A cable clamp for processing cables

Abstract

The utility model relates to a cable clamp for processing cables, comprising a weighted bottom plate with a lifting and positioning seat and a pulley at the bottom, a storage box and a lifting support assembly arranged side by side on the weighted bottom plate, and a detachable clamping assembly capable of pre-limiting the cable is arranged on the top of the storage box; a transverse telescopic column is arranged on the side of the lifting support assembly away from the detachable clamping assembly; and a stripping and positioning assembly is arranged on the side of the transverse telescopic column away from the lifting support assembly. The transverse telescopic column of the utility model can drive the stripping and positioning assembly to perform axial translation and controllably complete the stripping process of a specific length, reducing the intensity of manual operation, and the stripping and positioning assembly can stably limit and accurately divide the position of the large-section cable to be stripped, thereby improving the precision and efficiency of the stripping process.

Description

Technical Field

[0001] The utility model relates to the technical field of auxiliary equipment for cable installation, in particular to a cable clamp used for processing cables. Background Art

[0002] The cable clamp is an auxiliary device that can position and clamp cables with large cross-sections according to needs, so as to facilitate operations such as cable stripping, wiring, and installation of electric noses. At present, the existing cable clamps can clamp and fix the cables on the support platform according to needs to position and expose at least part of the end cable body of the cable, so that the operator can use common tools such as stripping knives, wire strippers, and wrenches to strip the end cable body of the cable, wire and install electric noses, thereby ensuring the stability of the cable during manual processing, reducing the difficulty of operation, and eliminating the problems of cable displacement and shaking during processing, which makes it difficult to strip the cable and affects processing efficiency.

[0003] In order to meet the growing demand for power transmission and to be more environmentally friendly and safe to use, the cross-sectional dimensions of existing cables have been further expanded, the radius of the cable core and the thickness of the cable sheath have been further increased, and the comprehensive performance of the cable sheath, such as strength and wear resistance, has also been further optimized. However, the difficulty of stripping the thickened cable sheath with improved comprehensive performance has also increased simultaneously. The traditional manual stripping method requires more manpower and processing time, and its processing accuracy is very likely to drop significantly due to human errors and greater processing difficulty, and it is impossible to accurately complete the stripping of a specific length. Therefore, the existing cable clamp can only clamp the cable in a single way, and cannot assist in operations such as cable stripping. It cannot effectively locate and expose the position where the cable needs to be stripped. The cable is very likely to move or shake during the process of being stripped under the action of a large external force, which affects the processing efficiency and quality. Utility Model Content

[0004] The utility model aims to provide a cable clamp for processing cables, which can stably limit the position of cables to be stripped and accurately and automatically strip the wires of cables with large cross-sections, thereby improving the stripping processing accuracy and reducing manpower expenditure, so as to solve the problem that the existing cable clamps cannot accurately and stably position the position to be stripped and cannot limit the stripping length, and require additional manual labor for stripping, which is difficult and labor-intensive to strip, consumes a lot of manpower and cannot accurately control the stripping size accuracy.

[0005] The technical solution adopted by the utility model is: a cable clamp for processing cables, comprising a weighted bottom plate with a lifting positioning seat and a pulley at the bottom, a storage box and a lifting support structure are arranged side by side on the weighted bottom plate, and a detachable clamping assembly capable of pre-limiting the cable is arranged on the top of the storage box; a transverse telescopic column is arranged on the side of the lifting support assembly away from the detachable clamping assembly; and a wire stripping positioning assembly is arranged on the side of the transverse telescopic column away from the lifting support assembly.

[0006] According to a preferred embodiment, the wire stripping and positioning assembly includes an annular guide rail, a radial positioning mechanism and a wire stripping mechanism, wherein the annular guide rail is installed on the side of the lifting support assembly through a plurality of circumferentially spaced transverse telescopic columns; the wire stripping mechanism and three radial positioning mechanisms are connected to the annular guide rail, and the three radial positioning mechanisms are arranged circumferentially around the annular guide rail with adjustable spacing to perform multi-wire positioning of cables within the same cross-section.

