Multi-core wire harness convenient to weld for ultrasonic probe

Abstract

The invention relates to the technical field of wire harnesses, in particular to a convenient-to-weld multi-core wire harness for an ultrasonic probe, which comprises a wire harness and a wire stripping structure, the wire stripping structure comprises a first wire stripping mechanism and a second wire stripping mechanism; the first wire stripping mechanism comprises a first shell and two rotating seats; a locking pin is connected between the two rotating seats; the first shell is provided with a cutting channel; an elastic energy storage piece is arranged between the rotating seat and the first shell; a first cutting knife group is movably arranged on each rotating seat; the second wire stripping mechanism comprises a second shell; two pressing rollers which are opposite up and down and two friction rollers which are opposite up and down are movably arranged in the second shell; a second cutting knife group is further movably arranged at one end in the second shell; the two second cutting knife groups are in transmission connection with the corresponding friction rollers respectively; a stripping assembly and two locking assemblies are further movably arranged in the second shell. The two locking assemblies are movably connected with the stripping assembly in an abutting mode. A first tension spring is connected between the two locking assemblies; and the wire stripping efficiency and the use reliability of the wire harness are improved.

Description

Technical Field

[0001] The invention relates to the technical field of wire harnesses, in particular to a multi-core wire harness for an ultrasonic probe which is convenient for welding. Background Art

[0002] There are many problems in the pre-treatment process of traditional multi-core wire harnesses before welding. On the one hand, the removal of the wire harness insulation layer usually requires manual stripping, which is inefficient and difficult to ensure quality; on the other hand, when removing the insulation layer, it is easy to damage the internal wire core, such as causing the wire core to deform or break, affecting the reliability of the wire harness. Summary of the invention

[0003] The purpose of the present invention is to overcome the above-mentioned shortcomings, provide a multi-core wire harness for an ultrasonic probe that is easy to weld, improve wire stripping efficiency, reduce manual intervention and improve the reliability of the wire harness.

[0004] To achieve the above object, the specific scheme of the present invention is as follows:

[0005] A multi-core wire harness for an ultrasonic probe that is easy to weld, comprising a wire harness, on which a wire stripping structure is sleeved; the wire stripping structure comprises a first wire stripping mechanism and two second wire stripping mechanisms arranged at both ends of the first wire stripping mechanism;

[0006] The first wire stripping mechanism comprises a first housing and two rotating seats arranged in the first housing for rotation at intervals; a locking pin is connected between the two rotating seats; a cutting path is provided on the outer wall of the first housing in the middle corresponding to the locking pin; an elastic energy storage member is provided between the rotating seat and the first housing; a first cutting knife group is movably provided at one end of each rotating seat away from the locking pin;

[0007] The second wire stripping mechanism includes a second shell; two flattening rollers opposing each other up and down are movably provided at one end of the second shell, and two friction rollers opposing each other up and down are movably provided at the other end; two second cutting knife groups opposing each other up and down are also movably provided at one end of the second shell; the two second cutting knife groups are respectively connected to the corresponding friction rollers in a transmission manner; a stripping assembly and two locking assemblies for locking the second cutting knife groups are also movably provided in the second shell; the two locking assemblies are movably abutted against the stripping assembly; a first tension spring is connected between the two locking assemblies.

[0008] Preferably, the first cutting tool group includes a first tool that is movably arranged on the rotating seat along the radial direction of the rotating seat; the first tool is provided with a tool shaft that movably passes through the rotating seat; a spring is sleeved on the outer wall of the tool shaft; the two ends of the spring are respectively abutted against the tool shaft and the rotating seat; a driving groove is provided on the inner wall of the first shell at a position corresponding to the tool shaft; the tool shaft is movably embedded in the driving groove; when the rotating seat drives the first tool to rotate, the driving groove enables the first tool to overcome the elastic force of the spring and extend toward the axial direction of the rotating seat.

[0009] Preferably, each rotating seat is provided with a plurality of first cutter groups evenly distributed in the circumferential direction.

