Wool treatment equipment for cashmere blended yarn production

Abstract

The utility model relates to the technical field of wool processing, and discloses wool processing equipment for cashmere blended yarn production, which comprises a water storage tank and an operating frame, the operating frame is placed in the water storage tank, the operating frame comprises a limiting frame, rear plates are fixed on two sides of the limiting frame, and frame plates are fixed on the inner sides of the rear plates on two sides; and the upper vibration assembly and the lower vibration assembly are symmetrically arranged up and down and located between the frame plates on the two sides, and the two vibration assemblies are used for colliding with each other up and down to generate vibration cleaning. Round frames in the upper vibration assembly and the lower vibration assembly rotate, elastic ropes drive metal balls to move, the upper metal balls and the lower metal balls oppositely knock wool, the wool is loosened under the action of the metal balls after being tightened, the wool moves, and the wool is cleaned to a certain extent under the action of power. Meanwhile, stretching or contraction winding is avoided, the state of wool is kept, and follow-up difficult utilization is avoided.

Description

Technical Field

[0001] The utility model relates to the technical field of wool processing, in particular to wool processing equipment for cashmere blended yarn production. Background Art

[0002] The initial processing is that when the wool is just cut, it is in pieces and contains a lot of impurities. Therefore, at the beginning, the wool needs to be screened and the wool needs to be removed from the impurities and loosened with a wool opening machine. Secondly, the remaining dirt, grease, sand, etc. in the wool need to be washed with a cleaning liquid containing detergent. After that, the wool is squeezed out of water and dried with a special dryer. After washing and drying, the wool still has some impurities such as grass leaves and leaves, which need to be processed again.

[0003] In the process of wool processing and washing, if the equipment is not designed or operated properly, the wool may become entangled and difficult to separate. Without large-scale movement, it is difficult to clean the remaining dirt, grease, sand, etc. inside. Based on this, a new operating device is proposed. Utility Model Content

[0004] The utility model aims to provide a wool processing device for producing cashmere blended yarn, so as to solve the problems raised in the above-mentioned background technology.

[0005] To achieve the above purpose, the utility model provides the following technical solution: a wool processing device for cashmere blended yarn production, comprising a water storage tank and an operating frame, the operating frame is placed in the water storage tank, and the operating frame comprises:

[0006] A limiting frame, wherein rear plates are fixed on both sides of the limiting frame, and frame plates are fixed on the inner sides of the rear plates on both sides;

[0007] Two groups of vibration components, the two groups of vibration components are symmetrically arranged up and down, and are both located between the two side frame plates, and the two groups of vibration components are used to collide with each other up and down to generate vibration cleaning;

[0008] Two groups of transmission components are respectively located on the frame plates at both sides and are used to drive the two groups of vibration components to move.

[0009] Preferably, a plurality of limit strips are fixed on opposite surfaces of the two groups of frame plates, and the plurality of limit strips are divided into two groups up and down, and the upper and lower groups of limit strips are arranged in contact with each other, and the limit strips are made of rubber, and the upper and lower groups of limit strips are used to clamp the wool.

[0010] Preferably, the inner sides of the frame plates on both sides are fixed with longitudinal edges arranged longitudinally;

[0011] The vibration assembly includes circular frames on both sides, the circular frames are fitted on the inner side surfaces of the frame plate, and the ends thereof extend to the inside of the frame plate. An eccentrically arranged circular clamping layer is fixed to the outer side of the circular frame, and a limiting plate is arranged on the outside of the circular clamping layer. The rear side of the limiting plate is matched with the longitudinal edge, and an installation opening is opened in the middle position. The circular clamping layer is clamped in the installation opening, and the limiting plate is driven to move in the up and down directions when the circular clamping layer rotates.

[0012] Preferably, the inner sides of the circular frames on both sides are provided with limit plates, the lower ends of the limit plates on both sides are fixed with telescopic shafts arranged in an array, the lower ends of the telescopic shafts on both sides are fixed with operating frames, the inner sides of the operating frames are fixed with elastic ropes arranged in an array, and each of the elastic ropes is fixed with a plurality of metal balls arranged in an array;

[0013] The metal balls in the upper and lower sets of vibration assemblies are used to impact each other.

