A linkage cable slice sampling device

Abstract

This invention discloses a linkage-type cable slicing and sampling device, including a frame, a drive module, a cutting module, a clamping module, a limiting plate, a platform lifting slider, a platform lifting guide rail, a locking module, a feed module, and mounting feet. The drive module provides the necessary power to all modules of the device. The cutting module, located at the top of the device, drives the cutting tool to slice and sample the cable specimen. The clamping module, located at the front of the device, clamps the cable specimen. The locking module, installed in the middle of the device, fixes the spatial position of the clamping module, thereby assisting the cutting module in completing the cutting. The feed module, located at the bottom of the device, supports and pushes the clamping module upwards step by step. Through the coordinated operation of all modules, multiple slices of the cable specimen can be completed in a single clamping operation. Furthermore, the slice thickness can be adjusted according to actual needs to meet the requirements of different tests. Beneficial technical effects: This invention is simple to operate and easy to implement. Cable samples can be continuously cut and sampled multiple times after one clamping, which improves sample preparation efficiency. It reduces manual operation in the sample preparation process, and the uniformity and consistency of the finished slices are good, which improves the slice quality. The overall structure is compact, occupies little space, and has a high degree of modularity. It is realized through a purely mechanical structure and does not require an external power source. It is highly adaptable to the use environment and is especially suitable for testing laboratories that need to prepare small batches of samples.

Description

Technical Field

[0001] This invention relates to the field of cable slicing and sampling technology, and specifically to a linkage-type cable slicing and sampling device. Background Technology

[0002] With the rapid development of my country's power construction and the continuous improvement of the power grid system, the demand for power cables has surged. While production capacity is expanding rapidly, ensuring product performance and quality has become paramount. Among the key aspects of this, rapid and accurate testing of cable samples is crucial for guaranteeing product quality. Efficient, convenient, and high-quality slicing and sampling of the cable's external insulation layer is a necessary prerequisite for conducting relevant tests. According to the relevant sample preparation requirements of GB / T 2951.11-2008, dumbbell-shaped specimens should be used whenever possible. Preparing dumbbell-shaped specimens requires cutting test strips from the cable insulation layer, with a thickness between 0.8 and 2.0 mm. If this is still insufficient, the minimum allowable thickness is 0.6 mm.

[0003] Traditional testing laboratories often rely on hand-held cutters to sample cables, resulting in poor uniformity and consistency of the obtained samples, low sample preparation efficiency, and difficulty in meeting the needs of current cable testing work. As for the cable slicing devices commonly used in the market, they usually occupy a large space, have high manufacturing costs, require an external power source, and have high requirements for the operating environment. Moreover, after each slicing, manual intervention is usually required to manually adjust the position of the cable sample before the next cutting and sampling can be carried out, which reduces the sample preparation efficiency and affects the stability of the finished product quality. Summary of the Invention

[0004] Therefore, in view of the above technical problems, the present invention provides a linkage-type cable slicing sampling device. Through the linkage and cooperation of each module, the cable sample can be clamped once and then continuously slicing and sampling can be completed. There is no need for manual intervention to adjust the sample position during the sample preparation process, which ensures the stability of the slice quality. In addition, the thickness of the obtained slices can be adjusted according to actual needs to meet the requirements of different tests.

[0005] To achieve the above-mentioned technical objectives, the present invention provides the following technical solution: a linkage-type cable slicing and sampling device, comprising a frame, a drive module, a cutting module, a clamping module, a limit plate, a platform lifting slider, a platform lifting guide rail, a locking module, a feed module, and mounting feet. The frame, serving as the structural framework of the entire device, is fixedly connected to the mounting feet to secure and support other modules. The drive module runs through the entire device from top to bottom, providing necessary power to the cutting module, locking module, and feed module. The cutting module, located at the top of the frame, is used to cut the cable sample. The clamping module, located in front of the cutting module, is connected to the frame via a platform lifting slider and a platform lifting guide rail, allowing it to move vertically relative to the frame along the platform lifting guide rail. Limiting plates are installed at the front and rear of the clamping module to restrict the cable sample's position within the clamping module. The locking module, located in the middle layer of the frame below the cutting module, locks the clamping module's position in space, thus assisting the cutting module in completing the cutting operation. The feed module, located at the bottom of the frame, supports and pushes the clamping module upwards along the platform lifting guide rail. Through its coordinated operation with the locking and cutting modules, it performs continuous multiple slicing and sampling of the cable sample. Furthermore, the slice thickness can be adjusted according to actual needs to meet different testing requirements.

[0006] Furthermore, the drive module includes: a handwheel, a bearing assembly, a power spindle, a positioning bushing, a power spindle timing pulley, an upper timing belt, a locking module timing pulley, a middle timing belt, a feed module timing pulley, and a power spindle mounting bearing housing.

[0007] The handwheel is located at the end of the power spindle at the top of the frame, allowing the operator to rotate it in a specified direction to provide power to the entire device. The power spindle is mounted in a power spindle mounting bearing housing via a bearing assembly. The other end of the power spindle is equipped with a power spindle timing pulley and a positioning bushing. The power spindle timing pulley is connected to the locking module timing pulley via an upper timing belt, transmitting power to the locking module. Similarly, the locking module timing pulley is connected to the feed module timing pulley via a middle timing belt, thus providing driving force to the feed module. The power spindle mounting bearing housing is fixed to the top of the frame with a set of screws.

[0008] Furthermore, the feed module includes: a crank, a pin, a connecting rod, a feed drive gear, a feed gear shaft, a fixed rack, a feed rack, a tool support frame, a tool mounting frame, a slicing tool, a tool adjustment screw, a tool adjustment knob, a tool guide rod, a feed gear slider connecting seat, a feed gear slider, a feed gear guide rail, and a feed rack guide rail.

[0009] The crank is fixedly connected to the main power shaft and can rotate around its axis along with the main power shaft. The other end of the crank is hinged to a connecting rod via a pin, and the connecting rod performs planar motion in space. A feed gear shaft is mounted on the other end of the connecting rod. A feed drive gear and a feed gear slider connecting seat are mounted on the feed gear shaft. The feed drive gear is located in the middle of the feed gear shaft, with a fixed rack at its top and bottom that meshes with the feed rack. Two sets of feed gear slider connecting seats are provided, located at both ends of the feed gear shaft, and engage with the feed gear guide rail via the feed gear slider. The fixed rack is fixed to the top of the frame, with its teeth facing downwards and meshing with the teeth of the feed drive gear. The feed gear… The rack is located below the feed gear slider, with its teeth facing upwards and meshing with the teeth of the feed drive gear. Furthermore, the feed rack, through its wedge-shaped structure, engages with the feed rack guide rail, allowing it to move back and forth along the guide rail. A tool support frame is fixedly connected to its front end. The tool support frame is equipped with a tool adjustment screw and a tool guide rod. The tool adjustment screw is threaded into the tool mounting bracket, and a tool adjustment knob is located at its lower end. The lower part of the tool mounting bracket is fixedly connected to the slicing tool, and its upper part engages with the tool guide rod. By rotating the tool adjustment knob, the slicing tool can be moved vertically along the tool guide rod to adjust its initial position relative to the cable sample.