[0010] Preferably, the second cutter group includes two oppositely arranged driving wheels, two oppositely arranged eccentric wheels, a tool rest connected between the two eccentric wheels, and a plurality of second cutters arranged at equal intervals on the tool rest; the driving wheels are rotatably arranged on the inner side wall of the second housing; the driving wheels are drivingly connected to one end of the corresponding friction roller; the driving wheels are provided with eccentric shafts; the eccentric wheels are rotatably arranged on the eccentric shafts; the outer peripheral wall of the driving wheels is provided with locking notches for locking and cooperating with the locking assembly;

[0011] An extension arm extends from the outer peripheral wall of the eccentric wheel, and a limiting column is movably arranged on the extension arm; one end of the limiting column movably penetrates through the second housing.

[0012] Preferably, the locking assembly includes two spaced-apart limiting frames, and two ends of a first tension spring are respectively connected to the limiting frame and the corresponding limiting frame of another locking assembly; one end of the limiting frame is movably arranged on the inner side wall of the second housing and is used for cooperating with the locking notch, and the other end of the limiting frame is in movable abutment with the peeling assembly.

[0013] Preferably, the peeling assembly includes a peeling frame arranged in the second housing, and two driving sliders, two sliding rods, two first clamping plates and two second clamping plates which are oppositely arranged up and down and are movably arranged in the peeling frame; each driving slider is provided with a first inclined boss and a second inclined boss which are arranged staggeredly; L-shaped sliding grooves are respectively arranged on two opposite inner side walls of the peeling frame corresponding to each sliding rod; the vertical section of the L-shaped sliding groove is arranged away from the friction roller; two ends of the sliding rod are respectively connected to one end of the second housing close to the friction roller by a second tension spring; two ends of the sliding rod are respectively movably embedded in the L-shaped sliding groove; each first clamping plate is convexly provided with a third inclined boss for cooperating with the first inclined boss; each second clamping plate is convexly provided with a fourth inclined boss for cooperating with the second inclined boss; the third inclined boss and the fourth inclined boss are arranged staggeredly;

[0014] Both ends of the driving slider are convexly provided with first pushing parts; both ends of the sliding rod are provided with second pushing parts for cooperating with the first pushing parts; the other end of the limiting frame is in movable abutment with the corresponding sliding rod.

[0015] Preferably, two pairs of mounting columns respectively extend from the top wall and the bottom wall of the peeling frame; each mounting column is provided with a guiding sliding groove; elastic floating pins are respectively arranged at both ends of the first clamping plate and both ends of the second clamping plate; the pins are movably embedded in the guiding sliding groove.

[0016] Preferably, the extension arm is provided with a strip-shaped hole; the other end of the limiting column is movably clamped with the strip-shaped hole.

[0017] Preferably, a first tension belt is connected between the two flattening rollers; accommodating grooves are evenly distributed on the outer peripheral wall of each flattening roller along the axial direction thereof.

[0018] Preferably, a second tension belt is connected between the two friction rollers.

[0019] The beneficial effects of the present invention are as follows: By pre - sleeving a wire stripping structure on the wire harness, the insulating layer can be removed efficiently and conveniently, improving the wire stripping efficiency, reducing manual intervention, lowering the labor intensity, and also enhancing the consistency and stability of the product; and by cutting a plurality of incisions on the wire core, when stripping the insulating layer, the multiple notches make the force more evenly distributed at different positions of the wire core, greatly reducing the risks of excessive local force on the wire core, deformation, and fracture, effectively protecting the integrity and electrical performance of the wire core, and improving the reliability of use of the wire harness.

[0020] At the same time, the multiple incisions can better break the adhesion force between the insulating layer and the wire core, making the insulating layer more smooth during stripping, more easily stripped completely from the wire core, reducing the problem of insulating layer residue, and providing a better wire core preparation state for subsequent welding. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 is a schematic structural diagram of the present invention;

[0022] Figure 2 is a schematic sectional view of the present invention;

[0023] Figure 3 is a schematic structural diagram of the first wire stripping mechanism of the present invention;

[0024] Figure 4 is a schematic sectional view of the first wire stripping mechanism of the present invention;

[0025] Figure 5 is a schematic structural diagram of the first housing of the present invention;

[0026] Figure 6 is a schematic structural diagram of the second wire stripping mechanism of the present invention;

[0027] Figure 7 is a schematic sectional view of the second wire stripping mechanism of the present invention;

