Distributing plate assembly for armoring machine

Abstract

The invention discloses a distributor plate assembly for an armoring machine, and belongs to the field of cable production equipment. The guide wheel group comprises a plurality of guide wheels which are rotatably arranged on the distributor plate body, the outer circumference of each guide wheel is provided with an open type wire groove for accommodating and guiding a cable to move, and a galvanized steel wire is arranged in the open type wire groove and is guided by the guide wheels in a rolling manner, so that sliding friction between the steel wire and the guide structure is converted into rolling friction; the guide wheel sets rotate independently, the wire grooves are of an open structure, and when part of the steel wires are arranged in a staggered mode or a path needs to be adjusted, an operator can directly adjust the corrosion resistance and the structural reliability of the umbilical cable under the condition that a machine is not stopped, so that the corrosion resistance and the structural reliability of the umbilical cable are improved, and the service life of the umbilical cable is prolonged. And the steel wire is taken out from the open type wire slot or reled into the open type wire slot without cutting off the steel wire or detaching the distributor plate, so that rapid and flexible online adjustment is realized.

Description

Technical Field

[0001] This invention relates to the field of cable production equipment, and more specifically to a branching board assembly for an armoring machine. Background Technology

[0002] As a key piece of equipment in the umbilical cable production process, the wire guide plate of the armoring machine plays a crucial role in guiding and positioning the galvanized steel wires. Existing mainstream armoring machine wire guide plates typically employ a through-type structure design. Its core component is a wire-passing hole made of tungsten steel. By creating a series of fixed-diameter wire-passing holes on the wire guide plate, the galvanized steel wires can pass through along a preset path, thus forming a regular armor protective layer around the cable core. This integrated design can meet basic wire arrangement requirements and is a mature solution widely used in the industry.

[0003] However, in actual use, when galvanized steel wires pass through the hard tungsten carbide threading holes, continuous hard contact and friction occur between the two. This direct, high-intensity friction can damage or even peel off the zinc layer on the surface of the galvanized steel wire. Damage to the zinc layer will directly weaken the corrosion resistance of the steel wire, thus affecting the service life and reliability of the entire umbilical cable in harsh environments. In addition, the generated metal debris (including detached zinc layer and abrasion particles from the steel wire substrate) may fall into the gaps between the steel wires or into the umbilical cable structure, causing structural defects such as abnormal gaps between steel wires and local bulging of the cable body, ultimately leading to a decline in cable performance. Secondly, traditional wire dividers have high requirements for the overall precision of the steel wire arrangement and lack flexibility. Once some steel wires are misaligned during threading or operation, it is often impossible to adjust them online. Operators must stop the machine, cut the misaligned galvanized steel wires, and then re-thread and adjust them. This process not only interrupts the continuous production process and increases unplanned downtime, but also causes material waste, resulting in a decrease in overall production efficiency. Summary of the Invention

[0004] The purpose of this invention is to provide a wire separator assembly for armoring machines, which aims to solve the problems of easy damage to the zinc layer of galvanized steel wire and difficulty in adjustment after wire misalignment.

[0005] The present invention provides a splitter assembly for an armoring machine, comprising: a splitter body; and a guide wheel assembly, including a plurality of guide wheels rotatably disposed on the splitter body, wherein the outer circumference of the guide wheels is provided with an open groove for accommodating and guiding the movement of cables.

[0006] Preferably, the open cable tray has a U-shaped cross-section, and the depth of the open cable tray is greater than the diameter of the cable.

[0007] Preferably, the guide wheel assembly further includes a connecting mechanism for mounting the guide wheel on the splitter plate body. The connecting mechanism includes two parallel support plates, a connecting plate for connecting the two support plates, and a fastener for fixing the connecting plate on the splitter plate body. The connecting plate is located at one end of the two support plates, and the guide wheel is mounted on the other end of the support plate via a rotating shaft.

[0008] Preferably, the support plate includes a horizontal portion and a bent portion formed by bending from the horizontal portion, the connecting plate is fixed on the horizontal portion, and the guide wheel is disposed on the bent portion.

[0009] Preferably, the guide wheel is made of stainless steel material that has been quenched.

[0010] Preferably, the dividing plate assembly for the armoring machine further includes a guide sleeve for guiding the movement of the filler strip, a support seat is provided on one side of the connecting mechanism, the support seat has an elongated hole, the guide sleeve is installed in the elongated hole, and the support seat is installed on the connecting mechanism by a locking member.