[0010] Furthermore, the clamping module includes: a right fixing block, a left fixing block, a lead screw shaft, a lead screw limiting block, a lead screw shaft sleeve, a fixing knob, a lead screw limiting block mounting screw, a clamping worktable body, rollers, and roller shafts.

[0011] The lead screw shaft is symmetrically provided with two sections of threads, one left-handed and one right-handed, which respectively cooperate with the left and right fixed blocks. The two ends of the lead screw shaft are connected to the lead screw limit blocks through lead screw bushings, allowing it to rotate around a fixed axis. The lead screw limit blocks are configured in two sets, respectively fixedly installed on the left and right sides of the clamping worktable body, and play a limiting role for the left and right fixed blocks. The fixing knob is located at the end of the lead screw shaft, outside the lead screw limit blocks, and can adjust the relative position of the left and right fixed blocks for clamping or releasing the cable sample. A roller shaft is provided at the bottom of the clamping worktable body, and rollers are installed on the roller shaft.

[0012] Furthermore, the locking module includes: a camshaft, a cam, a camshaft mounting base, a push rod, a guide bar, a left connecting rod, a right connecting rod, a left fork arm, a right fork arm, a fork arm pivot, a pressure block connecting shaft, a pressure block, a pressure block guide rod, and a pressure block guide rod sleeve.

[0013] The camshaft is coaxially and fixedly connected to the synchronous pulley of the locking module. Both ends of the camshaft are fixedly connected to the frame through camshaft mounting seats. A cam is installed in the middle section of the camshaft, which can rotate synchronously with the camshaft, thereby driving the push rod to move horizontally back and forth. The push rod is a frame structure with guide strips installed at its top and bottom. The guide strips cooperate with the grooves on the middle beam of the frame. In addition, the push rod is also hinged to both the left and right connecting rods through a pin. The other end of the left connecting rod is hinged to the left fork arm, and similarly, the other end of the right connecting rod is also hinged to the right fork arm. The middle part of the left fork arm is hinged to both the right fork arm and the frame through a fork arm pivot. The left and right forks can rotate synchronously around the fork arm pivot. The left fork arm has a sliding groove at its front end, which cooperates with the middle section of the pressure block connecting shaft, allowing the pressure block connecting shaft to move along the sliding groove. The connection method of the right fork arm is similar. The pressure block connecting shaft is set into two groups, left and right. The upper and lower ends of each group of pressure block connecting shafts are hinged to the corresponding pressure blocks, which can synchronously drive the upper and lower groups of pressure blocks to move horizontally. The pressure blocks are symmetrically arranged on both sides of the clamping worktable body. Several groups of pressure block guide rods are fixedly installed on each group of pressure blocks. The pressure block guide rods can move inside the pressure block guide rod sleeve, which is fixed inside the middle transverse beam of the frame. A spring is set inside the pressure block guide rod sleeve to push the pressure block guide rod and pressure block to reset and press the clamping worktable body.

[0014] Furthermore, the feed module includes: a dial shaft, a dial, a dial shaft mounting base, a grooved wheel, a small synchronous pulley, a grooved wheel shaft, an overrunning clutch, a grooved wheel shaft mounting base, a lower synchronous belt, a large synchronous pulley, a large synchronous pulley shaft, a feed gear, a large synchronous pulley shaft mounting base, a feed rack, a feed table, a feed wedge, a wedge guide rod, a wedge adjusting plate, a wedge limit seat, a positioning pin, a connecting rod, a positioning pin spring, a positioning pin spring pressure plate, a positioning pin plate, a feed module return spring, a lifting ring, a ratchet, a pawl, a pawl compression spring, a pawl lever, a ratchet mounting base, a wedge guide pin, a wedge guide groove plate, a feed table slider, a feed table guide rail, and a feed rack guide rail.

[0015] The dial shaft is coaxially and fixedly connected to the synchronous pulley of the feed module. Both ends of the dial shaft are fixedly connected to the frame via dial shaft mounting seats. A dial is fixedly mounted on the middle section of the dial shaft, allowing it to rotate synchronously with the dial shaft, thereby driving the grooved wheel to rotate intermittently. The grooved wheel is mounted on the grooved wheel shaft via an overrunning clutch, allowing the grooved wheel shaft to rotate in one direction. A small synchronous pulley is fixedly mounted on the middle section of the grooved wheel shaft, and both ends of the grooved wheel shaft are fixedly connected to the frame via grooved wheel shaft mounting seats. The small synchronous pulley is connected to a large synchronous pulley via a lower synchronous belt, and the large synchronous pulley is fixedly mounted on the middle section of the large synchronous pulley shaft. Feed teeth are also fixedly mounted on the middle section of the large synchronous pulley shaft. The feed gear meshes with the feed rack below. As the synchronous large pulley shaft rotates, the feed gear drives the feed rack to move horizontally forward. The feed rack engages with the feed rack guide rail through its own wedge structure, and its front end is fixedly connected to the feed table, which can push the feed table to move back and forth along the rack guide rail. Wedge block limit seats are fixedly installed on both sides of the feed table, and there are wedge block guide rods between the wedge block limit seats. Several sets of feed wedge blocks with different inclinations are set on the feed table. As the feed table moves forward as a whole, the feed wedge blocks support and push the rollers and the clamping table body and other components on them to move vertically upward.

