Wide-width wire ribbon loom capable of realizing linkage of warp creel and shuttle

Abstract

The utility model relates to the technical field of ribbon looms, in particular to a wide-width wire ribbon loom capable of realizing linkage of a warp creel and a shuttle, which comprises a machine body, and a wire supply mechanism, a longitude crossing wire passing mechanism, a latitude winding and pushing mechanism, an outgoing wire winding mechanism and a power transmission mechanism are mounted on the machine body. Wherein the thread supply mechanism is used for providing an upper row of yarns and a lower row of yarns in the longitude direction and providing at least one yarn in the latitude direction, and the thread outlet winding mechanism is used for winding woven threads; due to the synchronism, the knitting process of the yarns in the longitude direction and the latitude direction is smoother, and the problems of non-uniform yarn tension, knitting errors and the like caused by asynchronism are reduced; and the power and the rotating speed of the power motor can be adjusted according to different production requirements, so that the ribbon loom can adapt to the production of wires with different widths and materials, and the adaptability and the flexibility of equipment are improved.

Description

Technical Field

[0001] The utility model relates to the technical field of ribbon machines, in particular to a wide-width wire ribbon machine capable of realizing the linkage between a warp beam and a shuttle. Background Art

[0002] In the modern textile field, as an important production equipment, the ribbon machine plays a key role in wire manufacturing. However, at present, there is a problem that the moving parts such as the warp beam and the shuttle of the existing ribbon machine cannot achieve linkage, which seriously limits the width of the wire and brings many challenges to production. With the continuous change and development of market demand, the demand for wider wires is increasing day by day. In many application fields, such as clothing, home decoration, industrial belts, etc., wider wires can provide better visual effects, stronger functionality and higher use value.

[0003] In the existing ribbon machine, the warp beam is mainly used to place and tension the warp yarns, providing a stable supply of yarns for the weaving process, while the shuttle is responsible for carrying the weft yarns to shuttle between the warp yarns to complete the interweaving of the weft and warp yarns. However, due to the inability of the moving parts such as the warp beam and the shuttle to achieve linkage, a series of problems occur when producing wider wires. On the one hand, the independent movement of the warp beam and the shuttle makes it difficult to control the tension of the yarns. When weaving wider wires, more warp and weft yarns are required, which requires the warp beam to provide uniform and stable tension. However, due to the lack of linkage, the tension adjustment of the warp beam often cannot match the movement speed of the shuttle and the introduction of the weft yarns, easily resulting in the yarns being loose or too tight, affecting the quality and width of the wire.

[0004] On the other hand, the non-linkage of the warp beam and the shuttle also limits the weaving speed and efficiency. To produce wider wires, more weaving actions and time are required. However, due to the inability of the warp beam and the shuttle to work together, efficient yarn supply and weft-warp interweaving cannot be achieved, resulting in a significant reduction in the production speed. This not only increases the production cost but also makes it difficult to meet the large market demand for wide-width wires.

[0005] In summary, the moving parts such as the warp beam and the shuttle of the existing ribbon machine cannot achieve linkage, resulting in the inability to produce wires with a larger width, which seriously restricts the development of the textile industry. To solve this problem, it is necessary to innovate and improve the design and technology of the ribbon machine to achieve the linkage of components such as the warp beam and the shuttle, improve the production quality and efficiency of the wire, and meet the market demand for wider wires. Content of the Utility Model

[0006] The utility model aims to provide a technical solution to overcome the above deficiencies.

[0007] A wide-width wire webbing machine capable of realizing the linkage between the warp beam and the shuttle, including a machine body, on which a yarn supply mechanism, a longitude cross-threading mechanism, a latitude winding and pushing mechanism, a yarn take-up winding mechanism and a power transmission mechanism are installed, where: the yarn supply mechanism is used to provide two upper and lower rows of yarns along the longitude direction and at least one yarn along the latitude direction, and the yarn take-up winding mechanism is used to wind up the woven yarns well;

