A nonwoven fabric coater

Abstract

The application discloses a non-woven fabric coating machine and relates to the technical field of coating machines.The non-woven fabric coating machine comprises an impregnation tank for storing coating material and a coating roller rotatably connected with the impregnation tank, and further comprises a material uniformizing mechanism installed in the impregnation tank, wherein the material uniformizing mechanism comprises a track rod and a swing piece, the swing piece is slidably arranged on the track rod, a driving part is arranged for driving the swing piece to reciprocate along the track rod, the swing piece has a first stroke and a second stroke, and the swing piece is switched between the first stroke and the second stroke during the driving of the driving part.The non-woven fabric coating machine has the beneficial effects that the swing piece is displaced in the impregnation tank, the coating material is fully moved, the coating material in different regions of the impregnation tank is fully mixed, the temperature consistency of the material liquid is improved, and the temperature detected by the temperature sensor is more accurate.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of coating machine, in particular to a non-woven fabric coating machine. BACKGROUND

[0002] Non-woven fabric is a fabric produced by polyester fiber and polyester fiber material, which has the characteristics of moisture-proof, breathable, flexible, light, flame-retardant, non-toxic and odorless, low price, recyclable and the like. In the production process of non-woven fabric, the coating mechanism of the coating machine is used to coat the non-woven fabric, so as to coat the base material such as glue, paint and ink on the non-woven fabric. After the coating process, the coated non-woven fabric is dried and wound by the drying mechanism and winding mechanism.

[0003] A coating device of a coating machine is disclosed in the publication No. CN104549875B, which comprises a frame, characterized in that the coating device comprises a coating roller assembly and a coating liquid tank for storing coating liquid, the coating liquid tank is fixed on the frame, the coating roller assembly comprises an upper roller and a lower roller, the lower roller is arranged on the frame in an axially fixed and circumferentially rotating manner, and the lower roller is located in the coating liquid tank, the upper roller is arranged above the lower roller in an axially fixed and circumferentially rotating manner and abuts against the lower roller, the upper roller and the lower roller are parallel to each other, the upper roller is connected with a force applying mechanism which can make the upper roller contact the lower roller and generate a certain pressure, the lower roller is connected with a rotating mechanism which can drive the lower roller to rotate, and the frame is further provided with a filtering mechanism which can filter impurities in the coating liquid in the coating liquid tank; the coating liquid tank is made of stainless steel material.

[0004] The current coating mechanism has coating methods such as doctor blade type, roller type and spray coating. Referring to the above patent, the roller type coating mechanism uses a coating roller to dip paint, and contacts the fabric with the coating roller to apply paint to the fabric surface. When coating, part of the coating roller is placed in the dipping tank, and a heat preservation heating mechanism is arranged in the dipping tank. The temperature sensor detects the temperature of the paint in the dipping tank in real time and controls the opening and closing of the heating mechanism, so that the temperature of the paint dipped by the coating roller is in a reasonable state during use. Since the paint needs to be replenished, the paint temperature in different areas of the dipping tank is not uniform, which leads to inaccurate detection of the temperature sensor. SUMMARY

[0005] The purpose of the present application is to provide a non-woven fabric coating machine to solve the above-mentioned deficiencies in the prior art.

[0006] In order to achieve the above-mentioned purpose, the present application provides the following technical scheme: a non-woven fabric coating machine, comprising a dipping tank for storing paint and a coating roller connected in rotation with the dipping tank, further comprising:

[0007] A material balancing mechanism installed in the dipping tank, the material balancing mechanism comprising a track rod and a swinging member, the swinging member being slidably arranged on the track rod;

[0008] a driving portion, the driving portion being configured to drive the swing member to reciprocate along the track rod, the swing member having a first stroke and a second stroke, and the swing member switching between the first stroke and the second stroke during driving of the driving portion;

[0009] The linkage mechanism is used to connect the driving part and the coating roller. When the coating roller rotates, the material distribution mechanism receives the drive of the driving part to drive the coating in the dipping tank to move.

