Mining anchor rod production device

Abstract

The utility model relates to the field of mining part production equipment, in particular to a mining anchor rod production device which comprises a raw material placing assembly and a production assembly. A feeding transmission assembly; a cutting assembly; a reducing assembly; a thread rolling assembly; the transfer assembly comprises a first transverse moving component, a second transverse moving component and a third transverse moving component, the first transverse moving component is arranged between the cutting assembly and the diameter reducing assembly, and the second transverse moving component is arranged between the diameter reducing assembly and the thread rolling assembly; the first transverse moving component, the second transverse moving component and the third transverse moving component comprise transverse moving supports, transmission chain wheels, transmission chains and hooks. And a finished product storage assembly. By arranging the multiple working procedure assemblies, linkage among all working procedures is achieved, automation of anchor rod production is achieved, the labor cost is reduced, and the labor intensity of workers is relieved.

Description

Technical Field

[0001] The utility model relates to the field of production equipment for mining parts, in particular to a production device for mining bolts. Background Art

[0002] Bolts are the most basic components for roadway support in contemporary coal mines. They reinforce the surrounding rock of the roadway together, enabling the surrounding rock to support itself. Now, bolts are not only used in mines but also in engineering technologies for the main reinforcement of slopes, tunnels, and dams. As a tension member penetrating deep into the ground, one end of the bolt is connected to the engineering structure, and the other end penetrates deep into the ground. The whole bolt is divided into a free section and an anchorage section. The free section refers to the area that transmits the tension at the bolt head to the anchor body, and its function is to apply prestress to the bolt.

[0003] The production line for bolts contains equipment for multiple processes, and transfer is required between each process. In the prior art, manual transfer is often used for transfer, which is prone to increasing the risk of personnel operation and at the same time increasing personnel costs. Content of the Utility Model

[0004] The utility model provides a production device for mining bolts, which realizes the linkage between each process by setting multiple process components, realizes the automation of bolt production, reduces labor costs, reduces the labor intensity of personnel, and at the same time optimizes the transfer components between each process, reducing the floor area of the equipment.

[0005] To achieve the above object, the utility model provides a production device for mining bolts, including:

[0006] A raw material placement component;

[0007] A feeding transmission component, which is arranged on one side of the raw material placement component;

[0008] A cutting component, which is arranged at one end of the feeding transmission component;

[0009] A reducing diameter component, which is arranged on one side of the cutting component;

[0010] A thread rolling component, which is arranged on one side of the reducing diameter component, and the reducing diameter component is arranged between the thread rolling component and the cutting component;

[0011] Transfer component, the transfer component includes a first transverse movement member, a second transverse movement member and a third transverse movement member. The first transverse movement member is arranged between the cutting component and the diameter reduction component. The second transverse movement member is arranged between the diameter reduction component and the thread rolling component. The structures of the first transverse movement member, the second transverse movement member and the third transverse movement member are the same. The first transverse movement member includes a transverse movement bracket, a driving sprocket, a driving chain and a hook. Coaxial driving sprockets are arranged at both ends of the transverse movement bracket. Transmission between the driving sprockets is achieved through the driving chain. The hook is arranged on the driving chain.

[0012] Finished product storage component, the finished product storage component is arranged on one side of the thread rolling component. The third transverse movement member is arranged between the finished product storage component and the thread rolling component.

[0013] Furthermore, the raw material placement component includes a raw material placement rack, a raw material baffle and a raw material lifting component. The raw material baffle is provided with a discharge port. The raw material baffle is arranged at the discharge port. The raw material lifting component is arranged at the bottom of the discharge port near the raw material baffle. The raw material lifting component includes a top plate and a first lifting cylinder. The output end of the first lifting cylinder is connected to the top plate.

[0014] Furthermore, the feeding transmission component includes a feeding motor, a feeding rack, feeding grooved wheels and feeding sprockets. A plurality of feeding grooved wheels and a plurality of feeding sprockets are arranged on the feeding rack. The feeding grooved wheels are coaxially connected to the feeding sprockets. The feeding sprockets are connected to the feeding motor through a chain.

