Continuous production device and method for roughly-planed bamboo canes

Abstract

The invention discloses a continuous production device and method for rough planed bamboo canes. The method comprises the following steps of automatic feeding of bamboo tubes, bamboo breaking and rotary positioning discharging; performing fixed-width rough planing on the bamboo strips; the bamboo strips are discharged and cached after being fixed in width; planing into strips for temporary feeding and discharging; planing the bamboo strips into strips; the bamboo canes are precisely and roughly planed; bamboo strip thickness detection; and sorting the thickness of the bamboo canes. The device comprises a feeding mechanism, a bamboo breaking mechanism, a rotary bamboo cage, a fixed-width rough planing machine, a planing strip forming machine, a precise rough planing machine, a buffering and feeding and discharging mechanism, a thickness detecting mechanism and a thickness sorting mechanism. Automatic feeding and bamboo breaking of bamboo tubes and continuous and automatic preparation of rough planed bamboo canes are achieved, the production efficiency and the automation level are greatly improved, and the labor intensity is relieved.

Description

Technical Field

[0001] This invention relates to the field of bamboo processing, and in particular to a continuous production apparatus and method for rough planing bamboo strips. Background Technology

[0002] With the promotion of the "bamboo instead of plastic" concept and the need for modernization and upgrading of the bamboo industry, traditional bamboo strip processing methods can no longer meet the requirements of large-scale, high-efficiency, and intelligent production. Currently, the preparation of rough-planed bamboo strips typically relies on manual labor to complete multiple processes such as splitting bamboo, feeding, width setting, and planing. This is not only labor-intensive and inefficient, but also results in poor product specification consistency, hindering standardized production. Therefore, developing a technology and equipment capable of continuous bamboo tube processing and automated rough-planed bamboo strip preparation has significant practical value and industrial implications. Summary of the Invention

[0003] The purpose of this invention is to overcome the shortcomings of the prior art and provide a continuous production device and method for rough planing bamboo strips. It aims to achieve full automation of processes such as automatic bamboo tube feeding, bamboo splitting, automatic width-fixed rough planing of bamboo strips, and thickness detection and sorting, thereby improving processing efficiency and product consistency and reducing labor costs.

[0004] The present invention adopts the following technical solution: a continuous production device for rough planing bamboo strips, comprising a feeding mechanism, a bamboo splitting mechanism, a rotating bamboo cage, a fixed-width rough planer, a buffer discharge mechanism, a planing strip feeding mechanism, a planing strip machine, a buffer discharge mechanism, a precision rough planer, a thickness detection mechanism, and a thickness sorting mechanism arranged in sequence. The operating method of the continuous production equipment for rough-planed bamboo strips includes: Step 1: The bamboo tubes are stored at the feeding mechanism and fed into the bamboo splitting mechanism; Step 2: The bamboo tube is pushed from the bamboo splitting mechanism into a rotating bamboo cage for splitting into sheets; Step 3: The rotating bamboo cage sequentially conveys the bamboo strips to the fixed-width rough planer for trimming the bamboo strips and initially removing the bamboo green layer, bamboo yellow layer and bamboo septum. After that, the bamboo strips enter the first buffer discharge mechanism for buffering. Step 4: The bamboo strips are conveyed from the first buffer discharge mechanism to the planing and strip feeding mechanism. The planing and strip feeding mechanism detects the wall thickness of the bamboo strips and provides feedback to the subsequent planing and strip forming machine for tool spacing adjustment. Step 5: The bamboo strips are conveyed from the bamboo strip feeding mechanism to the bamboo strip cutting machine for further removal of the bamboo green layer and bamboo yellow layer. After that, the bamboo strips enter the second buffer discharge mechanism for buffering. Step 6: The bamboo strips are conveyed from the second buffer discharge mechanism to the precision rough planer for the final removal of the bamboo green layer and bamboo yellow layer, as well as the width correction of the bamboo strips; Step 7: The bamboo strips are then conveyed to a thickness detection mechanism to check the thickness and the feedback is sent to the subsequent thickness sorting mechanism; Step 8: The bamboo strips are then conveyed to the thickness sorting mechanism, which sorts the bamboo strips to the corresponding thickness outlets according to their thickness, so that the bamboo strips are transferred to the corresponding storage bins.

[0005] The beneficial effects of this invention are: 1. This invention can place dozens of bamboo tubes in the production line to realize the semi-automatic processing of bamboo tubes into rough-cut bamboo strips, eliminating the manpower required in the steps of splitting bamboo, rough cutting, and feeding. It realizes the automated feeding of bamboo tubes, splitting bamboo, and continuous automated preparation of rough-cut bamboo strips, which greatly improves production efficiency and automation level and reduces labor intensity.

[0006] 2. This invention uses a bamboo strip thickness sorting device to realize automated thickness sorting of coarsely planed bamboo strips, improves the ability to classify and store coarsely planed bamboo strips, reduces labor intensity, and improves production efficiency, which can meet the preparation and storage requirements of bamboo strips with different thickness requirements.

[0007] 3. This invention can significantly improve the efficiency and level of automated processing of rough-planed bamboo strips, reduce the number of personnel required, thereby improving economic benefits and facilitating large-scale industrial production. Attached Figure Description

[0008] Figure 1 This is a three-dimensional structural diagram of the present invention.

[0009] Figure 2 This is a three-dimensional structural schematic diagram and a partial enlarged view of the feeding mechanism, bamboo splitting mechanism, and rotating bamboo cage of the present invention.

[0010] Figure 3 This is a three-dimensional structural diagram of the feeding mechanism of the present invention.

[0011] Figure 4 This is a three-dimensional structural diagram of the bamboo-splitting mechanism of the present invention.

[0012] Figure 5 This is a three-dimensional structural diagram of the rotating bamboo cage of the present invention. Figure 1 And a magnified view of a specific area.

[0013] Figure 6 This is a three-dimensional structural diagram of the rotating bamboo cage of the present invention. Figure 2 .

[0014] Figure 7 This is a three-dimensional structural diagram of the buffer discharging mechanism of the present invention.

[0015] Figure 8 This is a three-dimensional structural schematic diagram and a partial enlarged view of the planing and feeding mechanism of the present invention.

[0016] Figure 9 This is a three-dimensional structural schematic diagram and a partial enlarged view of the thickness sorting mechanism of the present invention.

[0017] Figure 10 This is a longitudinal sectional view and a partial enlarged view of the storage tube of the present invention.

[0018] Figure 11 This is a three-dimensional structural diagram of the fixed-width rough planer of the present invention.

[0019] Figure 12 This is a three-dimensional structural diagram of the planing and slitting machine of the present invention.

[0020] Figure 13 This is a three-dimensional structural diagram of the precision rough planer of the present invention.