[0016] The foremost heights of the several sets of feed wedges are all the same, and the height of their tail ends gradually increases with the slope. The several sets of wedges are fixed together by bolts. A wedge adjustment plate is fixedly installed on the side. After releasing the other parts from limiting the wedges, pulling the wedge adjustment plate allows the entire feed wedge to move laterally along the wedge guide rod. The rear of the feed table has multiple sets of mounting holes, each containing a positioning pin and a positioning pin spring. The front end of the positioning pin is a ball head, and the tail end is fixed to a connecting rod. The other end of the connecting rod extends outward from the mounting hole of the feed table and connects with... The positioning pin and the plate are fixedly connected; the tail end of each feed wedge is provided with a blind hole that mates with the ball head at the front end of the positioning pin, and the opening of the blind hole is provided with a guide cone angle; the positioning pin spring is sleeved on the connecting rod, one end of which abuts against the positioning pin, and the other end abuts against the positioning pin spring pressure plate, to ensure effective engagement between the positioning pin and the blind hole at the tail end of the wedge, and the positioning pin spring pressure plate is fixedly installed on the rear end face of the feed table; two sets of lifting rings are symmetrically installed below the feed table, each set of lifting rings is equipped with a feed module return spring, and the other end of the module return spring is connected to the corresponding lifting ring installed on the bottom beam of the frame; the synchronous large One end of the pulley shaft is fixedly connected to the frame via a synchronous large pulley shaft mounting seat, and the other end is fixedly connected to the frame via a ratchet mounting seat. The ratchet is fixedly mounted on the synchronous large pulley shaft, located inside the ratchet mounting seat, and a pawl is provided below the ratchet to cooperate with it. The pawl has mounting shafts on both sides, which are installed in corresponding mounting holes on the ratchet mounting seat, allowing the pawl to swing within a certain range. A pawl compression spring is also provided inside the ratchet mounting seat, with one end abutting against the ratchet mounting seat and the other end abutting against the pawl, to ensure that the pawl always maintains contact with the ratchet. The pawl lever is located on the outer side of the ratchet mounting seat and can move the ratchet. The pawl rotates, disengaging from the ratchet. Multiple sets of wedge block guide pins are fixedly installed at the bottom front end of the feed wedge block. Each feed wedge block has a corresponding wedge block guide pin. As the feed wedge block moves forward with the worktable, each wedge block guide pin slides into its corresponding groove on the wedge block guide groove plate. The wedge block guide groove plate is fixedly connected to the frame and located in front of the feed worktable, with several sets of grooves on its upper surface. Multiple sets of feed worktable sliders are located below and fixedly connected to the feed worktable to support the feed worktable's horizontal forward and backward movement along the feed worktable guide rail.

[0017] The beneficial effects of this invention are as follows: 1. The operation is simple and easy to implement. After one clamping, the cable sample can be cut and sampled multiple times continuously, which improves the continuity of the cable slicing sampling process and thus improves the efficiency of cable slicing sample preparation. 2. Through the coordinated operation of various modules, the manual intervention required in the sample preparation process is reduced, ensuring the uniformity and consistency of the finished cable slices and improving the quality of the finished slices. In addition, the thickness of the obtained slices can be adjusted according to actual needs to meet the requirements of different tests.

[0018] 3. The overall structure is compact, occupies little space, and has a high degree of modularity. It is achieved through a purely mechanical structure, requiring no external power source, and is highly adaptable to the operating environment, making it especially suitable for testing laboratories that require small-batch sample preparation. Attached Figure Description

[0019] To better illustrate the embodiments of the present invention, the accompanying drawings used in the embodiments will be briefly described below. The drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained from these drawings without creative effort.

[0020] Figure 1 This is one of the overall structural schematic diagrams of the present invention; Figure 2 This is the second schematic diagram of the overall structure of the present invention; Figure 3 This is a schematic diagram of the driving module of the present invention; Figure 4 This is a schematic diagram of the tool feed module of the present invention; Figure 5 This is a schematic diagram of the clamping module of the present invention; Figure 6 This is a schematic diagram of the locking module of the present invention; Figure 7 This is a schematic diagram of the feed module of the present invention; Figure 8 This is a top view of the feed module of the present invention; In the diagram: 1-Frame, 2-Drive module, 3-Infeed module, 4-Clamping module, 5-Limit plate, 6-Platform lifting slider, 7-Platform lifting guide rail, 8-Locking module, 9-Feed module, 10-Mounting foot, 201-Handwheel, 202-Bearing assembly, 203-Power spindle, 204-Positioning bushing, 205-Power spindle timing pulley, 206-Upper timing belt, 207-Locking module timing pulley, 208-Middle timing belt, 209-Feed module timing pulley, 210-Power spindle mounting bearing seat, 301-Crank, 302-Pin, 303-Connecting rod, 304-Infeed drive gear, 305-Infeed gear shaft, 306-Fixed Rack, 307-Feed rack, 308-Tool support bracket, 309-Tool mounting bracket, 310-Slicing tool, 311-Tool adjusting screw, 312-Tool adjusting knob, 313-Tool guide rod, 314-Feed gear slider connecting seat, 315-Feed gear slider, 316-Feed gear guide rail, 317-Feed rack guide rail, 401-Right fixing block, 402-Left fixing block, 403-Leader screw shaft, 404-Leader screw limit block, 405-Leader screw bushing, 406-Fixing knob, 407-Leader screw limit block mounting screw, 408-Clamping table body, 409-Roller, 410-Roller shaft, 801-Cam shaft, 802-Cam 803-Camshaft mounting bracket, 804-Push rod, 805-Guide bar, 806-Left connecting rod, 807-Right connecting rod, 808-Left fork arm, 809-Right fork arm, 810-Fork arm pivot, 811-Pressure block connecting shaft, 812-Pressure block, 813-Pressure block guide rod, 814-Pressure block guide rod sleeve, 901-Dial disc shaft, 902-Dial disc, 903-Dial disc shaft mounting bracket, 904-Gutter pulley, 905-Synchronous small pulley, 906-Gutter pulley shaft, 907-Overrunning clutch, 908-Gutter pulley shaft mounting bracket, 909-Lower synchronous belt, 910-Synchronous large pulley, 911-Synchronous large pulley shaft, 912-Feed gear, 913-Synchronous large pulley shaft mounting bracket 914-Feed rack, 915-Feed table, 916-Feed wedge, 917-Wedge guide rod, 918-Wedge adjusting plate, 919-Wedge limit seat, 920-Positioning pin, 921-Connecting rod, 922-Positioning pin spring, 923-Positioning pin spring pressure plate, 924-Positioning pin adjustment plate, 925-Feed module reset spring, 926-Lifting ring, 927-Ratchet, 928-Pawl, 929-Pawl compression spring, 930-Pawl lever, 931-Ratchet mounting seat, 932-Wedge guide pin, 933-Wedge guide groove plate, 934-Feed table slider, 935-Feed table guide rail, 936-Feed rack guide rail. Detailed Implementation

[0021] The present invention will be further described below with reference to examples and accompanying drawings, but this description does not limit the scope of the claims.

[0022] like Figures 1-2 As shown, a linkage-type cable slicing and sampling device includes a frame 1, a drive module 2, a cutting module 3, a clamping module 4, a limit plate 5, a platform lifting slider 6, a platform lifting guide rail 7, a locking module 8, a feeding module 9, and mounting feet 10.