[0015] Furthermore, the cutting component includes a cutting machine, a cutting transport rack, a blocking component and an inclined cutting machine. The cutting transport rack includes a first transport rack, a second transport rack and a third transport rack. One end of the cutting machine is arranged at one end of the feeding rack. The other end of the cutting machine is provided with the first transport rack. One end of the first transport rack is provided with the second transport rack. One end of the second transport rack is provided with the third transport rack. The second transport rack is arranged between the first transport rack and the third transport rack. One end of the third transport rack is provided with the inclined cutting machine. The blocking component is arranged on the second transport rack near the first transport rack. The first transverse movement member is arranged on one side of the second transport rack.

[0016] Further, the diameter-reducing assembly includes a diameter-reducing machine and a diameter-reducing transport rack. The diameter-reducing transport rack includes a fourth transport rack, a fifth transport rack, and a sixth transport rack. The diameter-reducing machine is located at one end of the fourth transport rack. The other end of the fourth transport rack is provided with the fifth transport rack. One end of the fifth transport rack is provided with the sixth transport rack. The fifth transport rack is arranged between the fourth transport rack and the sixth transport rack. A first transverse movement member is arranged between the fifth transport rack and the second transport rack.

[0017] Further, the thread-rolling assembly includes a thread-rolling machine and a thread-rolling transport rack. The thread-rolling transport rack includes a seventh transport rack, an eighth transport rack, and a ninth transport rack. The thread-rolling machine is arranged at one end of the seventh transport rack. The other end of the seventh transport rack is provided with the eighth transport rack. One end of the ninth transport rack is provided with the eighth transport rack. One end of the eighth transport rack is provided with the ninth transport rack. A second transverse movement member is arranged between the fifth transport rack and the eighth transport rack.

[0018] Further, the finished product storage assembly includes a finished product storage rack. A third transverse movement member is arranged between the finished product storage rack and the eighth transport rack.

[0019] Further, motors are arranged on the first transport rack, the second transport rack, the third transport rack, the fourth transport rack, the fifth transport rack, the sixth transport rack, the seventh transport rack, the eighth transport rack, and the ninth transport rack. The transmission is realized by driving the chain through the motors. Guide plates are arranged on the fifth transport rack and the eighth transport rack.

[0020] Further, the mining bolt production device further includes a controller. The feeding transport assembly, the cutting assembly, the diameter-reducing assembly, the thread-rolling assembly, and the transfer assembly are all connected to the controller.

[0021] Further, the mining bolt production device further includes a finishing assembly. The finishing assembly is arranged on the finished product storage assembly. The finishing assembly includes a first clamping portion, a second clamping portion, and a lead screw member. The first clamping portion and the second clamping portion are connected by the lead screw member. The structures of the first clamping portion and the second clamping portion are the same. A transport channel is provided on the first clamping portion. A transport belt is arranged above the transport channel.

[0022] Compared with the prior art, a mining bolt production device according to an embodiment of the present invention realizes the automatic processing of bolts by setting a raw material placing component, a feeding transmission component, a cutting component, a reducing component, a thread rolling component, a transfer component and a finished product storage component. The transfer component includes a first transverse movement member, a second transverse movement member and a third transverse movement member, and the first transverse movement member, the second transverse movement member and the third transverse movement member have the same structure. By setting a transverse movement bracket, a driving sprocket, a driving chain and a hook, when the driving chain rotates, the hook rotates together with the driving chain, so as to hook the bolt of the previous process onto the transverse movement bracket through the hook. At the same time, the chain continues to rotate, so that the hook drives the bolt to fall onto the next process component, thereby reducing the floor area of the equipment, reducing the labor intensity of personnel and reducing the personnel cost. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 is a schematic diagram of the overall structure of a mining bolt production device of the present invention;

[0024] Figure 2 is a schematic diagram of the structure of the raw material placing component and the feeding transmission component of a mining bolt production device of the present invention;

[0025] Figure 3 is Figure 2 a partial enlarged view of area A in

[0026] Figure 4 is a schematic diagram of the structure in which the cutting component, the reducing component and the thread rolling component of a mining bolt production device of the present invention cooperate with each other;

[0027] Figure 5 is a schematic side view of the transverse movement component of a mining bolt production device of the present invention;

[0028] Figure 6 is Figure 5 a partial enlarged view of area B in

[0029] Figure 7 is a schematic top view of the transverse movement component of a mining bolt production device of the present invention;

[0030] Figure 8 is a schematic top view of the sorting component of a mining bolt production device of the present invention;

[0031] Figure 9 is a schematic cross-sectional view of the sorting component of a mining bolt production device of the present invention.