[0021] In the diagram: 1. Feeding mechanism; 11. Storage rack; 111. Baffle; 112. Limiting cylinder; 113. Rod; 12. Lifting rod; 121. First track; 122. Lifting cylinder; 13. Baffle wall; 2. Bamboo splitting mechanism; 21. Storage chamber; 211. Support rod; 22. Pushing mechanism; 221. Pushing cylinder; 222. Pushing bracket; 223. Second track; 3. Rotating bamboo cage; 31. Cylinder; 311. Partition; 312. Storage bin; 313. Clamping plate; 314. Elastic element; 315. Opening; 310. Ring tooth; 32. Cutting knife assembly; 33. Rear wall; 34. Discharge port 341. Baffle; 342. Translation cylinder; 35. Sliding frame; 351. Roller; 36. Rotary motor; 361. Gear; 4. Discharge pushing mechanism; 41. Pushing cylinder; 42. Pushing rod; 43. Pushing plate; 5. Buffer discharge mechanism; 51. First frame; 511. First sensor; 512. Second sensor; 52. First conveyor chain; 521. First sprocket; 522. First rotating shaft; 523. First motor; 53. First storage pipe; 530. Rectangular frame; 531. Elastic pressure frame; 532. Inclined guide plate; 533. Wide opening; 6. Planing strip feeding mechanism; 61. Second frame; 62, Second conveyor chain; 621, Second sprocket; 622, Second rotating shaft; 623, Second motor; 63, Second storage pipe; 64, Second input mechanism; 641, Second conveyor roller; 642, Second input motor; 65, Second output mechanism; 651, Second pusher; 652, Second output cylinder; 66, Second detection mechanism; 7, Thickness detection mechanism; 8, Thickness sorting mechanism; 81, Third frame; 82, Third conveyor chain; 821, Third sprocket; 822, Third rotating shaft; 823, Third motor; 83, Third storage pipe; 84, Third input mechanism; 84 1. Third conveying roller; 842. Third input coupling; 843. Third input transmission gear set; 844. Third input motor; 85. Third ejection mechanism; 851. Third pusher; 852. Second output cylinder; 86. Third output mechanism; 861. Third output roller; 862. Third output coupling; 863. Third output transmission gear set; 864. Third output motor; 01. Fixed width rough planer; 02. Planing strip forming machine; 03. Precision rough planer; 04. Roller; 05. Trimming and removing yellowing mechanism; 06. Yellowing removal mechanism; 07. Yellowing removal mechanism; 08. Floating planing mechanism; 09. Trimming mechanism. Detailed Implementation

[0022] The specific embodiments of the present invention will be described in detail below with reference to the accompanying drawings.

[0023] like Figure 1-13The image shows a specific embodiment of the continuous production apparatus and method for rough planing bamboo strips according to the present invention. This embodiment includes, in sequence, a feeding mechanism 1, a bamboo splitting mechanism 2, a rotating bamboo cage 3, a fixed-width rough planer 01, a buffer discharge mechanism 5, a planing strip feeding mechanism 6, a planing strip forming machine 02, a buffer discharge mechanism 5, a precision rough planer 03, a thickness detection mechanism 7, and a thickness sorting mechanism 8. The operating method of the continuous production equipment for rough-planed bamboo strips includes: Step 1: The bamboo tubes are stored at feeding mechanism 1 and fed into bamboo splitting mechanism 2; Step 2: The bamboo tube is pushed from the bamboo splitting mechanism 2 to the rotating bamboo cage 3 to split the bamboo into sheets; Step 3: The rotating bamboo cage 3 conveys the bamboo strips to the fixed-width rough planer 01 in sequence for trimming the bamboo strips and preliminary removal of the bamboo green layer, bamboo yellow layer and bamboo partition. After that, the bamboo strips enter the first buffer discharge mechanism 5 for buffering. Step 4: The bamboo strips are conveyed from the first buffer discharge mechanism 5 to the planing strip feeding mechanism 6. The planing strip feeding mechanism 6 detects the wall thickness of the bamboo strips and feeds back to the subsequent planing strip machine 02 for tool spacing adjustment. Step 5: The bamboo strips are conveyed from the bamboo strip feeding mechanism 6 to the bamboo strip forming machine 02 for further removal of the bamboo green layer and bamboo yellow layer. After that, the bamboo strips enter the second buffer discharge mechanism 5 for buffering. Step 6: The bamboo strips are conveyed from the second buffer discharge mechanism 5 to the precision rough planer 03 for the final removal of the bamboo green layer and bamboo yellow layer, as well as the width correction of the bamboo strips; Step 7: The bamboo strips are then conveyed to the thickness detection mechanism 7 to detect the thickness and the feedback is sent to the subsequent thickness sorting mechanism 8; Step 8: The bamboo strips are then conveyed to the thickness sorting mechanism 8. The thickness sorting mechanism 8 conveys the bamboo strips to the corresponding thickness outlet according to their thickness, so that the bamboo strips are transferred to the corresponding storage bins.

[0024] As an improved specific implementation, it also includes a material feeding mechanism 4 that cooperates with the rotating bamboo cage 3. The feeding mechanism 1 includes a storage rack 11 and a lifting rod 12. The storage rack 11 is inclined and the lifting rod 12 is provided at the output end. The bamboo splitting mechanism 2 includes a storage cavity 21 and a pushing mechanism 22. The storage cavity 21 is provided at the output end of the storage rack 11. When the lifting rod 12 rises, it lifts the bamboo tube located at the lifting rod 12 and drops it into the storage cavity 21 after it is higher than the baffle 13 at the output end of the storage rack 11. The rotating bamboo cage 3 and the pushing mechanism 22 are respectively provided on both sides of the storage cavity 21. The rotating bamboo cage 3 includes a cylindrical body 31. The cylindrical body 31 is evenly divided into storage bins 312 by several partitions 311. The input end of the cylinder 31 is equipped with a cutting blade group 32 corresponding to the partition 311. The pushing mechanism 22 pushes the bamboo tube in the storage chamber 21 to the cutting blade group 32 to be sliced, and each bamboo slice enters the corresponding storage bin 312 for storage. The output end of the cylinder 31 has a rear wall 33, and the rear wall 33 is equipped with a discharge port 34 corresponding to the size of a single storage bin 312. The cylinder 31 is rotatably mounted on a sliding frame 35, and the sliding frame 35 is horizontally mounted on a horizontal rail. The cylinder 31 rotates to make each storage bin 312 correspond to the discharge port 34. The cylinder 31 is translated to correspond to the position of the preceding bamboo splitting mechanism 2 or the discharge pushing mechanism 4. The discharge pushing mechanism 4 pushes the bamboo slices in the storage bin 312 toward the discharge port 34.

[0025] As an improved specific implementation, the feeding mechanism 1, the bamboo splitting mechanism 2 and the rotating bamboo cage 3 are set as two groups, left and right. The discharge pushing mechanism 4 is set in front of the two groups of rotating bamboo cages 3. The two groups of rotating bamboo cages 3 switch the positions of the bamboo splitting mechanism 2 or the discharge pushing mechanism 4 by translation, so that the left and right groups of rotating bamboo cages 3 alternately discharge material.