[0011] Preferably, a ceramic layer is provided on the inner wall of the guide sleeve.

[0012] Preferably, the support base is fixed between two adjacent connecting mechanisms.

[0013] Preferably, the splitter plate body is annular, and a hollow structure is formed on the surface of the splitter plate body.

[0014] Compared with existing technologies, it has the following beneficial effects: 1. This invention provides a branch plate assembly for an armoring machine that employs a guide wheel group. The rolling of the guide wheels in the guide wheel group guides the galvanized steel wire forward, replacing the sliding friction of the prior art with rolling friction. This avoids frictional damage to the galvanized layer on the surface of the galvanized steel wire caused by the guide wheels, thus helping to protect the anti-corrosion layer of the steel wire and ensuring the long-term corrosion resistance and structural reliability of the umbilical cable in harsh environments. Furthermore, rolling friction prevents zinc layer detachment and wear on the steel wire substrate, eliminating the risk of metal debris from zinc layer detachment and steel wire substrate wear falling into the gaps between the steel wires or the internal structure of the umbilical cable. This prevents structural defects such as abnormal gaps between steel wires and localized bulging of the cable body caused by debris accumulation, ensuring the structural uniformity and stable mechanical properties of the cable body.

[0015] 2. In this application, the outer circumference of the guide wheel is provided with an open wire groove to accommodate and guide the movement of the cable. The cable can be guided into or taken out of the open wire groove by moving radially toward or away from the center of the guide wheel. Therefore, if some steel wires are misaligned or need to be adjusted, the operator can directly take out the steel wires from the open wire groove or reintroduce them without stopping the machine, without cutting the steel wires or disassembling the wire divider. This achieves quick and flexible online adjustment, avoids unplanned downtime and material waste, and helps to improve production efficiency and production continuity. Attached Figure Description

[0016] To more clearly illustrate the technical solutions in the embodiments of the present invention, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only preferred embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0017] Figure 1 This is a schematic diagram of the overall structure of a splitter assembly for an armoring machine according to an embodiment of the present invention; Figure 2 This is a schematic diagram of the connection relationship between the guide wheel assembly and the guide sleeve of the dividing plate assembly for an armoring machine according to an embodiment of the present invention.

[0018] In the diagram, 1 is the main body of the distribution plate; 2 is the guide wheel assembly; 21 is the guide wheel; 211 is the cable groove; 22 is the connecting mechanism; 221 is the support plate; 221a is the horizontal part; 221b is the bending part; 222 is the connecting plate; 223 is the fastener; 3 is the guide sleeve; 4 is the support base; and 5 is the locking component. Detailed Implementation

[0019] To better understand the structure of the present invention and the functional features and advantages it can achieve, the preferred embodiments of the present invention will be described in detail below with reference to the figures.

[0020] like Figure 1 and Figure 2 As shown, the present invention provides a splitter assembly for an armoring machine, comprising: a splitter body 1 and a guide wheel assembly 2 disposed on the splitter body 1. The guide wheel assembly 2 includes a plurality of guide wheels 21 rotatably disposed on the splitter body 1. The outer circumference of the guide wheels 21 is provided with an open wire groove 211 for accommodating and guiding the movement of cables.

[0021] According to the scheme of this embodiment, when guiding and arranging the galvanized steel wires of armored cables, the operator first guides multiple galvanized steel wires into the open grooves 211 of each guide wheel 21 on the distribution plate. Each guide wheel 21 in the guide wheel group 2 can rotate freely around its own axis independently. Under the action of external traction force, the galvanized steel wires move forward along a preset path. Since the galvanized steel wires are contained in the open grooves 211, and the side walls of the grooves 211 form circumferential limits on the galvanized steel wires, the movement direction of the galvanized steel wires is effectively constrained. Since the guide wheels 21 can rotate freely around their axes, the sliding friction between the galvanized steel wires and the walls of the grooves 211 is changed to the rolling friction of the guide wheels 21 themselves. During this process, the galvanized steel wires are always constrained within the open grooves 211, and their surfaces only have low-resistance rolling contact with the inner walls of the grooves 211, thereby achieving stable guidance while minimizing the wear of the galvanized layer on the surface of the galvanized steel wires caused by the hard friction of traditional fixed holes.