[0028] Figure 8 is a schematic structural diagram of the second wire stripping mechanism after hiding the second housing of the present invention;

[0029] Figure 9 is a schematic structural diagram of the second cutting tool set of the present invention;

[0030] Figure 10 is a schematic structural diagram of the cooperation between the locking component and the stripping component of the present invention;

[0031] Figure 11 is a schematic structural diagram of the stripping component of the present invention;

[0032] Figure 12 It is a schematic structural diagram of the peeling frame of the present invention;

[0033] Figure 13 It is a schematic structural diagram of the peeling component of the present invention hiding the peeling frame and at the initial time;

[0034] Figure 14 It is a schematic structural diagram of the peeling component of the present invention hiding the peeling frame and when the first clamping plate clamps the wire core;

[0035] Figure 15 It is a schematic structural diagram of the peeling component of the present invention hiding the peeling frame and when the second clamping plate clamps the wire core;

[0036] Description of reference numerals: 1, wire harness; 2, first wire stripping mechanism; 21, first housing; 211, cutting channel; 212, driving groove; 22, rotating seat; 23, locking pin; 24, elastic energy storage member; 251, first cutting tool; 252, tool shaft; 253, spring; 3, second wire stripping mechanism; 31, second housing; 32, flattening roller; 33, friction roller; 341, transmission wheel; 3411, locking notch; 342, eccentric wheel; 3421, extension arm; 343, tool holder; 344, second cutting tool; 345, limiting column; 351, peeling frame; 3511, L-shaped sliding groove; 352, driving slider; 3521, first inclined boss; 3522, second inclined boss; 3523, first pushing portion; 353, sliding rod; 3531, second pushing portion; 354, first clamping plate; 3541, third inclined boss; 355, second clamping plate; 3551, fourth inclined boss; 356, second tension spring; 361, limiting frame; 37, first tension spring; 38, first tension belt; 39, second tension belt. Detailed Description of the Invention

[0037] The present invention will be further described in detail below in conjunction with the accompanying drawings and specific embodiments, and the scope of implementation of the present invention is not limited thereto.

[0038] As Figures 1 to 15 shown, a multi-core wire harness for an ultrasonic probe facilitating welding described in this embodiment includes a wire harness 1, and a wire stripping structure is sleeved on the wire harness 1; the number of wire stripping mechanisms can be set to multiple, and multiple wire stripping mechanisms can be preset according to the actual length used by the ultrasonic probe.

[0039] Specifically, the wire stripping structure includes a first wire stripping mechanism 2 and two second wire stripping mechanisms 3 connected to both ends of the first wire stripping mechanism;

[0040] The first wire stripping mechanism includes a first shell 21 and two rotating seats 22, the first shell 21 is roughly tubular; the two rotating seats 22 are arranged at two ends of the first shell 21 for rotation at intervals; the two rotating seats 22 are symmetrically arranged; a locking pin 23 is connected between the two rotating seats 22; a cutting path 211 is provided on the outer wall of the first shell 21 at the middle part corresponding to the locking pin 23, and the first shell 21 can be cut into two symmetrical sections by the cutting path 211; an elastic energy storage member 24 is provided between the rotating seat 22 and the first shell 21; the elastic energy storage member 24 is in an energy storage state at the initial stage; the elastic energy storage member 24 is preferably a coil spring; a first cutting knife group is movably provided at one end of each rotating seat 22 away from the locking pin 23;

[0041] Circular grooves are respectively provided at both ends of the corresponding locking pin 23 in the first housing 21; the projection of the cutting path 211 on the horizontal cross section of the first housing 21 partially overlaps with the projection of the circular groove on the horizontal cross section of the first housing 21, so that when the first housing 21 is cut off, the restriction of the first housing 21 on the locking pin 23 can be released, so that the locking pin 23 after cutting can slide in the circular groove;

[0042] The second wire stripping mechanism 3 includes a second shell 31, which is in the shape of a rectangular parallelepiped and has a hollow structure inside; two flattening rollers 32 facing each other up and down are movably provided at one end of the second shell 31, and two friction rollers 33 facing each other up and down are movably provided at the other end; two second cutting knife groups facing each other up and down are also movably provided at one end of the second shell 31; the two second cutting knife groups are respectively connected to the corresponding friction rollers 33 in transmission; a stripping assembly and two locking assemblies for locking the second cutting knife groups are also movably provided in the second shell 31; initially, the locking assembly locks the second cutting knife group; the two locking assemblies are movably abutted against the stripping assembly; a first tension spring 37 is connected between the two locking assemblies.