[0026] In implementation, the feeding mechanism 1, the bamboo splitting mechanism 2, and the rotating bamboo cage 3 are arranged in two sets, left and right, to fully utilize space for feeding, storage, and bamboo splitting. The two sets of rotating bamboo cages 3 alternately move to the discharge position to correspond to the subsequent equipment, improving overall work efficiency. Bamboo tubes of the same diameter are placed in the storage racks 11 on both sides. The tilt angle of the storage racks 11 ensures that the bamboo tubes are arranged in an orderly manner. According to process requirements, the selected bamboo tubes have a length of 2.0 m-3.0 m, a diameter of 5 cm-15 cm, and a wall thickness of 8 mm-13 mm. The width of the lifting rod 12 is adapted to the diameter of the bamboo tube, so that the lifting rod 12 lifts a single bamboo tube at a time. When a single bamboo tube is lifted by the lifting rod 12 to a sufficient height, exceeding the rear baffle 13, the rear of the bamboo tube loses support and falls into the storage cavity 21. Then, the pushing mechanism 22 performs the bamboo splitting operation. As the pushing mechanism 22 pushes the bamboo tube into the cutting knife group 32, the bamboo tube is gradually split into 8-12 bamboo pieces by the blades on the cutting knife group 32 under the continuous pushing of the pushing mechanism 22. The split bamboo pieces are stored by the subsequent rotating bamboo cage 3 for further transport.

[0027] For the use of the rotating bamboo cage 3, the split bamboo pieces are temporarily stored in the storage bin 312 of the cylinder 31. The partition 311 and the cutter group 32 are set with 8-12 sets of cutters, thus forming 8-12 fan-shaped spaces to accommodate bamboo pieces. The rear wall 33 of the output end of the storage bin 312 blocks the bamboo pieces and opens a discharge port 34. The cylinder 31 is arranged on the sliding frame 35 and moves horizontally on the horizontal rail, thus switching the cylinder 31 to be opposite to the preceding bamboo splitting mechanism 2 or the discharge pushing mechanism 4. Thus, the bamboo splitting mechanism 2 and the discharge pushing mechanism 4 can be set separately without interfering with each other. The displacement drive of the sliding frame 35 can be realized by a cylinder or a motor, so as to achieve quick and stable position switching. When conveying bamboo strips backward, the position of the discharge port 34 is first aligned with the input position of the subsequent equipment by translation, and the preceding corresponding discharge pushing mechanism 4 is aligned with it. The cylinder 31 is rotated so that the storage bin 312 containing bamboo strips is aligned with the discharge port 34. Then, the discharge pushing mechanism 4 at the input end extends into the storage bin 312 and pushes the bamboo strips toward the discharge port 34. After the bamboo strips reach the conveyor belt of the subsequent equipment, the subsequent equipment provides power to continue conveying the bamboo strips. After the bamboo strips are pushed out, the discharge pushing mechanism 4 resets backward, and the cylinder 31 rotates to the next storage bin 312 corresponding to the discharge port 34. Then, the discharge pushing mechanism 4 continues to push out bamboo strips. This process is repeated several times to orderly output bamboo strips to the subsequent equipment. After all bamboo strips are output, the rotating bamboo cage 3 on this side resets to the bamboo splitting mechanism 2 on its side. The rotating bamboo cage 3 on the other side, which is carrying bamboo strips, alternately translates to the corresponding positions of the discharge pushing mechanism 4 and the subsequent equipment to discharge the bamboo strips. The above-mentioned mechanical mechanisms and operating methods can effectively store bamboo strips, split bamboo, and output them in an orderly manner, replacing manual labor in completing the original complex and laborious slicing and conveying processes. This can greatly reduce the labor intensity of workers and improve production efficiency. The alternation of the two sets of equipment on the left and right can further enhance operational efficiency and improve economic benefits.

[0028] Further, the bamboo strips enter the width-fixing rough planer 01, which consists of an edge-trimming and green-removing mechanism 05, a yellow-removing mechanism 06, and rollers 04. The rollers 04 are arranged in two rows, upper and lower, to clamp and convey the bamboo strips. As the bamboo strips move forward under the action of the feeding rollers 04, they enter the edge-trimming and green-removing mechanism 05. The edge-trimming and green-removing mechanism 05 consists of three coaxial milling cutters. The left and right milling cutters are used to perform preliminary trimming on both sides of the bamboo strips, and the middle milling cutter is used to initially remove the green layer of the bamboo strips. Immediately afterwards, the bamboo strips are further fed forward by the rollers 04 to the yellow-removing mechanism 05. The upper milling cutter in the yellow-removing mechanism 05 can remove the yellow layer and bamboo septa on the surface of the bamboo strips. After that, the bamboo strips, which have been preliminarily width-fixed and edge-trimmed, enter the first buffer discharge mechanism 5. All equipment can be powered by motors, and the power is transmitted through chains.

[0029] The first buffer feeding mechanism 5 buffers bamboo strips and conveys them to the subsequent planing and strip feeding mechanism 6 during operation. While buffering the bamboo strips, the planing and strip feeding mechanism 6 detects the thickness of the bamboo strips and then feeds the feedback to the subsequent planing and strip forming machine 02, so that the planing and strip forming machine 02 can adjust the blade spacing in advance.

[0030] Furthermore, the bamboo strips enter the planing and shaping machine 02, which consists of a de-greening mechanism 07, a de-yellowing mechanism 06, and a floating planing mechanism 08. The bamboo strips move forward under the drive of the upper and lower rollers 04. When passing the de-greening mechanism 07, the upper pressure plate presses down on the bamboo yellow surface of the bamboo strip, and the de-greening milling cutter removes the bamboo green layer of the bamboo strip. Further, under the drive of the upper and lower rollers 04, the bamboo strips enter the de-yellowing mechanism 06, where the bamboo yellow surface of the bamboo strip is further removed by the action of the milling cutter. Next, the bamboo strips enter the floating planing mechanism 08, where the bamboo green surface of the bamboo strip is further removed by the lower milling cutter. Then, the bamboo strips enter the second buffer discharge mechanism 5 for buffering.

[0031] Furthermore, the bamboo strip enters the precision rough planer 03, which consists of a yellowing removal mechanism 06, a greening removal mechanism 07, and two sets of trimming mechanisms 09. Driven by the roller 04, the bamboo strip reaches the yellowing removal mechanism 06, where the upper milling cutter removes the yellowing from the bamboo strip. Then, driven by the roller 04, the bamboo strip enters the greening removal mechanism 07, where the lower milling cutter removes the yellowing from the bamboo strip. Next, driven by the roller 04, the bamboo strip passes through the two sets of trimming mechanisms 09 in sequence to correct the width of the bamboo strip. Further, driven by the roller 04, it reaches the thickness detection mechanism 7.

