An ultra-thin bamboo sheet processing equipment capable of processing multiple bamboo tubes simultaneously

Abstract

The application discloses a kind of ultra-thin bamboo sheet processing equipment capable of simultaneously processing multiple bamboo tubes, and relates to the technical field of bamboo processing equipment, comprising a rack, an annular guide rail is installed on the top of the rack;Assembly plate is vertically spaced along the profile of annular guide rail;Cutter is arranged on the outer side of each assembly plate;Cutter adjusting assembly is arranged between cutter and assembly plate, for adjusting the angle of cutter planing;First power assembly is installed on the top of the rack, and is connected with assembly plate, for driving cutter reciprocating motion on annular guide rail;Carrying frame body is arranged on the length direction outside of annular guide rail;The application realizes simultaneous processing of two bamboo tubes by the cooperation of double-row discharging cylinder and material receiving module, and realizes full-automatic continuous operation by cooperating with discharging control assembly and discharging conveying mechanism.

Description

Technical Field

[0001] This invention relates to the field of bamboo processing equipment technology, specifically to an ultra-thin bamboo strip processing equipment that can process multiple bamboo tubes simultaneously. Background Technology

[0002] In the bamboo processing industry, slicing bamboo tubes into ultra-thin bamboo strips is a crucial basic process in bamboo product manufacturing, widely used in the production of bamboo flooring, bamboo plywood, bamboo handicrafts, and other products. Currently, existing bamboo tube slicing equipment mainly includes two types: push-type slicing machines and single-station slicing machines. Push-type slicing machines typically use a fixed cutter head and axially push the bamboo tubes into the cutter head equipped with ring-shaped blades for one-time slicing. Single-station slicing machines use a single cutter to slice each bamboo tube individually. Additionally, some equipment uses slicing devices on both sides of the conveyor rollers to process multiple bamboo strips at once. Regarding feeding methods, existing equipment mostly uses manual or semi-automatic feeding, with operators placing the bamboo tubes one by one at the processing station. While these devices meet the basic needs of bamboo slicing to some extent, overall they still operate in a single-station, low-efficiency processing mode.

[0003] However, in actual production, the existing bamboo tube slicing equipment suffers from several drawbacks. First, most existing equipment can only process individual bamboo tubes one by one. After slicing one bamboo tube, the blades must wait for the next bamboo tube to be in place before continuing to work, resulting in low blade utilization and severely limiting the equipment's processing efficiency. Second, the existing equipment lacks effective coordination between the blades and processes such as feeding and receiving, making it difficult to achieve fully automated continuous operation from feeding and slicing to discharging. Consequently, the overall production efficiency of the equipment cannot meet the needs of large-scale industrial production. Summary of the Invention

[0004] The purpose of this invention is to provide an ultra-thin bamboo slicing equipment that can process multiple bamboo tubes simultaneously, in order to solve the technical problems of existing bamboo tube slicing equipment being unable to process multiple bamboo tubes at the same time, resulting in low automation and low production efficiency.

[0005] To achieve the above objectives, the present invention provides the following technical solution: an ultra-thin bamboo strip processing equipment capable of processing multiple bamboo tubes simultaneously, comprising a frame with an annular guide rail mounted on its top;

[0006] The assembly plates are vertically spaced along the contour of the annular guide rail;

[0007] The cutting tools are positioned on the outer sides of each assembly plate, one above the other.

[0008] A tool adjustment assembly is disposed between the tool and the mounting plate for adjusting the cutting angle of the tool;

[0009] The first power assembly is installed on the top of the frame and is connected to the mounting plate to drive the cutting tool to reciprocate on the annular guide rail.

[0010] The support frame is located on the outer side of the annular guide rail along its length.

[0011] The feeding components are installed on the support frame and distributed at intervals. Each feeding component includes two hollow feeding cylinders. The bottom of the feeding cylinder is provided with a discharge control component for controlling the bamboo tubes inside the feeding cylinder to fall one by one.

[0012] A receiving assembly is located below the feeding assembly, and includes multiple receiving modules, each of which is correspondingly disposed below the discharge port of the feeding cylinder;

[0013] The second power assembly is installed between the receiving assembly and the support frame, giving the receiving module a receiving position and a slicing position. In the receiving position, the receiving module rotates upward to the outlet of the feeding cylinder to receive the bamboo tube falling from the feeding cylinder. In the slicing position, the receiving module rotates to the horizontal direction to deliver the received bamboo tube to the slicing path of the blade.

[0014] Furthermore, a vertical positioning plate is installed on the top of the frame, and there are two annular guide rails, both of which are elliptical guide rails. The annular guide rails are fixedly installed on the positioning plate, and a set of guide wheels distributed vertically is provided on the side of the assembly plate near the annular guide rail. Each set of guide wheels is distributed in two layers, and the guide wheels can be rolled and engaged on the annular guide rail.

[0015] Furthermore, the tool adjustment assembly consists of a first mounting plate, a first lead screw, a sliding block, a linkage plate, an adjustment plate, a first locking plate, a second locking plate, and a locking element. The first mounting plate is disposed on the outer wall of the assembly plate. The sliding block is slidably connected to the first mounting plate via two guide rails mounted on the first mounting plate. A ball nut is installed inside the sliding block, and the first lead screw passes through the ball nut and is rotatably connected to the sliding block.

[0016] Furthermore, one end of the adjusting plate is rotatably connected to the first mounting plate, and both ends of the linkage plate are rotatably connected to the outer side wall of the other end of the adjusting plate and the side wall of the sliding block, respectively. The first locking plate is movably embedded in the top of the adjusting plate, and the cutter is located between the first locking plate and the second locking plate. The cutter head extends out of the first locking plate and the second locking plate, drives the first lead screw to rotate, and the sliding block moves and drives the adjusting plate to rotate, so as to adjust the cutting angle of the cutter.

[0017] The first locking plate, the second locking plate, the cutter, and the adjusting plate each have corresponding through holes, each of which is an elliptical hole. A threaded post is provided in each through hole. The first locking plate, the second locking plate, and the cutter are locked to the adjusting plate by a nut. The top of the adjusting plate is provided with a dovetail groove, and the bottom of the first locking plate slides in conjunction with the dovetail groove. The locking member is provided on the back of the adjusting plate. By loosening the nut on the threaded post and rotating the locking member, the first locking plate, the cutter, and the second locking plate move along the dovetail groove on the adjusting plate to control the cutting extension of the cutter.

[0018] Furthermore, the first power assembly includes a chain drive assembly, which includes a driving sprocket, a driven sprocket, and a first chain. The driving sprocket and the driven sprocket are respectively disposed on the top of the frame and within the area enclosed by the annular guide rail. The first chain is arranged around the annular guide rail. The mounting plate is connected to the first chain. The driving sprocket is driven to rotate by a first drive motor, and the first chain drives multiple cutting tools to move along the annular guide rail.