[0022] Furthermore, since rolling friction replaces traditional sliding friction, it avoids the zinc layer peeling and steel wire substrate wear caused by traditional hard friction (i.e., friction between the wire holes on the splitter plate and the galvanized steel wire). Therefore, it also eliminates metal debris generated by hard friction, including detached zinc layer and steel wire substrate wear particles, preventing such debris from falling into the gaps of the forming galvanized steel wire. This avoids structural defects such as abnormal gaps and local bulging of galvanized steel wire that may be caused by debris accumulation and filling, ensuring the uniformity and stability of the cable structure.

[0023] When it is necessary to adjust the arrangement of one or more galvanized steel wires online, the operator or adjustment mechanism can directly approach the target guide wheel 21 from the side or at an angle. Since the wire trough 211 has an open structure with an open entrance, it is not necessary to completely pull or cut the galvanized steel wire from the mechanism. The operator can use tools or a robotic arm to lift the galvanized steel wire upwards from the opening of the open wire trough 211, releasing the constraint of the guide wheel 21 on the galvanized steel wire. After the position adjustment is completed, the galvanized steel wire can be reinserted into the wire trough 211 from the opening to restore the guiding function.

[0024] The entire adjustment process can be completed without stopping the armored equipment and while the galvanized steel wires are running continuously, enabling real-time online adjustment of the galvanized steel wire arrangement and improving production flexibility and operational efficiency. The dividing plate body 1 provides a unified installation benchmark and structural support for the entire guide wheel assembly 2, ensuring that each guide wheel 21 maintains a stable relative position in space, thereby guaranteeing the overall accuracy and consistency of the arrangement of multiple galvanized steel wires.

[0025] The following detailed description uses specific examples: In some embodiments, the open cable tray 211 has a U-shaped cross-section, and the depth of the open cable tray 211 is greater than the diameter of the cable. When the galvanized steel wire is placed into the U-shaped cable tray 211, the galvanized steel wire is stably positioned at the bottom of the tray by its own weight and the wrapping effect of the side wall of the U-shaped cable tray 211.

[0026] In other embodiments, the depth of the open cable tray 211 may be less than or equal to the diameter of the cable, ensuring that the cable can be placed smoothly in the cable tray 211.

[0027] Because the groove depth is greater than the wire diameter, the galvanized steel wire does not completely fill the depth space of the groove 211 in the radial direction. There is still a certain distance between its top and the open edge of the groove 211, which ensures that the galvanized steel wire has sufficient room to move when passing through the U-shaped groove 211, and avoids interference and wear with the groove opening of the U-shaped groove 211.

[0028] Because galvanized steel wire may experience high-frequency vibration or lateral oscillation under external traction, if the groove depth is only equal to or less than the diameter of the galvanized steel wire, the wire may easily be thrown out or bounce off the open groove due to inertia during movement. Therefore, to avoid this problem, the groove depth of the open cable tray 211 is usually set to be greater than the diameter of the cable. In this way, the groove depth provides the necessary sidewall height, ensuring that the oscillation of the galvanized steel wire within its normal range of motion is still limited to the range of the U-shaped sidewalls. This prevents the galvanized steel wire from accidentally detaching from the open cable tray 211 during high-speed operation, ensuring the continuity and reliability of the guiding process.

[0029] Meanwhile, while ensuring the wire does not come off, when online adjustment is required, the operating tool can still make full use of the space provided by the groove depth, move downward from the side to embed into the wire groove 211, and lift it out steadily after overcoming the weight of the wire. After the adjustment is completed, the wire can be accurately put back to the bottom of the U-shaped groove and quickly restore a stable guiding state.

[0030] In some embodiments, the guide wheel assembly 2 further includes a connecting mechanism 22 for mounting the guide wheel 21 on the splitter body 1. The connecting mechanism 22 includes two support plates 221 arranged parallel to each other, a connecting plate 222 for connecting the two support plates 221, and a fastener 223 for fixing the connecting plate 222 on the splitter body 1. The connecting plate 222 is located at one end of the two support plates 221, and the guide wheel 21 is mounted on the other end of the support plate 221 through a rotating shaft.