[0043] When the wire harness 1 is needed, the cutting path 211 of the first shell 21 of the stripping structure at the preset length position is cut, so that the locking pin 23 is cut off, and the wire harness 1 is divided into two sections. At this time, the cut locking pin 23 is not restricted by the locking of the first shell 21. At this time, the coil spring releases the stored energy, driving the corresponding rotating seat 22 to rotate, and the rotating seat 22 drives the first cutting knife group to rotate. The first cutting knife group performs a circular cutting on the wire harness 1 during the rotation process, thereby leaving a first incision on the first insulating layer of the wire harness 1, exposing a plurality of wire cores; then, the wire harness 1 is pulled out in a direction away from the cutting path 211, and the first insulating layer portion from the first incision to the incision position of the wire harness 1 is stripped off and detached from the first shell 21;

[0044] like Figure 7As shown, when the exposed wire cores move between the two flattening rollers 32, the two flattening rollers 32 squeeze the wire cores, causing a number of wire cores to be arranged horizontally in a specific direction for subsequent welding operations; subsequently, as Figure 7 shown, when the first cutting position of the wire harness 1 comes opposite to the stripping assembly, the locking assembly releases the locking of the second cutting knife group. Then, while the wire harness 1 is being pulled outwards, the wire harness 1 drives the two friction rollers 33 to rotate through friction. The two friction rollers 33 synchronously drive the two second cutting knife groups to rotate. The two second cutting knife groups simultaneously cut a number of equally spaced second cuts on the second insulating layers of the horizontally arranged wire cores, facilitating the subsequent removal of the second insulating layer and greatly improving the efficiency of wire stripping; when the wire cores enter the stripping assembly, the stripping assembly strips the second insulating layers cut on each wire core from the wire cores until the wire harness 1 is pulled out from the second wire stripping mechanism 3, realizing the stripping of the first and second insulating layers of the wire harness 1 and the directional arrangement of the wire cores.

[0045] In this embodiment, by pre - sleeving a wire stripping structure on the wire harness 1, the insulating layer can be removed efficiently and conveniently, improving the wire stripping efficiency, reducing manual intervention, lowering the labor intensity, and also enhancing the consistency and stability of the product; and by cutting multiple cuts on the wire cores, when stripping the insulating layer, the multiple notches make the force more evenly distributed at different positions of the wire cores, greatly reducing the risk of excessive local force on the wire cores, the risk of deformation and fracture, effectively protecting the integrity and electrical performance of the wire cores, and improving the reliability of use of the wire harness 1.

[0046] Meanwhile, the multiple cuts can better break the adhesion between the insulating layer and the wire cores, making the insulating layer more smooth during stripping, more easily peeled off from the wire cores completely, reducing the problem of insulating layer residue, and providing a better wire core preparation state for subsequent welding.

[0047] As Figure 4 shown, for the multi - core wire harness of the ultrasonic probe in this embodiment, in some embodiments, the first cutting knife group includes a first cutting tool 251 radially movably arranged on the rotating seat 22 along the radial direction of the rotating seat 22; preferably, the first cutting tool 251 is arc - shaped to better fit the outer peripheral surface of the wire harness 1; the first cutting tool 251 is provided with a tool shaft 252 movably penetrating the rotating seat 22; a spring 253 is sleeved on the outer wall of the tool shaft 252; both ends of the spring 253 are in contact with the tool shaft 252 and the rotating seat 22 respectively; preferably, a first clamping platform is provided at the end of the tool shaft 252, and the spring 253 abuts against the first clamping platform; a driving groove 212 is provided on the inner wall of the first housing 21 at the position corresponding to the tool shaft 252; the tool shaft 252 is movably embedded in the driving groove 212; when the rotating seat 22 drives the first cutting tool 251 to rotate, the driving groove 212 causes the first cutting tool 251 to extend towards the axis direction of the rotating seat 22 against the elastic force of the spring 253. Preferably, each rotating seat 22 is provided with a plurality of first cutting knife groups evenly distributed in the circumferential direction.