[0019] Furthermore, the longitudinal section profile of the feeding cylinder is an inverted "Y" shape. The discharge control component includes a first pneumatic component and a baffle plate. The first pneumatic component is installed on the outer wall of the "Y" shape of the feeding cylinder. A baffle hole is provided on the side wall of the lower merging section of the "Y" shape of the feeding cylinder. The baffle plate is installed at the piston rod end of the first pneumatic component and can extend into or out of the baffle hole to control the bamboo tubes to fall one by one.

[0020] Furthermore, the receiving module includes a rotating seat, a receiving seat, a displacement adjustment mechanism, and a clamping mechanism. A rotating shaft is installed inside the rotating seat, and both ends of the rotating shaft are rotatably connected to the support frame. Two receiving seats are symmetrically installed on the rotating seat. The top of the receiving seat is provided with a "V"-shaped receiving groove for receiving bamboo tubes coming out of the feeding cylinder.

[0021] The second power assembly consists of a first sprocket, a second sprocket, a second chain, and a second drive motor. The first sprocket is connected to one end of the rotating shaft. The second drive motor is mounted on the support frame, and its output shaft end is connected to the second sprocket via a coupling. The second drive motor drives the first sprocket to rotate via the second chain, thereby driving the receiving seat to rotate between the receiving position and the planing position.

[0022] Furthermore, the displacement adjustment mechanism consists of a second lead screw, a displacement plate, and a third drive motor. The third drive motor is mounted on the rotary seat, and its output end is connected to the second lead screw via a coupling. The displacement plate is movably mounted on the second lead screw via a ball screw. The receiving seat is mounted on the top of the displacement plate. The height position of the receiving seat or the cutting position of the cutter relative to the bamboo tube is adjusted by the displacement adjustment mechanism.

[0023] Furthermore, the clamping mechanism consists of a clamping plate and a second pneumatic component. The second pneumatic component is installed inside the receiving seat, with its piston rod facing one side of the receiving groove. One side of the receiving seat does not have a side plate, and the clamping plate is located on the side of the receiving seat without a side plate. The end of the piston rod of the second pneumatic component is connected to the clamping plate.

[0024] Furthermore, it also includes a discharge conveying mechanism for receiving and transporting the sliced ​​bamboo strips. The discharge conveying mechanism is located on both sides of the frame and below the annular guide rail. The discharge conveying mechanism consists of a guide plate and a belt conveyor. Both the guide plate and the belt conveyor are arranged along the long straight section of the annular guide rail. The guide plate is located above the belt conveyor and is inclined. The sliced ​​bamboo strips slide from the guide plate onto the belt conveyor.

[0025] Compared with existing technologies, the present invention provides an ultra-thin bamboo slicing equipment capable of processing multiple bamboo tubes simultaneously. Through a ring-shaped guide rail and multiple blades spaced apart along the guide rail's extension direction, the blades can continuously reciprocate on the ring-shaped guide rail, achieving continuous slicing of the bamboo tubes. Simultaneously, by setting multiple feeding cylinders arranged in two rows spaced apart on the outer side of the ring-shaped guide rail, and positioning receiving modules below the outlets of adjacent feeding cylinders, the receiving modules can simultaneously receive two bamboo tubes and rotate them to the slicing path. Combined with the continuous movement of multiple blades along the ring-shaped guide rail, simultaneous slicing of two bamboo tubes is achieved, effectively improving blade utilization and enhancing the overall efficiency of bamboo tube slicing.

[0026] Furthermore, each feeding cylinder in the equipment is equipped with a discharge control component at its bottom, which enables the bamboo cylinders to fall automatically one by one, avoiding the problems of high labor intensity, random feeding angle, and material jamming caused by manual feeding of bamboo cylinders one by one. Through the automatic rotation switching between the receiving module and the slicing position, and the automatic clamping and releasing of the bamboo cylinders by the clamping mechanism in the receiving module, combined with the automatic receiving and conveying of the sliced ​​bamboo pieces by the discharge conveying mechanism, the entire equipment can complete the continuous operation from automatic feeding, automatic receiving, synchronous slicing to automatic discharge, reducing manual intervention and lowering the safety risk of operators' hands approaching the cutting tool area. Attached Figure Description

[0027] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in this invention. For those skilled in the art, other drawings can be obtained based on these drawings.

[0028] Figure 1 A schematic diagram of the overall structure of the ultra-thin bamboo strip processing equipment capable of processing multiple bamboo tubes simultaneously, provided in an embodiment of the present invention.

[0029] Figure 2 This is a schematic diagram of the structure of components such as the frame and the first power assembly provided in an embodiment of the present invention;

[0030] Figure 3 This is a schematic diagram of the structure of components such as the assembly plate and the tool assembly provided in an embodiment of the present invention;

[0031] Figure 4 This is a schematic diagram of the structure of components such as the adjusting plate and the sliding block provided in an embodiment of the present invention;

[0032] Figure 5 This is a schematic diagram of the disassembled structure of the cutting tool and the first locking plate, etc., provided in an embodiment of the present invention;

[0033] Figure 6 This is a schematic diagram of the structure of components such as the feeding cylinder and feeding assembly provided in an embodiment of the present invention;

[0034] Figure 7 This is a schematic diagram of the receiving assembly in the receiving position according to an embodiment of the present invention;

[0035] Figure 8 This is a schematic diagram of the receiving assembly in the planing position according to an embodiment of the present invention;

[0036] Figure 9 This is a schematic diagram of the structure of components such as the receiving assembly and the second power assembly provided in an embodiment of the present invention.

[0037] Explanation of reference numerals in the attached figures:

[0038] 1. Frame; 2. Circular guide rail; 3. Assembly plate; 4. Cutting tool; 5. Support frame; 6. Feed cylinder; 7. Bamboo tube; 8. Positioning plate; 9. Guide wheel assembly; 10. First mounting plate; 11. First lead screw; 12. Sliding block; 13. Linkage plate; 14. Adjusting plate; 15. First locking plate; 16. Second locking plate; 17. Locking component; 18. Through hole; 19. Threaded post; 20. Dovetail groove; 21. Drive sprocket; 22. Driven sprocket; 23. 24. First chain; 25. First drive motor; 26. First pneumatic component; 27. Baffle plate; 28. Baffle hole; 29. ​​Rotary seat; 30. Receiving seat; 31. Rotary shaft; 32. Receiving groove; 33. First sprocket; 34. Second sprocket; 35. Second chain; 36. Second drive motor; 37. Second lead screw; 38. Displacement plate; 39. Third drive motor; 40. Clamping plate; 41. Second pneumatic component; 42. Guide plate; 43. Belt conveyor. Detailed Implementation

[0039] To enable those skilled in the art to better understand the technical solution of the present invention, the present invention will be further described in detail below with reference to the accompanying drawings.

[0040] As attached Figure 1 To be continued Figure 9 As shown:

[0041] Example 1:

[0042] This invention provides an ultra-thin bamboo strip processing device that can process multiple bamboo tubes simultaneously, including a frame 1, an annular guide rail 2, an assembly plate 3, a cutting tool 4, a cutting tool adjustment assembly, a first power assembly, a support frame 5, a feeding assembly, a receiving assembly, a second power assembly, and a discharge conveying mechanism.

