CN223033652U - A sizing device for high elastic wear-resistant fiber fabrics - Google Patents

Abstract

The utility model relates to a slurry coating device for high elastic wear-resistant fiber fabrics, and relates to the technical field of fiber fabrics, which includes a box body, a support platform and a plurality of pressure components are arranged in the box body, the pressure components are all located above the support platform, the pressure components are used to abut the fabric body against the support platform, a group of guide rollers are symmetrically arranged in the box body, the support platform is located between the guide rollers, a driving arm is arranged between the guide roller and the support platform, the side wall of the driving arm close to one end is rotatably connected to the end wall of the guide roller, the side wall of the driving arm close to the other end is movably connected to the side wall of the support platform, and the driving arm is rotatably connected to the side wall of the box body. The application has the effect of facilitating the loading of the fabric body.

Description

High-elasticity wear-resistant fiber fabric is with scribbling thick liquid equipment

Technical Field

The utility model relates to the technical field of fiber fabrics, in particular to a sizing device for a high-elasticity wear-resistant fiber fabric.

Background

The textile fabric homogenate equipment is color paste formed by mixing an auxiliary agent and a dye in sizing agent in textile fabric dyeing and printing, and uniformly prints the color paste on textile fabric, so that the strength of the textile fabric is improved, the wear resistance of the textile fabric is improved, and the textile fabric keeps certain elastic elongation.

The Chinese patent with the authorized bulletin number of CN212103300U in the related art provides a high-elastic wear-resistant fabric homogenizing device, which comprises a processing box, wherein a mounting plate is arranged in the processing box, a connecting belt is rotatably arranged above the mounting plate, a pressing roller is arranged outside the connecting belt, a buffer spring is arranged between the pressing roller and the connecting belt, and the pressing roller is used for propping the fabric body against the mounting plate. When the fabric body conveys at the processing box, the sizing agent in the processing box submerges the fabric body on the mounting plate, and meanwhile, the concave-convex structure of the upper surface of the mounting plate enables the pressing roller to generate tremble pressure on the fabric body, and the pressed fabric body bends through self tension to enable yarns to be separated, so that full sizing of the fabric is guaranteed.

In the process of realizing the application, the inventor finds that at least the following problems exist in the technology, namely after the fabric on the traction mechanism is changed, a worker is required to drag the fabric body between the mounting plate and the pressure roller again to the squeeze roller for finishing feeding, and as the gap between the concave-convex structure on the upper surface of the mounting plate and the pressure roller is smaller, and the mounting plate and the pressure roller are both positioned in the processing box, the operation space for feeding the fabric body is narrow, so that the fabric body is not easy to feed.

Disclosure of utility model

In order to facilitate the feeding of the fabric body, the application provides the sizing equipment for the high-elasticity wear-resistant fiber fabric.

The application provides a high-elasticity wear-resistant fiber fabric sizing device which adopts the following technical scheme:

The utility model provides a high elasticity wear-resisting fiber surface fabric is with scribbling thick liquid equipment, includes the box, set up brace table and a plurality of pressurization subassembly in the box, the pressurization subassembly all is located the brace table top, the pressurization subassembly is used for with surface fabric body butt on the brace table, the symmetry sets up a set of guide roll in the box, the brace table is located between the guide roll, set up the actuating arm between guide roll and the brace table, the lateral wall that the actuating arm is close to one end rotates with the guide roll end wall to be connected, the lateral wall that the actuating arm is close to the other end rotates with brace table lateral wall swing joint, the actuating arm rotates with the box lateral wall to be connected.

Through adopting above-mentioned technical scheme, when the dough body is scribbled thick liquid, the guide roll is located the supporting bench below to one side, and the dough body is around establishing in the clearance between pressurization subassembly and supporting bench by the clearance between guide roll and the box diapire, pressurization subassembly with the surface fabric butt on the supporting bench simultaneously, the clearance between guide roll and the box diapire and the clearance between pressurization subassembly and the supporting bench have formed wave-like passageway this moment, when the dough body carries out the reload, the drive arm rotates and drives the guide roll and upwards moves, the clearance between guide roll and the box diapire has been increased, simultaneously the drive arm rotates and drives the supporting bench and move downwards, the clearance between pressurization subassembly and the supporting bench has been increased, and with the guide roll moved to the supporting bench top, and then the clearance between guide roll and the box diapire and the clearance between pressurization subassembly and the supporting bench have formed sharp passageway, the surface fabric body of being convenient for pulls and carries out the material loading.