[0010] Preferably, the swinging member includes a central shaft, an arc-shaped piece, an expansion piece, a moving rod, a top block, an elastic member and a cam, the central shaft is slidably connected to the track rod, the arc-shaped piece is rotatably connected to the central shaft, the cam is fixedly mounted on the central shaft, the moving rod is slidably inserted on the arc-shaped piece, the expansion piece is fixedly mounted on one end of the moving rod, the other end of the arc-shaped piece abuts against the cam, the top block is mounted on the moving rod, and one end of the elastic member abuts against the lower surface of the top block.

[0011] Preferably, during the first stroke, first, the arc-shaped piece swings in a first direction under the drive of the driving part, and the telescopic piece extends to the outside of the arc-shaped piece under the drive of the moving rod, and the telescopic piece contacts the bottom inner wall of the immersion tank. During the continuation of the first stroke, the arc-shaped piece assembly approaches the coating roller.

[0012] Preferably, during the second stroke, first, the arc-shaped piece swings in the second direction under the drive of the driving part, and synchronously, the telescopic piece retracts into the arc-shaped piece under the drive of the moving rod. During the continuation of the second stroke, the arc-shaped piece assembly moves away from the coating roller.

[0013] Preferably, the driving part includes a transmission shaft, a driving disk, a connecting rod and a piston rod, the transmission shaft is rotatably connected to the immersion tank, the driving disk is installed on the transmission shaft, one end of the connecting rod is rotatably connected to the driving disk, the other end of the connecting rod is hinged to one end of the piston rod, and the other end of the piston rod is slidably inserted into the arc-shaped piece, and an auxiliary block is provided on the outside of the piston rod, and a pair of the auxiliary blocks are respectively provided on both sides of the arc-shaped piece.

[0014] Preferably, the recycling mechanism comprises a cylinder, a roller, and a pusher, the cylinder is provided with an opening, a scraping blade is arranged on the top of the cylinder, the scraping blade is slidably connected with the coating roller, the roller is rotatably connected in the cylinder, a plurality of the pushers are evenly distributed outside the roller, one end of the pusher is slidably connected with the scraping blade, and a discharge port is arranged at the bottom of the cylinder.

[0015] Preferably, the recycling mechanism comprises a cylinder, a roller, and a pusher, the cylinder is provided with an opening, a scraping blade is arranged on the top of the cylinder, the scraping blade is slidably connected with the coating roller, the roller is rotatably connected in the cylinder, a plurality of the pushers are evenly distributed outside the roller, one end of the pusher is slidably connected with the scraping blade, and a discharge port is arranged at the bottom of the cylinder.

[0016] Preferably, the pressure strip is located on the path of the circumferential movement of the pusher, and the pressure strip is provided with a liquid leakage groove.

[0017] Preferably, one side of the V-shaped piece is provided with a contact surface, the contact surface abuts against the outside of the pusher, and the bending part of the V-shaped piece is provided with a collapse opening.

[0018] Preferably, the linkage mechanism comprises a pulley and a belt, the pulley is arranged on the roller, the coating roller, and the transmission shaft, and the pulleys are drivingly connected with each other through the belt.

[0019] In the above technical solution, the non-woven fabric coating machine provided by the application drives the coating roller by the power of the coating roller, reduces the use of electromechanical equipment, saves cost, and has higher stability. BRIEF DESCRIPTION OF DRAWINGS

[0020] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the drawings needed in the embodiments will be briefly introduced below. Obviously, the drawings in the following description are only some embodiments described in the present application, and other drawings can also be obtained by those skilled in the art according to these drawings.

[0021] Figure 1 It is a whole structure schematic view of the non-woven fabric coating machine of the present application.

[0022] Figure 2 It is a linkage mechanism structure schematic view of the non-woven fabric coating machine of the present application.

[0023] Figure 3The final position structure diagram of the first stroke of the material equalizing mechanism of the non-woven fabric coating machine of the present application;

[0024] Figure 4 The final position structure diagram of the second stroke of the material equalizing mechanism of the non-woven fabric coating machine of the present application;

[0025] Figure 5 The auxiliary structure of the non-woven fabric coating machine of the present application; Figure 3 The structure diagram after enlargement of the middle B;

[0026] Figure 6 The auxiliary structure of the non-woven fabric coating machine of the present application; Figure 4 The structure diagram after enlargement of the middle A;

[0027] Figure 7 The sectional view of the swing piece of the non-woven fabric coating machine of the present application;

[0028] Figure 8 The secondary coating structure diagram of the non-woven fabric coating machine of the present application;

[0029] Figure 9 The collection structure diagram of the non-woven fabric coating machine of the present application;

[0030] Figure 10 The pressure strip structure diagram of the non-woven fabric coating machine of the present application;

[0031] Figure 11 The V-shaped piece structure diagram of the non-woven fabric coating machine of the present application;

[0032] Figure 12 The center shaft structure diagram of the non-woven fabric coating machine of the present application.