[0031] The connecting plate 222 serves as the mounting base for the entire connecting mechanism 22 and is detachably fixed to the dividing plate body 1 by fasteners 223, such as bolts. This detachable connection method allows each guide wheel 21 unit, i.e., the guide wheel 21 and its connecting mechanism 22, to be independently adjusted in position or replaced as a whole on the dividing plate body 1 without disassembling other parts or affecting the overall structure, thus enhancing the modular maintainability of the equipment. Two parallel support plates 221 form the support arms of the guide wheel 21, which together bear the radial load from the guide wheel 21 and the steel wire. Since the support plates 221 are arranged in parallel opposite directions with a fixed spacing, they provide stable double-sided support for the guide wheel 21, limiting the axial movement and radial sway of the guide wheel 21 during operation and ensuring the path accuracy of the steel wire.

[0032] In other embodiments, the connecting mechanism 22 can also be implemented by making holes in the splitter plate body 1. Several holes are made on the circumferential surface of the splitter plate body 1 and are evenly arranged at 360 degrees along the center of the splitter plate body 1. The guide wheel 21 is rotatably installed in each hole by a rotating shaft.

[0033] In some embodiments, the support plate 221 includes a horizontal portion 221a and a bent portion 221b formed by bending the horizontal portion 221a, a connecting plate 222 is fixed on the horizontal portion 221a, and a guide wheel 21 is disposed on the bent portion 221b.

[0034] The connecting plate 222 is fixedly connected to the horizontal portions 221a of the two support plates 221 by welding or threaded connection, thereby rigidly connecting the two support plates 221 into an integral frame. The guide wheel 21 is rotatably mounted on the bent portions 221b of the two support plates 221 via a shaft, bearing, etc. The bent portion 221b extends from the end of the horizontal portion 221a at a specific angle, offsetting the installation position of the guide wheel 21 from the plane of the connecting plate 222, i.e., the plane of the horizontal portion 221a, to another spatial orientation.

[0035] The length of the bend 221b determines the radial extension distance of the guide wheel 21 relative to the fixing point of the connecting plate 222, while its bending angle determines the spatial positional relationship between the guide wheel 21 and the dividing plate body 1. Through the spatial guidance of the bend 221b, the guide wheel 21 mounted on the bend 221b can accurately guide the galvanized steel wire to a specific position radially on the dividing plate, avoiding interference from the dividing plate body 1 on the path of the galvanized steel wire and ensuring that the force direction of the galvanized steel wire meets the process requirements.

[0036] In other embodiments, the shape of the support plate 221 is not limited to the combination of the horizontal part 221a and the bent part 221b mentioned above. Other shapes and structures of the support plate 221 that can support the guide wheel 21 without obstructing the cable passing through the guide wheel 21 can also be used in this patent.

[0037] In some embodiments, the guide wheel 21 is made of 405 stainless steel after quenching. 405 stainless steel is a martensitic-ferritic stainless steel, which has good corrosion resistance and a certain strength. Quenching induces a martensitic phase transformation inside the material, thereby improving its surface hardness, overall strength, and wear resistance.

[0038] After quenching, the working surface of the 405 stainless steel guide wheel 21 achieves a hardness higher than that of the untreated state or ordinary structural steel. During armored operations, the inner wall of the open groove 211 of the guide wheel 21 is in continuous contact with the high-speed running galvanized steel wire. The guide wheel 21, made of quenched 405 stainless steel, effectively resists the slippage of the galvanized steel wire, especially the slight slippage that may occur during startup, speed change, or adjustment, as well as wear caused by potential hard particles. This delays dimensional changes or surface damage to the groove 211 caused by wear, ensuring the consistency of the wire path and the long-term stability of quality.

[0039] In addition, the guide wheel 21 bears the radial pressure from the galvanized steel wire and the alternating load from the rotation during operation. The quenching treatment improves the fatigue strength of 405 stainless steel, so that the guide wheel 21 can effectively resist the generation of deformation and cracks under long-term high-load operation, ensuring the rigidity and reliability of the support structure and the smooth and continuous rotational movement, and avoiding the decrease in guiding accuracy or unexpected shutdown caused by the deformation of the guide wheel 21.

[0040] Furthermore, the chromium content in 405 stainless steel gives it excellent corrosion resistance. In the humid and salt spray conditions that may exist in umbilical cable production environments, the guide wheel 21 made of this material can resist rust for a long time, maintaining a smooth surface. This allows the guide wheel 21 to simultaneously meet the performance requirements of high wear resistance, high strength, and corrosion resistance in harsh industrial environments, extending the replacement cycle of key vulnerable parts and reducing maintenance costs and downtime.