Preferably, the side wall of the supporting table is provided with a connecting through hole in a penetrating mode, a connecting sliding block is arranged in the connecting through hole in a sliding mode, and the end wall of the connecting sliding block is connected with the driving arm in a rotating mode.

Through adopting above-mentioned technical scheme, when the actuating arm rotates, the actuating arm drives and connects the slider action, connects the slider and takes place the displacement in horizontal direction along connecting the through-hole, connects the slider simultaneously and drives the supporting seat and remove along the direction of height.

Preferably, the driving arm is fixedly provided with a driving shaft, the driving shaft penetrates through the side wall of the box body, the driving shaft is rotationally connected with the box body, the driving shaft is fixedly provided with a driving gear at one end outside the box body, the outer wall of the box body is slidably provided with a group of driving racks, and the driving gear is meshed with the driving racks.

Through adopting above-mentioned technical scheme, when the drive rack removed, the drive rack drove the drive gear and rotates, and drive gear rotates and drives the drive shaft and rotate, and the drive shaft rotates and drives the drive arm and rotate.

Preferably, a group of mounting seats are fixedly arranged on the outer wall of the box body, driving sliding rods are fixedly arranged between the mounting seats, a group of driving blocks are arranged on the driving sliding rods in a penetrating mode, one driving block is fixedly connected with one driving rack, and the other driving block is fixedly connected with the other driving rack.

Through adopting above-mentioned technical scheme, drive rack passes through drive block and drive slide bar slip setting on the box outer wall.

Preferably, the mounting seats are rotatably provided with a forward screw and a reverse screw, the opposite surfaces of the forward screw and the reverse screw are fixedly connected, one driving block is in threaded connection with the forward screw, and the other driving block is in threaded connection with the reverse screw.

Through adopting above-mentioned technical scheme, when forward screw rod and reverse screw rod synchronous rotation, the drive piece drives the synchronous motion of drive rack, and then makes the synchronous rotation of drive arm.

Preferably, a driving motor is fixedly arranged on the mounting seat, and an output shaft of the driving motor is fixedly connected with the forward screw.

By adopting the technical scheme, the driving motor drives the forward screw and the reverse screw to synchronously rotate after being started, so that the condition of manually driving the forward screw and the reverse screw to rotate is reduced.

Preferably, the pressurizing assembly comprises a shell, a spring, a support and a pressurizing roller, one end of the support is rotationally connected with the pressurizing roller, the other end of the support is slidably arranged in the shell, the spring is arranged in the shell, and the spring is abutted between the inner wall of the shell and the support.

Through adopting above-mentioned technical scheme, the spring promotes the support to be kept away from the casing direction through self elasticity and removes, and then connects the surface fabric body ground on the brace table through the impression roller.

Preferably, the box body is internally provided with a plurality of driving rollers in a rotating way, the driving rollers are sleeved with driving belts together, one end, far away from the pressing roller, of the shell is fixedly connected with the outside of the driving belt, and the box body is fixedly provided with a driving motor which is used for driving the driving rollers to rotate.

Through adopting above-mentioned technical scheme, when driving motor drives the driving roller and rotates, the driving roller drives the drive belt and rotates, and the driving belt drives the impression roller of being connected on the casing and extrudees the surface fabric body in proper order, and the impression roller trembles owing to the arch on the brace table takes place simultaneously, makes the emergence of surface fabric body extend, makes the surface fabric fully sizing.

In summary, the present application includes at least one of the following beneficial technical effects:

1. The box body, the supporting table, the pressurizing assembly, the guide roller and the driving arm are arranged, so that the fabric body is convenient to pull and feed;

2. The driving arm synchronously rotates through the arrangement of the driving shaft, the driving gear, the driving rack, the mounting seat, the driving sliding rod, the driving block, the forward screw, the reverse screw and the driving motor;

3. Through setting up casing, spring, support and impression roller, with surface fabric body butt on the brace table.

Drawings

Fig. 1 is a cross-sectional view of a sizing device for a highly elastic abrasion-resistant fiber fabric in an embodiment of the present application.