[0033] Explanation of reference numerals:

[0034] 10, impregnation tank; 11, partition plate; 12, material equalizing mechanism; 121, track rod; 122, center shaft; 1221, angle limiting block; 123, arc-shaped piece; 1231, angle block; 124, telescopic piece; 125, moving rod; 126, top block; 127, elastic piece; 128, cam; 129, circulation port; 13, coating roller; 14, driving part; 141, transmission shaft; 142, driving disc; 143, connecting rod; 144, piston rod; 145, auxiliary block; 15, linkage mechanism; 151, pulley; 152, belt; 16, recovery mechanism; 161, cylinder; 162, gap; 163, scraping blade; 164, discharging port; 165, material box; 166, roller; 167, pushing piece; 168, pressure strip; 1681, liquid leakage groove; 169, V-shaped piece; 1691, collapsing port; 1692, contact surface. DETAILED DESCRIPTION

[0035] In order to enable those skilled in the art to better understand the technical solution of the present invention, the present invention will be further described in detail below with reference to the accompanying drawings.

[0036] See also Figures 1-12 An embodiment of the present invention provides a non-woven fabric coating machine, comprising a dipping tank 10 for storing a coating and a coating roller 13 rotatably connected thereto. The base fabric is conveyed by a conveying mechanism of the coating machine. The coating is stored in the dipping tank 10. A portion of the coating roller 13 is immersed in the dipping tank 10, and another portion of the coating roller 13 is in contact with the base fabric. The coating is transferred to the fabric surface by the coating roller 13. A drive motor is provided outside the dipping tank 10, and the coating roller 13 is connected to the coating roller 13 via the output shaft of the drive motor to drive the coating roller 13. The machine further comprises:

[0037] The material balancing mechanism 12 installed in the dipping tank 10 includes a track rod 121 and a swinging member, and the swinging member is slidably arranged on the track rod 121; the swinging member is displaced along the track rod 121, and when the swinging member moves, the paint in the dipping tank 10 can be driven to move, so that the paint in the dipping tank 10 moves fully, ensuring the consistency of the paint temperature at various locations in the dipping tank 10, so that the temperature sensor is more accurate when detecting the paint temperature in the dipping tank 10; in an embodiment of the present invention, the swinging member includes a central shaft 122, an arc piece 123, a telescopic piece 124, a moving rod 125, a top block 126, an elastic member 127 and a cam 128, the central shaft 122 is slidably connected to the track rod 121, the arc piece 123 is rotatably connected to the central shaft 122, the cam 128 is fixedly installed on the central shaft 122, the moving rod 125 is slidably inserted into the arc piece 123, the telescopic piece 12 4 is fixedly mounted on one end of the moving rod 125, the other end of the arc-shaped piece 123 abuts against the cam 128, the top block 126 is mounted on the moving rod 125, and one end of the elastic member 127 abuts against the lower surface of the top block 126; the central shaft 122 is sleeved on the track rod 121, and when the central shaft 122 is subjected to a force along the length direction of the track rod 121, the central shaft 122 will be displaced along the length direction of the track rod 121, and the driving part 14 drives the arc-shaped piece 123 to continuously move back and forth along the length direction of the track rod 121, so that the arc-shaped piece 123 repeatedly approaches the coating roller 13 and then moves away from the coating roller 13. In this way, during this reciprocating motion, the arc-shaped piece 123 drives the paint inside the dipping tank 10 to move, so that the paint in different areas of the dipping tank 10 is fully mixed, ensuring that the temperature sensor detects the paint in the dipping tank 10 more accurately;