[0007] According to a preferred embodiment, a first track is provided on the radial inner annular surface of the annular rail body defined by the annular guide rail, and a second track is provided on the side annular surface of the annular rail body defined by the annular guide rail away from the transverse telescopic column; a supporting ring plate is also provided on the radial inner annular surface edge of the annular rail body defined by the annular guide rail.

[0008] According to a preferred embodiment, the radial positioning mechanism includes a first special-shaped slider, a first radial pulley, a first axial pulley, a first hydraulic rod, an end sleeve rod and a ball, wherein the first radial pulley and the first axial pulley are respectively supported on two adjacent side surfaces of the first special-shaped slider, and the first radial pulley and the first axial pulley are respectively slidably connected in the first track and the second track, so that the first special-shaped slider can move along the circumferential path defined by the annular guide rail.

[0009] According to a preferred embodiment, the surface of the first special-shaped slider is also provided with the first hydraulic rod parallel to the radial direction of the annular guide rail, and the end of the first hydraulic rod away from the first special-shaped slider is connected to an end sleeve rod; the ball is slidably embedded in the end slot of the end sleeve rod; the first special-shaped slider is also inserted with a first positioning screw for limiting the relative position between it and the annular guide rail.

[0010] According to a preferred embodiment, the T-shaped slider of the wire stripping mechanism is connected to the annular guide rail through a second radial pulley and a second axial pulley sliding rail respectively arranged on two adjacent sides thereof, and the T-shaped slider is limited in its working position on the annular guide rail by a second positioning screw which passes through its block and can be adjusted to abut against the support ring plate.

[0011] According to a preferred embodiment, the T-shaped slider is also provided with a pitch-adjusting screw which is offset from the second positioning screw, and the axial direction of the pitch-adjusting screw is parallel to the radial direction of the annular guide rail; the end of the pitch-adjusting screw is connected to a second hydraulic rod, and the end of the second hydraulic rod away from the pitch-adjusting screw is coaxially connected to a square-hole magnetic sleeve; a magnetic knife body is detachably inserted in the square-hole magnetic sleeve.

[0012] According to a preferred embodiment, a plurality of lifting support columns of the lifting support assembly are supported side by side on a weighted bottom plate, and a support plate for mounting the transverse telescopic column is provided at the axial upper end of the lifting support column.

[0013] According to a preferred embodiment, a through hole for the cable to pass through is opened on the support plate.

[0014] According to a preferred embodiment, the detachable clamping assembly includes a lower tube mold sleeve, an upper tube mold sleeve and a connecting bolt, wherein the lower tube mold sleeve limits the cable in a manner of being spliced ​​with the upper tube mold sleeve, and the connecting bolt limits the relative position of the lower tube mold sleeve and the upper tube mold sleeve by passing through the upper tube mold sleeve and being inserted into the lower tube mold sleeve.

[0015] The beneficial effects of the utility model are:

[0016] The weighted bottom plate provided in the present application can increase its weight by adding gravity blocks to lower the center of gravity of the entire device, thereby reducing the risk of shaking and tilting of the device and improving the stability of the device, so that the cable can be effectively clamped and positioned by the cable clamp and accurately stripped. The lifting and positioning seat and pulley provided in the present application can respectively provide stable support to limit the processing station and facilitate the transfer of equipment according to needs, so as to process the cable at different positions. The lifting and supporting structure provided in the present application can adjustably change the relative position relationship between the transverse telescopic column, the stripping positioning assembly and the cable clamped by the detachable clamping assembly, so that the cable clamped by the detachable clamping assembly can be arranged in the stripping positioning assembly in a coaxial manner with the stripping positioning assembly, so that the stripping positioning assembly can effectively clamp and limit the cable body by multi-point positioning of the cross section, and cut the cable body cable skin close to its clamping position, so as to complete the cable stripping process with high stability and high controllability, and improve the accuracy and quality of stripping. The wire stripping positioning assembly provided in the present application can undergo axial translation under the drive of the transverse telescopic column, thereby automatically completing difficult and high-intensity stripping processing tasks without excessive human assistance, and the wire stripping positioning assembly can perform translational positioning of the cable body in the cutting area, thereby reducing the amount of labor required while ensuring the stability and accuracy of stripping, reducing labor expenditure costs while improving processing accuracy and efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 This is a schematic structural diagram of a preferred cable clamp for processing cables proposed by the utility model;