[0008] The longitude cross-threading mechanism includes at least two groups of warp beams longitudinally slidably connected to the machine body, a camshaft installed inside the machine body for driving at least two groups of warp beams to move relatively up and down and interchangeably, and multiple pairs of thread-passing components transversely arranged on the warp beams. Each pair of thread-passing components has two partition lines for separating adjacent yarns and a thread-passing device for directionally passing the yarns arranged between the two partition lines. The thread-passing devices on the two groups of warp beams are interchanged in height by the drive of the camshaft; the two upper and lower rows of yarns provided along the longitude direction respectively pass through the thread-passing devices on the two groups of warp beams, and the thread-passing components on the two groups of warp beams are arranged in a staggered distribution and cooperate to ensure that the yarns will not be entangled when the thread-passing devices on the two groups of warp beams are interchanged in height;

[0009] The latitude winding and pushing mechanism includes a forward and reverse swing shaft rotatably connected to the machine body, a turning handle installed on the forward and reverse swing shaft, a cycloidal arm rotatably connected to the machine body and located outside one side of the turning handle, a transmission arm universally hinged between the cycloidal arm and the turning handle, and a double-hook single-needle edge-locking mechanism installed on the machine body and butted at the position on the other side of the turning handle; the hinged position of the transmission arm and the cycloidal arm is close to the position where the cycloidal arm is rotatably connected to the machine body;

[0010] A plurality of pushing rods are transversely installed on the turning handle, and the number of pushing rods corresponds to the number of thread-passing devices. The pushing rods are driven by the turning handle to move back and forth behind the longitude cross-threading mechanism; the turning handle drives the cycloidal arm to swing through the transmission arm. A shuttle is connected to the end of the cycloidal arm, and the shuttle moves between the two sides of all the pushing rods through the swing of the cycloidal arm. The yarn in the latitude direction is driven by the shuttle to be butted against the double-hook single-needle edge-locking mechanism; the power transmission mechanism is used to drive the camshaft and the forward and reverse swing shaft to perform relative actions so that the longitude cross-threading mechanism and the latitude winding and pushing mechanism complete the webbing operation.

[0011] Preferably, there are two fixed seats opposite to each other on the machine body. Track plates are provided on the opposite surfaces of the two fixed seats, and a plurality of spaced-apart guide sliding rails are correspondingly opened on the opposite surfaces of the two track plates. The warp beam is longitudinally slidably connected to the machine body through the opposite guide sliding rails.

[0012] Preferably, the warp beam includes two sliding rods slidably connected to the guiding slide rails, a first cross beam connected to the upper ends between the two sliding rods, a second cross beam connected to the lower ends between the two sliding rods, and two fixed beams connected between the two sliding rods and respectively near the positions of the first cross beam and the second cross beam. The dividing line strip is a flat strip structure, and the upper and lower ends of the dividing line strip are respectively sleeved on the two fixed beams.

[0013] Preferably, the second cross beam is formed with a connecting portion by extension. At least two upper and lower swing arms arranged horizontally are installed inside the machine body. One ends of the at least two upper and lower swing arms are power-connected to the camshaft, and the other ends of the at least two upper and lower swing arms are directionally connected to the connecting portion, so that when the camshaft rotates, it drives the upper and lower swing arms to push the second cross beam to move up and down.

[0014] Preferably, a lifting frame is arranged on the machine body, and a guiding column is installed on the lifting frame. The upper end of the first cross beam extends upward to form a long hole structure, and the long hole structure is in guiding cooperation with the guiding column.

[0015] Preferably, a connecting seat and a hinged seat are arranged on one side of the reversing handle away from the forward and reverse swing shaft. The reversing handle fixedly installs a plurality of wire pushing rods through the connecting seat, and the reversing handle is hinged to the transmission arm through the hinged seat.

[0016] Preferably, a wire pressing plate for concentrating two rows of yarns in the longitude direction to the same height is also installed on the machine body.

[0017] Preferably, the power transmission mechanism includes a power motor installed inside the machine body, a first power main shaft rotatably connected to the machine body and meshing with the power motor by gears, and a second power main shaft rotatably connected to the machine body and in synchronous belt drive connection with the power motor. The first power main shaft is in synchronous belt drive connection with the camshaft. One end of the second power main shaft is provided with an eccentric wheel, the eccentric wheel is hinged with a swing arm, and the other end of the swing arm is hinged with the forward and reverse swing shaft.