[0038] The driving part 14 is used for driving the swing piece to reciprocate along the track rod 121, the swing piece has a first stroke and a second stroke, and the swing piece is switched between the first stroke and the second stroke in the driving process of the driving part 14; through the driving of the driving part 14, the swing piece reciprocates ceaselessly, in the first stroke, the driving part 14 drives the swing piece to be close to the position where the coating roller 13 is located, the output end of the driving part 14 extrudes the arc-shaped sheet 123, when the arc-shaped sheet 123 is extruded, the arc-shaped sheet 123 is turned around the center shaft 122 as the center, the arc-shaped sheet 123 rotates counterclockwise, the lowest point of the arc-shaped sheet 123 is close to the inner wall of the immersion tank 10, and because of the rotation of the arc-shaped sheet 123, the moving rod 125 also rotates, and one end of the moving rod 125 abuts against the cam 128; in the rotating process of the moving rod 125, the position of the end of the moving rod 125 on the cam 128 changes, and the contact position gradually moves to the lowest point of the cam 128; in the moving process, compared with the arc-shaped sheet 123, the moving rod 125 moves downward, so that the telescopic sheet 124 moves downward synchronously, the telescopic sheet 124 extends out of the arc-shaped sheet 123, and in the continuous swinging of the arc-shaped sheet 123, the telescopic sheet 124 continuously extends out, and in the final position, the telescopic sheet 124 is attached to the bottom of the inner wall of the immersion tank 10; at this time, the driving part 14 continuously applies a pushing force to the arc-shaped sheet 123, and the angle of the arc-shaped sheet 123 moves to a position where the arc-shaped sheet 123 cannot continue to rotate, so that the driving part 14 drives the center shaft 122 to displace along the track rod 121, so that the arc-shaped sheet 123 and the telescopic sheet 124 displace towards the coating roller 13; in another embodiment, the arc-shaped sheet 123 is provided with a circulating port 129, and as the arc-shaped sheet 123 and the telescopic sheet 124 displace towards the coating roller 13, the coating in the immersion tank 10 is driven towards the coating roller 13, so that the arc-shaped sheet 123 is a separation, in the first stroke, the coating is driven to one side of the immersion tank 10 close to the coating roller 13, at this time, the coating in the immersion tank 10 is unbalanced, and the coating on the side close to the coating roller 13 is returned to the area where the coating in the immersion tank 10 is less through the circulating port 129; in the second stroke, the output end of the driving part 14 is retracted, at this time, the driving part 14 pulls the arc-shaped sheet 123 to rotate back, in the rotating-back process of the arc-shaped sheet 123, the end of the moving rod 125 gradually separates from the lowest point of the cam 128, in the separating process, the elastic piece 127 is subjected to the action of the elastic force of itself, applies a pushing force to the top block 126, and drives the moving rod 125 to move upwards, so that in the rotating-back process of the arc-shaped sheet 123, the telescopic sheet 124 is passively retracted into the arc-shaped sheet 123 synchronously, after the arc-shaped sheet 123 rotates back, under the continuous pulling of the driving part 14, when the pulling force on the center shaft 122 is greater than the frictional force between the center shaft 122 and the track rod 121, the center shaft 122 is reset along the track rod 121, in the resetting process, the bottom of the arc-shaped sheet 123 does not separate from the coating in the immersion tank 10,When retracting, since the arc-shaped piece 123 is in the upper layer of the paint, the arc-shaped piece 123 drives the upper layer of the paint to move away from the coating roller 13 to the direction of the dipping tank 10, and flows into the area, the paint increases, in order to ensure the liquid level balance, the lower layer of the paint in the area flows to the direction close to the coating roller 13, so that through the movement of the first stroke and the second stroke, the paint in different areas can be fully mixed, and the detection temperature of the temperature sensor when detecting the paint in the dipping tank 10 is more accurate.

[0039] The linkage mechanism 15 is drivingly connected between the driving part 14 and the coating roller 13, when the coating roller 13 rotates, the material uniformizing mechanism 12 receives the driving of the driving part 14 to drive the paint in the dipping tank 10 to move. Under the linkage of the linkage mechanism 15, the power when the coating roller 13 rotates can be converted into the power source of the driving part 14, and the material uniformizing mechanism 12 is driven to move through the driving part 14, so as to drive the paint in the dipping tank 10 to move, so that the paint in different areas of the dipping tank 10 is mixed correspondingly, so that the temperature of the paint in the dipping tank 10 is uniform, which improves the accuracy of the temperature sensor when detecting the temperature of the paint in the dipping tank 10. By using the linkage mechanism 15 and the driving part 14, the material uniformizing mechanism 12 can be driven to move without using electromechanical equipment, which reduces the use of electromechanical equipment, saves cost and has high stability.