[0043] As attached Figure 1 and attached Figure 2 As shown, the frame 1 serves as the supporting structure for the entire equipment, with an annular guide rail 2 mounted on its top. The frame 1 is a welded steel frame structure, possessing sufficient structural strength and rigidity to support and secure the various functional components. A vertical positioning plate 8 is mounted on the top of the frame 1; the positioning plate 8 is a vertically positioned plate-like structure fixedly connected to the upper surface of the frame 1. The annular guide rail 2 is fixedly mounted on the positioning plate 8. There are two annular guide rails 2, both elliptical, arranged parallel to each other on the positioning plate 8. Each annular guide rail 2 is a closed elliptical track, comprising two oppositely arranged long straight sections and two arc-shaped sections connected to the ends of the two long straight sections. By setting two annular guide rails 2, the stability of the subsequent assembly plate 3 and the cutter 4 during movement is improved, allowing the cutter 4 to maintain a constant movement posture, thereby ensuring consistent slicing quality.

[0044] As attached Figure 2 and attached Figure 3 As shown, the assembly plates 3 are vertically spaced along the contour of the annular guide rail 2. Specifically, the assembly plates 3 are vertically arranged plate-like components, and multiple assembly plates 3 are evenly spaced along the extension direction of the annular guide rail 2. A set of guide wheels 9, arranged vertically, is provided on the side of the assembly plate 3 closest to the annular guide rail 2. Each set of guide wheels 9 consists of multiple guide wheels, and each set of guide wheels 9 is arranged in two layers, that is, each assembly plate 3 has two sets of guide wheels 9, located at the upper and lower ends of the assembly plate 3 respectively. The guide wheels 9 are rotatably engaged with the annular guide rail 2, that is, the guide wheels in the guide wheels 9 are embedded in the track groove of the annular guide rail 2 and can roll along the track groove. Through the rolling engagement of the guide wheels 9 and the annular guide rail 2, the assembly plate 3 can stably reciprocate along the contour of the annular guide rail 2. This rolling engagement helps to reduce frictional resistance during movement and reduce energy loss.

[0045] As attached Figure 3 and attached Figure 4 As shown, the cutting tools 4 are arranged vertically on the outer side of each assembly plate 3. Specifically, two cutting tools 4 are installed on the outer wall of each assembly plate 3 (i.e., the wall away from the annular guide rail 2), with the two cutting tools 4 arranged vertically at intervals. The cutting edges of the two cutting tools 4 face the direction of movement of the first chain 23. Multiple assembly plates 3 are distributed along the annular guide rail 2, so that the multiple cutting tools 4 are distributed in two rows along the extension direction of the annular guide rail 2, with the upper row of cutting tools 4 corresponding to the lower row of cutting tools 4. When the bamboo tube 7 is fed between the upper and lower rows of cutting tools 4, the upper and lower rows of cutting tools 4 simultaneously cut into the bamboo tube 7 from one side, splitting the bamboo tube 7 in two along its axial direction. By setting two cutting tools 4 on each assembly plate 3, with the upper and lower rows of cutting tools corresponding to each other, two bamboo tubes 7 can be planed simultaneously, which helps to increase the processing output per unit time of the equipment.

[0046] As attached Figure 3 Appendix Figure 4 and attached Figure 5 As shown, the tool adjustment assembly is located between the tool 4 and the mounting plate 3, and is used to adjust the planing angle of the tool 4. The tool adjustment assembly consists of a first mounting plate 10, a first lead screw 11, a sliding block 12, a linkage plate 13, an adjustment plate 14, a first locking plate 15, a second locking plate 16, and a locking element 17.

[0047] The first mounting plate 10 is disposed on the outer wall of the assembly plate 3. The first mounting plate 10 is a flat plate structure and is fixedly connected to the outer side of the assembly plate 3 by bolts. Two parallel guide rails are fixedly mounted on the first mounting plate 10, and the two guide rails extend vertically. The sliding block 12 is slidably connected to the first mounting plate 10 through the two guide rails mounted on the first mounting plate 10. That is, the back of the sliding block 12 is provided with a slider structure that cooperates with the guide rails, and the sliding block 12 can slide vertically along the guide rails. A ball nut (not shown in the figure) is installed inside the sliding block 12. The first lead screw 11 passes through the ball nut and is rotatably connected to the sliding block 12. Specifically, the first lead screw 11 is arranged vertically, and it forms a lead screw-nut transmission engagement with the sliding block 12 through the ball nut. When the first lead screw 11 rotates, the sliding block 12 moves up and down along the guide rail under the drive of the ball nut. A knob or a drive source can be provided at the top or bottom of the first lead screw 11 so that the operator can rotate the first lead screw 11.

[0048] One end of the adjusting plate 14 is rotatably connected to the first mounting plate 10. Specifically, the lower end of the adjusting plate 14 is hinged to the lower part of the first mounting plate 10 via a pin, allowing the upper end of the adjusting plate 14 to swing around the pin. Both ends of the linkage plate 13 are rotatably connected to the outer wall of the other end of the adjusting plate 14 and the side wall of the sliding block 12, respectively. That is, one end of the linkage plate 13 is hinged to the upper outer wall of the adjusting plate 14 via a pin, and the other end of the linkage plate 13 is hinged to the side wall of the sliding block 12 via a pin. When the sliding block 12 moves up and down along the guide rail, the sliding block 12 drives the upper end of the adjusting plate 14 to swing around the pin at the lower end of the adjusting plate 14 via the linkage plate 13, thereby changing the tilt angle of the adjusting plate 14 relative to the vertical direction.

[0049] The first locking plate 15 is movably embedded in the top of the adjusting plate 14. Specifically, the top of the adjusting plate 14 is provided with a dovetail groove 20, and the bottom of the first locking plate 15 slides in conjunction with the dovetail groove 20, that is, the bottom of the first locking plate 15 is provided with a dovetail-shaped protrusion that matches the dovetail groove 20, and the first locking plate 15 can slide horizontally along the dovetail groove 20. The second locking plate 16 is disposed on the opposite side of the first locking plate 15. The cutting tool 4 is located between the first locking plate 15 and the second locking plate 16, and the cutting head extends out of the first locking plate 15 and the second locking plate 16. The first locking plate 15 and the second locking plate 16 work together to clamp and fix the cutting tool 4 between them.

[0050] The first locking plate 15, the second locking plate 16, the cutter 4, and the adjusting plate 14 each have corresponding through holes 18. Each through hole 18 is elliptical. A threaded post 19 is installed within each through hole 18, passing sequentially through the through holes 18 on the first locking plate 15, the cutter 4, the second locking plate 16, and the adjusting plate 14. Nuts are used to lock the first locking plate 15, the second locking plate 16, and the cutter 4 onto the adjusting plate 14. Because the through holes 18 are elliptical, the threaded post 19 has a certain amount of room to move within them, allowing the first locking plate 15, the cutter 4, and the second locking plate 16 to move relative to the adjusting plate 14 within a certain range. A locking element 17, which is an adjusting screw or an adjusting knob, is located on the back of the adjusting plate 14 and is used to drive the first locking plate 15 to slide along the dovetail groove 20.