[0014] Preferably, the inner sides of the frame plates on both sides are provided with arranged insertion holes, the insertion holes are used to insert metal strips, the insertion holes are located between the upper and lower elastic ropes, and the insertion holes and the elastic ropes are located on the same vertical plane, when the metal strips are inserted into the insertion holes, the elastic ropes and the metal balls can hit the metal strips to generate vibrations.

[0015] Preferably, the two groups of transmission components include a servo motor and a transmission gear, the servo motor is fixed on the outside of the rear plate, and two transmission gears are provided in one frame plate, wherein the two transmission gears are respectively fixed to the ends of the circular frames in the upper and lower groups of vibration components, and the upper and lower transmission gears are meshed, and the servo motor drives the transmission gear at the upper end to rotate.

[0016] Compared with the prior art, the beneficial effects of the utility model are:

[0017] (1) The utility model arranges the circular frame in the upper and lower groups of vibration components to rotate, so that the elastic rope drives the metal ball to move. The upper and lower metal balls hit the wool relatively, making the wool tight and then loose under their own action, so that the wool moves. Under the action of power, the wool is cleaned to a certain extent, while avoiding stretching or shrinking and entanglement, maintaining the state of the wool, achieving cleaning to a certain extent, and avoiding subsequent difficulty in use.

[0018] (2) In the utility model, the wool is squeezed and relaxed during the movement of the upper and lower vibration components, and the upper and lower metal balls collide with each other, which produces a certain degree of dislocation effect, pushing the wool, making it easier for impurities to fall out, keeping the wool unchanged to a certain extent, and preventing the wool from clumping.

[0019] (3) After the metal strips are inserted into the holes, the wool is clamped between the upper and lower metal strips. The vibration generated by the metal ball hitting the metal strips can be transmitted to a wider range, thereby enhancing cleaning and preventing the wool from being scattered. Cleaning can be performed over a wider range and the wool position can be kept unchanged to a certain extent to avoid separation. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a schematic diagram of the overall structure of the utility model;

[0021] Figure 2 This is a schematic diagram of the explosion structure of the utility model;

[0022] Figure 3 For this utility model Figure 2 A is a schematic diagram of the partially enlarged structure of the middle part;

[0023] Figure 4 This is a schematic diagram of the structure of the vibration component of the utility model;

[0024] Figure 5 For this utility model Figure 4 Schematic diagram of the partially enlarged structure of B.

[0025] In the figure: 1, water tank; 2, operating frame; 21, limit frame; 22, back plate; 23, frame plate; 231, longitudinal edge; 232, jack; 24, transmission assembly; 241, servo motor; 242, transmission gear; 25, limit strip; 26, vibration assembly; 261, circular frame; 262, circular card layer; 263, limit plate; 264, installation port; 265, telescopic shaft; 266, operating frame; 267, elastic rope; 268, metal ball. DETAILED DESCRIPTION

[0026] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0027] See also Figure 1-5 The utility model provides a technical solution: a wool processing device for cashmere blended yarn production, comprising a water storage tank 1 and an operating frame 2, the operating frame 2 is placed in the water storage tank 1, and the operating frame 2 includes:

[0028] A limiting frame 21, with rear plates 22 fixed to both sides of the limiting frame 21, and frame plates 23 fixed to the inner sides of the rear plates 22 on both sides;

[0029] The two groups of vibration components 26 are symmetrically arranged in the upper and lower parts, and are both located between the two side frame plates 23. The two groups of vibration components 26 are used to collide with each other up and down to generate vibration cleaning. The wool is placed between the two vibration components 26, and the collision formed can squeeze the wool, and then loosen it to squeeze out the water inside the wool, so as to achieve the effect of water circulation and replacement;

[0030] Two groups of transmission components 24 are respectively located on the frame plates 23 at both sides and are used to drive the two groups of vibration components 26 to move.

[0031] A plurality of limit strips 25 are fixed on opposite surfaces of the two groups of frame plates 23. The plurality of limit strips 25 are divided into two groups, and the upper and lower groups of limit strips 25 are arranged in contact with each other. The limit strips 25 are made of rubber. The upper and lower groups of limit strips 25 are used to clamp the wool. The rubber limit strips 25 realize limiting. The rubber has a certain elasticity to achieve clamping of the wool.