[0040] The swing piece includes a center shaft 122, an arc-shaped piece 123, an extension piece 124, a moving rod 125, a top block 126, an elastic piece 127 and a cam 128, the center shaft 122 is slidingly connected to the track rod 121, the arc-shaped piece 123 is rotationally connected to the center shaft 122, the cam 128 is fixedly installed on the center shaft 122, the moving rod 125 is slidingly inserted into the arc-shaped piece 123, the extension piece 124 is fixedly installed on one end of the moving rod 125, the other end of the arc-shaped piece 123 abuts against the cam 128, the top block 126 is installed on the moving rod 125, and one end of the elastic piece 127 abuts against the lower surface of the top block 126. In another embodiment of the present application, and since the arc-shaped piece 123 is arranged in a circular arc shape, when the arc-shaped piece 123 moves and approaches the coating roller 13 in the first stroke, the arc-shaped piece 123 can be closer to the coating roller 13, and the specific implementation can be referred to the description of the first embodiment. Figure 3 The state of the arc-shaped piece 123 and the extension piece 124, so that when the paint in the dipping tank 10 is insufficient, the paint can be driven to the direction of the coating roller 13, at this time the arc-shaped piece 123 and the extension piece 124 close the bottom of the dipping tank 10, when the paint in the dipping tank 10 is low, the paint can be collected, so that when the paint liquid level is low, the contact area of the paint and the coating roller 13 is increased through the collection effect, so that the coating roller 13 fully contacts the paint, and the paint can be collected to the direction of the coating roller 13, thereby reducing the paint residue.

[0041] In the first stroke, firstly, the arc-shaped piece 123 swings in the first direction under the drive of the driving part 14, and the telescopic piece 124 extends to the outside of the arc-shaped piece 123 under the drive of the moving rod 125, and the telescopic piece 124 abuts against the inner wall of the bottom of the immersion tank 10, and in the continuous first stroke, the arc-shaped piece 123 assembly approaches the coating roller 13. In another embodiment of the present application, the outer part of the track rod 121 is provided with a rubber layer, and the track rod 121 and the central shaft 122 have a certain friction, so that when the driving part 14 just starts to drive, the position of the central shaft 122 will not move, firstly, the arc-shaped piece 123 turns over, and until it turns over to the maximum angle, the arc-shaped piece 123 will move along the track rod 121. Referring to FIG. 2, the end of the central shaft 122 is provided with an angle limiting block 1221, and the end of the arc-shaped piece 123 is provided with an angle block 1231, and in the first stroke, the arc-shaped piece 123 rotates around the central shaft 122 as the center, and in the rotating process, the angle block 1231 abuts against a vertical wall of the angle limiting block 1221, at this time, in the first state, the arc-shaped piece 123 obtains the maximum turning angle, and in the case of being unable to continue to rotate, the arc-shaped piece 123 is forced to move in the direction of the coating roller 13, as shown in FIG. 3, which is the final position of the arc-shaped piece 123 in the first stroke. Figure 12 Figure 3

[0042] ​​In the second stroke, firstly, the arc-shaped piece 123 swings in the second direction under the drive of the driving part 14, and synchronously, the telescopic piece 124 is retracted into the arc-shaped piece 123 under the drive of the moving rod 125, and in the continuous second stroke, the arc-shaped piece 123 assembly moves away from the coating roller 13. In the second stroke, the arc-shaped piece 123 is pulled away from the coating roller 13 by the driving part 14, and the second stroke starts at the end position of the first stroke, and in the second stroke, firstly, the output end of the driving part 14 is retracted, and at this time, the driving part 14 pulls the arc-shaped piece 123 to rotate, and in the rotation process of the arc-shaped piece 123, the end of the moving rod 125 gradually separates from the lowest point of the cam 128, and in the separation process, the elastic piece 127 is subjected to the elastic force of itself, and exerts a pushing force on the top block 126, so that the top block 126 drives the moving rod 125 to move upward, so that in the rotation process of the arc-shaped piece 123, the telescopic piece 124 is passively and synchronously retracted into the arc-shaped piece 123, and after the rotation of the arc-shaped piece 123 is completed, in the rotation process, the corner block 1231 abuts against the other side slope of the angle limiting block 1221, so that the arc-shaped piece 123 cannot continuously rotate, reaches the final rotation angle, and after the driving part 14 is continuously pulled, the tension on the center shaft 122 is greater than the friction between the center shaft 122 and the track rod 121, the center shaft 122 is reset along the track rod 121.