[0048] Specifically, after the locking pin 23 is cut off, the coil spring releases the stored energy and drives the rotating seat 22 to rotate relative to the first housing 21. The rotating seat 22 synchronously drives each first cutting tool group to rotate. When the first cutting tool group rotates relative to the first housing 21, the driving groove 212 squeezes the first cutting tool 251 through the tool shaft 252, causing the first cutting tool 251 to extend inward against the elastic force of the spring 253. The first cutting tool 251 cuts into the first insulating layer until the tool shaft 252 moves out of the driving groove 212. At this time, the first cutting tool 251 remains in the extended state, thereby cutting a first incision in the first insulating layer. When the wire harness 1 is pulled out, the cut first insulating layer is detached from the wire harness 1, thus completing the peeling operation of the first insulating layer.

[0049] Exemplarily, as Figure 5 shown, the driving groove 212 includes a clamping groove and an inclined groove; initially, the first clamping platform is accommodated in the clamping groove under the elastic force of the spring 253. When the rotating seat 22 drives the first cutting tool 251 to rotate, the first clamping platform moves out of the clamping groove into the inclined groove, so that the first housing 21 generates a squeezing force on the first cutting tool 251, causing the first cutting tool 251 to extend radially inward to cut into the first insulating layer.

[0050] As Figure 8 and Figure 9 shown, for the multi-core wire harness for an ultrasonic probe in this embodiment, in some embodiments, the second cutting tool group includes two oppositely arranged driving wheels 341, two oppositely arranged eccentric wheels 342, a tool holder 343 connected between the two eccentric wheels 342, and a plurality of second cutting tools 344 arranged at equal intervals on the tool holder 343; the driving wheels 341 are rotatably arranged on the inner side wall of the second housing 31; the driving wheels 341 are in driving connection with one end of the corresponding friction rollers 33; the driving wheels 341 are provided with eccentric shafts; the eccentric wheels 342 are rotatably arranged on the eccentric shafts; the outer peripheral wall of the driving wheels 341 is provided with locking notches 3411 for locking and cooperating with the locking assembly; an extension arm 3421 extends from the outer peripheral wall of the eccentric wheel 342, and a limit post 345 is movably arranged on the extension arm 3421; one end of the limit post 345 movably penetrates through the second housing 31.

[0051] Specifically, the friction roller 33 is drivingly connected to the driving wheel 341 through a transmission belt; after the locking assembly moves out of the locking notch 3411, the locking of the driving wheel 341 by the locking assembly is released. At this time, the two friction rollers 33 can rotate during the movement of the wire harness 1. The friction roller 33 drives the driving wheel 341 to rotate through the transmission belt, and the driving wheel 341 drives the eccentric wheel 342 to rotate. Since the eccentric wheel 342 is eccentrically arranged and the eccentric wheel 342 is restricted by the limiting post 345, the eccentric wheel 342 drives the second cutting tool 344 to rotate through the tool holder 343. In this way, a plurality of second cuts can be cut at equal intervals on the second insulating layer on the wire core. The plurality of second cuts can better break the adhesion between the second insulating layer and the wire core, making the second insulating layer more smooth when detaching, and more easily peeled off from the wire core completely, reducing the problem of the remaining second insulating layer, and facilitating the subsequent welding operation.