[0018] Figure 2 It is a cross-sectional schematic diagram of a preferred wire stripping and positioning assembly of a cable clamp for processing cables proposed by the utility model;

[0019] Figure 3 It is an enlarged structural schematic diagram of a preferred wire stripping mechanism of a cable clamp for processing cables proposed by the utility model;

[0020] Figure 4 It is an enlarged structural schematic diagram of a preferred radial positioning mechanism of a cable clamp for processing cables proposed by the utility model;

[0021] Figure 5 It is a schematic end view of a square hole magnetic suction sleeve of a cable clamp preferably used for processing cables proposed by the utility model.

[0022] Reference numerals list

[0023] 1: weighted bottom plate; 2: lifting and positioning seat; 3: pulley; 4: storage box; 5: lifting support assembly; 6: detachable clamping assembly; 7: horizontal telescopic column; 8: wire stripping and positioning assembly; 51: lifting support column; 52: support plate; 521: through-hole; 61: lower tube mold sleeve; 62: upper tube mold sleeve; 63: connecting bolt; 81: annular guide rail; 82: radial positioning mechanism; 83: wire stripping mechanism; 811: first track; 812: second track; 813: Support ring plate; 821: first special-shaped slider; 822: first radial pulley; 823: first axial pulley; 824: first hydraulic rod; 825: end sleeve rod; 826: ball bearing; 827: first positioning screw; 831: T-shaped slider; 832: second radial pulley; 833: second axial pulley; 834: second positioning screw; 835: pitch adjustment screw; 836: second hydraulic rod; 837: square hole magnetic sleeve; 838: magnetic knife body. DETAILED DESCRIPTION

[0024] In order to more clearly illustrate the embodiments of the utility model or the technical solutions in the prior art, the utility model will be briefly introduced below in combination with the drawings and the descriptions of the embodiments or the prior art. Obviously, the following descriptions of the structures of the drawings are only some embodiments of the utility model. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0025] The technical solution provided by the present invention will be described in detail below by way of embodiments with reference to the accompanying drawings. It should be noted that the description of these embodiments is used to help understand the present invention, but does not constitute a limitation of the present invention. In some examples, some implementation methods are not described or are not described in detail because they belong to existing or conventional technologies.

[0026] In addition, the technical features recorded in this article, or the steps in all methods or processes disclosed, except for mutually exclusive features and / or steps, can also be combined in any suitable manner in one or more embodiments. For those skilled in the art, it is easy to understand that the steps or operation sequence of the methods related to the embodiments provided herein can also be changed. Any order in the drawings and embodiments is only for illustrative purposes and does not imply a requirement to follow a certain order unless it is explicitly stated that a certain order is required.

[0027] The serial numbers assigned to the components herein, such as "first", "second", etc., are only used to distinguish the objects described and do not have any order or technical meaning. The "connection" and "coupling" mentioned in this application, under reasonable circumstances (not constituting a self-contradiction), include direct and indirect connections (couplings).

[0028] The following is a detailed description with reference to the accompanying drawings.

[0029] Example 1

[0030] The present application provides a cable clamp for processing cables, which includes a weighted base plate 1, a lifting and positioning seat 2, a pulley 3, a storage box 4, a lifting support assembly 5, a detachable clamping assembly 6, a transverse telescopic column 7 and a wire stripping and positioning assembly 8.