[0043] The driving part 14 comprises a transmission shaft 141, a driving disc 142, a connecting rod 143 and a piston rod 144, the transmission shaft 141 is rotationally connected to the immersion tank 10, the driving disc 142 is installed on the transmission shaft 141, one end of the connecting rod 143 is rotationally connected to the driving disc 142, the other end of the connecting rod 143 and one end of the piston rod 144 are hingedly connected, the other end of the piston rod 144 is slidingly inserted into the arc-shaped sheet 123, the outer part of the piston rod 144 is provided with an auxiliary block 145, and a pair of auxiliary blocks 145 are arranged on the two sides of the arc-shaped sheet 123 respectively. The transmission shaft 141 is rotationally connected to one end of the immersion tank 10 away from the coating roller 13, and is driven by the linkage mechanism 15 to rotate synchronously with the coating roller 13, so that the transmission shaft 141 can rotate synchronously with the coating roller 13, and in the rotating process of the transmission shaft 141, the driving disc 142 is driven to rotate synchronously, the driving disc 142 rotates, the connecting rod 143 and the driving disc 142 are hingedly connected, and in the rotating process of the driving disc 142, the connecting rod 143 is driven to move, and the piston rod 144 is continuously driven to move correspondingly through the driving of the connecting rod 143. The immersion tank 10 is provided with a partition plate 11, and the piston rod 144 slidingly penetrates the partition plate 11, so that the partition plate 11 plays a role in limiting the piston rod 144, so that the piston rod 144 can only displace along the length direction, and since the rotation of the driving disc 142 is a circular motion, the connecting rod 143 will return to the starting position after each rotation, so that the displacement of the piston rod 144 is also a reciprocating motion through the driving of the connecting rod 143, so that the movement of the material uniformizing mechanism 12 can be realized.

[0044] Further comprising a recovery mechanism 16, the recovery mechanism comprises a barrel 161, a roller 166, a paddle 167, the barrel 161 is provided with an opening 162, the top of the barrel 161 is provided with a scraping blade 163, the scraping blade 163 and the coating roller 13 are slidingly connected, the roller 166 is rotatably connected in the barrel 161, a plurality of paddles 167 are uniformly distributed outside the roller 166, one end of the paddle 167 is slidingly connected with the scraping blade 163. The scraping blade 163 is arranged at the top of the barrel 161, the scraping blade 163 and the lowermost end of the coating roller 13 are in close contact, after the coating roller 13 and the base fabric are in contact, a small amount of paint will remain on the coating roller 13, which will be scraped off by the scraping blade 163, and the roller 166 is rotated, the paddle 167 can contact the scraping blade 163, the paint scraped off by the scraping blade 163 will be scraped off by the paddle 167, which avoids a large amount of paint remaining on the scraping blade 163, the bottom of the barrel 161 is provided with a discharge port 164, and the paint scraped off by the scraping blade 163 will finally enter the discharge port 164. In another embodiment of the present application, the roller 166 drives the paddle 167 to rotate, and under the high-speed rotating state of the paddle 167, a part of the paint will be thrown out from the opening 162 under the action of centrifugal force, and the paint can be thrown out onto the base fabric again under the action of centrifugal force, and the paint is on the base fabric before the coating roller 13 brushes, so that the coating roller 13 realizes uniform coating of the thrown-out paint when coating, ensuring that the twice-used paint is uniform.