[0023] One type of linkage cable slicing and sampling device includes a frame 1, a drive module 2, a cutting module 3, a clamping module 4, a limiting plate 5, a platform lifting slider 6, a platform lifting guide rail 7, a locking module 8, a feeding module 9, and mounting feet 10. The frame 1 serves as the framework of the entire device and is fixedly connected to the mounting feet 10 to fix and support other modules. The drive module 2 runs through the entire device from top to bottom, providing necessary power to the cutting module 3, locking module 8, and feeding module 9. The cutting module 3 is located at the top of the frame 1 and is used to cut cable samples. The clamping module 4 is located in front of the cutting module 3 and is connected to the frame 1 via the platform lifting slider 6 and the platform lifting guide rail 7. It can move vertically relative to the frame 1 along the platform lifting guide rail 7. The clamping module 4 has locking and locking components at its front and rear. A limiting plate 5 is used to restrict the front and rear position of the cable sample within the clamping module 4; the locking module 8 is located in the middle layer of the frame 1, below the cutting module 3, and can lock the position of the clamping module 4 in space, thereby assisting the cutting module 3 in completing the cutting work; the feeding module 9 is located at the bottom of the frame 1, and can support and push the clamping module 4 to move upwards gradually along the platform lifting guide rail 7. Through the linkage and cooperation with the locking module 8 and the cutting module 3, it can complete the continuous multiple slicing and sampling of the cable sample. In addition, the slicing thickness can be adjusted according to actual needs to meet the requirements of different tests.

[0024] like Figure 3 As shown, the drive module 2 includes: a handwheel 201, a bearing assembly 202, a power spindle 203, a positioning bushing 204, a power spindle timing pulley 205, an upper timing belt 206, a locking module timing pulley 207, a middle timing belt 208, a feed module timing pulley 209, and a power spindle mounting bearing seat 210.

[0025] The handwheel 201 is located at the end of the power spindle 203 at the top of the frame 1, allowing the operator to rotate it in a specified direction to provide power to the entire device. The power spindle 203 is mounted in the power spindle mounting bearing seat 210 via a bearing assembly 202. The other end of the power spindle 203 is equipped with a power spindle synchronous pulley 205 and a positioning bushing 204. The power spindle synchronous pulley 205 is connected to the locking module synchronous pulley 207 via an upper synchronous belt 206, transmitting power to the locking module 8. Similarly, the locking module synchronous pulley 207 is also connected to the feed module synchronous pulley 209 via a middle synchronous belt 208, thereby providing driving force to the feed module 9. The power spindle mounting bearing seat 210 is fixed to the top of the frame 1 by a screw assembly.

[0026] like Figure 4 As shown, the feed module 3 includes: a crank 301, a pin 302, a connecting rod 303, a feed drive gear 304, a feed gear shaft 305, a fixed rack 306, a feed rack 307, a tool support frame 308, a tool mounting frame 309, a slicing tool 310, a tool adjusting screw 311, a tool adjusting knob 312, a tool guide rod 313, a feed gear slider connecting seat 314, a feed gear slider 315, a feed gear guide rail 316, and a feed rack guide rail 317.

[0027] The crank 301 is fixedly connected to the power spindle 203 and can rotate around its axis along with the power spindle 203. The other end of the crank 301 is hinged to the connecting rod 303 via a pin 302. The connecting rod 303 performs planar motion in space, and its other end is equipped with a feed gear shaft 305. The feed gear shaft 305 is equipped with a feed drive gear 304 and a set of feed gear slider connecting seats 314. The feed drive gear 304 is located in the middle of the feed gear shaft 305, with a fixed rack 306 and a feed rack 307 meshing at its top and bottom respectively. Two sets of feed gear slider connecting seats 314 are configured, located at both ends of the feed gear shaft 305, and engage with the feed gear guide rail 316 via the feed gear slider 315. The fixed rack 306 is fixed to the top of the frame 1, with its teeth facing downwards and meshing with the teeth of the feed drive gear 304. The feed rack 307 is located below the feed gear slider 315, with its teeth facing upwards and meshing with the teeth of the feed drive gear 304. Furthermore, the feed rack 307 connects with the feed rack guide rail through its wedge-shaped structure. The tool is coordinated with the feed rack guide 317 and can move back and forth along the feed rack guide 317. The front end of the tool is fixedly connected to the tool support frame 308. The tool support frame 308 is equipped with a tool adjusting screw 311 and a tool guide rod 313. The tool adjusting screw 311 is threadedly engaged with the tool mounting frame 309, and a tool adjusting knob 312 is provided at its lower end. The lower part of the tool mounting frame 309 is fixedly connected to the slicing tool 310, and its upper part is also engaged with the tool guide rod 313. By rotating the tool adjusting knob 312, the slicing tool 310 can be moved vertically along the tool guide rod 313 to adjust the initial position of the slicing tool 310 relative to the cable sample.

[0028] like Figure 5 As shown, the clamping module 4 includes: a right fixing block 401, a left fixing block 402, a lead screw shaft 403, a lead screw limiting block 404, a lead screw shaft sleeve 405, a fixing knob 406, a lead screw limiting block mounting screw 407, a clamping worktable body 408, a roller 409, and a roller shaft 410.

[0029] The lead screw shaft 403 is symmetrically provided with two sections of threads, one left-handed and one right-handed, which respectively cooperate with the left fixed block 402 and the right fixed block 401. The two ends of the lead screw shaft 403 cooperate with the lead screw limiting block 404 through the lead screw shaft sleeve 405, and can rotate around the fixed axis. The lead screw limiting block 404 is configured in two sets, which are respectively fixedly installed on the left and right sides of the clamping worktable body 408, and play a limiting role for the left fixed block 402 and the right fixed block 401. The fixing knob 406 is located at the end of the lead screw shaft 403, outside the lead screw limiting block 404, and can adjust the relative position of the left fixed block 402 and the right fixed block 401 for clamping or releasing the cable sample. The bottom of the clamping worktable body 408 is provided with a roller shaft 410, and a roller 409 is installed on the roller shaft 410.

[0030] like Figure 6 As shown, the locking module 8 includes: a camshaft 801, a cam 802, a camshaft mounting base 803, a push rod 804, a guide bar 805, a left connecting rod 806, a right connecting rod 807, a left fork arm 808, a right fork arm 809, a fork arm rotating shaft 810, a pressure block connecting shaft 811, a pressure block 812, a pressure block guide rod 813, and a pressure block guide rod sleeve 814.