[0031] according to Figure 1-5In a specific embodiment shown, a lifting and positioning seat 2 and a pulley 3 are provided at the bottom of the weighted base plate 1 to facilitate the transfer of the cable clamp and the positioning support of the cable clamp according to needs, so as to facilitate the processing of cables at different working positions, and also ensure the stability of the entire structure during processing, effectively preventing the cable clamp from shaking or tipping over. A storage box 4 and a lifting support structure 5 are arranged side by side on the weighted base plate 1. The storage box 4 can provide a mounting table for the detachable clamping assembly 6, and its interior can be used to store auxiliary equipment and replaceable parts. A detachable clamping assembly 6 capable of pre-limiting the cable is provided on the top of the storage box 4. A transverse telescopic column 7 is provided on the side of the lifting support assembly 5 away from the detachable clamping assembly 6. A wire stripping and positioning assembly 8 is provided on the side of the transverse telescopic column 7 away from the lifting support assembly 5. The cable clamped by the detachable clamping assembly 6 can pass through the lifting support assembly 5 and be parallel to the horizontal telescopic column 7, so that the wire stripping and positioning assembly 8 can variably position and strip the cable skin of the end section of the cable by multi-point positioning. The weighted bottom plate 1 provided in the present application can increase its weight by adding a gravity block to lower the center of gravity of the entire device, thereby reducing the risk of shaking and tilting of the device and improving the stability of the device, so that the cable can be effectively clamped and positioned by the cable clamp and accurately stripped. The lifting and positioning seat 2 and the pulley 3 provided in the present application can respectively provide stable support to limit the processing station and facilitate the transfer of equipment according to needs, so that the cable can be processed at different positions. The lifting support structure 5 provided in the present application can adjustably change the relative position relationship between the transverse telescopic column 7, the wire stripping positioning component 8 and the cable clamped by the detachable clamping component 6, so that the cable clamped by the detachable clamping component 6 can be inserted into the wire stripping positioning component 8 in a coaxial manner with the wire stripping positioning component 8, so that the wire stripping positioning component 8 can effectively clamp and limit the cable body by multi-point positioning of the cross section, and cut the cable body cable skin close to its clamping position, so as to complete the cable stripping process with high stability and high controllability, and improve the accuracy and quality of stripping. The wire stripping positioning component 8 provided in the present application can be axially translated under the drive of the transverse telescopic column 7, so as to automatically complete the difficult and high-intensity stripping process without too much human assistance, and the wire stripping positioning component 8 can be translated to position the cable body in the cutting area, thereby reducing the labor demand while ensuring the stability and accuracy of stripping, reducing the labor expenditure cost while improving the accuracy and efficiency of processing.

[0032] Preferably, the lifting support assembly 5 includes a lifting support column 51 and a support plate 52. Further preferably, a plurality of lifting support columns 51 are supported side by side on the weighted bottom plate 1. Preferably, a support plate 52 for mounting the transverse telescopic column 7 is provided at the axial upper end of the lifting support column 51. Further preferably, a through hole 521 for the cable to pass through is provided on the support plate 52. The lifting support column 51 provided in the present application can change the height of the support plate 52 by adjusting its support height, so as to further adjust the relative position relationship between the transverse telescopic column 7, the wire stripping positioning assembly 8 and the cable clamped by the detachable clamping assembly 6.

[0033] Preferably, the detachable clamping assembly 6 comprises a lower tube mold sleeve 61, an upper tube mold sleeve 62 and a connecting bolt 63. Preferably, the lower tube mold sleeve 61 limits the position of the cable in a manner of being spliced ​​with the upper tube mold sleeve 62. Specifically, the connecting bolt 63 limits the relative position of the lower tube mold sleeve 61 and the upper tube mold sleeve 62 by penetrating the upper tube mold sleeve 62 and inserting into the lower tube mold sleeve 61, thereby detachably fixing and clamping the cable.