[0045] Further comprising a collecting mechanism, the collecting mechanism comprises a material box 165, a pressure strip 168, and a paddle 167 hinged on a roller 166, and a V-shaped piece 169 fixedly installed on the roller 166, a plurality of V-shaped pieces 169 distributed on both sides of the paddle 167, the material box 165 arranged in the discharging port 164, and the pressure strip 168 installed on the inner wall of the barrel 161. In an embodiment, in use, a part of the coating can be attached to the paddle 167, the paddle 167 is driven to rotate by the roller 166, the paddle 167 is hinged on the roller 166, when the paddle 167 rotates to the position of the pressure strip 168, the pressure strip 168 hinders the rotation of the paddle 167, and the paddle 167 rotates at an angle, when rotating, the paddle 167 extrudes the V-shaped piece 169, the V-shaped piece 169 deforms, and an opposite force is applied to the paddle 167, and in the continuous process, the paddle 167 is separated from the pressure strip 168, the paddle 167 is reset under the action of the resilience of the V-shaped piece 169, and at this time, the roller 166 drives the paddle 167 to move to the position of the next pressure strip 168, so that the paddle 167 collides with the next pressure strip 168 in the resetting process, and a certain vibration is generated, so that the residual coating is separated from the paddle 167. It should be noted that, in order to avoid the influence of vibration on the coating roller 13, the scraping blade 163 is made of nylon or silica gel, the scraping blade 163 is in sliding fit, and the contact is a linear joint, so as to maximize the influence of vibration on the coating roller 13.

[0046] The pressure strip 168 is in the circumferential movement path of the paddle 167, and a liquid leakage groove 1681 is formed in the pressure strip 168. Since the paddle 167 is in a state of movement, the coating on the pressure strip 168 is continuously scraped upward by the paddle 167 when falling downward, and therefore, in order to ensure that the coating on the pressure strip 168 falls smoothly, the liquid leakage groove 1681 lower than the pressure strip 168 is formed, so as to ensure that the coating falls into the material box 165 smoothly.

[0047] One side of the V-shaped piece 169 is provided with a contact surface 1692 abutting against the outside of the paddle 167, and a collapse opening 1691 is formed in the bending part of the V-shaped piece 169. The contact surface 1692 is arranged to ensure that the V-shaped piece 169 and the paddle 167 have sufficient contact surface, so that the abutment of the V-shaped piece 169 and the paddle 167 is more stable, and when the V-shaped piece 169 deforms, the collapse opening 1691 collapses to ensure the smooth deformation of the V-shaped piece 169, avoid excessive resilience, the more the number and the larger the size of the collapse opening 1691, the smaller the force required for the deformation of the V-shaped piece 169, and the smaller the resilience, and the corresponding collapse opening 1691 is formed according to the actual material.

[0048] The linkage mechanism 15 comprises pulleys 151 and belts 152, the pulleys 151 are installed on the roller 166, the coating roller 13 and the transmission shaft 141, the pulleys 151 are connected by the belts 152, and the linkage between the roller 166 and the coating roller 13 and the linkage between the coating roller 13 and the transmission shaft 141 can be realized by the linkage mechanism 15. In this way, the coating roller 13 is used as a power source, and the use of electromechanical equipment is reduced.

[0049] The above merely describes certain exemplary embodiments of the present application by way of illustration, and it is needless to say that the described embodiments can be modified in various ways without departing from the spirit and scope of the present application for those skilled in the art. Therefore, the above drawings and descriptions are illustrative in nature and should not be understood as limiting the scope of protection of the claims of the present application.

Claims

1. A nonwoven fabric coating machine, comprising a dipping tank (10) for storing a coating and a coating roller (13) rotatably connected thereto, characterized in that: Also includes: A material distribution mechanism (12) installed in the dipping tank (10), the material distribution mechanism (12) comprising a track rod (121) and a swinging member, the swinging member being slidably disposed on the track rod (121); a driving portion (14), the driving portion (14) being used to drive the swing member to reciprocate along the track rod (121), the swing member having a first stroke and a second stroke, and the swing member switching between the first stroke and the second stroke during the driving process of the driving portion (14); A linkage mechanism (15), wherein the driving portion (14) and the coating roller (13) are connected in transmission via the linkage mechanism (15); when the coating roller (13) rotates, the material distribution mechanism (12) receives the drive of the driving portion (14) to drive the coating in the dipping tank (10) to move; The swing member comprises a central shaft (122), an arc-shaped piece (123), an expansion piece (124), a moving rod (125), a top block (126), an elastic member (127) and a cam (128); the central shaft (122) is slidably connected to the track rod (121); the arc-shaped piece (123) is rotatably connected to the central shaft (122); the cam (128) is fixedly mounted on the central shaft (122); the moving rod (125) is slidably plugged into the arc-shaped piece (123); the expansion piece (124) is fixedly mounted on one end of the moving rod (125); the other end of the arc-shaped piece (123) abuts against the cam (128); the top block (126) is mounted on the moving rod (125); and one end of the elastic member (127 abuts against the lower surface of the top block (126); Due to the rotation of the arc-shaped piece (123), the moving rod (125) will also rotate accordingly, and one end of the moving rod (125) contacts the cam (128). During the rotation of the moving rod (125), the position of its end on the cam (128) changes, and the contact position gradually moves to the lowest point of the cam (128). During the movement, the moving rod (125) moves downward compared to the arc-shaped piece (123). The downward movement of the moving rod (125) will drive the telescopic piece (124) to move downward synchronously, and the telescopic piece (124) will extend out of the arc-shaped piece (123).