[0032] The thickness detection mechanism 7 measures the thickness of the bamboo strips and feeds it back to the thickness sorting mechanism 8. The thickness sorting mechanism 8 has multiple output ports, corresponding to different hoppers. Then, according to the thickness of the bamboo strips, they are transported to the corresponding hoppers to achieve the orderly storage of different bamboo strips.

[0033] As an improved specific implementation method, the method of using the coarse planing bamboo strip continuous production device also includes: replacing the rotating bamboo cage 3 with one of the corresponding specifications according to the diameter of the bamboo tube before feeding the bamboo tube.

[0034] The number of blades in the bamboo splitting cutter set 32 ​​needs to be selected according to the diameter of the bamboo tube. Before feeding, the rotating bamboo cage 3 and the cutter set 32 ​​on it should be replaced according to the diameter of the bamboo tube to ensure that the size of the bamboo strips cut by the entire production line meets the processing requirements.

[0035] As an improved specific implementation, the output end of the storage rack 11 is configured with two sets of lifting rods 12, one in front and one behind. The first lifting rod 12 is lower than the second lifting rod 12, and baffles 13 are respectively set behind the two sets of lifting rods 12. The bamboo tube is lifted by the first lifting rod 12 and falls to the second lifting rod 12, and the second lifting rod 12 lifts the bamboo tube and falls into the storage cavity 21.

[0036] like Figure 2 , 3 As shown, by setting two sets of lifting rods 12, a bamboo tube conveying structure with two gradients is formed. During bamboo tube conveying, a single bamboo tube can be conveyed first by the first lifting rod 12 to the second lifting rod 12 to wait, and then output by the second lifting rod 12. This makes the output of bamboo tubes more orderly, reduces the lifting height at one time, reduces the workload of the driving components and the displacement range of the components, and improves the stability of equipment operation.

[0037] As an improved specific implementation, a baffle 111 is provided on one side of the storage rack 11, and a limiting cylinder 112 is provided on the output end side of the storage rack 11 on the other side. The limiting cylinder 112 is used to push the bamboo tube to the baffle 111 for alignment.

[0038] like Figure 2 , 3 As shown, during use, the bamboo tube is pushed from one side by the limiting cylinder 112 to the baffle 111 on the other side at the output end, thereby aligning the bamboo tube with the baffle 111. The position of the baffle 111 corresponds to the output end of the bamboo splitting mechanism 2. After the bamboo tube is transferred into the storage chamber 21, the output end of the bamboo tube maintains a predetermined distance from the cutting blade assembly 32, which facilitates the pushing mechanism 22 to push and split each bamboo tube in an orderly manner.

[0039] As an improved specific implementation, the storage rack 11 includes two rods 113 arranged on both sides along the bamboo tube conveying direction, and the lifting rod 12 is an inclined rod arranged on both sides corresponding to the two rods 113.

[0040] like Figure 2 , 3 As shown, the two rods 113 support the bamboo tube on both sides, while the other parts are open, which facilitates the smooth rolling of the bamboo tube along the inclined angle of the storage rack 11 to the output end for storage, avoiding jamming and accumulation. The inclined state of the lifting rod 12 causes the bamboo tube to naturally lean against the baffle 13, making the state stable during lifting, and allowing it to roll out naturally to the output end after losing the support of the baffle 13.

[0041] As an improved specific implementation, the storage cavity 21 includes a number of support rods 211 arranged in an arc-shaped interval, and the number of support rods 211 are symmetrically arranged on both sides to form a semi-circular space for supporting the bamboo tube.

[0042] like Figure 2 , 4As shown, several support rods 211 on both sides form a semi-circular support space. The spaced support rods 211 can accommodate bamboo tubes of different diameters for support. The bamboo tubes are limited only by the left and right sides. The bottom is hollowed out, which helps the bamboo tubes to be pushed more smoothly by the pushing mechanism 22. Furthermore, the hollowed-out middle position facilitates the forward and backward displacement of the pushing mechanism 22 without causing interference.

[0043] As an improved specific implementation, the lifting rod 12 is elliptical and scissionably mounted on the storage rack 11 via the first track 121, and the lifting rod 12 is driven to rise and fall by the lifting cylinder 122.

[0044] like Figure 2 , 3 As shown, vertical first tracks 121 are set on both sides of the storage rack 11. Driven by the lifting cylinder 122, the lifting rod 12 moves up and down stably along the first track 121, thereby effectively conveying the bamboo tubes.

[0045] As an improved specific implementation, the pushing mechanism 22 includes a pushing cylinder 221 and a pushing bracket 222. The pushing bracket 222 is slidably disposed on one side of the storage cavity 21 via the second track 223. The pushing cylinder 221 drives the pushing bracket 222 to move along the storage cavity 21, thereby pushing the bamboo tube toward the cutting knife assembly 32.

[0046] like Figure 2 , 4 As shown, the pusher bracket 222 is initially located at the rear of the storage chamber 21. Driven by the pusher cylinder 221, the pusher bracket 222 moves into the storage chamber 21 and pushes the bamboo tube out to the output end along the second track 223 with stability. The pusher bracket 222 can be specifically set with a disc, which pushes the bamboo tube by stably contacting the rear end of the bamboo tube.

[0047] As an improved specific implementation, the material discharging and pushing mechanism 4 includes a pushing cylinder 341 and a pushing rod 342 disposed at the front of the pushing cylinder 341. The front of the pushing rod 342 is provided with a fan-shaped pushing plate 343 adapted to the shape of the storage bin 312.

[0048] like Figure 5 As shown, the push rod 342 and the fan-shaped pusher plate 343 correspond to the subsequent equipment in the preceding position. After the cylinder 31 moves to the corresponding discharge push mechanism 4, the push cylinder 341 is activated to move the push rod 342 and the fan-shaped pusher plate 343 forward and extend into the storage bin 312 to push the bamboo strips. The shape of the fan-shaped pusher plate 343 adapts to the shape of the storage bin 312, thereby ensuring effective pushing of the bamboo strips in the storage bin 312. After pushing one bamboo strip, the push rod 342 and the fan-shaped pusher plate 343 reset and exit the storage bin 312. Then, the cylinder 31 rotates to cause the next storage bin 312 to output bamboo strips corresponding to the discharge push mechanism 4.

[0049] As an improved specific implementation, the cylinder 31 is provided with an annular tooth 310, and the sliding frame 35 is provided with a rotary motor 36 that rotates by meshing with the annular tooth 310 through a gear 361; the sliding frame 35 is also provided with a number of rollers 351 that support the cylinder 31 to rotate, corresponding to the periphery of the cylinder 31.