[0018] Compared with the prior art, the beneficial effects of the present utility model are:

[0019] Through the reasonable design of the power transmission mechanism, the first power main shaft and the second power main shaft are respectively driven by gear meshing and synchronous pulley drive connection, realizing efficient power transmission. This transmission method can ensure that each mechanism obtains stable power and improves the working efficiency of the webbing machine; the connection of the eccentric wheel, swing arm and forward and reverse swing shaft can precisely control the action of the latitude winding and pushing mechanism; the power motor drives the first power main shaft and the second power main shaft at the same time, enabling the longitude crossing and threading mechanism and the latitude winding and pushing mechanism to work synchronously and coordinately. This synchronization ensures that the weaving process of the yarn in the longitude and latitude directions is smoother, reducing problems such as uneven yarn tension and weaving errors caused by non-synchronization; the power and speed of the power motor can be adjusted according to different production requirements, so that the webbing machine can adapt to the production of wire materials with different widths and materials, improving the adaptability and flexibility of the equipment.

[0020] In the longitude crossing and threading mechanism, the threading components on the two warp yarn racks are distributed in a staggered manner. When the threader exchanges heights, the yarn will not be entangled, which effectively improves the webbing quality and reduces production interruptions and defective products caused by yarn entanglement; the design of this webbing machine can meet the production requirements of wide-width wire materials. The wire supply mechanism can provide more yarn. The coordinated work of the longitude crossing and threading mechanism and the latitude winding and pushing mechanism can ensure the weaving quality of wide-width wire materials, and the wire outlet winding mechanism can also adapt to the winding of wide-width wire materials, providing strong support for the production of wide-width wire materials.

[0021] The additional aspects and advantages of the present utility model will be partially given in the following description, partially become obvious from the following description, or be understood through the practice of the present utility model. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] In order to more clearly illustrate the technical solutions in the embodiments of the present utility model or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the drawings in the following description are only some embodiments of the present utility model. For those of ordinary skill in the art, other drawings can be obtained based on these drawings without creative labor.

[0023] Figure 1 is a schematic structural diagram of one perspective of the present utility model;

[0024] Figure 2 is a schematic structural diagram of another perspective of the present utility model;

[0025] Figure 3 is the present utility model Figure 1 the schematic structural diagram at A in;

[0026] Figure 4It is a schematic structural diagram of the warp beam and the track plate in the present utility model;

[0027] Figure 5 It is a schematic structural diagram of the warp beam and the wire-passing components installed on the warp beam in the present utility model;

[0028] Figure 6 It is the present utility model Figure 5 The schematic structural diagram at position B in it.

[0029] The reference numerals and names in the figure are as follows:

[0030] Machine body 10, wire supply mechanism 11, wire outlet winding mechanism 12, fixed seat 13, track plate 14, guiding slide rail 15, upper and lower swing arms 16, lifting frame 17, guiding column 18, wire pressing plate 19, longitude cross wire-passing mechanism 20, camshaft 21, wire-passing component 22, separating strip 221, wire passer 222, latitude winding and wire pushing mechanism 30, forward and reverse swing shaft 31, turning handle 32, pendulum arm 33, transmission arm 34, double-hook single-needle edge-locking mechanism 35, wire pushing rod 36, shuttle 37, power motor 41, first power main shaft 42, second power main shaft 43, eccentric wheel 44, swing arm 45, warp beam 50, sliding rod 51, first cross beam 52, second cross beam 53, fixed beam 54, connecting part 55, long hole structure 56. Specific embodiments

[0031] Next, the technical solutions in the embodiments of the present utility model will be described clearly and completely. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all the embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without making creative efforts shall fall within the protection scope of the present utility model.