[0034] Preferably, the wire stripping and positioning assembly 8 includes an annular guide rail 81, a radial positioning mechanism 82 and a wire stripping mechanism 83. Preferably, the annular guide rail 81 is installed on the side of the lifting support assembly 5 through a plurality of circumferentially spaced transverse telescopic columns 7. Further preferably, a wire stripping mechanism 83 and three radial positioning mechanisms 82 are connected to the annular guide rail 81. Specifically, the three radial positioning mechanisms 82 are arranged circumferentially at intervals around the annular guide rail 81 with adjustable spacing to perform multi-line positioning of the cable in the same cross section. Preferably, the wire stripping mechanism 83 can rotate synchronously in the annular guide rail 81, so that when the radial positioning mechanism 82 positions the cable, the cable sheath in a specific area is cut and stripped. Specifically, the wire stripping mechanism 83 can follow the annular guide rail 81 to perform axial translation and effectively strip the cable sheath, and then it cuts off the cable sheath by rotating circumferentially relative to the annular guide rail 81, thereby achieving separation of the cable core and the cable sheath. The circular guide rail 81 provided in the present application is connected with a radial positioning mechanism 82 and a wire stripping mechanism 83, so that the radial positioning mechanism 82 can limit and support the cable body in a rotatable multi-point positioning manner, and it can be adjusted to rotate along the circular guide rail 81, so that the wire stripping mechanism 83 on the same track can cut the cable sheath in different areas that can be selectively exposed. The wire stripping mechanism 83 can also synchronously move along the circumferential line on the circular guide rail 81 to cut the cable sheath in different areas of the cable.

[0035] Preferably, a first track 811 is provided on the radial inner annular surface of the annular rail body defined by the annular guide rail 81. Preferably, a second track 812 is provided on the side annular surface of the annular rail body defined by the annular guide rail 81 away from the transverse telescopic column 7. Further preferably, a support ring plate 813 is also provided on the radial inner annular surface edge of the annular rail body defined by the annular guide rail 81. The annular guide rail 81 provided in the present application constructs the first track 811 and the second track 812 on different surfaces so as to improve the stability of the sliding connection by multi-directional track connection, and ensure that the radial positioning mechanism 82 and the wire stripping mechanism 83 can more accurately follow the annular guide rail 81 for axial translation and can slide circumferentially on the annular guide rail 81. The support ring plate 813 on the inner side of the annular guide rail 81 can cooperate with the radial positioning mechanism 82 and the wire stripping mechanism 83 to achieve abutment connection, thereby positioning the radial positioning mechanism 82 and the wire stripping mechanism 83 in the working position on the annular guide rail 81.

[0036] Preferably, the radial positioning mechanism 82 includes a first special-shaped slider 821, a first radial pulley 822, a first axial pulley 823, a first hydraulic rod 824, an end sleeve rod 825 and a ball 826. Preferably, the first radial pulley 822 and the first axial pulley 823 are supported on two adjacent sides of the first special-shaped slider 821, respectively. Specifically, the first radial pulley 822 and the first axial pulley 823 are slidably connected to the first track 811 and the second track 812, respectively, so that the first special-shaped slider 821 can move along the circumferential path defined by the annular guide rail 81. Preferably, the surface of the first special-shaped slider 821 is also provided with a first hydraulic rod 824 parallel to the radial direction of the annular guide rail 81. Further preferably, the end of the first hydraulic rod 824 away from the first special-shaped slider 821 is connected with an end sleeve rod 825. Preferably, a ball 826 is slidably embedded in the end slot of the end sleeve rod 825, so that the ball 826 can roll against the cable surface. Preferably, a first positioning screw 827 is also inserted on the first special-shaped slider 821 to limit the relative position between it and the annular guide rail 81. The first radial pulley 822 and the first axial pulley 823 provided in the present application can ensure the stability of the connection between the first special-shaped slider 821 and the annular guide rail 81. The first hydraulic rod 824 provided in the present application can be extended and retracted in the radial direction of the annular guide rail 81 according to demand, so as to drive the end sleeve rod 825 to translate radially and adjustably press the ball 826 against the cable surface, and the ball 826 distributed at multiple points in the same cross section press against different positions of the cable ring surface respectively, thereby realizing effective fixation of the cable. The ball 826 provided in the present application can roll along with the lateral translation and circumferential rotation of the end sleeve rod 825, thereby ensuring smooth movement while always maintaining abutment and limiting the cable, thereby ensuring smooth movement and stable limiting.