[0032] Reference numerals:

[0033] 1000. Raw material placing component; 1100. Raw material placing rack; 1200. Raw material baffle; 1300. First lifting cylinder; 1400. Top plate;

[0034] 2000. Feeding transmission component; 2100. Feeding rack; 2200. Feeding groove wheel; 2300. Feeding sprocket;

[0035] 3000. Cutting component; 3100. Cutting machine; 3200 First transmission rack; 3300. Blocking member; 3400. Second transmission member; 3500. Third transmission rack; 3600. Angle cutting machine;

[0036] 4000. Reducing diameter component; 4100. Reducing diameter machine; 4210. Fourth transmission rack; 4220. Fifth transmission rack; 4230. Sixth transmission rack;

[0037] 5000. Thread rolling component; 5100. Thread rolling machine; 5210. Seventh transmission rack; 5220. Eighth transmission rack; 5230. Ninth transmission rack;

[0038] 6000. Transfer component; 6100. First transverse movement member; 6200. Second transverse movement member; 6300. Third transverse movement member; 6400. Transverse movement support; 6500. Driving sprocket; 6600. Driving chain; 6700. Hook; 6800. Guide plate;

[0039] 7000. Finished product storage component; 7100. Guide rack; 7200. Storage rack;

[0040] 8000. Sorting component; 8100. First clamping part; 8200. Second clamping part; 8110. Transport channel; 8120. Transport belt; 8300. Lead screw component. Detailed implementation mode

[0041] To further understand the purpose, structure, features and functions of the present utility model, the following is a detailed description in conjunction with the embodiments.

[0042] As Figure 1-7 shown, a mining bolt production device provided by an embodiment of the present utility model includes: a raw material placing component 1000, a feeding transmission component 2000, a cutting component 3000, a reducing diameter component 4000, a thread rolling component 5000, a transfer component 6000 and a finished product storage component 7000. The transfer component 6000 includes a first transverse movement member 6100, a second transverse movement member 6200 and a third transverse movement member 6300;

[0043] The feeding and transferring assembly 2000 is arranged on one side of the raw material placing assembly 1000. A cutting assembly 3000 is arranged at one end of the feeding and transferring assembly 2000. A diameter-reducing assembly 4000 is arranged on one side of the cutting assembly 3000. A thread rolling assembly 5000 is arranged on one side of the diameter-reducing assembly 4000. A finished product storage assembly 7000 is arranged on one side of the thread rolling assembly 5000. A first transverse moving member 6100 is arranged between the cutting assembly 3000 and the diameter-reducing assembly 4000. A second transverse moving member 6200 is arranged between the diameter-reducing assembly 4000 and the thread rolling assembly 5000. A third transverse moving member 6300 is arranged between the finished product storage assembly 7000 and the thread rolling assembly 5000. The transferring assembly 6000 includes the first transverse moving member 6100, the second transverse moving member 6200 and the third transverse moving member 6300 with the same structure. The first transverse moving member 6100, the second transverse moving member 6200 and the third transverse moving member 6300 are all provided with transverse moving brackets 6400, driving sprockets 6500 and driving chains 6600;

[0044] Among them, when the mining bolt production device of the present invention produces bolts, the raw material iron rods are pre-placed on the raw material placing assembly 1000. After starting, the raw materials are transferred to the feeding and transferring assembly 2000 through the raw material placing assembly 1000, and the raw materials are transferred to the cutting assembly 3000 through the feeding and transferring assembly 2000. The raw materials are cut into a specified length by the cutting assembly 3000, and one end of the cut raw material is obliquely cut. After the raw material cutting and oblique cutting are completed, the cut and obliquely cut bolts are transferred to the diameter-reducing assembly 4000 through the first transverse moving member 6100. After the obliquely cut bolts are reduced in diameter by the diameter-reducing assembly 4000, they are then transferred to the thread rolling assembly 5000 by the second transverse moving member 6200. The bolts with reduced diameter are thread rolled by the thread rolling assembly 5000, and after the thread rolling is completed, they are transferred to the finished product storage assembly 7000 by the third transverse moving member 6300;