[0051] When it is necessary to adjust the planing angle of the cutter 4, the first lead screw 11 is rotated, and the sliding block 12 moves along the guide rail. This causes the adjusting plate 14 to swing through the linkage plate 13. The adjusting plate 14 then causes the first locking plate 15, the second locking plate 16, and the cutter 4 to swing synchronously, thereby adjusting the planing angle of the cutter 4 (i.e., the angle between the cutting edge of the cutter 4 and the horizontal plane). Through the above structure, the operator can flexibly adjust the planing angle of the cutter 4 according to parameters such as the diameter of the bamboo tube 7, the wall thickness, and the required thickness of the bamboo strips, which is beneficial to improving the processing adaptability and planing effect of the equipment.

[0052] When it is necessary to adjust the cutting extension of the blade 4 (i.e., the length of the blade extending beyond the first locking plate 15 and the second locking plate 16), loosen the nut on the threaded post 19 and rotate the locking member 17. The locking member 17 drives the first locking plate 15 to slide along the dovetail groove 20 at the top of the adjusting plate 14. Since the blade 4 and the second locking plate 16 are connected to the first locking plate 15 through the threaded post 19, the first locking plate 15 drives the blade 4 and the second locking plate 16 to move synchronously along the dovetail groove 20, thereby changing the length of the blade extending beyond the first locking plate 15 and the second locking plate 16, that is, adjusting the cutting extension of the blade 4. After adjustment, tighten the nut to relock the first locking plate 15, the second locking plate 16, and the blade 4 onto the adjusting plate 14. By adjusting the cutting extension of the blade 4, the cutting depth of the blade 4 into the bamboo tube 7 can be controlled to adapt to the cutting requirements of bamboo tubes 7 with different diameters, which helps to ensure that the bamboo strips after cutting have a uniform thickness.

[0053] As attached Figure 2 As shown, the first power assembly is mounted on the top of the frame 1 and connected to the mounting plate 3, used to drive the tool 4 to reciprocate on the annular guide rail 2. The first power assembly includes a chain drive assembly, which includes a driving sprocket 21, a driven sprocket 22, and a first chain 23. The driving sprocket 21 and the driven sprocket 22 are respectively located on the top of the frame 1 and within the area enclosed by the annular guide rail 2.

[0054] Specifically, the driving sprocket 21 is located inside one arc-shaped segment of the annular guide rail 2, and the driven sprocket 22 is located inside the other arc-shaped segment of the annular guide rail 2. The first chain 23 is arranged around the annular guide rail 2, that is, the first chain 23 is arranged around the annular guide rail 2 along its contour. The mounting plate 3 is connected to the first chain 23. Specifically, the inner sidewall of each mounting plate 3 is fixedly connected to the link of the first chain 23 through a connector. The driving sprocket 21 is driven to rotate by the first drive motor 24, which is fixedly mounted on the frame 1, and its output shaft is connected to the driving sprocket 21 for transmission. When the first drive motor 24 starts, the driving sprocket 21 rotates, which drives the driven sprocket 22 to rotate synchronously through the first chain 23. At the same time, the first chain 23 moves along the contour direction of the annular guide rail 2, and the mounting plate 3 fixed on the first chain 23 moves along the annular guide rail 2 together with the first chain 23, driving the cutter 4 to perform continuous cyclical motion along the annular guide rail 2. By driving multiple assembly plates 3 to move synchronously via chain drive, it is beneficial to ensure that each tool 4 maintains a fixed spacing and stable speed during movement, thereby ensuring the consistency and continuity of the planing operation.

[0055] As attached Figure 1 and attached Figure 6 As shown, the support frame 5 is located on the outer side of the annular guide rail 2 along its length. The support frame 5 is a support frame structure, fixedly installed on the frame 1, and is used to support the unloading assembly and the receiving assembly. The support frame 5 is located on the outer side of the long straight section of the annular guide rail 2, and maintains a certain distance from the annular guide rail 2 to facilitate the rotation of the receiving assembly between the receiving position and the planing position.

[0056] The feeding components are installed on the support frame 5 and spaced apart. Each feeding component includes two hollow feeding cylinders 6. Multiple feeding cylinders 6 are arranged in two rows along the length of the annular guide rail 2, i.e., the feeding cylinders 6 are divided into upper and lower rows, with multiple feeding cylinders 6 in each row arranged at equal intervals along the length of the annular guide rail 2. Each feeding component consists of two corresponding feeding cylinders 6. The feeding cylinder 6 is a cylindrical structure with an open top and a discharge port at the bottom, and its interior is hollow, used to hold the bamboo tubes 7 to be processed. The bamboo tubes 7 are stacked sequentially along the axial direction inside the feeding cylinder 6. The longitudinal cross-sectional profile of the feeding cylinder 6 is an inverted "Y" shape, i.e., the upper part of the feeding cylinder 6 has two obliquely extending feeding channels, and the two feeding channels converge at the bottom to form a vertical discharge channel, forming an inverted "Y" shape. This "Y" shaped structure facilitates the smooth sliding of the bamboo tubes 7 under gravity, preventing the bamboo tubes 7 from becoming blocked inside the feeding cylinder 6.

[0057] A discharge control assembly is provided at the bottom of the feeding cylinder 6 to control the bamboo tubes 7 inside the feeding cylinder 6 to fall one by one. The discharge control assembly includes a first pneumatic component 25 and a baffle plate 26. The first pneumatic component 25 is installed on the outer wall of the "Y"-shaped section of the feeding cylinder 6. Specifically, the first pneumatic component 25 is fixedly installed on the outer wall of the lower merging section of the "Y"-shaped section of the feeding cylinder 6. A baffle hole 27 is provided on the side wall of the lower merging section of the "Y"-shaped section of the feeding cylinder 6. The baffle hole 27 is a through hole and communicates with the internal cavity of the feeding cylinder 6. The baffle plate 26 is installed at the end of the piston rod of the first pneumatic component 25 and can extend into or retract from the baffle hole 27. When the piston rod of the first pneumatic component 25 extends, the baffle plate 26 extends into the internal cavity of the feeding cylinder 6 through the baffle hole 27, preventing the bamboo tube 7 at the bottom of the feeding cylinder 6 from falling. When the piston rod of the first pneumatic component 25 retracts, the baffle plate 26 exits from the internal cavity of the feeding cylinder 6 through the baffle hole 27. The bamboo tube 7 at the bottom falls from the discharge port at the bottom of the feeding cylinder 6 under the action of gravity, while the bamboo tube 7 at the top moves downward to the discharge port under the action of gravity, waiting for the next fall. Through the cooperation of the first pneumatic component 25 and the baffle plate 26, the automatic one-by-one falling of the bamboo tubes 7 is realized, which helps to reduce manual intervention. The baffle plates 26 of the two feeding cylinders 6 can move synchronously, so that the two bamboo tubes 7 fall from the two feeding cylinders 6 at the same time, so that the subsequent receiving module can receive the two bamboo tubes 7 at the same time.