[0050] like Figure 5 , 6 As shown, when the rotary motor 36 starts, it drives the gear 361 to rotate a rated number of revolutions, which in turn drives the ring gear 310 to rotate a rated angle, causing the storage bin 312 to adjust to the position corresponding to the discharge pushing mechanism 4 and the discharge port 34, ensuring stable and accurate angle adjustment. In the structural setting, the support position of the roller 351 and the engagement position of the ring gear 310 and the gear 361 are set to the front and rear positions respectively, thereby forming a stable support and rotation state of the cylinder 31 on the sliding frame 35, ensuring smooth and stable rotation of the cylinder 31; the roller 351 can be set as shown in the figure to be arranged at the four corners of the cylinder 31, thereby providing good support for the rotation of the cylinder 31.

[0051] As an improved specific implementation, the entrance of the storage bin 312 is also provided with a clamping plate 313 for limiting the bamboo strips. The clamping plate 313 uses the elastic element 314 to elastically resist and limit the bamboo strips. The front of the cylinder 31 is provided with an open opening 315 for waste materials to fall into.

[0052] like Figure 5 , 6 As shown, the clamping plate 313 is designed to keep the bamboo strips confined to the inside of the storage bin 312, thus ensuring that the bamboo strips are positioned and restrained while temporarily stored in the storage bin 312. This prevents the bamboo strips from moving up and down, which is beneficial for the pushing of the preceding discharge pushing mechanism 4 and the dragging and conveying of the bamboo strips by the subsequent equipment. In a specific implementation, the clamping plate 313 can be configured such that the input end is hinged to the cylinder 31 and the output end is in a swingable state, so that it can be rotated and pushed open when the bamboo strips or the fan-shaped pusher plate 343 enters. At the same time, the elastic element 414 is further provided to apply elastic force to the clamping plate 313. After the clamping plate 313 is pushed open, the elastic force is accumulated, which can make the clamping plate 313 more stably resist the bamboo strips for limiting. After the bamboo strips and the fan-shaped pusher plate 343 leave, they can be reset by relying on the elastic force.

[0053] The opening 315 allows the front half of the cylinder 31 to be unsealed. The opening 315 is used to allow waste materials such as bamboo strips produced in the bamboo splitting process to fall off, preventing waste and impurities from accumulating in the cylinder 31 and affecting its use. In a specific implementation, the front of the cylinder 31 can be set as an adjustable movable steel ring. The movable steel ring can adapt to the thickness of the bamboo strips, and the open space around the steel ring is the opening 315.

[0054] As an improved specific implementation, an openable and closable baffle 341 is provided at the discharge port 34. The baffle 341 is driven to move by a translation cylinder 342, thereby opening or closing the discharge port 34.

[0055] like Figure 6 As shown, by setting the baffle 341, the discharge port 34 is closed when no material is being discharged, thereby closing the corresponding storage bin 312, and the bamboo strips will not leak out from the discharge port 34; when material needs to be discharged, the translation cylinder 342 drives the baffle 341 to move away and open the discharge port 34, thereby ensuring the stable temporary storage of bamboo strips in the storage bin 312 and orderly discharge.

[0056] As an improved specific implementation, the buffer discharge mechanism includes a first frame 51, on which a circular first conveyor chain 52 is provided, and a plurality of first storage pipes 53 are spaced apart on the first conveyor chain 52. The first storage pipes 53 are arranged horizontally so that the inlet and outlet face the two sides of the first frame 51. The plurality of first storage pipes 53 are arranged in a ring on the first conveyor chain 52 for storing bamboo strips. A bamboo strip input position is provided on one side of the first frame 51, and a bamboo strip output position is provided on the other side.

[0057] like Figure 7 As shown, the first conveyor chain 52 is provided in at least two sets, front and back. The first conveyor chain 52 is wound around the first sprocket 521 in a ring, so that the first conveyor chain 52 is distributed in a ring to store bamboo strips. The first sprocket 521 is provided on the first rotating shaft 522, and the first rotating shaft 522 is driven by the first motor 523 to realize the adjustment of forward and reverse rotation and start and stop. The first frame 51 has input and output positions for bamboo strips on both sides to connect the conveying channels of the front and rear equipment. The preceding equipment conveys the bamboo strips from the input position to the empty first storage tube 53 where it stops for storage. In specific implementations, the device can be equipped with 8-12 first storage tubes 53, which hold the bamboo strips in a ring shape for storage. When it is necessary to output bamboo strips to the subsequent equipment, the first storage tube 53 carrying the bamboo strips moves to the output position, and the bamboo strips are output by an additional pushing or clamping feeding mechanism or the feeding mechanism of the subsequent equipment. The length of the bamboo strips can be longer than the first storage tube 53, so that the front and rear ends of the bamboo strips are exposed, which facilitates the pushing or clamping of the bamboo strips by the front or rear feeding mechanism, and facilitates the placement of detection equipment at the front or rear to detect the presence of bamboo strips, thereby determining whether the first storage tube 53 stores bamboo strips.

[0058] As an improved specific implementation, the first storage tube 53 is configured as a rectangular frame 530, and an elastic pressing frame 531 is provided inside the rectangular frame 530, which presses the bamboo strip against the bottom of the rectangular frame 530.

[0059] like Figure 10As shown, the rectangular frame 530 is used to accommodate bamboo strips. Its size is larger than the width and thickness of the bamboo strips, thus adapting to the storage and conveying needs of bamboo strips of various specifications. Through the elastic pressure frame 531 set inside the rectangular frame 530, when the bamboo strips are input, they push against the elastic pressure frame 531, and the elastic pressure frame 531 presses on the bamboo strips and is limited by the bamboo strips to the bottom of the rectangular frame 530. On the one hand, this is conducive to good storage of bamboo strips. Even on a circular conveyor track, the bamboo strips will not roll and fall randomly when conveyed to the bottom, which can effectively protect the bamboo strips and avoid collision damage. On the other hand, the elastic resistance can adapt to the limitation of bamboo strips of different thicknesses, improving the applicability of the equipment.

[0060] As an improved specific implementation, the contact position of the elastic pressure frame 531 with the bamboo strip is close to the output end of the rectangular frame 530.

[0061] like Figure 10 As shown, the elastic pressure frame 531 can limit the bamboo strip at a single position, preventing it from moving freely. Furthermore, by setting the contact position of the elastic pressure frame 531 with the bamboo strip close to the output end of the rectangular frame 530, it can help ensure that the output position of the bamboo strip is accurate when it is driven out, and can be stably and orderly conveyed to the subsequent equipment.

[0062] As an improved specific implementation, a slanted guide plate 532 is provided at the input end of the rectangular frame 530. The slanted guide plate 532 extends from the top to the bottom of the rectangular frame 530, thereby guiding the bamboo strip close to the bottom of the rectangular frame 530.