Fig. 2 is a cross-sectional view showing the positional relationship of the support table and the guide roller in the embodiment of the present application.

Fig. 3 is a schematic view showing a connection relationship between a support table and a guide roller in the embodiment of the present application.

Fig. 4 is a schematic diagram showing a connection relationship between a driving rack and a case in an embodiment of the present application.

Fig. 5 is a cross-sectional view showing a connection relationship of the pressing roller and the housing in the embodiment of the present application.

The reference numerals comprise 1, a box body, 11, a mounting seat, 2, a supporting table, 3, a pressurizing assembly, 31, a shell, 32, a spring, 33, a support, 34, a pressurizing roller, 4, a guide roller, 5, a driving arm, 51, a driving shaft, 52, a driving gear, 53, a driving rack, 6, a connecting sliding block, 61, a connecting through hole, 7, a driving motor, 71, a forward screw, 72, a reverse screw, 73, a driving sliding rod, 74, a driving block, 8, a driving belt, 81, a driving roller, 82, a driving motor and 9, and a fabric body.

Detailed Description

The application is described in further detail below with reference to fig. 1-5.

The embodiment of the application discloses a sizing device for a high-elasticity wear-resistant fiber fabric. Referring to fig. 1 to 3, the fabric box comprises a box body 1, wherein a supporting table 2 and a plurality of pressurizing assemblies 3 are installed in the box body 1, the pressurizing assemblies 3 are located above the supporting table 2, a plurality of protrusions are arranged at the top of the supporting table 2, and the pressurizing assemblies 3 are used for abutting the fabric body 9 on the supporting table 2. A group of guide rollers 4 are symmetrically arranged in the box body 1, and the supporting table 2 is positioned between the guide rollers 4. The supporting table 2 is provided with a set of connecting through holes 61 in a penetrating way, and the connecting through holes 61 are symmetrically arranged. The connecting through hole 61 is internally provided with the connecting sliding block 6 in a sliding way, the connecting sliding block 6 is rotationally provided with the driving arm 5, and the driving arm 5 is symmetrically arranged. The side wall of one end of the driving arm 5 far away from the connecting sliding block 6 is rotationally connected with the end wall of the guide roller 4, and the center of the driving arm 5 is rotationally connected with the side wall of the box body 1. When the fabric body 9 is coated with the paste, the driving arms 5 rotate until one ends of the two driving arms 5 close to each other are higher than one ends of the two driving arms 5 far away from each other. At this time, the guide roller 4 is located obliquely below the support table 2, and the fabric body 9 is wound in the gap between the pressing assembly 3 and the support table 2 by the gap between the guide roller 4 and the bottom wall of the box 1, while the pressing assembly 3 abuts the fabric on the support table 2. Therefore, in the process of coating the fabric body 9, the gap between the guide roller 4 and the bottom wall of the box body 1 and the gap between the pressurizing assembly 3 and the supporting table 2 form a wavy channel, on one hand, more fabric bodies 9 are soaked in the slurry as much as possible, and on the other hand, the fabric bodies 9 are tensioned, so that the fabric bodies 9 bend by self tension to separate yarns. When the fabric body 9 is used for changing the materials, the driving arms 5 rotate until one ends of the two driving arms 5 close to each other are lower than one ends of the two driving arms 5 far away from each other. At this time, the guide roller 4 is positioned obliquely above the support table 2, on the one hand, increasing the gap between the guide roller 4 and the bottom wall of the case 1, and on the other hand, increasing the gap between the pressing assembly 3 and the support table 2. Therefore, in the feeding process of the fabric body 9, a gap between the guide roller 4 and the bottom wall of the box body 1 and a gap between the pressurizing assembly 3 and the supporting table 2 form a linear channel with large space, so that the fabric body 9 is convenient to pull for feeding. In the rotation process of the driving arm 5, the driving arm 5 drives the connecting slide block 6 to act, so that the connecting slide block 6 generates horizontal displacement along the connecting through hole 61, and meanwhile, the connecting slide block 6 drives the supporting seat to move along the height direction.

