of ball screws are installed at the position where the inside of the spring frame contacts the pneumatic connecting shaft. The ball grooves and the ball screws are interlocked with each other to play a limiting role, preventing the spring frame from shaking left and right, causing the cone pin to be dislocated from the groove in the spring frame, and preventing the capture frame from falling.
[0026] It should be noted that the above is only a preferred embodiment of the utility model. For those skilled in the art, it is obvious that the utility model is not limited to the details of the above exemplary embodiments. Without departing from the spirit or basic features of the utility model, the utility model can be implemented in other specific forms. Therefore, no matter from which point of view, the embodiments should be regarded as exemplary and non-restrictive. The scope of the utility model is limited by the attached claims rather than the above description, and it is intended to include all changes within the meaning and scope of the equivalent elements of the claims in the utility model.
Claims
1. A device for preventing the micro powder machine from unhooking the collecting frame, characterized in that: The anti-unhooking device for the collecting frame of the micro powder machine comprises a hopper (1), a feed port (2), a collecting bag (3), a collecting frame (4), a collecting chamber (5), a cylinder (6), a cylinder connecting shaft (7), a guide positioning cylinder (8), a guide block (9), a guide cylinder (10), a limit frame (11), a limit block (12), a cone pin (13), a spring frame (14), a spring (15), an exhaust pipe (17), a ball groove position (18), a ball screw (19) and a U-shaped groove (20). The lower part of the hopper (1) is provided with a discharge port (101), and the upper side wall of the hopper (1) is provided with a fixing member (102). ), a feeding port (2) is provided on one side of the hopper (1) near the top, the top of the hopper (1) is connected to a collecting chamber (5), the top of the outside of the collecting chamber (5) is connected to a cylinder (6), one side of the collecting chamber (5) is connected to an exhaust pipe (17), the top of the collecting chamber (5) is connected to a guide positioning cylinder (8), the guide positioning cylinder (8) is connected to a guide cylinder (10) via a guide block (9), the guide cylinder (10) and a limiting frame (11) are fixedly connected to the collecting frame (4), the limiting frame (11) is installed in the guide cylinder (10), and the limiting block (12) is movably arranged in the limiting frame. The cone pin (13) is mounted on the position frame (11), the cone pin (13) is installed at the position where the cylinder connecting shaft (7) is connected to the upper end of the spring frame (14), the spring frame (14) is provided with a cylinder connecting shaft slot (141) passing through the spring frame, the upper end of the spring frame (14) passes through the capture frame (4) and extends into the limit frame (11), the spring (15) is sleeved on the upper end of the spring frame (14), the ball groove (18) is arranged at the end where the cylinder connecting shaft (7) is connected to the spring frame (14), the ball screw (19) is arranged on the inner walls of both sides of the lower end of the spring frame (14), and the U-shaped groove (20) is arranged The cylinder coupling shaft (7) is arranged at the upper end of the spring frame (14), one end of the cylinder coupling shaft (7) is connected to the cylinder (6), the other end of the cylinder coupling shaft (7) passes through the guide positioning cylinder (8) and the limit block (12) in sequence, the cylinder coupling shaft (7) is locked in the U-shaped groove (20) through the cone pin (13), the cylinder coupling shaft (7) passes through the cylinder coupling shaft groove (141) and is connected to the spring frame (14), the ball groove (18) and the ball screw (19) are engaged, the bottom of the capture bag (3) is hoisted on the capture frame (4), and the opening of the capture bag (3) is movably connected to the fixing member (102).
2. The anti-unhooking device for the micro powder machine collecting frame according to claim 1 is characterized in that: A spring stopper (16) is provided on one side of the capture frame (4) close to the capture bag (3); the diameter of the spring stopper (16) is greater than the diameter of the spring (15); and the diameter of the spring stopper (16) is smaller than the diameter of the stopper frame (11).
3. The anti-unhooking device for the micro powder machine collecting frame according to claim 2 is characterized in that: The capture bag (3) is an antistatic filter bag.
4. The anti-unhooking device for the micro powder machine collecting frame according to claim 3 is characterized in that: The ball bearing groove (18) is a nearly semicircular groove, and the ball bearing screw (19) is a steel ball (191) facing the cylinder connecting shaft groove (141).
5. The anti-unhooking device for the collecting frame of the micro powder machine according to claim 4, characterized in that: The diameter of the limit block (12) is greater than the diameter of the limit frame (11), and the diameter of the limit block (12) is smaller than the diameter of the guide cylinder (10).