[0032] Please refer to Figures 1-6 , this embodiment provides a wide-width wire webbing machine capable of realizing the linkage between the warp beam and the shuttle, including a machine body 10, on which a wire supply mechanism 11, a longitude cross wire-passing mechanism 20, a latitude winding and wire pushing mechanism 30, a wire outlet winding mechanism 12 and a power transmission mechanism (not shown in the figure) are installed. Among them: the wire supply mechanism 11 is used to provide two upper and lower rows of yarns along the longitude direction and at least one yarn along the latitude direction, and the wire outlet winding mechanism 12 is used to wind up the woven wire that has been woven well;

[0033] The longitude crossing thread mechanism 20 includes at least two groups of warp frames 50 longitudinally and slidably connected to the machine body 10, a camshaft 21 installed inside the machine body 10 for driving at least two groups of warp frames 50 to move relatively up and down and interchangeably, and multiple pairs of thread crossing components 22 horizontally arranged on the warp frames 50. Each pair of thread crossing components 22 has two partition lines 221 for separating adjacent yarns and a thread passer 222 arranged between the two partition lines 221 for guiding the yarns through. The thread passers 222 on the two groups of warp frames 50 interchange their heights driven by the camshaft 21; the upper and lower rows of yarns provided in the longitude direction respectively pass through the thread passers 222 on the two groups of warp frames 50, and the thread crossing components 22 on the two groups of warp frames 50 are arranged in a staggered distribution and cooperate to ensure that the yarns will not get entangled when the thread passers 222 on the two groups of warp frames 50 interchange their heights;

[0034] The latitude winding and pushing thread mechanism 30 includes a forward and reverse swing shaft 31 rotatably connected to the machine body 10, a turning handle 32 installed on the forward and reverse swing shaft 31, a cycloid arm 33 rotatably connected to the machine body 10 and located on one side outside the turning handle 32, a transmission arm 34 universally hinged between the cycloid arm 33 and the turning handle 32, and a double-hook single-needle hemming mechanism 35 installed on the machine body 10 and butted at the position on the other side of the turning handle 32; the hinged position of the transmission arm 34 and the cycloid arm 33 is close to the position where the cycloid arm 33 is rotatably connected to the machine body 10;

[0035] A plurality of thread pushing rods 36 are horizontally installed on the turning handle 32, and the number of thread pushing rods 36 corresponds to the number of thread passers 222. The thread pushing rods 36 move back and forth behind the longitude crossing thread mechanism 20 driven by the turning handle 32; the turning handle 32 drives the cycloid arm 33 to swing through the transmission arm 34. A shuttle 37 is connected to the end of the cycloid arm 33. The shuttle 37 moves between the two sides of all the thread pushing rods 36 driven by the swing of the cycloid arm 33. The yarns in the latitude direction are driven by the shuttle 37 to be butted against the double-hook single-needle hemming mechanism 35; a power transmission mechanism is used to drive the camshaft 21 and the forward and reverse swing shaft 31 to perform relative actions so that the longitude crossing thread mechanism 20 and the latitude winding and pushing thread mechanism 30 complete the webbing weaving operation.

[0036] In the above technical solution, the yarn supply mechanism 11 first provides two rows of yarns up and down in the longitudinal direction and at least one yarn in the latitudinal direction, preparing for the webbing operation. In the longitudinal cross-yarn mechanism 20, the camshaft 21 rotates driven by the power transmission mechanism, causing at least two sets of warp frames 50 to slide longitudinally on the machine body 10, realizing relative up-and-down interchange movement; on the warp frames 50, multiple pairs of yarn-passing components 22, the partition strips 221 of which separate adjacent yarns, and the yarn-passers 222 allow the yarns to pass through directionally; when the yarn-passers 222 on the two sets of warp frames 50 perform height interchange driven by the camshaft 21, since the yarn-passing components 22 on the two sets of warp frames 50 are arranged in a staggered distribution and cooperate, it is ensured that the yarns will not get entangled; the two rows of yarns in the longitudinal direction up and down respectively pass through the yarn-passers 222 on the two sets of warp frames 50.

[0037] In the latitudinal winding and pushing mechanism 30, the power transmission mechanism drives the forward and reverse swing shaft 31 to rotate, causing the turning handle 32 mounted on the forward and reverse swing shaft 31 to swing back and forth; multiple pushing rods 36 on the turning handle 32 then move back and forth behind the longitudinal cross-yarn mechanism 20; at the same time, the turning handle 32 drives the pendulum arm 33 to swing through the transmission arm 34, and the shuttle 37 at the end of the pendulum arm 33 moves between the two sides of all the pushing rods 36; the yarn in the latitudinal direction is driven by the shuttle 37 to be butted against the double-hook single-needle edge-locking mechanism 35, and the double-hook single-needle edge-locking mechanism 35 is a traditional knitting needle, which shuttles through the yarn through specific actions, bends and hooks the yarn, thereby forming one by one loops. These loops are connected and nested with each other, gradually constructing the structure of the fabric.