[0052] As Figure 8 and Figure 10 shown, in some embodiments, the ultrasonic probe multi-core wire harness of this embodiment, the locking assembly includes two spaced-apart limiting frames 361. Specifically, the two limiting frames 361 are distributed on both sides inside the second housing 31, and the two locking assemblies are symmetrically arranged up and down; both ends of the first tension spring 37 are respectively connected to the limiting frame 361 and the corresponding limiting frame 361 of the other locking assembly; one end of the limiting frame 361 is movably arranged on the inner side wall of the second housing 31 and is used for cooperating with the locking notch 3411, and the other end of the limiting frame 361 is in movable abutment with the peeling assembly. As Figure 7 , Figure 8 , Figures 10 to 15As shown, in the multi-core wire harness for an ultrasonic probe of this embodiment, in some embodiments, the stripping assembly includes a stripping frame 351 disposed in the second housing 31. In the stripping frame 351, two driving sliders 352, two sliding rods 353, two first clamping plates 354, and two second clamping plates 355 are movably arranged in an up-and-down opposite manner; each driving slider 352 is provided with a first inclined boss 3521 and a second inclined boss 3522 that are staggeredly arranged; on the opposite inner side walls of the stripping frame 351, L-shaped sliding grooves 3511 are respectively provided corresponding to each sliding rod 353; the vertical section of the L-shaped sliding groove 3511 is arranged away from the friction roller 33; both ends of the sliding rod 353 are connected to one end of the second housing 31 close to the friction roller 33 by a second tension spring 356; both ends of the sliding rod 353 are movably inserted into the L-shaped sliding grooves 3511; each first clamping plate 354 protrudes with a third inclined boss 3541 for cooperating with the first inclined boss 3521; each second clamping plate 355 protrudes with a fourth inclined boss 3551 for cooperating with the second inclined boss 3522; the third inclined boss 3541 and the fourth inclined boss 3551 are staggeredly arranged; both ends of the driving slider 352 protrude with first pushing portions 3523; both ends of the sliding rod 353 are provided with second pushing portions 3531 for cooperating with the first pushing portions 3523; the other end of the limiting frame 361 is in movable abutment with the corresponding sliding rod 353.

[0053] Initially, one end of the limiting frame 361 is inserted into the locking notch 3411 to lock the transmission wheel 341. The sliding rod 353 is located in the vertical section of the L-shaped sliding groove 3511. At this time, the second tension spring 356 is in a stretched state, and the two sliding rods 353 respectively abut against the outer peripheral wall of the wire harness 1, as Figure 13 shown, the first inclined boss 3521 is in abutting cooperation with the corresponding third inclined boss 3541; when the first incision of the wire harness 1 comes below the sliding rod 353, under the action of the first tension spring 37, the two vertically opposite limiting frames 361 move towards each other, and at the same time, the two sliding rods 353 also move towards each other, so that one end of the limiting frame 361 moves out of the locking notch 3411, thereby releasing the locking of the transmission wheel 341, as Figure 8 shown. In this way, driven by the friction roller 33, the friction roller 33 drives the transmission wheel 341 to rotate through the transmission belt, the transmission wheel 341 drives the eccentric wheel 342 to rotate, and the eccentric wheel 342 drives the second cutter 344 to rotate through the tool holder 343, and a plurality of second incisions are cut at equal intervals on the second insulating layer on the wire core; at the same time, the end of the sliding rod 353 enters the horizontal section of the L-shaped sliding groove 3511, and under the action of the second tension spring 356, the sliding rod 353 slides along the horizontal section of the L-shaped sliding groove 3511 towards the direction of the friction roller 33. When the second push rod of the sliding rod 353 abuts against the first pushing portion 3523 of the driving slider 352, as Figure 14As shown, the sliding rod 353 pushes the driving sliders 352 to slide synchronously. The two driving sliders 352 are respectively engaged with the third inclined bosses 3541 of their respective corresponding first clamping plates 354 through the first inclined bosses 3521, so that the two first clamping plates 354 move towards each other, thereby clamping a plurality of horizontally arranged wire cores. With the continuous pulling of the wire harness 1, the two first clamping plates 354 cause a part of the second insulating layer to be separated from the wire cores until the first inclined bosses 3521 are separated from the third inclined bosses 3541; with the further sliding of the driving sliders 352, when the second inclined bosses 3522 of the two driving sliders 352 are respectively in contact and cooperation with the fourth inclined bosses 3551 on their respective corresponding second clamping plates 355, as Figure 15 shown, the two driving sliders 352 cause the two second clamping plates 355 to move towards each other, thereby clamping a plurality of wire cores to strip the second insulating layer from the wire cores; in this way, through the secondary stripping method, it is beneficial to reduce the risks of excessive local stress, deformation and fracture of the wire cores, effectively protect the integrity and electrical performance of the wire cores, improve the quality and reliability of the wire harness 1, and make it easier to pull off the second insulating layer from the wire cores completely, reducing the problem of residual second insulating layer.