[0037] Preferably, the wire stripping mechanism 83 includes a T-shaped slider 831, a second radial pulley 832, a second axial pulley 833, a second positioning screw 834, a pitch-adjusting screw 835, a second hydraulic rod 836, a square-hole magnetic sleeve 837 and a magnetic blade 838. Preferably, the T-shaped slider 831 is slidably connected to the annular guide rail 81 through the second radial pulley 832 and the second axial pulley 833 provided on two adjacent sides thereof. Specifically, the T-shaped slider 831 defines its working position on the annular guide rail 81 by the second positioning screw 834 that penetrates its block and can be adjusted to abut against the support ring plate 813. Preferably, the T-shaped slider 831 is also provided with a pitch-adjusting screw 835 that is misaligned with the second positioning screw 834. Specifically, the axial direction of the pitch-adjusting screw 835 is parallel to the radial direction of the annular guide rail 81. Preferably, the end of the pitch-adjusting screw 835 is connected to the second hydraulic rod 836. One end of the pitch adjusting screw 835 away from the second hydraulic rod 836 is coaxially connected with a square hole magnetic sleeve 837. Preferably, a magnetic blade body 838 is detachably inserted in the square hole magnetic sleeve 837. Further preferably, the magnetic blade body 838 includes a blade and a connecting square rod connected to the back of the blade. The blade has an inclined blade line to more effectively cut the cable sheath from the end of the cable. A magnet is provided at the end of the connecting square rod, so that it is convenient to stably insert the magnetic blade body 838 into the square hole magnetic sleeve 837 by magnetic connection. Specifically, by changing the corresponding edge position of the connecting square rod inserted into the cavity of the square hole magnetic sleeve 837, the orientation of the inclined blade is changed, so that the axial cutting of the cable and the circumferential truncation cutting of the cable can be adjusted according to the needs. The second hydraulic rod 836 provided in the present application can be extended and retracted to effectively position the relative position of the magnetic blade 838 and the cable, so that the magnetic blade 838 can be inserted into the cable or the cable skin can be separated and cut from the end of the cable. The adjustable screw 835 provided in the present application can be pre-adjusted in length in accordance with the needs in conjunction with the second hydraulic rod 836 to accurately position the cutting depth and insertion accuracy of the magnetic blade 838 after subsequent cutting into the cable, so as to achieve effective cutting of the cable skin and avoid scratching the cable core. The radial positioning mechanism 82 provided in the present application can limit the cable body in the area to be stripped, thereby improving the penetration accuracy of the stripping and cutting, and effectively and accurately limiting the relative position of the magnetic blade 838 and the cable.

[0038] The present utility model is not limited to the above optional implementation modes. Anyone can derive other various forms of products under the inspiration of the present utility model. However, no matter what changes are made in the shape or structure, all technical solutions that fall within the scope of the claims of the present utility model fall within the protection scope of the present utility model. Those skilled in the art should understand that the present utility model specification and its drawings are illustrative and do not constitute limitations on the claims. The protection scope of the present utility model is defined by the claims and their equivalents. Throughout the text, the features guided by "preferably" are only an optional method and should not be understood as having to be set. Therefore, the applicant reserves the right to abandon or delete the relevant preferred features at any time.

Claims

1. A cable clamp for processing cables, comprising a weighted bottom plate (1) with a lifting and positioning seat (2) and a pulley (3) at the bottom, characterized in that: A storage box (4) and a lifting support assembly (5) are arranged side by side on the weighted bottom plate (1), and a detachable clamping assembly (6) capable of pre-limiting the cable is arranged on the top of the storage box (4); A transverse telescopic column (7) is provided on a side of the lifting support assembly (5) away from the detachable clamping assembly (6); A wire stripping and positioning assembly (8) is provided on a side of the transverse telescopic column (7) away from the lifting support assembly (5); The wire stripping and positioning assembly (8) comprises an annular guide rail (81), a radial positioning mechanism (82) and a wire stripping mechanism (83), wherein: The annular guide rail (81) is installed on the side of the lifting support assembly (5) through a plurality of circumferentially spaced transverse telescopic columns (7); The wire stripping mechanism (83) and three radial positioning mechanisms (82) are connected to the annular guide rail (81); the three radial positioning mechanisms (82) are arranged in an annular direction around the annular guide rail (81) with adjustable spacing to perform multi-line positioning of cables in the same cross section.