[0038] The power transmission mechanism coordinates the relative movements of the camshaft 21 and the forward and reverse swing shaft 31, enabling the longitude crossing thread mechanism 20 and the latitude winding and pushing thread mechanism 30 to work together to complete the webbing operation; finally, the wire outlet winding mechanism 12 winds up the woven thread of the webbing. Among them, the power transmission mechanism includes a power motor 41 installed inside the machine body 10, a first power main shaft 42 rotatably connected to the machine body 10 and in gear meshing with the power motor 41, and a second power main shaft 43 rotatably connected to the machine body 10 and in synchronous pulley drive connection with the power motor 41. The first power main shaft 42 is in synchronous pulley drive connection with the camshaft 21. One end of the second power main shaft 43 is provided with an eccentric wheel 44, the eccentric wheel 44 is hinged with a swing arm 45, and the other end of the swing arm 45 is hinged with the forward and reverse swing shaft 31. After the power motor 41 is started, on the one hand, it drives the first power main shaft 42 to rotate through gear meshing, and the first power main shaft 42 then drives the camshaft 21 to rotate through synchronous pulley drive connection, so that at least two warp beam supports 50 in the longitude crossing thread mechanism 20 move relatively up and down and interchange. On the other hand, the power motor 41 drives the second power main shaft 43 to rotate through synchronous pulley drive connection. The eccentric wheel 44 at one end of the second power main shaft 43 makes an eccentric motion as the main shaft rotates. The eccentric wheel 44 drives the hinged swing arm 45 to swing back and forth. The other end of the swing arm 45 is hinged with the forward and reverse swing shaft 31, thereby driving the forward and reverse swing shaft 31 to swing. The swing of the forward and reverse swing shaft 31 enables components such as the turning handle 32 and the cycloidal arm 33 in the latitude winding and pushing thread mechanism 30 to work together to complete the yarn weaving action in the latitude direction.

[0039] Through the reasonable design of the power transmission mechanism, the first power main shaft 42 and the second power main shaft 43 are respectively driven by gear meshing and synchronous pulley drive connection, achieving efficient power transmission. This transmission method can ensure that each mechanism obtains stable power and improves the working efficiency of the webbing machine. The connection of the eccentric wheel 44, the swing arm 45 and the forward and reverse swing shaft 31 can accurately control the action of the latitude winding and pushing thread mechanism 30. The power motor 41 drives the first power main shaft 42 and the second power main shaft 43 simultaneously, enabling the longitude crossing thread mechanism 20 and the latitude winding and pushing thread mechanism 30 to work synchronously and coordinately. This synchronism ensures that the yarn weaving process in the longitude and latitude directions is smoother, reducing problems such as uneven yarn tension and weaving errors caused by non-synchronization. The power and speed of the power motor 41 can be adjusted according to different production requirements, enabling the webbing machine to adapt to the production of wire materials with different widths and materials, and improving the adaptability and flexibility of the equipment.

[0040] In the longitude cross-threading mechanism 20, the threading components 22 on the two warp beam racks 50 are arranged in a staggered distribution. When the height of the thread passer 222 is interchanged, the yarn will not get entangled, which effectively improves the quality of the woven belt and reduces production interruptions and defective products caused by yarn entanglement. The design of this woven belt machine can meet the production requirements of wide-width wire materials. The yarn supply mechanism 11 can supply more yarn. The coordinated operation of the longitude cross-threading mechanism 20 and the latitude winding and pushing mechanism 30 can ensure the weaving quality of wide-width wire materials. The wire outlet winding mechanism 12 can also adapt to the winding of wide-width wire materials, providing strong support for the production of wide-width wire materials.