[0031] The camshaft 801 is coaxially fixed to the synchronous pulley 207 of the locking module. Both ends of the camshaft 801 are fixed to the frame 1 via camshaft mounting seats 803. A cam 802 is installed in the middle section of the camshaft 801, which rotates synchronously with the camshaft 801, thereby driving the push rod 804 to move horizontally back and forth. The push rod 804 is a frame structure with guide bars 805 installed at its top and bottom. The guide bars 805 engage with grooves on the middle beam of the frame 1. Furthermore, the push rod 804 is hinged to both the left connecting rod 806 and the right connecting rod 807 via pins. The other end of the left connecting rod 806 is hinged to the left fork arm 808, and similarly, the other end of the right connecting rod 807 is hinged to the right fork arm 809. The middle part of the left fork arm 808 is hinged to both the right fork arm 809 and the frame 1 via a fork arm pivot 810. The left and right fork arms 808 can rotate synchronously. The fork arm pivot 810 rotates, and the front end of the left fork arm 808 is provided with a sliding groove, which cooperates with the middle section of the pressure block connecting shaft 811, allowing the pressure block connecting shaft 811 to move along the sliding groove. The connection method of the right fork arm 809 is similar. The pressure block connecting shaft 811 is set into two groups, left and right. The upper and lower ends of each group of pressure block connecting shafts 811 are hinged to the corresponding pressure blocks 812, which can synchronously drive the upper and lower groups of pressure blocks 812 to move horizontally. The pressure blocks 812 are symmetrically arranged on both sides of the clamping worktable body 408. Several groups of pressure block guide rods 813 are fixedly installed on each group of pressure blocks 812. The pressure block guide rods 813 can move within the pressure block guide rod sleeve 814, which is fixed inside the middle transverse beam of the frame 1. A spring is provided inside the pressure block guide rod sleeve 814 to push the pressure block guide rods 813 and pressure blocks 812 to reset and press the clamping worktable body 408.

[0032] like Figures 7-8 As shown, the feed module 9 includes: a dial shaft 901, a dial 902, a dial shaft mounting base 903, a Geneva wheel 904, a small synchronous pulley 905, a Geneva wheel shaft 906, an overrunning clutch 907, a Geneva wheel shaft mounting base 908, a lower synchronous belt 909, a large synchronous pulley 910, a large synchronous pulley shaft 911, a feed gear 912, a large synchronous pulley shaft mounting base 913, a feed rack 914, a feed worktable 915, a feed wedge block 916, a wedge block guide rod 917, and a wedge block adjustment mechanism. 918, lever plate, 919, wedge block limit seat, 920, locating pin, 921, locating pin spring, 922, locating pin spring pressure plate, 923, locating pin lever plate, 924, feed module reset spring, 925, lifting ring, 926, ratchet, 927, pawl, 928, pawl compression spring, 929, pawl lever, 930, ratchet mounting seat, 931, wedge block guide pin, 932, wedge block guide groove plate, 933, feed table slider, 934, feed table guide rail, 935, and feed rack guide rail, 936.

[0033] The dial shaft 901 is coaxially and fixedly connected to the synchronous pulley 209 of the feed module. Both ends of the dial shaft 901 are fixedly connected to the frame 1 via dial shaft mounting seats 903. A dial 902 is also fixedly installed in the middle section of the dial shaft 901. The dial 902 can rotate synchronously with the dial shaft 901, thereby driving the grooved wheel 904 to rotate intermittently. The grooved wheel 904 is mounted on the grooved wheel shaft 906 via an overrunning clutch 907, allowing the grooved wheel shaft 906 to rotate unidirectionally. A small synchronous pulley 905 is also fixedly installed in the middle section of the grooved wheel shaft 906. Both ends of the grooved wheel shaft 906 are fixedly connected to the frame 1 via grooved wheel shaft mounting seats 908. The small synchronous pulley 905 is connected to the large synchronous pulley 910 via a lower synchronous belt 909, and the large synchronous pulley 910 is fixedly installed in the middle section of the large synchronous pulley shaft 911. A small synchronous pulley 905 is also fixedly installed in the middle section of the large synchronous pulley shaft 911. There is a feed gear 912, which meshes with the feed rack 914 below. As the synchronous large pulley shaft 911 rotates, the feed gear 912 can drive the feed rack 914 to move horizontally forward. The feed rack 914 cooperates with the feed rack guide rail 936 through its own wedge structure. Its front end is fixedly connected to the feed table 915, which can push the feed table 915 to move back and forth along the rack guide rail 936 together. Wedge block limit seats 919 are fixedly installed on both sides of the feed table 915. There are wedge block guide rods 917 between the wedge block limit seats 919. Several sets of feed wedge blocks 916 with different inclinations are provided on the feed table 915. While the feed wedge blocks 916 move forward with the feed table 915 as a whole, they support and push the roller 409 and the clamping table body 408 and other components to move vertically upward.

[0034] The foremost heights of the several sets of feed wedges 916 are all the same, and the height of their tail ends gradually increases with different inclinations. The several sets of wedges 916 are fixed together by bolts. A wedge adjustment plate 918 is fixedly installed on the side. After releasing the other parts from limiting the wedges 916, pulling the wedge adjustment plate 918 allows the feed wedges 916 to move laterally along the wedge guide rod 917. The rear of the feed table 915 is provided with multiple sets of mounting holes, each containing a positioning pin 920 and a positioning pin spring 922. The positioning pin 920 has a ball head at its front end and is fixedly connected to a connecting rod 921 at its tail end. The other end of the connecting rod 921 is connected to the mounting plate 921 of the feed table 915. The feed wedge 916 extends outward from the mounting hole and is fixedly connected to the positioning pin plate 924; the tail end of each feed wedge 916 is provided with a blind hole that mates with the ball head at the front end of the positioning pin 920, and the opening of the blind hole is provided with a guide cone angle; the positioning pin spring 922 is sleeved on the connecting rod 921, one end of which abuts against the positioning pin 920, and the other end abuts against the positioning pin spring pressure plate 923, to ensure effective engagement between the positioning pin 920 and the blind hole at the tail end of the wedge 916, while the positioning pin spring pressure plate 923 is fixedly installed on the rear end face of the feed table 915; two sets of lifting rings 926 are symmetrically installed below the feed table 915, and each set of lifting rings 926 is equipped with a feed module return spring 925, the other end of which is a feed module return spring 925. One end is connected to the corresponding lifting ring 926 installed on the bottom beam of the frame 1; one end of the synchronous large pulley shaft 911 is fixedly connected to the frame 1 through the synchronous large pulley shaft mounting seat 913, and the other end is fixedly connected to the frame 1 through the ratchet mounting seat 931; the ratchet 927 is fixedly installed on the synchronous large pulley shaft 911 and located inside the ratchet mounting seat 931, and a pawl 928 is provided below the ratchet 927 to cooperate with it; the pawl 928 has mounting shafts on both sides and is installed in the corresponding mounting holes on the ratchet mounting seat 931, and the pawl 928 can swing within a certain range; a pawl compression spring 929 is also provided inside the ratchet mounting seat 931, one end of which abuts against the ratchet mounting seat 931 and the other end abuts against the pawl. On 928, a pawl 928 is used to ensure that it always maintains contact with the ratchet 927; the pawl lever 930 is located on the outer side of the ratchet mounting base 931 and can rotate the pawl 928 to disengage it from the ratchet 927; multiple sets of wedge block guide pins 932 are fixedly installed at the bottom front end of the feed wedge block 916, and each feed wedge block 916 is equipped with one wedge block guide pin 932. When the feed wedge block 916 moves forward with the worktable, each wedge block guide pin 932 slides into the corresponding groove on the wedge block guide groove plate 933; the wedge block guide groove plate 933 is fixedly connected to the frame 1 and is located in front of the feed worktable 915, and its upper surface is provided with several sets of grooves;The feed table sliders 934 are configured in multiple sets, located below and fixedly connected to the feed table 915, to support the feed table 915 in horizontal back-and-forth movement along the feed table guide rail 935.