[0045] Among them, the first transverse moving member 6100, the second transverse moving member 6200 and the third transverse moving member 6300 have the same working principle. The working principle is: the motor drives the driving sprocket 6500 at one end of the transverse moving bracket 6400 to rotate, and the driving sprocket 6500 at the other end of the transverse moving bracket 6400 is connected to the driving sprocket 6600 at one end of the transverse moving bracket 6400 through the driving chain 6600 to achieve synchronous rotation. A hook 6700 is arranged on the driving sprocket 6600. When the driving sprocket 6600 rotates, the hook 6700 rotates with the driving chain 6600, so as to hook the bolts in the previous process onto the transverse moving bracket 6400. The transverse moving bracket 6400 has a certain slope, and the bolts move synchronously on the transverse moving bracket 6400 along with the movement of the hook 6700 until the bolts fall onto the next process.

[0046] Further, as Figure 2 andFigure 3 As shown in the figure, the raw material placement component 1000 includes a raw material placement rack 1100, a raw material baffle 1200, and a raw material lifting member. The raw material placement rack 1100 is provided with a discharge port. The raw material baffle 1200 is arranged at the discharge port. The raw material lifting member is arranged at the bottom of the discharge port near the raw material baffle 1200. Among them, the raw material lifting member includes a top plate 1400 and a first lifting cylinder 1300. The output end of the first lifting cylinder 1300 is connected to the top plate 1400. The raw materials are placed on the raw material placement rack 1100. The raw materials fall to the discharge port and are blocked by the raw material baffle 1200. When it is opened, the first lifting cylinder 1300 raises the top plate 1400, so that the top plate 1400 lifts the raw materials blocked by the raw material baffle 1200 at the discharge port, thereby enabling the raw materials to fall onto the feeding transmission component 2000.

[0047] Further, as Figure 2 and Figure 3 shown in the figure, the feeding transmission component 2000 includes a feeding motor, a feeding rack 2100, feeding grooved pulleys 2200, and feeding sprockets 2300. A plurality of feeding grooved pulleys 2200 and feeding sprockets 2300 are arranged on the feeding rack 2100. The feeding grooved pulleys 2200 and the feeding sprockets 2300 are coaxially connected. The feeding sprockets 2300 are connected to the feeding motor through a chain. The feeding motor controls the rotation of the feeding sprockets. The feeding sprockets 2300 drive the feeding grooved pulleys 2200 to rotate synchronously. The raw materials lifted by the raw material placement rack 1100 fall onto the feeding grooved pulleys 2200, so that the raw materials are driven by the feeding grooved pulleys 2200 to the cutting component 3000 for processing.

[0048] Further, as Figure 4As shown, the cutting assembly 3000 includes a cutting machine 3100, a cutting transport rack, a blocking member 3300, and an oblique cutting machine 3600. The cutting transport rack includes a first transport rack 3200, a second transport rack 3400, and a third transport rack 3500. One end of the cutting machine 3100 is disposed at one end of the feeding rack 2100, and the other end of the cutting machine 3100 is provided with the first transport rack 3200. One end of the first transport rack 3200 is provided with the second transport rack 3400. One end of the second transport rack 3400 is provided with the third transport rack 3500. The second transport rack 3400 is disposed between the first transport rack 3200 and the third transport rack 3500. One end of the third transport rack 3500 is provided with the oblique cutting machine 3600. The blocking member 3300 is disposed on the first transport rack 3200 near the second transport rack 3400. The first transverse movement member 6100 is disposed on one side of the second transport rack 3400. The raw material is transported through the feeding chute wheel 2200 of the feeding transport assembly 2000, such that the raw material passes through the cutting machine 3100, and one end of the raw material is on the first transport rack 3200. When the raw material reaches a specified length on the first transport rack 3200, the cutting machine 3100 operates to cut the raw material, and the cut raw material forms a bolt. At this time, the motors of the first transport rack 3200, the second transport rack 3400, and the third transport rack 3500 are rotated forward, such that one end of the cut bolt enters the oblique cutting machine 3600 for oblique cutting. After the oblique cutting is completed, the blocking member 3400 rises, and at the same time, the second transport rack 3400 and the third transport rack 3500 are rotated in reverse, such that the other end of the cut raw material contacts the blocking member 3300 and stops on the second transport rack 3400.