[0054] As Figure 11 and Figure 12 shown, for the multi-core wire harness for ultrasonic probes in this embodiment, in some embodiments, two pairs of mounting posts extend from the top wall and the bottom wall of the stripping frame 351 respectively; each mounting post is provided with a guiding chute; elastic floating pins are provided at both ends of the first clamping plate 354 and both ends of the second clamping plate 355; the pins are movably embedded in the guiding chute. Specifically, the guiding chute includes a first locking groove, an inclined plane groove, a vertical groove and a second locking groove connected in sequence. The first locking groove is arranged at one end far from the axis of the wire harness 1. Initially, the pins are located in the first locking groove; in this embodiment, the mounting posts are provided to facilitate the installation of the first clamping plate 354 and the second clamping plate 355; when the driving slider 352 squeezes the first clamping plate 354 or the second clamping plate 355 to move, the pins enter the inclined plane groove from the first locking groove, and then enter the vertical groove through the inclined plane groove until they enter the second locking groove from the vertical groove. At this time, the first clamping plate 354 or the second clamping plate 355 clamps a plurality of wire cores to strip the second insulating layer.

[0055] As Figure 9 shown, for the multi-core wire harness for ultrasonic probes in this embodiment, in some embodiments, the extension arm 3421 is provided with a strip-shaped hole; the other end of the limit post 345 is movably clamped with the strip-shaped hole; preferably, a second clamping platform is provided at the other end of the limit post 345, and the second clamping platform is movably clamped on the extension arm 3421. In this embodiment, the strip-shaped hole is provided to enable the limit post 345 to make an adaptive movement relative to the eccentric wheel 342 when the eccentric wheel 342 rotates.

[0056] As Figure 8As shown, for the multi-core wire harness for an ultrasonic probe in this embodiment, in some embodiments, a first tension belt 38 is connected between two flattening rollers 32; accommodating grooves are evenly distributed on the outer peripheral wall of each flattening roller 32 along its axial direction. In this embodiment, by providing the first tension belt 38, the two flattening rollers 32 are tensioned by the first tension belt 38 to ensure the shaping and arranging effect of the wire cores on the two flattening rollers 32; after several wire cores enter between the two flattening rollers 32, the flattening rollers 32 shape and arrange the several wire cores so that the several wire cores are respectively embedded into the accommodating grooves one by one, so that the several wire cores can be horizontally arranged.

[0057] As Figure 8 shown, for the multi-core wire harness for an ultrasonic probe in this embodiment, in some embodiments, a second tension belt 39 is connected between two friction rollers 33. In this embodiment, by providing the second tension belt 39, it is ensured that the two friction rollers 33 remain in contact with the wire harness 1, so that after the limiting frame 361 releases the locking of the driving wheel 341, the friction rollers 33 can rotate under the action of friction and the drive of the wire harness 1, thereby driving the second cutter 344 to cut a second incision on the second insulating layer.

[0058] The above are only the preferred embodiments of the present invention. Therefore, any equivalent changes or modifications made according to the structures, features, and principles described in the scope of the present invention patent application are included in the protection scope of the present invention patent application.

Claims

1. A multi-core wire harness for an ultrasonic probe that is easy to weld, characterized in that: It comprises a wire harness, on which a wire stripping structure is sleeved; the wire stripping structure comprises a first wire stripping mechanism and two second wire stripping mechanisms arranged at two ends of the first wire stripping mechanism; The first wire stripping mechanism comprises a first housing and two rotating seats arranged in the first housing for rotation at intervals; a locking pin is connected between the two rotating seats; a cutting path is provided on the outer wall of the first housing in the middle corresponding to the locking pin; an elastic energy storage member is provided between the rotating seat and the first housing; a first cutting knife group is movably provided at one end of each rotating seat away from the locking pin; The second wire stripping mechanism includes a second shell; two flattening rollers opposing each other up and down are movably provided at one end of the second shell, and two friction rollers opposing each other up and down are movably provided at the other end; two second cutting knife groups opposing each other up and down are also movably provided at one end of the second shell; the two second cutting knife groups are respectively connected to the corresponding friction rollers in a transmission manner; a stripping assembly and two locking assemblies for locking the second cutting knife groups are also movably provided in the second shell; the two locking assemblies are movably abutted against the stripping assembly; a first tension spring is connected between the two locking assemblies.