[0058] As attached Figure 7 Appendix Figure 8 and attached Figure 9 As shown, the receiving component is located below the feeding component and includes multiple receiving modules, each of which is positioned below the discharge port of the feeding cylinder 6. Specifically, a receiving module is provided below the discharge ports of every two adjacent feeding cylinders 6 to simultaneously receive bamboo tubes 7 from both feeding cylinders 6.

[0059] The receiving module includes a rotating seat 28, a receiving seat 29, a displacement adjustment mechanism, and a clamping mechanism. A rotating shaft 30 is installed inside the rotating seat 28. The rotating shaft 30 is horizontally oriented, and its two ends are rotatably connected to the support frame 5, allowing the rotating seat 28 to rotate around its axis. Two receiving seats 29 are symmetrically mounted on the rotating seat 28, each corresponding to one of the outlets of the two feeding cylinders 6. The top of each receiving seat 29 has a V-shaped receiving groove 31 for receiving bamboo tubes 7 emerging from the feeding cylinders 6. The V-shaped receiving groove 31 facilitates automatic centering and positioning of the bamboo tubes 7 after they fall in, preventing them from rolling or shifting within the groove, thus ensuring reliable clamping by the subsequent clamping mechanism. A buffer pad (not shown in the figure) is also provided on the upper surface of the receiving seat 29 to reduce the impact between the bamboo tubes 7 and the receiving seat 29 when receiving them.

[0060] The second power unit is installed between the receiving component and the support frame 5, giving the receiving module both a receiving position and a planing position. (See attached image) Figure 9 As shown, the second power assembly consists of a first sprocket 32, a second sprocket 33, a second chain 34, and a second drive motor 35. The first sprocket 32 ​​is connected to one end of the rotating shaft 30; specifically, the first sprocket 32 ​​is fixedly sleeved on one end of the rotating shaft 30. The second drive motor 35 is mounted on the support frame 5, and its output shaft end is connected to the second sprocket 33 via a coupling. The second chain 34 surrounds the first sprocket 32 ​​and the second sprocket 33. The second drive motor 35 drives the first sprocket 32 ​​to rotate via the second chain 34. The first sprocket 32 ​​drives the rotating shaft 30 to rotate, and the rotating shaft 30 drives the rotating seat 28 to rotate around its axis, thereby driving the receiving seat 29 to rotate between the receiving position and the planing position. Driving the receiving module to rotate via chain drive helps ensure the smoothness and positional accuracy of the rotation process.

[0061] As attached Figure 7 As shown, at the receiving position, the receiving module rotates upward to the outlet of the feeding cylinder 6. Specifically, the receiving seat 29 tilts upward, and the opening of the receiving groove 31 faces upward and is directly opposite the outlet of the feeding cylinder 6, used to receive the bamboo tubes 7 falling from the feeding cylinder 6. (See attached image) Figure 8 As shown, at the slicing position, the receiving module rotates to a horizontal position. Specifically, the receiving seat 29 rotates to a horizontal state, and the opening of the receiving groove 31 faces upward, which is used to send the received bamboo tube 7 to the slicing path of the blade 4, that is, to the space between the upper and lower rows of blades 4. By automatically switching between the receiving position and the slicing position, the bamboo tube 7 is automatically transferred from the unloading cylinder 6 to the slicing station, which helps to reduce manual handling.

[0062] The displacement adjustment mechanism consists of a second lead screw 36, a displacement plate 37, and a third drive motor 38. The third drive motor 38 is mounted on a rotating base 28, and its output end is connected to the second lead screw 36 via a coupling. The second lead screw 36 is arranged horizontally. The displacement plate 37 is movably mounted on the second lead screw 36 via a ball screw. Specifically, the displacement plate 37 has a ball nut (not shown in the figure) inside that mates with the second lead screw 36, and the displacement plate 37 forms a lead screw-nut transmission engagement with the second lead screw 36 through the ball nut. A receiving seat 29 is mounted on top of the displacement plate 37. When the third drive motor 38 starts, it drives the second lead screw 36 to rotate, and the second lead screw 36 drives the displacement plate 37 to move axially along the second lead screw 36 via the ball nut. The displacement plate 37 then drives the receiving seat 29 to move synchronously. The height of the receiving seat 29 can be adjusted by the displacement adjustment mechanism so that the receiving seat 29 can be accurately aligned with the outlet of the feeding cylinder 6 to receive the bamboo tube 7. Alternatively, the relative position between the receiving seat 29 and the cutter 4 can be adjusted at the cutting position. The cutting thickness of the cutter 4 relative to the bamboo tube 7 can be adjusted by the combination of the third drive motor 38 and the second lead screw 36, which helps to improve the receiving accuracy and cutting adaptability of the equipment.

[0063] The clamping mechanism consists of a clamping plate 39 and a second pneumatic component 40. The second pneumatic component 40 is installed inside the receiving seat 29, with its piston rod facing the receiving groove 31. One side of the receiving seat 29 does not have a side plate, and the clamping plate 39 is located on the side of the receiving seat 29 without a side plate. The end of the piston rod of the second pneumatic component 40 is connected to the clamping plate 39. When the bamboo tube 7 falls into the receiving groove 31 of the receiving seat 29, the piston rod of the second pneumatic component 40 extends, pushing the clamping plate 39 to move towards the receiving groove 31. The clamping plate 39 presses the bamboo tube 7 tightly into the receiving groove 31, thereby clamping and fixing the bamboo tube 7 onto the receiving seat 29. After the bamboo tube 7 is sliced, the piston rod of the second pneumatic component 40 retracts, pulling the clamping plate 39 away from the receiving groove 31, releasing the bamboo tube 7. The sliced ​​bamboo pieces fall off the receiving seat 29 under the action of gravity. The automatic clamping and releasing of the bamboo tube 7 by the clamping mechanism helps to ensure the positional stability of the bamboo tube 7 during rotation and slicing, prevents the bamboo tube 7 from shifting during slicing, and helps to ensure slicing accuracy.

[0064] As attached Figure 1 and attached Figure 8As shown, the discharge conveying mechanism is located on both sides of the frame 1 and below the annular guide rail 2, used to receive and convey the sliced ​​bamboo strips. The discharge conveying mechanism consists of a guide plate 41 and a belt conveyor 42. Both the guide plate 41 and the belt conveyor 42 are arranged along the long straight section of the annular guide rail 2. The guide plate 41 is located above the belt conveyor 42, and the guide plate 41 is inclined. The upper end of the guide plate 41 is close to the slicing position, used to receive the sliced ​​bamboo strips that fall from the slicing position. The sliced ​​bamboo strips slide from the guide plate 41 onto the belt conveyor 42, and are conveyed by the belt conveyor 42 to the next process. The belt conveyor 42 is a conventional belt conveyor equipment, including a conveyor belt, a drive roller, a driven roller, and a conveyor motor. The conveyor belt is arranged around the drive roller and the driven roller, and the conveyor motor is driven by the drive roller to drive the conveyor belt. By setting up a guide plate 41 and a belt conveyor 42, the automatic collection and conveying of bamboo strips after slicing is realized, which helps to improve the automation level of the equipment.