[0049] Further, as Figure 4 and Figure 7 shown, the diameter reducing assembly 4000 includes a diameter reducing machine 4100 and a diameter reducing transport rack. The diameter reducing transport rack includes a fourth transport rack 4210, a fifth transport rack 4220, and a sixth transport rack 4230. The diameter reducing machine 4100 is disposed at one end of the fourth transport rack 4210. The fifth transport rack 4220 is disposed at the other end of the fourth transport rack 4210. One end of the fifth transport rack 4220 is provided with the sixth transport rack 4230. The fifth transport rack 4220 is disposed between the fourth transport rack 4210 and the sixth transport rack 4220. After being cut and obliquely cut, the raw material stops on the second transport rack 3400 and is transferred to the fifth transport rack 4220 by the first transverse movement member 6100. At this time, the motors of the fourth transport rack 4210, the fifth transport rack 4220, and the sixth transport rack 4230 are rotated forward, and the bolt that has been cut and obliquely cut is sent into the diameter reducing machine 4100 for diameter reducing operation. After the diameter reducing is completed, the motors of the fourth transport rack 4210, the fifth transport rack 4220, and the sixth transport rack 4230 are rotated in reverse, such that the bolt after diameter reducing is transmitted to the fifth transport rack 4220 and the sixth transport rack 4230.

[0050] Further, as Figure 4, Figure 5 and Figure 7 As shown in Figure 5 and Figure 7 , the thread rolling assembly 5000 includes a thread rolling machine 5100 and a thread rolling transport rack. The thread rolling transport rack includes a seventh transport rack 5210, an eighth transport rack 5220, and a ninth transport rack 5230. The thread rolling machine 5100 is arranged at one end of the seventh transport rack 5210. The other end of the seventh transport rack 5210 is provided with the eighth transport rack 5220. One end of the eighth transport rack 5220 is provided with the ninth transport rack 5230. The eighth transport rack 5220 is arranged between the seventh transport rack 5210 and the ninth transport rack 5230. The reduced-diameter anchor stays on the fifth transport rack 4220 and the sixth transport rack 4230 and is transported to the eighth transport rack 5220 and the ninth transport rack 5230 by the second transverse movement member 6200. At this time, the motors on the seventh transport rack 5210, the eighth transport rack 5220, and the ninth transport rack 5230 rotate forward, so that the reduced-diameter anchor enters the thread rolling machine 5100 for the thread rolling process. After the thread rolling of the anchor is completed, the motors on the seventh transport rack 5210, the eighth transport rack 5220, and the ninth transport rack 5230 rotate in reverse, so that the thread-rolled anchor is transported to the eighth transport rack 5220 and the ninth transport rack 5230.

[0051] Further, as Figure 5 shown, the finished product storage assembly 7000 includes a finished product storage rack. A third transverse movement member 6300 is arranged between the finished product storage rack and the eighth transport rack 5220. The finished product storage rack includes a guide rack 7100 and a storage rack 7200. The guide rack 7100 is inclined towards the storage rack 7200 to facilitate the sliding of the finished product anchor from the guide rack 7100 to the storage rack 7200. When the thread rolling of the anchor is completed and all the processes are finished, it is transported to the guide rack 7100 by the third transverse movement member 6300, and the finished product anchor slides onto the storage rack 7200 according to the slope of the guide rack 7100.

[0052] Preferably, as Figure 6 and Figure 7As shown, the structures of the first transfer rack 3200, the second transfer rack 3400, the third transfer rack 3500, the fourth transfer rack 4210, the fifth transfer rack 4220, the sixth transfer rack 4230, the seventh transfer rack 5210, the eighth transfer rack 5220 and the ninth transfer rack 5230 are the same, and each is provided with a driving motor, a chain and a transport runner. The transport runner is connected to the driving motor through the chain, and the fifth transfer rack 4220 and the eighth transfer rack 5220 are provided with a guide plate 6800. The guide plate 6800 has the function of guiding the anchor rod to fall, so that the guide plate 6800 can better cooperate with the transfer work of the first transverse movement member 6100 and the second transverse movement member 6200. The driving motor can rotate forward and backward, so that the anchor rod advances and retreats on the transport sheave, thereby realizing the processing and transfer of the anchor rod. At the same time, when the first transverse movement member 6100 is transferred to the fifth transfer rack 4220, the anchor rod to be processed is hooked by the hook 6700 and driven to rotate onto the guide plate 6800. The guide plate 6800 has a certain slope, so that the anchor rod to be processed falls on the transport sheave of the fifth transfer rack 5220 according to the slope. Similarly, the second transverse movement member 6200 transfers the anchor rod to be processed on the fifth transfer rack 4220 to the eighth transfer rack 5220, and the guide plate 6800 can better improve the transfer of the anchor rod.