[0041] In some embodiments, the splitter assembly for the armoring machine further includes a guide sleeve 3 for guiding the movement of the filler strip, a support base 4 is provided on one side of the connecting mechanism 22, the support base 4 has an elongated hole, the guide sleeve 3 is installed in the elongated hole, and the support base 4 is installed on the connecting mechanism 22 by a locking member 5.

[0042] The support base 4 serves as a transitional carrier between the connecting mechanism 22 and the guide sleeve 3. One end of it is fixed to the support plate 221 of the two adjacent connecting mechanisms 22 by the locking member 5. This connection method ensures that the guide sleeve 3 and the guide wheel 21 maintain a preset relative position relationship, so that the filling strip and the galvanized steel wire can move forward synchronously in the preset direction without interfering with each other, and together form a complete umbilical cable core filling structure.

[0043] Since each guide wheel 21 requires stable support from a connecting mechanism 22 consisting of two support plates 221, the connecting mechanism 22 itself occupies a certain amount of space on the splitter plate body 1. If an independent connecting mechanism is set for the guide sleeve 3 on the splitter plate body 1, it will not only further reduce the usable area on the splitter plate body 1, but may also cause structural interference, making it difficult to coordinate the relative positions of the guide wheel 21 and the guide sleeve 3. Therefore, the guide sleeve 3 is installed between two adjacent connecting mechanisms 22 through a support base 4. The support base 4 acts as a load-bearing bridge between the connecting mechanism 22 and the guide sleeve 3, maximizing the saving of installation area on the splitter plate body 1 and making the overall layout more compact and reasonable.

[0044] The guide sleeve 3 is stably positioned in the gap between two adjacent guide wheels 21. This position is exactly in the space zone adjacent to the galvanized steel wire layer in the radial direction of the splitter plate, which meets the actual arrangement requirements of the filler strip in the umbilical cable core. It is spatially coordinated and parallel with the steel wire path on the adjacent guide wheel 21 without interfering with each other.

[0045] In some embodiments, a ceramic layer is provided on the inner wall of the guide sleeve 3. Due to the extremely high hardness, excellent wear resistance, and low coefficient of friction of ceramic materials, the ceramic layer provides an excellent protective contact surface for the filler strip surface when it passes through the inner hole of the guide sleeve 3 at high speed and continuously. Its high hardness effectively resists wear caused by hard particles or long-term friction that may be present on the filler strip surface, delaying the wear of the inner hole of the guide sleeve 3 and the increase in surface roughness, thereby maintaining a smooth guide channel for a long time and ensuring the long-term stability of the filler strip conveying path.

[0046] In addition, ceramic layers typically possess excellent chemical stability and corrosion resistance. In production environments where they may come into contact with coolants, lubricants, or special operating media, ceramic layers can effectively resist corrosion and chemical erosion, avoiding problems such as increased friction coefficient and material detachment and contamination caused by internal wall corrosion, thus ensuring the high cleanliness requirements and long-term reliable operation of the guiding process.

[0047] In some embodiments, the support base 4 is fixed between two adjacent connecting mechanisms 22. Specifically, mounting holes are provided at opposite ends of the bottom surface of the support base 4. Support plates 221 for mounting the support base 4 are provided on the sides of the two adjacent connecting mechanisms 22 that are close to each other. Screw holes are provided on the support plates 221. The support base is fixed by passing fasteners such as bolts through the mounting holes on the bottom surface of the support base 4 and screwing them into the screw holes on the support plates 221. Since the two adjacent connecting mechanisms 22 already provide stable support for their respective guide wheels 21, they maintain relative structural stability. By directly fixing the support base 4 to the adjacent connecting mechanisms 22, there is no need to add an independent mounting structure to the splitter body 1, thereby maximizing the optimization of the spatial layout on the splitter body 1 and avoiding interference caused by overly dense components.

[0048] In addition, the support base 4 provides a precise installation position for the guide sleeve 3, which is determined by the positions of the two connecting mechanisms 22. The relative position between the guide sleeve 3 installed on the support base 4 and the adjacent guide wheel 21 is also determined, so that the filler strip and the galvanized steel wire can always maintain a preset relationship on the path and work together to complete the construction of the cable core.