[0035] The working principle of this invention is: After cutting a section of cable sample, the operator can rotate the fixing knob 406 to drive the lead screw shaft 403 to rotate, increasing the distance between the right fixing block 401 and the left fixing block 402, placing the cable sample between the right fixing block 401 and the left fixing block 402, and then rotating the fixing knob 406 in the opposite direction to clamp it. According to the initial position of the cable sample clamping, the operator turns the adjustment knob 312 to adjust the working height of the tool mounting bracket 309 and the slicing tool 310 to adapt to the initial position of the cable sample. Then, by turning the handwheel 201, the power spindle 203 and the power spindle synchronous pulley 205, crank 301 and other components mounted on it can be driven to rotate, thereby driving the connecting rod 303 to make planar motion, driving the feed drive gear 304 at the end of the connecting rod 303 to roll forward relative to the fixed rack 306, thereby driving the feed rack 307 to move along the feed rack guide rail 317, and finally pushing the slicing tool 310 mounted at the front end of the feed rack 307 to move back and forth, realizing the cyclical motion of feed cutting and retraction reset of the cable sample.

[0036] Meanwhile, the power spindle synchronous pulley 205 transmits power to the locking module synchronous pulley 207 via the upper synchronous belt 206, thereby driving the camshaft 801 and the cam 802 mounted on the shaft to rotate together. When the feed module 3 is about to contact the cable sample and begin cutting, the cam 802 rotates to its near-end section and contacts the push rod 804, keeping the push rod 804 in its original position. The pressure block 812 presses against the clamping table body 408 under the action of the spring inside the pressure block guide sleeve 814, and the clamping module 4 is in a locked state to ensure its stability during the slicing process. When the feed module 3 completes the cutting and retracts to the point of disengagement from the cable sample, the cam 802 rotates to the push stroke section, which gradually pushes the push rod 804 forward, thereby driving the left connecting rod 806 and the right connecting rod. When 807 moves in a planar motion, it causes the left fork arm 808 and the right fork arm 809 to rotate synchronously around the fork arm pivot 810 in opposite directions, forcing the pressure blocks 812 on the left and right sides of the worktable body 408 to gradually disengage from the worktable body 408, and the clamping module 4 is unlocked. When the cam 802 continues to rotate to the far end, the push rod 804 remains stationary at the maximum push position, and the other components also remain stationary. The clamping module 4 remains unlocked until the cam 802 rotates to the return end. The push rod 804 and the connected components such as the left connecting rod 806, the right connecting rod 807, the left fork arm 808, the right fork arm 809, and the pressure block 812 gradually reset under the action of the spring inside the pressure block guide sleeve 814, returning to the initial position, and the clamping module 4 re-enters the locked state.

[0037] Similarly, the locking module synchronous pulley 207 also transmits power to the feed module synchronous pulley 209 via the intermediate synchronous belt 208, thereby driving the dial shaft 901 and the dial 902 mounted on the shaft to rotate together. When the cam 802 rotates to the far end and contacts the push rod 804, the fixing pin on the dial 902 enters the groove of the grooved wheel 904, thereby pushing the grooved wheel 904 to rotate a certain angle. The grooved wheel 904 drives the grooved wheel shaft 906 and the small synchronous pulley 905, which are coaxial with it, to rotate synchronously through the same angle through the overrunning clutch 907. At the same time, the small synchronous pulley 905 drives the large synchronous pulley 910 to rotate through a corresponding small angle through the lower synchronous belt 909. The large synchronous pulley shaft 911 and the feed gear 912, which are coaxial with the large synchronous pulley 910, also rotate through the same angle, thereby driving the feed rack 914 along the feed rack guide rail 93. 6. Move forward a fixed distance, eventually pushing the feed table 915 and the feed wedge block 916 mounted on it forward by the same distance. The feed wedge block 916 pushes the roller 409 and the clamping table body 408 and other components to move upward a fixed distance together. Thus, after the cutting of the feed module 3 is completed, the clamping module 4 is driven to complete one feed movement. When the feed table 915 moves forward to the limit position, simply move the pawl lever 930 to press the pawl 928 to rotate and disengage it from the ratchet 927. Then, under the action of the feed module return spring 925 installed at the bottom of the frame 1, the feed table 915 and the feed rack 914 and other related components are pulled to complete the reset. During this process, although the synchronous large pulley shaft 911 and the grooved wheel shaft 906 reverse, under the action of the overrunning clutch 907, the grooved wheel 904 continues to maintain its original state and is not affected by it.

[0038] When the thickness of the slice needs to be adjusted, with the feed table 915 in its initial position, the positioning pin lever 924 can be moved to move the positioning pin 920 and connecting rod 921 backward, compressing the positioning pin spring 922. The ball head at the front end of the positioning pin 920 will exit the blind hole on the feed wedge block 916 that matches it. Then, the wedge block adjusting lever 918 can be pulled, and multiple sets of wedge blocks 916 will slide laterally along the wedge block guide rod 917 until the wedge block 916 with the required slope contacts the roller 409. Then, the positioning pin lever 924 can be released, and the positioning pin 920 will pop out, and the wedge block 916 will... Guided by a tapered blind hole at the tail end, the wedge block 916 is inserted to lock its movement. In addition, the wedge block guide pin 932 installed at the bottom of the front end of the wedge block 916 gradually slides into the groove on the wedge block guide plate 933 as the feed table 915 begins to move forward. This also helps to position and lock the wedge block 916. Even if the positioning pin plate 924 is accidentally moved, the wedge block 916 will not fail to lock. This further ensures that the position of all wedge blocks 916 relative to the feed table 915 remains unchanged during the forward feeding process.

[0039] The above is merely one preferred embodiment of the present invention and is not intended to limit the present invention in any way. All variations, equivalent substitutions, modifications, etc., made within the scope of the disclosure and claims of the present invention are within the protection scope of the present invention.