2. The cable clamp for processing cables according to claim 1, characterized in that: A first track (811) is provided on the radial inner annular surface of the annular track body defined by the annular guide rail (81), and a second track (812) is provided on the side annular surface of the annular track body defined by the annular guide rail (81) away from the transverse telescopic column (7); A supporting ring plate (813) is also provided on the radial inner annular surface edge of the annular rail body defined by the annular guide rail (81).

3. The cable clamp for processing cables according to claim 2, characterized in that: The radial positioning mechanism (82) comprises a first special-shaped slider (821), a first radial pulley (822), a first axial pulley (823), a first hydraulic rod (824), an end sleeve rod (825) and a ball (826), wherein: The first radial pulley (822) and the first axial pulley (823) are respectively supported on two adjacent side surfaces of the first special-shaped slider (821), and the first radial pulley (822) and the first axial pulley (823) are respectively slidably connected in the first track (811) and the second track (812), so that the first special-shaped slider (821) can move along the circumferential path defined by the annular guide rail (81).

4. The cable clamp for processing cables according to claim 3, characterized in that: The surface of the first special-shaped slider (821) is also provided with the first hydraulic rod (824) which is parallel to the radial direction of the annular guide rail (81), and the end of the first hydraulic rod (824) away from the first special-shaped slider (821) is connected to an end sleeve rod (825); The ball (826) is slidably embedded in the end slot of the end sleeve rod (825); A first positioning screw (827) for defining the relative position between the first special-shaped sliding block (821) and the annular guide rail (81) is also inserted into the first special-shaped sliding block (821).

5. The cable clamp for processing cables according to claim 4, characterized in that: The T-shaped slider (831) of the wire stripping mechanism (83) is slidably connected to the annular guide rail (81) via a second radial pulley (832) and a second axial pulley (833) respectively arranged on two adjacent sides thereof, and the T-shaped slider (831) is adjustablely pressed against the support ring plate (813) by a second positioning screw (834) penetrating through its block to limit its working position on the annular guide rail (81).

6. The cable clamp for processing cables according to claim 5, characterized in that: The T-shaped slide block (831) is also provided with a pitch-adjusting screw (835) which is offset from the second positioning screw (834), and the axial direction of the pitch-adjusting screw (835) is parallel to the radial direction of the annular guide rail (81); The end of the pitch-adjusting screw (835) is connected to a second hydraulic rod (836), and one end of the second hydraulic rod (836) away from the pitch-adjusting screw (835) is coaxially connected to a square-hole magnetic sleeve (837); A magnetic blade body (838) is detachably inserted into the square hole magnetic sleeve (837).

7. The cable clamp for processing cables according to claim 6, characterized in that: The plurality of lifting support columns (51) of the lifting support assembly (5) are supported side by side on the weighted bottom plate (1), and a support plate (52) for mounting the transverse telescopic column (7) is provided at the axial upper end of the lifting support column (51).

8. The cable clamp for processing cables according to claim 7, characterized in that: The support plate (52) is provided with a through opening (521) for the cable to pass through.

9. The cable clamp for processing cables according to claim 8, characterized in that: The detachable clamping assembly (6) comprises a lower tube mold sleeve (61), an upper tube mold sleeve (62) and connecting bolts (63), wherein: The lower tube mold sleeve (61) limits the position of the cable in a manner of being spliced ​​with the upper tube mold sleeve (62), and the connecting bolt (63) limits the relative position of the lower tube mold sleeve (61) and the upper tube mold sleeve (62) by passing through the upper tube mold sleeve (62) and being inserted into the lower tube mold sleeve (61).

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