[0032] The inner sides of the frame plates 23 on both sides are fixed with longitudinal edges 231 arranged longitudinally;

[0033] The vibration assembly 26 includes circular frames 261 on both sides. The circular frames 261 are attached to the inner side surfaces of the frame plate 23, and the ends thereof extend to the inside of the frame plate 23. An eccentrically arranged circular clamping layer 262 is fixed to the outer side of the circular frame 261. A limiting plate 263 is arranged outside the circular clamping layer 262. The rear side of the limiting plate 263 is matched with the longitudinal edge 231 so that only the limiting plate 263 can move in the up-and-down direction to avoid other movements. A mounting opening 264 is provided in the middle position thereof. The circular clamping layer 262 is clamped in the mounting opening 264 so that the circular clamping layer 262 can drive the limiting plate 263 to move during the rotation process. At the same time, the circular clamping layer 262 can also move horizontally in the mounting opening 264 to realize the reciprocating motion of the limiting plate 263 in the up-and-down direction, and drive the displacement of the limiting plate 263 in the up-and-down direction during the rotation of the circular clamping layer 262.

[0034] The inner side of the circular frame 261 on both sides is provided with a limit plate 263, and the lower end of the limit plate 263 on both sides is fixed with an arranged telescopic shaft 265, and the lower end of the telescopic shaft 265 on both sides is fixed with an operating frame 266, and the telescopic shaft 265 is used for control to prevent the circular card layer 262 from pushing downward, which makes the force too large and squeezes the wool too much. The telescopic shaft 265 has a telescopic effect, and has a reset spring inside, which is very good for buffering and avoiding excessive squeezing. The inner side of the operating frame 266 is fixed with an arranged elastic rope 267, and each elastic rope 267 is fixed with a plurality of arranged metal balls 268, and the elastic rope 267 and the metal ball 268 can be affected by inertia to achieve the collision of the elastic rope 267 and the metal ball 268 arranged above and below;

[0035] The metal balls 268 in the upper and lower sets of vibration assemblies 26 are used to collide with each other.

[0036] The inner sides of the frame plates 23 on both sides are provided with arranged sockets 232, and the sockets 232 are used to insert metal strips. The sockets 232 are located between the elastic ropes 267 on the upper and lower sides, and the sockets 232 and the elastic ropes 267 are located on the same vertical plane to ensure that the metal strips 268 can collide with each other. When the metal strips are inserted into the sockets 232, the elastic ropes 267 and the metal balls 268 can collide with the metal strips to generate vibrations. When the metal balls 268 collide with the metal strips, the metal strips vibrate to achieve operation. At the same time, the metal strips arranged above and below are also separated and approached continuously, thereby squeezing the wool.

[0037] The two transmission components 24 each include a servo motor 241 and a transmission gear 242. The servo motor 241 is fixed on the outside of the rear plate 22. Two transmission gears 242 are arranged in a frame plate 23. The two transmission gears 242 are respectively fixed to the ends of the circular frames 261 in the upper and lower vibration components 26, and the upper and lower transmission gears 242 are meshed. The servo motor 241 drives the upper transmission gear 242 to rotate, and the upper and lower transmission gears 242 realize relative rotation and the same rotation speed, thereby realizing the driving of the two vibration components 26 and realizing the impact effect, so as to keep the wool from moving up and down.

[0038] When in use, the wool is clamped between the upper and lower limit bars 25 and immersed in the water tank 1. The servo motor 241 is working to drive the upper and lower transmission gears 242 to work, and the circular frame 261 in the upper and lower vibration components 26 is rotated. The limit plate 263 is limited by the longitudinal edge 231 to achieve vertical movement along the upper and lower directions of the circular frame 261. At the same time, the upper and lower vibration components 26 have the same movement frequency, so that the elastic rope 267 drives the metal ball 268 to move. The upper and lower metal balls 268 relatively hit the wool, making the wool tight and then loose under their own action, so that the wool moves, and the water inside moves outward. Under the action of power, the wool is cleaned to a certain extent, while avoiding being stretched or shrunk and entangled.