[0065] The device operation process in this embodiment is as follows:

[0066] First, the bamboo tubes 7 to be processed are loaded into each of the feeding cylinders 6, and the bamboo tubes 7 are stacked sequentially along the axial direction inside the feeding cylinders 6. The equipment is started, and the first drive motor 24 drives the drive sprocket 21 to rotate, which in turn drives multiple assembly plates 3 and their onboard cutters 4 to move continuously along the annular guide rail 2 via the first chain 23. Simultaneously, the discharge control components at the bottom of each feeding cylinder 6 operate according to a set sequence: the first pneumatic component 25 drives the baffle plate 26 to retract from the baffle hole 27 of the feeding cylinder 6, and the bottommost bamboo tube 7 falls from the discharge port under gravity. Then, the first pneumatic component 25 drives the baffle plate 26 to extend into the baffle hole 27, preventing subsequent bamboo tubes 7 from falling. Two adjacent feeding cylinders 6 operate synchronously, causing two bamboo tubes 7 to fall simultaneously.

[0067] At the receiving position, the receiving seat 29 tilts upward, and two bamboo tubes 7 falling simultaneously from two adjacent feeding cylinders 6 fall into the "V"-shaped receiving grooves 31 of the two receiving seats 29 respectively. The piston rod of the second pneumatic component 40 extends and pushes the clamping plate 39 to clamp and fix the bamboo tubes 7 on the receiving seat 29. Then, the second drive motor 35 starts, driving the first sprocket 32 ​​to rotate through the second chain 34. The first sprocket 32 ​​drives the rotating shaft 30 and the rotating seat 28 to rotate, causing the receiving seat 29 to rotate downward from the receiving position to the horizontal cutting position, sending the two bamboo tubes 7 onto the cutting path between the upper and lower rows of cutters 4. When the moving cutters 4 pass the position of the bamboo tube 7, the upper row of cutters 4 and the lower row of cutters 4 cut into the bamboo tube 7 from the upper and lower sides respectively, splitting the bamboo tube 7 in two along the axial direction to form two ultra-thin bamboo strips. After slicing, the piston rod of the second pneumatic component 40 retracts, the clamping plate 39 releases the bamboo tube 7, and the sliced ​​bamboo pieces fall onto the guide plate 41 under gravity, sliding down the guide plate 41 onto the belt conveyor 42, where they are transported to the next process. The receiving seat 29, driven by the second drive motor 35, rotates upwards again to the receiving position, ready to receive the next set of bamboo tubes 7. The cutter 4 continues to move along the annular guide rail 2, continuously slicing the subsequently delivered bamboo tubes 7.

[0068] Through the above-described working process, the equipment can achieve fully automated continuous operation of bamboo tubes 7, including automatic feeding, automatic receiving, automatic clamping, automatic slicing, and automatic discharge. By setting multiple cutters 4 on the annular guide rail 2 and making the cutters 4 move continuously, the utilization rate of the cutters 4 is improved. By setting two receiving seats 29 to simultaneously receive two bamboo tubes 7, the simultaneous slicing of two bamboo tubes 7 is achieved, which helps to increase the processing output per unit time.

[0069] Example 2:

[0070] The difference between this embodiment and Embodiment 1 lies in the specific structure of the tool adjustment assembly and the way the guide wheel group 9 and the annular guide rail 2 are matched.

[0071] In this embodiment, as shown in the appendix Figure 3 As shown, two annular guide rails 2 are arranged parallel to each other on the positioning plate 8. The guide wheels in the guide wheel assembly 9 are V-grooved wheels, and the track of the annular guide rail 2 is a V-shaped track adapted to the V-grooved wheels. The V-grooved wheels are engaged with the V-shaped track and can roll along the V-shaped track. The cooperation between the V-grooved wheels and the V-shaped track helps to limit the movement of the guide wheel assembly 9 in the direction perpendicular to the annular guide rail 2, improves the stability of the assembly plate 3 moving along the annular guide rail 2, and thus helps to ensure the positional accuracy of the cutter 4 relative to the bamboo tube 7 during the planing process, and helps to ensure that the bamboo strips after planing have a uniform thickness.

[0072] In this embodiment, the swing angle range of the adjustment plate 14 in the tool adjustment assembly is limited to 0° to 45°, meaning that the cutting angle of the tool 4 can be continuously adjusted within the range of 0° to 45°. By limiting the swing angle range of the adjustment plate 14, it is beneficial to prevent excessive adjustment by the operator from causing interference between the tool 4 and the assembly plate 3 or other components, thereby improving the safety of equipment use.

[0073] In this embodiment, the dovetail groove 20 in the tool adjustment assembly extends horizontally, and the sliding direction of the first locking plate 15 along the dovetail groove 20 is perpendicular to the swing plane of the adjustment plate 14. That is, when the adjustment plate 14 swings, the thickness direction of the adjustment plate 14 tilts, and when the first locking plate 15 slides along the dovetail groove 20 at the top of the adjustment plate 14, the extension direction of the tool 4 is consistent with the thickness direction of the adjustment plate 14. Through the above structural design, the adjustment of the planing angle and the adjustment of the planing extension amount of the tool 4 are independent of each other. That is, adjusting the planing angle of the tool 4 will not affect the extension amount of the tool 4, and adjusting the extension amount of the tool 4 will not affect the planing angle of the tool 4, which is beneficial to improving the convenience and accuracy of adjustment.

[0074] The remaining unmentioned structures and working principles are the same as in Example 1, and will not be repeated here.

[0075] Example 3:

[0076] The difference between this embodiment and Embodiments 1 and 2 lies in the control method of the discharge control component of the feeding cylinder 6 and the structure of the receiving module.

[0077] In this embodiment, the discharge control component also includes a photoelectric sensor (not shown in the figure). The photoelectric sensor is located at the discharge port of the feeding cylinder 6 and is used to detect whether the bamboo tube 7 falls from the discharge port. The photoelectric sensor is electrically connected to the first pneumatic component 25. When the photoelectric sensor detects that a bamboo tube 7 has fallen from the discharge port, it sends a signal to the first pneumatic component 25. The first pneumatic component 25 drives the baffle plate 26 to extend into the baffle hole 27 to block the subsequent bamboo tube 7 from falling. After the receiving module completes receiving the material and rotates to the slicing position, the first pneumatic component 25 drives the baffle plate 26 to exit the baffle hole 27 again, allowing the next bamboo tube 7 to fall. Through the detection and feedback control of the photoelectric sensor, it is beneficial to improve the control accuracy and reliability of the bamboo tubes 7 falling one by one, and avoid multiple bamboo tubes 7 falling simultaneously or jamming due to improper timing of the action of the baffle plate 26.

[0078] In this embodiment, the receiving module also includes a position sensor (not shown in the figure), which is mounted on the support frame 5 and used to detect the rotational position of the rotating seat 28. The position sensor is electrically connected to the second drive motor 35. When the rotating seat 28 rotates to the receiving position or the planing position, the position sensor sends a signal to the second drive motor 35, and the second drive motor 35 stops rotating, so that the rotating seat 28 is accurately positioned at the receiving position or the planing position. Through the detection and feedback control of the position sensor, it is beneficial to ensure the positioning accuracy of the receiving seat 29 at the receiving position and the planing position, thereby improving the reliability of receiving and the accuracy of the planing position.