[0063] like Figure 10 As shown, the rectangular frame 530 itself has a relatively large height, facilitating the smooth input of bamboo strips. The further designed inclined guide plate 532 causes the height of the channel to gradually change from wide to narrow. The bamboo strips are guided by the inclined guide plate 532 to be close to the bottom of the rectangular frame 530, allowing them to be conveyed along the bottom of the rectangular frame 530 until they pass through the elastic pressure frame 531, which forms a structural limit, achieving stable positioning of the bamboo strips. Furthermore, the elastic pressure frame 531 and the inclined guide plate 532 are arranged one in front of the other, working together to effectively limit and stabilize the bamboo strips.

[0064] As an improved specific implementation, the input end of the rectangular frame 530 has an outwardly expanding wide port 533.

[0065] like Figure 7 , 10 As shown, the wide port 533 makes the overall size of the input end larger, which makes it easier for the bamboo strips in the preceding process to enter the rectangular frame 530 more easily and smoothly. This allows for greater adaptability when dealing with bamboo strips of different thicknesses and reduces the difficulty of alignment and debugging between the front and rear devices.

[0066] As an improved specific implementation, a first sensor 511 for detecting bamboo strips is provided on the first frame 51 corresponding to the input position; a second sensor 512 for detecting bamboo strips is provided on the first frame 51 corresponding to the output position.

[0067] like Figure 7 As shown, according to the specific input position and its location, a first sensor 511 and a second sensor 512 are added accordingly. The first sensor 511 can detect that the first storage tube 53 located at the input position is empty, and then can send a feedback signal to the preceding equipment to transport bamboo strips to the first storage tube 53 at the input position for storage. The second sensor 512 can detect that the first storage tube 53 located at the output position is a first storage tube 53 carrying bamboo strips, and then can send a feedback signal to the feeding mechanism to transport bamboo strips from the output position to the subsequent equipment.

[0068] As an improved specific implementation, the bamboo strip feeding mechanism 6 includes a second frame 61, on which a ring-shaped second conveyor chain 62 is provided. Several second storage pipes 63 are spaced apart on the second conveyor chain 62. The second storage pipes 63 are horizontally arranged so that the inlet and outlet face both sides of the second frame 61. The several second storage pipes 63 are arranged in a ring on the second conveyor chain 62 to store bamboo strips. Along the conveying direction of the second storage pipes 63, a second input mechanism 64 for driving bamboo strip input, a second detection mechanism 66 for detecting bamboo strip thickness, and a second output mechanism 65 for driving bamboo strip output are respectively provided on the second frame 61.

[0069] like Figure 8As shown, after the bamboo strips are rough-planed by the preceding width-fixing rough planer 01, they enter the planing and strip-forming feeding mechanism 6. The thickness of the bamboo strips is measured by the second detection mechanism 66 and then fed back to the subsequent planing and strip-forming machine 02. The planing and strip-forming machine 02 then adjusts the blade spacing to achieve a more efficient and faster processing effect. The adaptability to thickness makes the processing smoother and reduces the wear on the blades. The second conveyor chain 62 consists of at least two sets, front and rear. The second conveyor chain 62 is wound around the second sprocket 621 in a ring, thus allowing the second conveyor chain 62 to be distributed in a ring for conveying and storing the bamboo strips. The second sprocket 621 is mounted on the second rotating shaft 622, which is driven by the second motor 623 to adjust forward and reverse rotation and start and stop. The second frame 61 has input and output positions for bamboo strips on both sides to connect the conveying channels of the front and rear equipment. The preceding equipment conveys the bamboo strips from the input position to the second input mechanism 64, and then the second input mechanism 64 provides stable power to convey the bamboo strips to the corresponding empty second storage tube 63 for storage. In specific implementation, the device can be equipped with 8-20 second storage tubes 63, which hold the bamboo strips in a ring shape for storage. When the bamboo strips are to be output, the second storage tube 63 is moved to the second detection mechanism 66, which detects the thickness of the bamboo strips. The detection result is fed back to the subsequent equipment. Then, the second storage tube 63 is moved to the output position, and the bamboo strips are sent to the subsequent equipment through the second output mechanism 65. The length of the bamboo strip can be longer than the second storage pipe 63, thus allowing the front and rear ends of the bamboo strip to be exposed. This facilitates the pushing or clamping of the bamboo strip by the front or rear feeding mechanism, and also facilitates the detection of the bamboo strip thickness by the front or rear-arranged second detection mechanism 66. The bamboo strip feeding mechanism 6 realizes the detection and output of the bamboo strip thickness, as well as the storage and buffering of a certain number of bamboo strips.

[0070] As an improved specific implementation, the second input mechanism 64 includes a pair of second conveying rollers 641 and a second input motor 642. The second input motor 642 is connected to the second conveying rollers 641 through a transmission member for driving. The pair of second conveying rollers 641 are arranged vertically to form a conveying channel between them for the bamboo strips to be clamped and passed through. The bamboo strips are clamped and conveyed by the pair of second conveying rollers 641 to the corresponding empty second storage tube 63.

[0071] like Figure 8 As shown, a pair of second conveying rollers 641 clamp the bamboo strips fed in from the previous stage, effectively limiting the position of the bamboo strips. For bamboo strips with a relatively long overall length, this ensures better stability as the bamboo strips are conveyed into the second storage pipe 63. The power for the second conveying rollers 641 is provided by the second input motor 642, which stably drives the second conveying rollers 641 to rotate, thereby completing the conveying of the bamboo strips.

[0072] As an improved specific implementation, the second output mechanism 65 includes a second pusher 651 and a second output cylinder 652. The second output cylinder 652 drives the second pusher 651 to extend or retract, and when it extends, it pushes the bamboo strip in the corresponding position of the second storage tube 63 to the other side.

[0073] like Figure 8 As shown, the second pusher 651 can be a sheet-like plate or a disc, the size of which is larger than the end size of the bamboo strip, so as to stably push the bamboo strip; the power of the second pusher 651 is provided by the second output cylinder 652, which drives the extension and retraction of the second pusher 651. The stroke of the second output cylinder 652 is stable, which can ensure that the pushing distance of the bamboo strip is accurate and stable, so that the subsequent equipment can receive the bamboo strip and continue to output the bamboo strip.

[0074] As an improved specific implementation, the detection mechanism 66 includes a pair of thickness sensors respectively disposed on the upper and lower sides of the output end of the second storage tube 63.

[0075] like Figure 8 As shown, a non-contact thickness sensor can be used, arranged on the upper and lower sides of the output end of the second storage tube 63, to detect the thickness of the bamboo strip. The specific type and model of the thickness sensor can be achieved using existing technology.

[0076] As an improved specific implementation, the specific structure of the second storage pipe 63 can be implemented with reference to the first storage pipe 53, specifically referring to... Figure 10 Implement it.