[0041] Please refer to Figures 1-6, in this embodiment, it is further proposed that there are two fixed seats 13 arranged oppositely left and right on the machine body 10. Track plates 14 are arranged on the opposite surfaces of the two fixed seats 13. A plurality of guiding sliding rails 15 arranged at intervals are correspondingly formed on the opposite surfaces of the two track plates 14. The warp beam rack 50 is longitudinally slidably connected to the machine body 10 through the opposite guiding sliding rails 15; two fixed seats 13 arranged oppositely left and right are provided on the machine body 10. A plurality of guiding sliding rails 15 arranged at intervals are formed on the opposite surfaces of the track plates 14 on the fixed seats 13. Two sliding rods 51 of the warp beam rack 50 are longitudinally slidably connected to the machine body 10 through the opposite guiding sliding rails 15. Such a design ensures that the warp beam rack 50 can move stably in a specific direction; the warp beam rack 50 includes two sliding rods 51 slidably connected to the guiding sliding rails 15, a first cross beam 52 connected to the upper ends between the two sliding rods 51, a second cross beam 53 connected to the lower ends between the two sliding rods 51, and two fixed beams 54 connected between the two sliding rods 51 and respectively close to the positions of the first cross beam 52 and the second cross beam 53. The spacer strip 221 is of a flat strip structure. The upper and lower ends of the spacer strip 221 are respectively sleeved on the two fixed beams 54; a connecting portion 55 is formed by extending the second cross beam 53. At least two vertical swing arms 16 arranged horizontally are installed inside the machine body 10. One ends of the at least two vertical swing arms 16 are power-connected to the camshaft 21, and the other ends of the at least two vertical swing arms 16 are directionally connected to the connecting portion 55, so that when the camshaft 21 rotates, it drives the vertical swing arms 16 to push the second cross beam 53 to move up and down; a lifting frame 17 is provided on the machine body 10. A guiding column 18 is installed on the lifting frame 17. An elongated hole structure 56 is formed by extending the upper end of the first cross beam 52 upward. The elongated hole structure 56 is in guiding cooperation with the guiding column 18; the warp beam rack 50 is composed of the sliding rods 51, the first cross beam 52, the second cross beam 53 and the fixed beams. The upper and lower ends of the spacer strip 221 of the flat strip structure are respectively sleeved on the two fixed beams 54, and are used to separate adjacent yarns and guide the yarns to pass through the thread passing device 222. When the camshaft 21 rotates, at least two vertical swing arms 16 power-connected to it push the second cross beam 53 of the warp beam rack 50 to move up and down. Due to the action of the connecting portion 55, the whole warp beam rack 50 longitudinally slides on the guiding sliding rails 15 along with the movement of the second cross beam 53. At the same time, the guiding column 18 installed on the lifting frame 17 on the machine body 10 is in guiding cooperation with the elongated hole structure 56 formed by extending the upper end of the first cross beam 52, further ensuring the stability and accuracy of the warp beam rack 50 during the up and down movement.

[0042] By providing a fixed seat 13 and a track plate 14 with a guiding slide rail 15 on the machine body 10, a stable sliding track is provided for the warp beam 50, ensuring that the warp beam 50 does not wobble or deviate during longitudinal movement. The guiding column 18 on the lifting frame 17 cooperates with the long hole structure 56 of the first cross beam 52, and the connection between the upper and lower swing arms 16 and the second cross beam 53 precisely guides the movement of the warp beam 50 from two directions, improving the accuracy of the movement of the warp beam 50, thereby ensuring the stability of the yarn during the height interchange process, avoiding yarn entanglement and misalignment, and improving the quality of the woven belt. In addition, the combination of the sliding rod 51, the cross beam, and the fixed beam gives the warp beam 50 sufficient strength and stability. The spacer strip 221 is sleeved on the fixed beam, facilitating installation and adjustment, and also ensuring that the spacer strip 221 does not loosen or shift during operation. The power connection between the upper and lower swing arms 16 and the camshaft 21 and the directional connection with the warp beam 50 make the movement of the warp beam 50 reliable, capable of withstanding long-term working loads, and reducing the occurrence of equipment failures.