Claims

1. This invention discloses a linkage-type cable slicing and sampling device, characterized in that: The device includes a frame (1), a drive module (2), a feed module (3), a clamping module (4), a limit plate (5), a platform lifting slider (6), a platform lifting guide rail (7), a locking module (8), a feed module (9), and mounting feet (10). The frame (1) serves as the framework of the entire device and is fixedly connected to the mounting feet (10) to secure and support other modules. The drive module (2) runs through the entire device from top to bottom, providing necessary power to the feed module (3), locking module (8), and feed module (9). The feed module (3) is located at the top of the frame (1) and is used to cut cable samples. The clamping module (4) is located in front of the feed module (3) and is connected to the frame (1) via the platform lifting slider (6) and platform lifting guide rail (7). It can move vertically relative to the frame (1) along the platform lifting guide rail (7). The clamping module (4) has two front and two rear sections. A limiting plate (5) is set to limit the front and rear position of the cable sample in the clamping module (4); the locking module (8) is located in the middle layer of the frame (1), below the cutting module (3), and can lock the position of the clamping module (4) in space, assisting the cutting module (3) to complete the cutting and sampling; the feeding module (9) is placed at the bottom of the frame (1), which can support and push the clamping module (4) to move upward along the platform lifting guide rail (7) step by step. Through the linkage with the locking module (8) and the cutting module (3), the continuous multiple slicing and sampling of the cable sample can be completed. In addition, the slicing thickness can be adjusted according to actual needs to meet the needs of different tests.

2. The linkage-type cable slicing and sampling device according to claim 1, characterized in that: The drive module (2) includes: a handwheel (201), a bearing assembly (202), a power spindle (203), a positioning bushing (204), a power spindle timing pulley (205), an upper timing belt (206), a locking module timing pulley (207), a middle timing belt (208), a feed module timing pulley (209), and a power spindle mounting bearing seat (210); the handwheel (201) is located at the end of the power spindle (203) at the top of the frame (1), and the power spindle (203) is mounted on the power spindle mounting bearing seat (210) via the bearing assembly (202). Inside, the other end of the power spindle (203) is equipped with a power spindle timing pulley (205) and a positioning bushing (204). The power spindle timing pulley (205) is connected to the locking module timing pulley (207) via the upper timing belt (206) to transmit power to the locking module (8). Similarly, the locking module timing pulley (207) is also connected to the feed module timing pulley (209) via the middle timing belt (208) to provide power to the feed module (9). The power spindle mounting bearing seat (210) is fixed to the top of the frame (1) by a screw assembly.

3. The linkage-type cable slicing and sampling device according to claim 1, characterized in that: The feed module (3) includes: crank (301), pin (302), connecting rod (303), feed drive gear (304), feed gear shaft (305), fixed rack (306), feed rack (307), tool support frame (308), tool mounting frame (309), slicing tool (310), tool adjusting screw (311), tool adjusting knob (312), tool guide rod (313), feed gear slider connecting seat (314), feed gear slider (315), feed gear guide rail (316), and feed rack guide rail (317). The crank (301) is fixedly connected to the power spindle (203), and the other end of the crank (301) is hinged to the connecting rod (303) via a pin (302). The other end of the connecting rod (303) is equipped with a feed gear shaft (305). The feed gear shaft (305) is equipped with a feed drive gear (304) and a feed gear slider connecting seat (314). The feed drive gear (304) is located in the middle of the feed gear shaft (305), with a fixed rack (306) and feed rack (307) meshing at its top and bottom respectively. The feed gear slider connecting seat (314) is set in two sets, located at both ends of the feed gear shaft (305) respectively, and cooperates with the feed gear guide rail (316) through the feed gear slider (315). The fixed rack (306) is fixed to the top of the frame (1), with its tooth surface facing down and meshing with the gear teeth of the feed drive gear (304). The feed rack (307) is located below the feed gear slider (315), with its tooth surface facing up and meshing with the gear teeth of the feed drive gear (304). In addition, the feed rack (307) is connected by itself. The wedge-shaped structure cooperates with the feed rack guide (317) and can move back and forth along the feed rack guide (317). The front end of the wedge is fixedly connected to the tool support frame (308). The tool support frame (308) is equipped with a tool adjustment screw (311) and a tool guide rod (313). The tool adjustment screw (311) is threadedly connected to the tool mounting frame (309), and a tool adjustment knob (312) is provided at its lower end. The lower part of the tool mounting frame (309) is fixedly connected to the slicing tool (310), and the upper part is also connected to the tool guide rod (313). By rotating the tool adjustment knob (312), the slicing tool (310) can be driven to move vertically along the tool guide rod (313).

4. The linkage-type cable slicing and sampling device according to claim 1, characterized in that: The clamping module (4) includes: a right fixing block (401), a left fixing block (402), a lead screw shaft (403), a lead screw limiting block (404), a lead screw bushing (405), a fixing knob (406), a lead screw limiting block mounting screw (407), a clamping worktable body (408), a roller (409), and a roller shaft (410). The lead screw shaft (403) is symmetrically provided with two sections of left-hand and right-hand threads, which respectively cooperate with the left fixed block (402) and the right fixed block (401). The two ends of the lead screw shaft (403) cooperate with the lead screw limit block (404) through the lead screw bushing (405). The lead screw limit block (404) is set in two sets, which are fixedly installed on the left and right sides of the clamping worktable body (408). The fixing knob (406) is located at the end of the lead screw shaft (403) and outside the lead screw limit block (404), which can adjust the relative position of the left fixed block (402) and the right fixed block (401). The bottom of the clamping worktable body (408) is provided with a roller shaft (410), and a roller (409) is installed on the roller shaft (410).

5. The linkage-type cable slicing and sampling device according to claim 1, characterized in that: The locking module (8) includes: a camshaft (801), a cam (802), a camshaft mounting seat (803), a push rod (804), a guide bar (805), a left connecting rod (806), a right connecting rod (807), a left fork arm (808), a right fork arm (809), a fork arm pivot (810), a pressure block connecting shaft (811), a pressure block (812), a pressure block guide rod (813), and a pressure block guide rod sleeve (814). The camshaft (801) is coaxially fixed to the synchronous pulley (207) of the locking module. Both ends of the camshaft (801) are fixed to the frame (1) through the camshaft mounting base (803). A cam (802) is installed in the middle section of the camshaft (801), which can rotate with the camshaft (801) and drive the push rod (804) to move horizontally back and forth. The push rod (804) is a frame structure, and guide strips (805) are installed at its top and bottom. The guide strips (805) are connected to the frame (1). The grooves on the middle beam fit together, and the push rod (804) is also hinged to both the left connecting rod (806) and the right connecting rod (807) via a pin; the other end of the left connecting rod (806) is hinged to the left fork arm (808), and similarly, the other end of the right connecting rod (807) is also hinged to the right fork arm (809); the middle part of the left fork arm (808) is hinged to both the right fork arm (809) and the frame (1) via a fork arm pivot (810), and the left fork arm (808) and the right fork arm (809) are also hinged to each other. The left fork arm (808) can rotate synchronously around the pivot (810) of the fork arm. The front end of the left fork arm (808) is provided with a sliding groove, which cooperates with the middle section of the pressure block connecting shaft (811), allowing the pressure block connecting shaft (811) to move along the sliding groove. The connection method of the right fork arm (809) is similar. The pressure block connecting shaft (811) is set into two groups, left and right. The upper and lower ends of each group of pressure block connecting shafts (811) are hinged to the corresponding pressure blocks (812), which can synchronously drive the upper and lower groups of pressure blocks (812) to move horizontally. The pressure blocks (812) are symmetrically arranged on both sides of the clamping worktable body (408). Each set of pressure blocks (812) is fixedly installed with several sets of pressure block guide rods (813). The pressure block guide rods (813) can move inside the pressure block guide rod sleeve (814), while the pressure block guide rod sleeve (814) is fixed inside the middle transverse beam of the frame (1). A spring is provided inside the pressure block guide rod sleeve (814), which can push the pressure block guide rods (813) and pressure blocks (812) to reset and press the clamping worktable body (408).