2. The multi-core wire harness for an ultrasonic probe according to claim 1, characterized in that: The first cutting tool group includes a first tool that is movably arranged on the rotating seat along the radial direction of the rotating seat; the first tool is provided with a tool shaft that movably passes through the rotating seat; a spring is sleeved on the outer wall of the tool shaft; the two ends of the spring are respectively abutted against the tool shaft and the rotating seat; a driving groove is provided on the inner wall of the first shell at a position corresponding to the tool shaft; the tool shaft is movably embedded in the driving groove; when the rotating seat drives the first tool to rotate, the driving groove enables the first tool to overcome the elastic force of the spring and extend toward the axial direction of the rotating seat.

3. The multi-core wire harness for an ultrasonic probe according to claim 1, characterized in that: Each rotating seat is provided with a plurality of first cutting knife groups uniformly distributed along the circumferential direction.

4. The multi-core wire harness for an ultrasonic probe according to claim 1, characterized in that: The second cutting knife group includes two transmission wheels arranged oppositely, two eccentric wheels arranged oppositely, a knife holder connected between the two eccentric wheels, and a plurality of second knives arranged on the knife holder at equal intervals; the transmission wheel is rotatably arranged on the inner side wall of the second housing; the transmission wheel is transmission-connected with one end of the corresponding friction roller; the transmission wheel is provided with an eccentric shaft; the eccentric wheel is rotatably arranged on the eccentric shaft; the outer peripheral wall of the transmission wheel is provided with a locking notch for locking with the locking assembly; An extension arm is extended from the outer peripheral wall of the eccentric wheel, and a limiting column is movably provided on the extension arm; one end of the limiting column is movably penetrated through the second shell.

5. The multi-core wire harness for an ultrasonic probe according to claim 4, characterized in that: The locking assembly includes two spaced-apart limit frames, and the two ends of the first tension spring are respectively connected to the limit frame and the limit frame corresponding to the other locking assembly; one end of the limit frame is movably arranged on the inner wall of the second shell and is used to cooperate with the locking notch, and the other end of the limit frame is movably abutted against the stripping assembly.

6. The multi-core wire harness for an ultrasonic probe according to claim 5, characterized in that: The stripping assembly includes a stripping frame arranged in the second shell body, and two driving sliders, two sliding rods, two first clamping plates and two second clamping plates are movably arranged in the stripping frame and are arranged opposite to each other in an upper and lower direction; each driving slider is provided with a first inclined boss and a second inclined boss which are staggered; two opposite inner side walls of the stripping frame are provided with an L-shaped slide groove corresponding to each sliding rod; the vertical section of the L-shaped slide groove is arranged away from the friction roller; the two ends of the sliding rod are respectively connected to the end of the second shell body close to the friction roller with a second tension spring; the two ends of the sliding rod are respectively movably embedded in the L-shaped slide groove; each first clamping plate is convexly provided with a third inclined boss for cooperating with the first inclined boss; each second clamping plate is convexly provided with a fourth inclined boss for cooperating with the second inclined boss; the third inclined boss is staggered with the fourth inclined boss; Both ends of the driving slider are convexly provided with a first push portion; both ends of the slide bar are provided with a second push portion for cooperating with the first push portion; and the other end of the limit frame is movably abutted with the corresponding slide bar.

7. The multi-core wire harness for an ultrasonic probe according to claim 6, characterized in that: Two pairs of mounting posts are respectively extended from the top wall and the bottom wall of the stripping frame; each mounting post is provided with a guide slot; both ends of the first clamping plate and the second clamping plate are elastically and floatingly provided with latches; the latches are movably embedded in the guide slots.

8. The multi-core wire harness for an ultrasonic probe according to claim 4, characterized in that: The extension arm is provided with a strip hole; the other end of the limiting column is movably connected with the strip hole.

9. The multi-core wire harness for an ultrasonic probe according to claim 1, characterized in that: A first tensioning belt is connected between the two flattening rollers; and accommodating grooves are evenly distributed on the outer peripheral wall of each flattening roller along its axial direction.

10. The multi-core wire harness for an ultrasonic probe according to claim 1, characterized in that: A second tension belt is connected between the two friction rollers.

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