[0049] In some embodiments, the splitter plate body 1 is annular, and a hollow structure is formed on the surface of the splitter plate body 1. The annular structure of the splitter plate body 1 is consistent with the process requirement that the galvanized steel wires need to be evenly arranged around the umbilical cable core. The annular body provides a continuous mounting reference surface for the multiple guide wheel groups 2 evenly distributed along its circumference, ensuring that all guide wheels 21 are located on the same circumference in space, thereby ensuring that multiple galvanized steel wires form a uniform and symmetrical armor layer around the umbilical cable core.

[0050] The perforated structure on the surface of the annular dividing plate body 1 reduces the overall mass of the dividing plate body 1 while ensuring the overall structural rigidity and installation strength. This reduces the rotational inertia of the rotating parts, lowers drive energy consumption, and improves the response speed of equipment start-up, shutdown, and speed change. Secondly, the perforated structure creates air channels throughout the plate. During operation, the friction between the galvanized steel wire and the guide wheel 21, as well as the heat generated by the equipment's operation itself, are facilitated by these perforated structures, promoting air convection around the dividing plate body 1, enhancing heat dissipation efficiency, and helping to promptly dissipate accumulated heat. This prevents thermal deformation of the metal materials due to excessive temperature rise, thereby ensuring the thermal stability and operational reliability of the equipment during long-term continuous operation.

[0051] Therefore, the design of adopting a circular body with a hollow structure not only provides a stable geometric mounting reference for the guide wheel assembly 2, but also improves the overall operating performance and long-term stability of the entire distribution board from a structural perspective through lightweight and heat dissipation design.

[0052] The above description is merely a preferred embodiment of the present invention and does not constitute any limitation on the present invention. Any person skilled in the art can make many possible variations and modifications to the technical solution of the present invention, or modify it into equivalent embodiments, without departing from the scope of the present invention. Therefore, any modifications, equivalent changes, and alterations made to the above embodiments based on the technology of the present invention without departing from the scope of the present invention are within the protection scope of the present invention.

Claims

1. A branch board assembly for an armoring machine, characterized in that, include: Distributor body (1); The guide wheel assembly (2) includes several guide wheels (21) rotatably mounted on the main body (1) of the splitter plate. The outer circumference of the guide wheel (21) is provided with an open groove (211) for accommodating and guiding the movement of the cable.

2. A wire splitter assembly for an armoring machine according to claim 1, characterized in that, The open cable tray (211) has a U-shaped cross-section, and the depth of the open cable tray (211) is greater than the diameter of the cable.

3. A wire splitter assembly for an armoring machine according to claim 1, characterized in that, The guide wheel assembly (2) further includes a connecting mechanism (22) for mounting the guide wheel (21) on the splitter body (1). The connecting mechanism (22) includes two parallel support plates (221), a connecting plate (222) for connecting the two support plates (221), and a fastener (223) for fixing the connecting plate (222) on the splitter body (1). The connecting plate (222) is located at one end of the two support plates (221), and the guide wheel (21) is mounted on the other end of the support plate (221) via a rotating shaft.

4. A branch board assembly for an armoring machine according to claim 3, characterized in that, The support plate (221) includes a horizontal portion (221a) and a bent portion (221b) formed by bending from the horizontal portion (221a). The connecting plate (222) is fixed on the horizontal portion (221a), and the guide wheel (21) is disposed on the bent portion (221b).

5. A wire splitter assembly for an armoring machine according to claim 1, characterized in that, The guide wheel (21) is made of 405 stainless steel material after quenching.

6. A wire splitter assembly for an armoring machine according to claim 3, characterized in that, The dividing plate assembly for the armoring machine also includes a guide sleeve (3) for guiding the movement of the filler strip. A support seat (4) is provided on one side of the connecting mechanism (22). An elongated hole is provided on the support seat (4). The guide sleeve (3) is installed in the elongated hole. The support seat (4) is installed on the connecting structure (22) by a locking member (5).

7. A wire splitter assembly for an armoring machine according to claim 6, characterized in that, A ceramic layer is provided on the inner wall of the guide sleeve (3).

8. A branch board assembly for an armoring machine according to claim 7, characterized in that, The support base (4) is fixed between two adjacent connecting mechanisms (22).

9. A wire divider assembly for an armoring machine according to claim 1, characterized in that, The splitter plate body (1) is circular, and a hollow structure is formed on the surface of the splitter plate body (1).

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