[0079] In this embodiment, the clamping mechanism also includes a pressure sensor (not shown in the figure). The pressure sensor is disposed on the contact surface between the clamping plate 39 and the bamboo tube 7, and is used to detect the clamping force of the clamping plate 39 on the bamboo tube 7. The pressure sensor is electrically connected to the second pneumatic component 40. When the clamping force of the clamping plate 39 on the bamboo tube 7 reaches a preset value, the pressure sensor sends a signal to the second pneumatic component 40, and the second pneumatic component 40 stops increasing the clamping force and maintains the current clamping force unchanged. Through the detection and feedback control of the pressure sensor, it is beneficial to avoid excessive clamping force that could damage the surface of the bamboo tube 7, and at the same time, it is beneficial to avoid insufficient clamping force that could cause the bamboo tube 7 to loosen during rotation or slicing, thus ensuring the slicing quality.

[0080] The remaining unmentioned structures and working principles are the same as in Example 1, and will not be repeated here.

[0081] Example 4:

[0082] The difference between this embodiment and Embodiments 1, 2, and 3 lies in the specific structure of the first power component and the arrangement of the material discharge conveying mechanism.

[0083] In this embodiment, the first power assembly includes a synchronous belt drive assembly. The synchronous belt drive assembly includes a driving synchronous pulley, a driven synchronous pulley, and a synchronous belt. The driving and driven synchronous pulleys are respectively disposed on the top of the frame 1 and within the area enclosed by the annular guide rail 2. The synchronous belt surrounds the annular guide rail 2. Mounting plates 3 are connected to the synchronous belt. The driving synchronous pulley is driven to rotate by a first drive motor 24, which drives multiple mounting plates 3 and their onboard cutters 4 to move along the annular guide rail 2 via the synchronous belt. Compared to chain drive, synchronous belt drive offers advantages such as smooth transmission, low noise, and high positioning accuracy, which helps to further reduce the vibration of the cutter 4 during movement, thereby improving planing accuracy and surface quality.

[0084] In this embodiment, the discharge conveying mechanism also includes a collection box (not shown in the figure), which is located at the end of the belt conveyor 42 and is used to collect the sliced ​​bamboo pieces conveyed from the belt conveyor 42. The collection box has an open top, making it easy for operators to remove the sliced ​​bamboo pieces from the collection box for subsequent processing or packaging. By setting up the collection box, it is beneficial to achieve centralized collection of sliced ​​bamboo pieces and reduce the labor intensity of operators frequently collecting bamboo pieces.

[0085] In this embodiment, baffles (not shown in the figure) are provided on both sides of the upper end of the guide plate 41. The baffles extend along the length of the guide plate 41 to prevent the sliced ​​bamboo strips from slipping off the sides of the guide plate 41. The height of the baffles is 10mm to 30mm, which can effectively prevent the bamboo strips from slipping off without affecting the sliding of the bamboo strips along the guide plate 41. By setting the baffles, it is beneficial to ensure that the bamboo strips fall accurately onto the belt conveyor 42, avoiding the waste of materials and subsequent cleaning difficulties caused by the bamboo strips scattering on the ground.

[0086] The remaining unmentioned structures and working principles are the same as in Example 1, and will not be repeated here.

[0087] Example 5:

[0088] The difference between this embodiment and embodiments one through four lies in the adjustment method of the displacement adjustment mechanism and the connection method between the receiving seat 29 and the rotating seat 28.

[0089] In this embodiment, the second lead screw 36 of the displacement adjustment mechanism is a manual lead screw, meaning the third drive motor 38 is replaced by a handwheel (not shown in the figure), which is fixedly connected to one end of the second lead screw 36. The operator drives the second lead screw 36 to rotate by turning the handwheel, thereby driving the displacement plate 37 to move axially along the second lead screw 36, thus adjusting the height or planing position of the receiving seat 29. This manual adjustment method simplifies the equipment structure, reduces manufacturing costs, and is suitable for applications where high adjustment precision is not required.

[0090] In this embodiment, a shock-absorbing pad (not shown in the figure) is provided between the receiving seat 29 and the displacement plate 37. The shock-absorbing pad is made of rubber material and is located between the bottom of the receiving seat 29 and the top of the displacement plate 37. The shock-absorbing pad helps to absorb the impact vibration generated when the bamboo tube 7 falls into the receiving seat 29, reducing the vibration transmission to the rotating seat 28 and the supporting frame 5, which helps to improve the stability of equipment operation and also helps to reduce equipment operating noise.

[0091] In this embodiment, a bearing housing (not shown in the figure) is provided between the rotating shaft 30 and the support frame 5. The bearing housing is fixedly installed on the support frame 5, and the rotating shaft 30 is rotatably connected to the bearing housing through a bearing. A rolling bearing is installed in the bearing housing. The inner ring of the rolling bearing is interference-fitted with the rotating shaft 30, and the outer ring of the rolling bearing is interference-fitted with the bearing housing. By providing a bearing housing and a rolling bearing, the frictional resistance of the rotating shaft 30 during rotation is reduced, thereby improving the rotational flexibility and service life of the rotating shaft 30.

[0092] The remaining unmentioned structures and working principles are the same as in Example 1, and will not be repeated here.

[0093] The foregoing has only described certain exemplary embodiments of the present invention by way of illustration. Undoubtedly, those skilled in the art can modify the described embodiments in various ways without departing from the spirit and scope of the present invention. Therefore, the foregoing drawings and descriptions are illustrative in nature and should not be construed as limiting the scope of protection of the claims of the present invention.

Claims

1. A processing device for ultra-thin bamboo strips capable of processing multiple bamboo tubes (7) simultaneously, characterized in that, include: The frame (1) has a ring rail (2) mounted on its top. The assembly plates (3) are vertically spaced along the contour of the annular guide rail (2); The cutting tool (4) is positioned on the outer side of each assembly plate (3); A tool adjustment assembly is disposed between the tool (4) and the mounting plate (3) for adjusting the planing angle of the tool (4); The first power assembly is installed on the top of the frame (1) and is connected to the mounting plate (3) to drive the cutter (4) to reciprocate on the annular guide rail (2); The support frame (5) is located on the outside of the annular guide rail (2) along its length. The feeding components are installed on the support frame (5) and spaced apart. Each feeding component includes two hollow feeding cylinders (6). The bottom of the feeding cylinder (6) is provided with a discharge control component for controlling the bamboo tubes (7) inside the feeding cylinder (6) to fall one by one. The receiving component is located below the feeding component and includes multiple receiving modules, each of which is correspondingly located below the discharge port of the feeding cylinder (6). The second power assembly is installed between the receiving assembly and the support frame (5), so that the receiving module has a receiving position and a cutting position. In the receiving position, the receiving module rotates upward to the outlet of the feeding cylinder (6) to receive the bamboo tube (7) falling from the feeding cylinder (6); in the cutting position, the receiving module rotates to the horizontal direction to send the received bamboo tube (7) to the cutting path of the cutter (4).