[0077] As an improved specific implementation, the thickness sorting mechanism 8 includes a third frame 81, on which a ring-shaped third conveyor chain 82 is provided. Several third storage tubes 83 are spaced apart on the third conveyor chain 82. The third storage tubes 83 are horizontally arranged so that the inlet and outlet face both sides of the third frame 81. The several third storage tubes 83 are arranged in a ring on the third conveyor chain 82 to store bamboo strips. On one side of the third frame 81, a set of third input mechanisms 84 for driving bamboo strip input and several sets of third push mechanisms 85 for pushing bamboo strip output are arranged at intervals. On the other side of the third frame 81, several sets of third output mechanisms 86 corresponding to the third push mechanisms 85 for driving bamboo strip output are arranged at intervals.

[0078] like Figure 9As shown, the bamboo strips after planing are first tested by the thickness detection mechanism 7 to obtain the thickness data of the bamboo strips. The thickness data is fed back to the thickness sorting mechanism 8, which then sends the bamboo strips to the corresponding thickness storage bins during transport. The third conveyor chain 82 consists of at least two sets, front and rear, and is wound in a ring around the third sprocket 821, thus enabling the third conveyor chain 82 to transport and store the bamboo strips in a ring distribution. The third sprocket 821 is mounted on the third rotating shaft 822, which is driven by the third motor 823 to adjust forward and reverse rotation and start and stop. Input and output positions for bamboo strips are set on both sides of the third frame 81 to connect the front and rear equipment conveying channels. Bamboo strips that have completed the thickness detection at the previous stage are conveyed from the input position to the third input mechanism 84. Then, the third input mechanism 84 provides stable power to convey the bamboo strips to the corresponding empty third storage tube 83 for storage. In specific implementation, the device can be set with 12-18 third storage tubes 83. The corresponding third push mechanism 85 and third output mechanism 86 are arranged in multiple groups along the conveying direction of the third conveyor chain 82 according to the thickness specification sorting standard. The third storage tube 83 that has completed the storage of bamboo strips is conveyed to the corresponding third push mechanism 85 and third output mechanism 86 according to the thickness information of the bamboo strips. The third push mechanism 85 pushes the bamboo strips to the third output mechanism 86. The third output mechanism 86 provides stable power to convey the bamboo strips to the subsequent track position. Then, the subsequent conveying mechanism continues to convey the bamboo strips to the final storage bin. The bamboo strips can be longer than the third storage bin 83, allowing the front and rear ends of the bamboo strips to be exposed, facilitating the pushing or clamping conveying of the bamboo strips by the front or rear feeding mechanism. The thickness sorting mechanism 8 enables stable transfer and sorting output of the bamboo strips.

[0079] As an improved specific implementation, the third input mechanism 84 includes a third input roller 841, a third input coupling 842, a third input transmission gear set 843, and a third input motor 844. The third input rollers 841 are arranged in pairs, one above the other, thus forming a conveying channel between them for the bamboo strips to be clamped and passed through. The third input rollers 841 are connected to the third input motor 844 in sequence through the third input coupling 842 and the third input transmission gear set 843 for driving. The bamboo strips are clamped and conveyed by the pairs of third input rollers 841 to the corresponding empty third storage tube 83.

[0080] like Figure 9As shown, the bamboo strips fed in from the previous stage are clamped by pairs of third input rollers 841, which can effectively limit the position of the bamboo strips. For bamboo strips with a relatively long overall length, this can better ensure the stability of the bamboo strips as they are fed into the third storage pipe 83. Preferably, the third input rollers 841 can be arranged in two pairs, one in front of the other. The power of the third input rollers 841 is provided by the third input motor 844. Specifically, through the sequential connection of the third input transmission gear set 843 and the third input coupling 842, the single-axis output of the third input motor 844 can be converted into multi-axis transmission by multiple third input couplings 842 connected to the corresponding third input rollers 841, thereby ensuring stable conveying.

[0081] As an improved specific implementation, the third pushing mechanism 85 includes a third pushing member 851 and a third output cylinder 852. The third output cylinder 852 drives the third pushing member 851 to extend or retract. When extended, it pushes the bamboo strip in the corresponding position of the third storage tube 83 to the third output mechanism 86 on the other side.

[0082] like Figure 9 As shown, the third pusher 851 can be a sheet-like plate or a disc, the size of which is larger than the end size of the bamboo strip, so as to stably push the bamboo strip; the power of the third pusher 851 is provided by the third output cylinder 852, which drives the extension and retraction of the third pusher 851. The stroke of the third output cylinder 852 is stable, which can ensure that the pushing distance of the bamboo strip is accurate and stable, so that the third output mechanism 86 can receive the bamboo strip and continue to output the bamboo strip backward.

[0083] As an improved specific implementation, the third output mechanism 86 includes a third output roller 861, a third output coupling 862, a third output transmission gear set 863, and a third output motor 864. The third output rollers 861 are arranged in pairs, one above the other, thus forming a conveying channel between them for the bamboo strips to be clamped and passed through. The third output rollers 861 are connected to the third output motor 864 in sequence through the third output coupling 862 and the third output transmission gear set 863 for driving. The bamboo strips are clamped and conveyed outward by the pairs of third output rollers 861.

[0084] like Figure 9As shown, the bamboo strips conveyed from the third storage pipe 83 are clamped by the paired third output rollers 861, which can effectively limit the position of the bamboo strips. For bamboo strips with a relatively long overall length, this can better ensure the stability of the bamboo strips during backward conveying. Preferably, the third output rollers 861 can be configured as two pairs arranged front and back. The power of the third output rollers 861 is provided by the third output motor 864. Specifically, through the sequential connection of the third output transmission gear set 863 and the third output coupling 862, the single-axis output of the third output motor 864 can be converted into multi-axis transmission by multiple third output couplings 862 connected to the corresponding third output rollers 861, thereby ensuring stable conveying.

[0085] As an improved specific implementation, the third output rollers 861 of the third output mechanism 86 are connected to each other by a third output coupling 862, and a shared set of third output transmission gear 863 and third output motor 864 are connected from one end.

[0086] like Figure 9 As shown, the third output rollers 861 of multiple sets of third output mechanisms 86 are connected in sequence through third output couplings 862, so that the power of all third output rollers 861 is provided by a single third output motor 864, which can greatly reduce the cost of the equipment and reduce the complexity of the equipment setup, making it easier to use.

[0087] As an improved specific implementation, the specific structure of the third storage pipe 83 can be implemented with reference to the first storage pipe 53, specifically referring to... Figure 10 Implement it.

[0088] The above are merely preferred embodiments of the present invention. The scope of protection of the present invention is not limited to the above embodiments. All technical solutions falling within the scope of the present invention's concept are within the scope of protection of the present invention. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principle of the present invention should also be considered within the scope of protection of the present invention.