6. The linkage-type cable slicing and sampling device according to claim 1, characterized in that: The feed module (9) includes: a dial shaft (901), a dial (902), a dial shaft mounting base (903), a grooved wheel (904), a small synchronous pulley (905), a grooved wheel shaft (906), an overrunning clutch (907), a grooved wheel shaft mounting base (908), a lower synchronous belt (909), a large synchronous pulley (910), a large synchronous pulley shaft (911), a feed gear (912), a large synchronous pulley shaft mounting base (913), a feed rack (914), a feed table (915), a feed wedge (916), a wedge guide rod (917), and a wedge adjusting plate (918). 918), wedge block limit seat (919), positioning pin (920), connecting rod (921), positioning pin spring (922), positioning pin spring pressure plate (923), positioning pin lever (924), feed module reset spring (925), lifting ring (926), ratchet (927), pawl (928), pawl compression spring (929), pawl lever (930), ratchet mounting seat (931), wedge block guide pin (932), wedge block guide groove plate (933), feed table slider (934), feed table guide rail (935), and feed rack guide rail (936); The dial shaft (901) is coaxially fixed to the synchronous pulley (209) of the feed module. Both ends of the dial shaft (901) are fixed to the frame (1) through the dial shaft mounting base (903). The middle section of the dial shaft (901) is also fixedly mounted with a dial (902). The dial (902) can rotate synchronously with the dial shaft (901), thereby driving the grooved wheel (904) to rotate intermittently. The grooved wheel (904) is mounted on the grooved wheel shaft (906) through an overrunning clutch (907), which can make the grooved wheel shaft rotate intermittently. (906) rotates in one direction; a small synchronous pulley (905) is also fixedly installed on the middle section of the grooved wheel shaft (906), and both ends of the grooved wheel shaft (906) are fixedly connected to the frame (1) through the grooved wheel shaft mounting seat (908); the small synchronous pulley (905) is connected to the large synchronous pulley (910) through the lower synchronous belt (909), and the large synchronous pulley (910) is fixedly installed on the middle section of the large synchronous pulley shaft (911); a small synchronous pulley (905) is also fixedly installed on the middle section of the large synchronous pulley shaft (911). A feed gear (912) is fixedly installed, and the feed gear (912) meshes with the feed rack (914) below. As the synchronous large pulley shaft (911) rotates, the feed gear (912) can drive the feed rack (914) to move horizontally forward. The feed rack (914) is engaged with the feed rack guide rail (936) through its own wedge structure, and its front end is fixedly connected to the feed table (915), which can push the feed table (915) to move along the rack guide rail (936) together. 6) Forward and backward movement; wedge block limit seats (919) are fixedly installed on both sides of the feed table (915), wedge block guide rods (917) are between the wedge block limit seats (919), and several sets of feed wedge blocks (916) with different inclinations are provided on the feed table (915). While the feed wedge blocks (916) move forward as a whole with the feed table (915), they support and push the rollers (409) and the clamping table body (408) and other components to move vertically upward.

7. The linkage-type cable slicing and sampling device according to claim 6, characterized in that: The foremost height of the several sets of feed wedges (916) is the same, and the height of their tail ends gradually increases with different inclinations. The several sets of wedges (916) are fixed together by bolts. A wedge adjustment plate (918) is fixedly installed on the side. After releasing the other parts from limiting the wedges (916), pulling the wedge adjustment plate (918) will allow the feed wedges (916) to move laterally along the wedge guide rod (917). The rear of the feed table (915) is provided with multiple sets of mounting holes. Each mounting hole is provided with a positioning pin (920) and a positioning pin spring (922). The front end of the positioning pin (920) is a ball head, and the tail end is fixedly connected to the connecting rod (921). The other end of the connecting rod (921) extends outward from the mounting hole of the feed table (915) and is fixedly connected to the positioning pin plate (924); the tail end of each feed wedge block (916) is provided with a blind hole that matches the ball head at the front end of the positioning pin (920), and the opening of the blind hole is provided with a guide cone angle; the positioning pin spring (922) is sleeved on the connecting rod (921), one end of which abuts against the positioning pin (920), and the other end abuts against the positioning pin spring pressure plate (923), while the positioning pin spring pressure plate (923) is fixedly installed on the rear end face of the feed table (915); two sets of lifting rings (926) are symmetrically installed below the feed table (915), and each set of lifting rings (926) is equipped with a feed module return spring. (925), the other end of the module reset spring (925) is connected to the corresponding lifting ring (926) installed on the bottom beam of the frame 1; one end of the synchronous large pulley shaft (911) is fixedly connected to the frame (1) through the synchronous large pulley shaft mounting seat (913), and the other end is fixedly connected to the frame (1) through the ratchet mounting seat (931); the ratchet (927) is fixedly installed on the synchronous large pulley shaft (911) and located inside the ratchet mounting seat (931), and a pawl (928) is provided below the ratchet (927) to cooperate with it; the pawl (928) has mounting shafts on both sides and is installed in the corresponding mounting holes on the ratchet mounting seat (931), and the pawl (928) can swing within a certain range; the ratchet The mounting base (931) is also equipped with a pawl spring (929), one end of which abuts against the ratchet mounting base (931) and the other end abuts against the pawl (928); the pawl lever (930) is located on the outer side of the ratchet mounting base (931) and can move the pawl (928) to rotate, so that it is disengaged from the ratchet (927); the wedge block guide pin (932) is configured in multiple sets and is fixedly installed at the bottom of the front end of the feed wedge block (916). Each feed wedge block (916) is equipped with a corresponding wedge block guide pin (932). When the feed wedge block (916) moves forward with the worktable, each wedge block guide pin (932) slides into the corresponding groove on the wedge block guide groove plate (933);The wedge-shaped guide groove plate (933) is fixedly connected to the frame (1) and located in front of the feed table (915). Several sets of sliding grooves are provided on its upper surface. Multiple sets of feed table sliders (934) are provided, located below the feed table (915) and fixedly connected to it, supporting the feed table (915) to move horizontally back and forth along the feed table guide rail (935).

Images