In order to rotate the driving arm 5 synchronously, referring to fig. 1 to 4, a driving shaft 51 is installed at the center of the driving arm 5, the driving shaft 51 penetrates through the side wall of the case 1, the driving shaft 51 is rotatably connected with the case 1 through a bearing, and a driving gear 52 is installed at one end of the driving shaft 51 outside the case 1. The outer wall of the box body 1 is provided with a group of installation seats 11, one installation seat 11 is provided with a driving motor 7, the output shaft of the driving motor 7 is provided with a forward screw 71, one end of the forward screw 71 far away from the driving motor 7 is provided with a reverse screw 72, and one end of the reverse screw 72 far away from the forward screw 71 is rotationally connected with the other installation seat 11. The forward screw 71 and the reverse screw 72 are both in threaded connection with a driving block 74, a driving rack 53 is arranged on the driving block 74, and the driving rack 53 is meshed with the driving gear 52. A driving sliding rod 73 is arranged between the mounting seats 11, and the driving sliding rod 73 penetrates through a driving block 74. After the driving motor 7 is started, the forward screw 71 and the reverse screw 72 synchronously rotate, so that the driving block 74 drives the driving rack 53 to synchronously move. When the driving rack 53 moves, the driving rack 53 drives the driving gear 52 to rotate, the driving gear 52 rotates to drive the driving shaft 51 to rotate, and the driving shaft 51 rotates to drive the driving arm 5 to rotate.

In order to sufficiently size the fabric, referring to fig. 1 to 5, a plurality of driving rollers 81 are rotatably disposed in the case 1, and a driving belt 8 is commonly sleeved on the driving rollers 81. The box body 1 is provided with a transmission motor 82, and the transmission motor 82 is used for driving the transmission roller 81 to rotate. The pressing assembly 3 includes a housing 31, a spring 32, a support 33, and a pressing roller 34, one end of the support 33 is rotatably connected to the pressing roller 34, and the other end of the support 33 is slidably disposed in the housing 31. The spring 32 is disposed in the housing 31, the spring 32 abuts between the inner wall of the housing 31 and the support 33, and one end of the housing 31 away from the pressing roller 34 is connected to the conveyor belt. The spring 32 pushes the support 33 to move away from the housing 31 by its own elastic force, and further, the fabric body 9 is grounded to the support table 2 by the pressing roller 34. When the driving motor 82 drives the driving roller 81 to rotate, the driving roller 81 drives the driving belt 8 to rotate, the driving belt 8 drives the pressing roller 34 connected to the shell 31 to sequentially squeeze the fabric body 9, and meanwhile, the pressing roller 34 vibrates due to the protrusions on the supporting table 2, so that the fabric body 9 extends, and the fabric is fully sized.

The embodiment of the application provides a sizing device for high-elasticity wear-resistant fiber fabric, which is implemented by the principle that when a fabric body 9 is sized, driving arms 5 rotate to a position that one ends of two driving arms 5 close to each other are higher than one ends of two driving arms 5 far away from each other. At this time, the guide roller 4 is located obliquely below the support table 2, and the fabric body 9 is wound in the gap between the pressing assembly 3 and the support table 2 by the gap between the guide roller 4 and the bottom wall of the box 1, while the pressing assembly 3 abuts the fabric on the support table 2. Therefore, in the process of coating the fabric body 9, the gap between the guide roller 4 and the bottom wall of the box body 1 and the gap between the pressurizing assembly 3 and the supporting table 2 form a wavy channel, on one hand, more fabric bodies 9 are soaked in the slurry as much as possible, and on the other hand, the fabric bodies 9 are tensioned, so that the fabric bodies 9 bend by self tension to separate yarns. When the fabric body 9 is used for changing the materials, the driving arms 5 rotate until one ends of the two driving arms 5 close to each other are lower than one ends of the two driving arms 5 far away from each other. At this time, the guide roller 4 is positioned obliquely above the support table 2, on the one hand, increasing the gap between the guide roller 4 and the bottom wall of the case 1, and on the other hand, increasing the gap between the pressing assembly 3 and the support table 2. Therefore, in the feeding process of the fabric body 9, a gap between the guide roller 4 and the bottom wall of the box body 1 and a gap between the pressurizing assembly 3 and the supporting table 2 form a linear channel with large space, so that the fabric body 9 is convenient to pull for feeding.