2. The ultra-thin bamboo strip processing equipment capable of simultaneously processing multiple bamboo tubes (7) according to claim 1, characterized in that, The top of the frame (1) is equipped with a vertical positioning plate (8). There are two annular guide rails (2), both of which are elliptical guide rails. The annular guide rails (2) are fixedly installed on the positioning plate (8). The assembly plate (3) is provided with guide wheel groups (9) distributed vertically on one side near the annular guide rails (2). Each guide wheel group (9) is distributed in two layers, and the guide wheel group (9) can be rolled and engaged on the annular guide rails (2).

3. The ultra-thin bamboo strip processing equipment capable of simultaneously processing multiple bamboo tubes (7) according to claim 1, characterized in that, The tool adjustment assembly consists of a first mounting plate (10), a first lead screw (11), a sliding block (12), a linkage plate (13), an adjustment plate (14), a first locking plate (15), a second locking plate (16), and a locking element (17). The first mounting plate (10) is disposed on the outer side wall of the assembly plate (3). The sliding block (12) is slidably connected to the first mounting plate (10) through two guide rails mounted on the first mounting plate (10). A ball nut is installed inside the sliding block (12). The first lead screw (11) passes through the ball nut and is rotatably connected to the sliding block (12).

4. The ultra-thin bamboo strip processing equipment capable of simultaneously processing multiple bamboo tubes (7) according to claim 3, characterized in that, One end of the adjusting plate (14) is rotatably connected to the first mounting plate (10). The two ends of the linkage plate (13) are rotatably connected to the outer side wall of the other end of the adjusting plate (14) and the side wall of the sliding block (12), respectively. The first locking plate (15) is movably embedded in the top of the adjusting plate (14). The cutter (4) is located between the first locking plate (15) and the second locking plate (16). The cutter head extends out of the first locking plate (15) and the second locking plate (16), driving the first lead screw (11) to rotate. The sliding block (12) moves and drives the adjusting plate (14) to rotate, so as to adjust the cutting angle of the cutter (4). The first locking plate (15), the second locking plate (16), the cutter (4) and the adjusting plate (14) are respectively provided with through holes (18) that correspond to each other. Each through hole (18) is an elliptical hole. A threaded post (19) is provided in the through hole (18). The first locking plate (15), the second locking plate (16) and the cutter (4) are locked onto the adjusting plate (14) by a nut. The top of the adjusting plate (14) is provided with a dovetail groove (20). The bottom of the first locking plate (15) slides with the dovetail groove (20). The locking member (17) is provided on the back of the adjusting plate (14). Loosen the nut on the threaded post (19) and rotate the locking member (17) to make the first locking plate (15), the cutter (4) and the second locking plate (16) move along the dovetail groove (20) on the adjusting plate (14) to control the cutting extension of the cutter (4).

5. The ultra-thin bamboo strip processing equipment capable of simultaneously processing multiple bamboo tubes (7) according to claim 1, characterized in that, The first power assembly includes a chain drive assembly, which includes a drive sprocket (21), a driven sprocket (22), and a first chain (23). The drive sprocket (21) and the driven sprocket (22) are respectively disposed on the top of the frame (1) and located in the area enclosed by the annular guide rail (2). The first chain (23) is arranged around the annular guide rail (2). The mounting plate (3) is connected to the first chain (23). The drive sprocket (21) is driven to rotate by a first drive motor (24). The first chain (23) drives multiple cutting tools (4) to move along the annular guide rail (2).

6. The ultra-thin bamboo strip processing equipment capable of simultaneously processing multiple bamboo tubes (7) according to claim 1, characterized in that, The longitudinal section profile of the feeding cylinder (6) is an inverted "Y" shape. The discharge control component includes a first pneumatic component (25) and a baffle plate (26). The first pneumatic component (25) is installed on the outer wall of the "Y" shape of the feeding cylinder (6). A baffle hole (27) is provided on the side wall of the lower merging section of the "Y" shape of the feeding cylinder (6). The baffle plate (26) is installed at the piston rod end of the first pneumatic component (25) and can extend into or out of the baffle hole (27) to control the bamboo tubes (7) to fall one by one.

7. The ultra-thin bamboo strip processing equipment capable of simultaneously processing multiple bamboo tubes (7) according to claim 1, characterized in that, The receiving module includes a rotating seat (28), a receiving seat (29), a displacement adjustment mechanism, and a clamping mechanism. A rotating shaft (30) is installed inside the rotating seat (28). The two ends of the rotating shaft (30) are rotatably connected to the support frame (5). Two receiving seats (29) are symmetrically installed on the rotating seat (28). The top of the receiving seat (29) is provided with a "V"-shaped receiving groove (31) for receiving bamboo tubes (7) coming out from the feeding cylinder (6). The second power assembly consists of a first sprocket (32), a second sprocket (33), a second chain (34), and a second drive motor (35). The first sprocket (32) is connected to one end of the rotating shaft (30). The second drive motor (35) is mounted on the support frame (5), and its output shaft end is connected to the second sprocket (33) through a coupling. The second drive motor (35) drives the first sprocket (32) to rotate through the second chain (34), thereby driving the receiving seat (29) to rotate between the receiving position and the planing position.

8. The ultra-thin bamboo strip processing equipment capable of simultaneously processing multiple bamboo tubes (7) according to claim 7, characterized in that, The displacement adjustment mechanism consists of a second lead screw (36), a displacement plate (37), and a third drive motor (38). The third drive motor (38) is mounted on the rotary seat (28), and its output end is connected to the second lead screw (36) through a coupling. The displacement plate (37) is movably mounted on the second lead screw (36) through a ball screw. The receiving seat (29) is mounted on the top of the displacement plate (37). The height position of the receiving seat (29) or the cutting position of the cutter (4) relative to the bamboo tube (7) can be adjusted by the displacement adjustment mechanism.

9. The ultra-thin bamboo strip processing equipment capable of simultaneously processing multiple bamboo tubes (7) according to claim 8, characterized in that, The clamping mechanism consists of a clamping plate (39) and a second pneumatic component (40). The second pneumatic component (40) is installed inside the receiving seat (29), with its piston rod facing the receiving groove (31). One side of the receiving seat (29) is not provided with a side plate. The clamping plate (39) is provided on the side of the receiving seat (29) where no side plate is provided, and the end of the piston rod of the second pneumatic component (40) is connected to the clamping plate (39).

10. The ultra-thin bamboo strip processing equipment capable of simultaneously processing multiple bamboo tubes (7) according to claim 1, characterized in that, It also includes a discharge conveying mechanism for receiving and conveying the sliced ​​bamboo strips. The discharge conveying mechanism is located on both sides of the frame (1) and below the annular guide rail (2). The discharge conveying mechanism consists of a guide plate (41) and a belt conveyor (42). The guide plate (41) and the belt conveyor (42) are both arranged along the long straight section of the annular guide rail (2). The guide plate (41) is located above the belt conveyor (42). The guide plate (41) is inclined. The sliced ​​bamboo strips slide from the guide plate (41) onto the belt conveyor (42).

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