[0043] Please refer to Figures 1-2 , in this embodiment, a connecting seat and a hinge seat are further provided on the side of the reversing handle 32 away from the forward and reverse swing shaft 31. The reversing handle 32 fixedly installs multiple yarn pushing rods 36 through the connecting seat, and the reversing handle 32 is hinged to the transmission arm 34 through the hinge seat; a wire pressing plate 19 for concentrating two rows of yarns in the longitude direction to the same height is also installed on the machine body 10; when the forward and reverse swing shaft 31 rotates, it drives the reversing handle 32 to swing, and then the yarn pushing rods 36 move back and forth behind the longitude cross-threading mechanism 20. The back-and-forth movement of the yarn pushing rods 36 pushes the weft yarn to shuttle between the warp yarns, completing the interweaving of the weft yarn and the warp yarn, and realizing the woven belt operation; when the reversing handle 32 swings, it drives the transmission arm 34 to move through the hinge seat, and the transmission arm 34 then transmits the movement to the pendulum arm 33, causing the pendulum arm 33 to swing. The shuttle 37 at the end of the pendulum arm 33 moves between both sides of all the yarn pushing rods 36 under the drive of the pendulum arm 33, carrying the weft yarn for weaving; during the woven belt process, the yarns on the warp beam 50 are concentrated to the same height under the action of the wire pressing plate 19, making the weft yarn more accurate and stable when interweaving with the warp yarn. The wire pressing plate 19 ensures the neat arrangement of the warp yarns and improves the quality of the woven belt.

[0044] For those skilled in the art, it is obvious that the present utility model is not limited to the details of the above exemplary embodiments, and can be implemented in other specific forms without departing from the spirit or basic characteristics of the present utility model. Therefore, in any aspect, the embodiments should be regarded as exemplary and non-limiting. The scope of the present utility model is defined by the appended claims rather than the above description. Therefore, it is intended to include all changes falling within the meaning and scope of the equivalent elements of the claims in the present utility model.

Claims

1. A wide-width wire webbing loom capable of realizing the linkage between a warp beam and a shuttle, characterized in that, It includes a machine body (10), on which a yarn feeding mechanism (11), a longitude cross-yarn passing mechanism (20), a latitude winding and pushing mechanism (30), a yarn outlet winding mechanism (12) and a power transmission mechanism are installed. Among them: the yarn feeding mechanism (11) is used to provide two upper and lower rows of yarns along the longitude direction and at least one yarn along the latitude direction, and the yarn outlet winding mechanism (12) is used to wind the woven yarns well. The longitude cross-yarn passing mechanism (20) includes at least two groups of warp yarn frames (50) longitudinally slidably connected to the machine body (10), a camshaft (21) installed inside the machine body (10) for driving at least two groups of warp yarn frames (50) to move relatively up and down and interchange, and multiple pairs of yarn passing components (22) horizontally arranged on the warp yarn frames (50). Each pair of yarn passing components (22) has two partition lines (221) for separating adjacent yarns and a yarn passing device (222) arranged between the two partition lines (221) for guiding the yarns to pass through. The yarn passing devices (222) on the two groups of warp yarn frames (50) interchange their heights driven by the camshaft (21). The two upper and lower rows of yarns provided along the longitude direction respectively pass through the yarn passing devices (222) on the two groups of warp yarn frames (50), and the yarn passing components (22) on the two groups of warp yarn frames (50) are arranged in a staggered distribution to ensure that the yarns will not be entangled when the yarn passing devices (222) on the two groups of warp yarn frames (50) interchange their heights. The latitude winding and pushing mechanism (30) includes a forward and reverse swing shaft (31) rotatably connected to the machine body (10), a turning handle (32) installed on the forward and reverse swing shaft (31), a cycloid arm (33) rotatably connected to the machine body (10) and located on one side outside the turning handle (32), a transmission arm (34) universally hinged between the cycloid arm (33) and the turning handle (32), and a double-hook single-needle edge-locking mechanism (35) installed on the machine body (10) and butted at the other side position of the turning handle (32). The hinged position of the transmission arm (34) and the cycloid arm (33) is close to the position where the cycloid arm (33) is rotatably connected to the machine body (10). Multiple pushing rods (36) are horizontally installed on the turning handle (32), and the number of pushing rods (36) corresponds to that of the yarn passing devices (222). The pushing rods (36) move back and forth behind the longitude cross-yarn passing mechanism (20) driven by the turning handle (32). The turning handle (32) drives the cycloid arm (33) to swing through the transmission arm (34). A shuttle (37) is connected to the end of the cycloid arm (33). The shuttle (37) moves between the two sides of all the pushing rods (36) driven by the swing of the cycloid arm (33). The yarn in the latitude direction is driven by the shuttle (37) to be butted against the double-hook single-needle edge-locking mechanism (35). The power transmission mechanism is used to drive the camshaft (21) and the forward and reverse swing shaft (31) to perform relative actions, so that the longitude cross-yarn passing mechanism (20) and the latitude winding and pushing mechanism (30) complete the webbing operation.