The above embodiments are not intended to limit the scope of the application, so that the equivalent changes of the structure, shape and principle of the application are covered by the scope of the application.

Claims (8)

1. The utility model provides a high elasticity wear-resisting fiber surface fabric is with scribbling thick liquid equipment, includes box (1), set up brace table (2) and a plurality of pressurization subassembly (3) in box (1), pressurization subassembly (3) all are located brace table (2) top, pressurization subassembly (3) are used for with surface fabric body (9) butt on brace table (2), symmetry sets up a set of guide roll (4) in box (1), brace table (2) are located between guide roll (4), wherein set up driving arm (5) between guide roll (4) and brace table (2), the lateral wall that driving arm (5) are close to one end rotates with guide roll (4) end wall to be connected, the lateral wall that driving arm (5) are close to the other end rotates with brace table (2) lateral wall swing joint, driving arm (5) rotate with box (1) lateral wall and be connected.

2. The sizing equipment for the high-elasticity wear-resistant fiber fabric is characterized in that a connecting through hole (61) is formed in the side wall of the supporting table (2) in a penetrating mode, a connecting sliding block (6) is arranged in the connecting through hole (61) in a sliding mode, and the end wall of the connecting sliding block (6) is connected with the driving arm (5) in a rotating mode.

3. The high-elasticity wear-resistant fiber fabric sizing device according to claim 1, wherein the driving arm (5) is fixedly provided with a driving shaft (51), the driving shaft (51) penetrates through the side wall of the box body (1), the driving shaft (51) is rotationally connected with the box body (1), the driving shaft (51) is fixedly provided with a driving gear (52) at one outer end of the box body (1), the outer wall of the box body (1) is slidably provided with a group of driving racks (53), and the driving gear (52) is meshed with the driving racks (53).

4. A high-elasticity wear-resistant fiber fabric sizing device according to claim 3 is characterized in that a group of mounting seats (11) are fixedly arranged on the outer wall of the box body (1), driving sliding rods (73) are fixedly arranged between the mounting seats (11), a group of driving blocks (74) are arranged on the driving sliding rods (73) in a penetrating mode, one driving block (74) is fixedly connected with one driving rack (53), and the other driving block (74) is fixedly connected with the other driving rack (53).

5. The sizing equipment for the high-elasticity wear-resistant fiber fabric is characterized in that a forward screw (71) and a reverse screw (72) are rotatably arranged between the mounting seats (11), the opposite surfaces of the forward screw (71) and the reverse screw (72) are fixedly connected, one driving block (74) is in threaded connection with the forward screw (71), and the other driving block (74) is in threaded connection with the reverse screw (72).

6. The sizing equipment for the high-elasticity wear-resistant fiber fabric, as set forth in claim 5, is characterized in that a driving motor (7) is fixedly arranged on the mounting seat (11), and an output shaft of the driving motor (7) is fixedly connected with a forward screw (71).

7. The sizing equipment for high-elasticity wear-resistant fiber fabric, as set forth in claim 1, wherein the pressurizing assembly (3) comprises a shell (31), a spring (32), a support (33) and a pressurizing roller (34), one end of the support (33) is rotationally connected with the pressurizing roller (34), the other end of the support (33) is slidably arranged in the shell (31), the spring (32) is arranged in the shell (31), and the spring (32) is abutted between the inner wall of the shell (31) and the support (33).

8. The high-elasticity wear-resistant fiber fabric sizing device according to claim 7, wherein a plurality of driving rollers (81) are arranged in the box body (1) in a rotating mode, a driving belt (8) is sleeved on the driving rollers (81) together, one end, far away from the pressing roller (34), of the shell body (31) is fixedly connected with the outer wall of the driving belt (8), a driving motor (82) is fixedly arranged on the box body (1), and the driving motor (82) is used for driving the driving rollers (81) to rotate.