Claims

1. A device for continuous production of rough planed bamboo strip, characterized in that: It includes a feeding mechanism (1), a bamboo splitting mechanism (2), a rotating bamboo cage (3), a fixed-width rough planer (01), a buffer discharge mechanism (5), a planing strip feeding mechanism (6), a planing strip machine (02), a buffer discharge mechanism (5), a precision rough planer (03), a thickness detection mechanism (7), and a thickness sorting mechanism (8), arranged in sequence. The operating method of the continuous production equipment for rough-planed bamboo strips includes: Step 1: The bamboo tubes are stored at the feeding mechanism (1) and fed to the bamboo splitting mechanism (2); Step 2: The bamboo tube is pushed from the bamboo splitting mechanism (2) to the rotating bamboo cage (3) to split the bamboo into pieces; Step 3: Rotate the bamboo cage (3) to transport the bamboo strips to the fixed width rough planer (01) for trimming the bamboo strips and removing the bamboo green layer, bamboo yellow layer and bamboo partition. Then the bamboo strips enter the first buffer discharge mechanism (5) for buffering. Step 4: The bamboo strips are conveyed from the first buffer discharge mechanism (5) to the planing strip feeding mechanism (6). The planing strip feeding mechanism (6) detects the wall thickness of the bamboo strips and feeds the feedback to the subsequent planing strip machine (02) for tool spacing adjustment. Step 5: The bamboo strips are conveyed from the strip feeding mechanism (6) to the strip cutting machine (02) for further removal of the bamboo green layer and bamboo yellow layer. After that, the bamboo strips enter the second buffer discharge mechanism (5) for buffering. Step 6: The bamboo strips are conveyed from the second buffer discharge mechanism (5) to the precision rough planer (03) for the final removal of the bamboo green layer and bamboo yellow layer, and the width of the bamboo strips is corrected. Step 7: The bamboo strips are then transported to the thickness detection mechanism (7) to detect the thickness and provide feedback to the subsequent thickness sorting mechanism (8). Step 8: The bamboo strips are then transported to the thickness sorting mechanism (8). The thickness sorting mechanism (8) transports the bamboo strips to the corresponding thickness outlet according to their thickness, so that the bamboo strips are transferred to the corresponding storage bins.

2. A device for continuous production of rough planed bamboo strips according to claim 1, characterized in that: It also includes a material feeding mechanism (4) that works in conjunction with the rotating bamboo cage (3). The feeding mechanism (1) includes a storage rack (11) and a lifting rod (12). The storage rack (11) is inclined and the lifting rod (12) is provided at the output end. The bamboo splitting mechanism (2) includes a storage cavity (21) and a pushing mechanism (22). The storage cavity (21) is provided at the output end of the storage rack (11). When the lifting rod (12) rises, it lifts the bamboo tube located at the lifting rod (12) and falls into the storage cavity (21) after passing the baffle (13) above the output end of the storage rack (11). The rotating bamboo cage (3) and the pushing mechanism (22) are respectively provided on both sides of the storage cavity (21). The rotating bamboo cage (3) includes a cylindrical body (31), which is evenly divided into storage bins (312) by several partitions (311). The input end of the cylindrical body (31) is provided with a cutting set (32) corresponding to the partitions (311). The pushing mechanism (22) pushes the bamboo tubes in the storage chamber (21) to the cutting set (32) for slicing, and each bamboo slice enters the corresponding storage bin (312) for storage. The output end of the cylindrical body (31) has a rear wall (33), which is used to... Each storage bin (312) is equipped with a discharge port (34). The cylinder (31) is rotatably mounted on a sliding frame (35). The sliding frame (35) is horizontally mounted on a horizontal rail. The cylinder (31) rotates to align each storage bin (312) with the discharge port (34). The cylinder (31) is translated to align with the position of the preceding bamboo splitting mechanism (2) or the discharge pushing mechanism (4). The discharge pushing mechanism (4) pushes the bamboo pieces in the storage bin (312) toward the discharge port (34).

3. The continuous production apparatus for rough-planed bamboo strips according to claim 2, characterized in that: The feeding mechanism (1), the bamboo splitting mechanism (2) and the rotating bamboo cage (3) are set as two groups, left and right. The discharge pushing mechanism (4) is set in front of the two groups of rotating bamboo cages (3). The two groups of rotating bamboo cages (3) switch the positions of the bamboo splitting mechanism (2) or the discharge pushing mechanism (4) by translation, so that the left and right groups of rotating bamboo cages (3) can discharge materials alternately.

4. The continuous production apparatus for rough-planed bamboo strips according to claim 3, characterized in that: The method of using the continuous production device for coarsely planed bamboo strips also includes: replacing the rotating bamboo cage (3) with the corresponding specification according to the diameter specification of the bamboo tube before feeding the bamboo tube.

5. A continuous production apparatus for rough-planed bamboo strips according to claim 2, 3, or 4, characterized in that: The output end of the storage rack (11) is configured with two sets of lifting rods (12) at the front and rear. The front lifting rod (12) is lower than the rear lifting rod (12), and baffles (13) are respectively set behind the two sets of lifting rods (12). The bamboo tube is lifted by the front lifting rod (12) and falls to the rear lifting rod (12). The rear lifting rod (12) lifts the bamboo tube and falls to the storage cavity (21).

6. A continuous production apparatus for rough-planed bamboo strips according to claim 2, 3, or 4, characterized in that: A baffle (111) is provided on one side of the storage rack (11), and a limiting cylinder (112) is provided on the other side of the output end of the storage rack (11). The limiting cylinder (112) is used to push the bamboo tube to the baffle (111) for alignment.

7. A continuous production apparatus for rough-planed bamboo strips according to claim 2, 3, or 4, characterized in that: The storage chamber (21) includes several support rods (211) arranged in an arc-shaped interval. The several support rods (211) are symmetrically arranged on both sides to form a semi-circular space for supporting the bamboo tube.

8. A continuous production apparatus for rough-planed bamboo strips according to claim 2, 3, or 4, characterized in that: The material feeding mechanism (4) includes a feeding cylinder (341) and a feeding rod (342) located at the front of the feeding cylinder (341). The front of the feeding rod (342) is provided with a fan-shaped feeding plate (343) adapted to the shape of the storage bin (312).

9. A continuous production apparatus for rough-planed bamboo strips according to claim 2, 3, or 4, characterized in that: The cylinder (31) is provided with an annular tooth (310), and the sliding frame (35) is provided with a rotary motor (36) and drives the rotation by meshing the annular tooth (310) with a gear (361); the sliding frame (35) is also provided with a number of rollers (351) that support the cylinder (31) to rotate around the periphery of the cylinder (31).

10. A continuous production apparatus for rough-planed bamboo strips according to claim 2, 3, or 4, characterized in that: The entrance of the storage bin (312) is also provided with a clamping plate (313) for limiting the bamboo strips. The clamping plate (313) uses an elastic element (314) to elastically resist and limit the bamboo strips. The front of the cylinder (31) is provided with an open opening (315) for waste materials to fall into.

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