2. A wide-width wire webbing loom capable of realizing the linkage between a warp beam and a shuttle according to claim 1, characterized in that, There are two fixed seats (13) arranged oppositely left and right on the machine body (10). Track plates (14) are arranged on the opposite faces of the two fixed seats (13). A plurality of guiding sliding rails (15) arranged at intervals are correspondingly formed on the opposite faces of the two track plates (14). The warp beam (50) is longitudinally slidably connected to the machine body (10) through the opposite guiding sliding rails (15).

3. A wide-width wire webbing machine capable of realizing the linkage between the warp beam and the shuttle according to claim 2, characterized in that, The warp beam (50) includes two sliding rods (51) slidably connected to the guiding sliding rails (15), a first cross beam (52) connected to the upper ends between the two sliding rods (51), a second cross beam (53) connected to the lower ends between the two sliding rods (51), and two fixed beams (54) connected between the two sliding rods (51) and respectively close to the positions of the first cross beam (52) and the second cross beam (53). The dividing line strip (221) is a flat strip structure, and the upper and lower ends of the dividing line strip (221) are respectively sleeved on the two fixed beams (54).

4. A wide-width wire webbing machine capable of realizing the linkage between a warp beam and a shuttle according to claim 3, characterized in that, A connecting portion (55) is formed by extending the second cross beam (53). At least two upper and lower swing arms (16) arranged horizontally are installed inside the machine body (10). One ends of the at least two upper and lower swing arms (16) are power-connected to the camshaft (21), and the other ends of the at least two upper and lower swing arms (16) are directionally connected to the connecting portion (55), so that when the camshaft (21) rotates, it drives the upper and lower swing arms (16) to push the second cross beam (53) to move up and down.

5. A wide-width wire webbing loom capable of realizing the linkage between a warp beam and a shuttle according to claim 3, characterized in that, A lifting frame (17) is arranged on the machine body (10). A guiding column (18) is installed on the lifting frame (17). A long hole structure (56) is formed by extending the upper end of the first cross beam (52) upward, and the long hole structure (56) is in guiding cooperation with the guiding column (18).

6. A wide-width wire webbing machine capable of realizing the linkage between a warp beam and a shuttle according to claim 1, characterized in that, A connecting seat and a hinge seat are arranged on one side of the reversing handle (32) far from the forward and reverse swing shaft (31). The reversing handle (32) fixedly installs a plurality of wire pushing rods (36) through the connecting seat, and the reversing handle (32) is hinged to the transmission arm (34) through the hinge seat.

7. A wide-width wire webbing machine capable of realizing the linkage between the warp beam and the shuttle according to claim 1, characterized in that, A wire pressing plate (19) for concentrating two rows of yarns in the longitude direction to the same height is further installed on the machine body (10).

8. A wide-width wire webbing machine capable of realizing the linkage between the warp beam and the shuttle according to any one of claims 1-7, characterized in that, The power transmission mechanism includes a power motor (41) installed inside the machine body (10), a first power main shaft (42) rotatably connected to the machine body (10) and in gear engagement with the power motor (41), and a second power main shaft (43) rotatably connected to the machine body (10) and in synchronous pulley transmission connection with the power motor (41). The first power main shaft (42) is in synchronous pulley transmission connection with the camshaft (21). An eccentric wheel (44) is arranged at one end of the second power main shaft (43). The eccentric wheel (44) is hinged to a swing arm (45), and the other end of the swing arm (45) is hinged to the forward and reverse swing shaft (31).

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