[0039] When the vibration components 26 on the upper and lower sides move, the wool is squeezed and relaxed, and the upper and lower metal balls 268 collide with each other, which creates a certain degree of dislocation, pushing the wool and making it easier for impurities to fall out.

[0040] After the metal strip is inserted into the socket 232, the wool is clamped between the upper and lower metal strips, and the metal ball 268 strikes the metal strip to generate vibration that can be transmitted to a wider range, thereby enhancing cleaning and preventing the wool from being scattered.

[0041] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A wool processing device for cashmere blended yarn production, characterized in that: The invention comprises a water storage tank (1) and an operating frame (2), wherein the operating frame (2) is placed in the water storage tank (1), and the operating frame (2) comprises: A limiting frame (21), wherein rear plates (22) are fixed on both sides of the limiting frame (21), and frame plates (23) are fixed on the inner sides of the rear plates (22) on both sides; Two groups of vibration components (26) are arranged symmetrically up and down, and are located between the two side frame plates (23). The two groups of vibration components (26) are used to collide with each other up and down to generate vibration cleaning; Two groups of transmission components (24) are respectively located on the frame plates (23) at both sides and are used to drive the two groups of vibration components (26) to move.

2. The wool processing equipment for cashmere blended yarn production according to claim 1, characterized in that: A plurality of limit strips (25) arranged in an arranged manner are fixed on the opposite surfaces of the two groups of frame plates (23); the plurality of limit strips (25) are divided into two groups in an upper and lower manner; the upper and lower groups of limit strips (25) are arranged in contact with each other; the limit strips (25) are made of rubber; and the upper and lower groups of limit strips (25) are used to clamp the wool.

3. The wool processing equipment for cashmere blended yarn production according to claim 1, characterized in that: The inner sides of the frame plates (23) on both sides are fixed with longitudinal edges (231) arranged longitudinally; The vibration assembly (26) comprises circular frames (261) on both sides. The circular frames (261) are fitted on the inner side surfaces of the frame plate (23), and the ends thereof extend into the interior of the frame plate (23). An eccentrically arranged circular clamping layer (262) is fixed to the outer side of the circular frame (261). A limiting plate (263) is arranged outside the circular clamping layer (262). The rear side of the limiting plate (263) is arranged in cooperation with the longitudinal edge (231), and an installation opening (264) is provided in the middle thereof. The circular clamping layer (262) is clamped in the installation opening (264), and the limiting plate (263) is driven to move in the up and down directions when the circular clamping layer (262) rotates.

4. The wool processing equipment for cashmere blended yarn production according to claim 3, characterized in that: The inner sides of the circular frames (261) on both sides are provided with limiting plates (263), the lower ends of the limiting plates (263) on both sides are fixed with telescopic shafts (265) arranged in an array, the lower ends of the telescopic shafts (265) on both sides are fixed with operating frames (266), the inner sides of the operating frames (266) are fixed with elastic ropes (267) arranged in an array, and each of the elastic ropes (267) is fixed with a plurality of metal balls (268) arranged in an array; The metal balls (268) in the upper and lower sets of vibration components (26) are used to collide with each other.

5. The wool processing equipment for cashmere blended yarn production according to claim 4, characterized in that: The inner sides of the frame plates (23) on both sides are provided with arranged insertion holes (232), and the insertion holes (232) are used to insert metal bars. The insertion holes (232) are located between the elastic ropes (267) on the upper and lower sides, and the insertion holes (232) and the elastic ropes (267) are located on the same vertical plane. When the metal bars are inserted into the insertion holes (232), the elastic ropes (267) and the metal balls (268) can collide with the metal bars to generate vibrations.

6. The wool processing equipment for cashmere blended yarn production according to claim 4, characterized in that: The two groups of transmission components (24) each include a servo motor (241) and a transmission gear (242). The servo motor (241) is fixed on the outside of the rear plate (22). Two transmission gears (242) are arranged in one frame plate (23). The two transmission gears (242) are respectively fixed to the ends of the circular frames (261) in the upper and lower groups of vibration components (26). The upper and lower transmission gears (242) are meshed with each other. The servo motor (241) drives the transmission gear (242) at the upper end to rotate.

Images