[0053] Furthermore, the mine bolt production device further includes a controller, and the feeding transfer assembly 2000, the cutting assembly 3000, the reducing assembly 4000, the thread rolling assembly 5000 and the transfer assembly 6000 are all connected to the controller. The controller includes a PLC controller, and the PLC controller is pre-programmed with a process program, and the control components of each process are connected into the PLC controller. For example, the PLC controller is connected to the first lifting cylinder 1300, the feeding motor, the driving motor, the cutting machine 3100, the bevel cutting machine 3600, the reducing machine 4100 and the thread rolling machine 5100, so as to control the continuous operation of each process.

[0054] Furthermore, as Figure 5 , Figure 8 and Figure 9As shown in the figure, the production device for mining bolts further includes a sorting assembly 8000. The sorting assembly 8000 is arranged on the finished product storage assembly 7000. The sorting assembly 8000 includes a first clamping part 8100, a second clamping part 8200, and a screw rod member 8300. The first clamping part 8100 is connected to the second clamping part 8200 through the screw rod member 8300, and the structures of the first clamping part 8100 and the second clamping part 8200 are the same. The first clamping part 8100 is provided with a transport channel 8110, and a transport belt 8120 is arranged above the transport channel 8110. After the bolts are processed, they are transported to the finished product storage rack by the third transverse movement member 6300. Multiple bolts falling into the finished product storage rack are staggered, which causes problems in subsequent packaging. Usually, manual labor is used to solve the problem of bolt position staggering. Now, by setting the sorting assembly 8000 to replace manual arrangement, it provides convenience for subsequent bolt packaging.

[0055] Among them, the sorting assembly 8000 is arranged on the storage rack 7200. The finished bolts slide from the guiding rack 7100 to the storage rack 7200 and reach the first clamping part 8100 and the second clamping part 8200. The end of the finished bolt with rolled threads faces the first clamping part 8100. Among them, the first clamping part 8100 is in a fixed state, and then the distance between the first clamping part 8100 and the second clamping part 8200 is adjusted by adjusting the screw rod member 8300 to conform to the length of the bolt. The overlapping bolts on the storage rack 7200 touch the transport channels 8120 of the first clamping part 8100 and the second clamping part 8200. The transport channels 8120 block the overlapping bolts, so that single bolts enter the transport channels 8120 in sequence. And the transport belt 8120 located in the transport channels 8120 is started, so as to adjust the position of the bolts on the storage rack 7200, making the bolts horizontally perpendicular to the storage rack. The transport belt 8120 contacts the bolts and transports them into the storage rack 7200 until the bolts are transported to the packaging area.

[0056] In the description of the present invention, it should be understood that the terms "longitudinal", "transverse", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer" orientation or position relationship are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation to the present invention.

[0057] The present invention has been described by the above related embodiments. However, the above embodiments are only examples for implementing the present invention. It must be pointed out that the disclosed embodiments do not limit the scope of the present invention. On the contrary, modifications and refinements made without departing from the spirit and scope of the present invention all fall within the scope of patent protection of the present invention.

Claims

1. A mining anchor production device, characterized in that: include: Raw material placement component; A feed transmission component, the feed transmission component is arranged on one side of the raw material placement component; A cutting assembly, the cutting assembly being arranged at one end of the feed transmission assembly; A diameter reducing component, wherein the diameter reducing component is arranged on one side of the cutting component; A thread rolling assembly, wherein the thread rolling assembly is arranged on one side of the diameter reducing assembly, and the diameter reducing assembly is arranged between the thread rolling assembly and the cutting assembly; A transfer assembly, wherein the transfer assembly comprises a first transverse member, a second transverse member and a third transverse member, wherein the first transverse member is arranged between the cutting assembly and the reducing assembly, and the second transverse member is arranged between the reducing assembly and the thread rolling assembly, and the first transverse member, the second transverse member and the third transverse member have the same structure, and the first transverse member comprises a transverse bracket, a transmission sprocket, a transmission chain and a hook, coaxial transmission sprockets are arranged at both ends of the transverse bracket, transmission is realized between the transmission sprockets through the transmission chain, and the hook is arranged on the transmission chain; A finished product storage assembly is provided at one side of the thread rolling assembly, and the third transverse member is provided between the finished product storage assembly and the thread rolling assembly.