2. A non-woven fabric coating machine according to claim 1, characterized in that, During the first stroke, first, the arc-shaped piece (123) is driven by the driving portion (14) to swing in the first direction, and the telescopic piece (124) is driven by the moving rod (125) to extend to the outside of the arc-shaped piece (123), and the telescopic piece (124) is in contact with the bottom inner wall of the immersion tank (10). During the continuation of the first stroke, the arc-shaped piece (123) assembly is close to the coating roller (13).

3. A non-woven fabric coating machine according to claim 2, characterized in that, During the second stroke, first, the arc-shaped piece (123) is driven by the driving portion (14) to swing in the second direction, and synchronously, the telescopic piece (124) is driven by the moving rod (125) to retract into the arc-shaped piece (123). During the continuation of the second stroke, the arc-shaped piece (123) assembly is away from the coating roller (13).

4. The non-woven fabric coating machine according to claim 1, characterized in that: The driving portion (14) includes a transmission shaft (141), a driving disk (142), a connecting rod (143) and a piston rod (144). The transmission shaft (141) is rotatably connected to the immersion tank (10). The driving disk (142) is mounted on the transmission shaft (141). One end of the connecting rod (143) is rotatably connected to the driving disk (142). The other end of the connecting rod (143) is hinged to one end of the piston rod (144). The other end of the piston rod (144) is slidably inserted into the arc-shaped piece (123). An auxiliary block (145) is provided on the outside of the piston rod (144). A pair of the auxiliary blocks (145) are respectively provided on both sides of the arc-shaped piece (123).

5. The non-woven fabric coating machine according to claim 4, characterized in that: The invention also includes a recycling mechanism (16), which includes a cylinder (161), a roller (166), and a paddle (167). A notch (162) is provided on the cylinder (161). A scraping blade (163) is provided on the top of the cylinder (161). The scraping blade (163) is slidably connected to the coating roller (13). The roller (166) is rotatably connected inside the cylinder (161). A plurality of paddles (167) are evenly distributed outside the roller (166). One end of the paddle (167) is slidably connected to the scraping blade (163). A discharge port (164) is provided at the bottom of the cylinder (161).

6. The non-woven fabric coating machine according to claim 5, characterized in that: The invention also includes a collecting mechanism, which includes a material box (165), a pressure bar (168), and the paddle (167) is hinged on the roller (166), and a V-shaped member (169) is fixedly installed on the roller (166), and a plurality of V-shaped members (169) are distributed on both sides of the paddle (167). The material box (165) is arranged in the discharge port (164), and the pressure bar (168) is installed on the inner wall of the cylinder (161).

7. The non-woven fabric coating machine according to claim 6, characterized in that: The pressure bar (168) is located on the path of the circular motion of the paddle (167), and a liquid leakage groove (1681) is provided on the pressure bar (168).

8. The non-woven fabric coating machine according to claim 6, characterized in that: A contact surface (1692) is provided on one side of the V-shaped member (169), the contact surface (1692) abuts against the outside of the paddle (167), and a collapse opening (1691) is provided at a bend of the V-shaped member (169).

9. The non-woven fabric coating machine according to claim 5, characterized in that: The linkage mechanism (15) comprises a pulley (151) and a belt (152); the roller (166), the coating roller (13), and the transmission shaft (141) are all equipped with pulleys (151); and the pulleys (151) are connected to each other through the belt (152).

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