2. The mining anchor production device according to claim 1, characterized in that: The raw material placement assembly includes a raw material placement rack, a raw material baffle and a raw material lifting component. The raw material placement rack is provided with a discharge port, the raw material baffle is arranged at the discharge port, the raw material lifting component is arranged at the bottom of the discharge port close to the raw material baffle, the raw material lifting component includes a top plate and a first lifting cylinder, and the output end of the first lifting cylinder is connected to the top plate.

3. The mining anchor production device according to claim 1, characterized in that: The feed transmission assembly includes a feed motor, a feed frame, a feed groove wheel and a feed sprocket. A plurality of feed groove wheels and a plurality of feed sprockets are arranged on the feed frame. The feed groove wheel is coaxially connected to the feed sprocket, and the feed sprocket is connected to the feed motor through a chain.

4. The mining bolt production device according to claim 3, characterized in that: The cutting assembly includes a cutting machine, a cutting transport frame, a blocking member and a beveling machine, the cutting transport frame includes a first transmission frame, a second transmission frame and a third transmission frame, one end of the cutting machine is arranged at one end of the feeding frame, the first transmission frame is arranged at the other end of the cutting machine, the second transmission frame is arranged at one end of the first transmission frame, the third transmission frame is arranged at one end of the second transmission frame, the second transmission frame is arranged between the first transmission frame and the third transmission frame, the beveling machine is arranged at one end of the third transmission frame, the blocking member is arranged on the first transmission frame close to the second transmission frame, and the first transverse member is arranged at one side of the second transmission frame.

5. The mining anchor production device according to claim 4, characterized in that: The reducing assembly includes a reducing machine and a reducing transport frame, the reducing transport frame includes a fourth transport frame, a fifth transport frame and a sixth transport frame, the reducing machine is located at one end of the fourth transport frame, the fifth transport frame is arranged at the other end of the fourth transport frame, the sixth transport frame is arranged at one end of the fifth transport frame, the fifth transport frame is arranged between the fourth transport frame and the sixth transport frame, and a first transverse moving member is arranged between the fifth transport frame and the second transport frame.

6. The mining anchor production device according to claim 5, characterized in that: The thread rolling assembly includes a thread rolling machine and a thread rolling transport frame, the thread rolling transport frame includes a seventh transport frame, an eighth transport frame and a ninth transport frame, the thread rolling machine is arranged at one end of the seventh transport frame, the eighth transport frame is arranged at the other end of the seventh transport frame, the ninth transport frame is arranged at one end of the eighth transport frame, and a second transverse moving member is arranged between the fifth transport frame and the eighth transport frame.

7. The mining bolt production device according to claim 6, characterized in that: The finished product storage assembly includes a finished product storage rack, and a third transverse movement member is arranged between the finished product storage rack and the eighth transfer rack.

8. The mining bolt production device according to claim 7, characterized in that: The first transmission frame, the second transmission frame, the third transmission frame, the fourth transmission frame, the fifth transmission frame, the sixth transmission frame, the seventh transmission frame, the eighth transmission frame and the ninth transmission frame are all provided with motors, and the transmission is realized by chains driven by the motors, and the fifth transmission frame and the eighth transmission frame are provided with guide plates.

9. The mining bolt production device according to claim 1, characterized in that: It also includes a controller, and the feed transmission component, the cutting component, the diameter reduction component, the thread rolling component and the transfer component are all connected to the controller.

10. The mining bolt production device according to claim 7, characterized in that: It also includes a sorting component, which is arranged on the finished product storage component. The sorting component includes a first clamping part, a second clamping part and a screw component. The first clamping part and the second clamping part are connected by the screw component. The first clamping part and the second clamping part have the same structure. The first clamping part is provided with a transport channel, and a transport belt is arranged above the transport channel.

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