Linear straight track production system for textile bodies

Abstract

The application discloses a linear straight rail type production system of a textile body, which comprises a matched outer mold and inner mold, the outer mold is provided with a special-shaped part, and further comprises a forming mechanism which comprises a pressing belt movably arranged on the inner mold; a driving mechanism which comprises a driving plate arranged on the inner mold, the driving plate is driven to move along the inner mold and press the inner mold, so as to drive the pressing belt to move along the special-shaped part. The linear straight rail type production system of the textile body provided by the application drives the pressing belt to move and press along the special-shaped part of the non-stressed surface through the closing force when the outer mold and the inner mold are closed, so as to apply force to the textile in the special-shaped part and shape the textile, thereby ensuring that the position of the special-shaped part is stressed uniformly in a single closing process, avoiding the subsequent loosening of the textile due to the non-stressed surface, and the continuous movement of the pressing belt during pressing can also card and shape the textile.

Description

Technical Field

[0001] This invention relates to the field of textile technology, and more specifically to a linear straight-track production system for textiles. Background Technology

[0002] A textile body is a three-dimensional textile product formed by hot pressing and then cooling and solidifying multiple layers of textile fabric.

[0003] The linear straight-rail production system for textiles can open and close molds during movement to perform hot pressing and cooling steps on multi-layer textiles, thereby accelerating production speed.

[0004] According to patent number CN113249877A, published on August 13, 2021, a linear straight-rail production system for textiles is disclosed. The system includes a guide rail and a mounting frame; a support component, comprising a first support plate and a second support plate that can slide along the guide rail, with a connecting column tightly connected between the first and second support plates. This invention, through the interaction of the control component, the drive component, and the mold, enables normal mold opening and closing, filling with textile fibers to achieve molding. Furthermore, when the shape of the mold cavity needs to be changed, simply engaging the drive pin in the second control slot and manually changing the position of the control block allows for the change of mold cavity shape using a multi-position cylinder. This eliminates the need to manufacture new mold shapes and repeat disassembly and installation, saving significant time and economic costs.

[0005] In the prior art, including the aforementioned patent, the opening and closing mold has irregularly shaped molds with protrusions or grooves. When opening and closing, the extrusion force on the irregularly shaped parts is significantly less than that on the parts that are in contact with the force surface. As a result, the irregularly shaped protrusions are difficult to form during a single opening and closing process and are prone to loosening under stress during subsequent transportation, affecting subsequent steps and use. Summary of the Invention

[0006] The purpose of this invention is to provide a linear straight-rail production system for textiles, which aims to solve the problem that irregular parts of non-stressed surfaces are difficult to form in a single mold opening and closing process.

[0007] To achieve the above objectives, the present invention provides the following technical solution: a linear straight-track production system for textiles, comprising a cooperating outer mold and an inner mold, wherein the outer mold is provided with a shaped portion, and further comprising...

[0008] A molding mechanism, comprising a pressing belt movably disposed on the inner mold;

[0009] A driving mechanism is provided on the inner mold, and the driving plate is driven to move along the inner mold and press against the inner mold, so as to drive the pressing belt to move along the special-shaped part.

[0010] As a preferred, a gas supply assembly is further provided, which comprises supply pipes symmetrically arranged on the pressing belt, and air passages are formed on the pressing belt, and the pressing belt is driven to rotate or reverse, so as to drive the air passages to communicate with hot air or cold air in the two supply pipes respectively.

[0011] As a preferred, the driving mechanism further comprises a transmission gear and a sliding rotation part which are connected with each other, and the driving plate is close to or away from the inner mold, so as to engage the transmission gear to drive the pressing belt to rotate or reverse along the sliding rotation part.

[0012] As a preferred, the sliding rotation part is provided with a transmission column and a locking disc at two ends respectively, and the sliding rotation part is assembled in the following three stations:

[0013] The first station: the sliding rotation part is locked by the locking disc, and the transmission column is rotated to store power with the sliding rotation part;

[0014] The second station: the sliding rotation part is unlocked to rotate to release the stored power;

[0015] The third station: the sliding rotation part is synchronized to reverse by the transmission column.

[0016] As a preferred, a plurality of pressing rollers are arranged in a linear array on the pressing belt, and the pressing rollers move along the special-shaped part with the pressing belt.

[0017] As a preferred, a plurality of air guide parts are formed in a circumferential array on the pressing roller, and the pressing belt is rotated or reversed to drive the air guide parts to communicate with the air passages.

[0018] As a preferred, an elastic retaining frame is arranged on the inner mold, and an elastic barb is arranged on the elastic retaining frame, and the pressing belt is driven to reverse to tilt the elastic barb to make the air passages and the air guide parts communicate.

[0019] As a preferred, the pressing belt is driven to rotate to drive the pressing roller to deform and press into the air passages along the special-shaped part, so that the air passages and the air guide parts communicate.

[0020] As a preferred, the supply pipe is provided with a closing cover which is close to the pressing belt, and a one-way reversing half plate is formed, and the pressing roller is driven to rotate or reverse to extrude the corresponding one-way reversing half plate to reverse to ventilate.

[0021] As preferred, a water removal plate is arranged on the driving plate, and the water removal plate is arranged to resist the pressing roller along with the forward rotation of the pressing belt.

[0022] In the above technical solution, the linear straight rail type production system for the textile body has the following beneficial effects: when the outer mold and the inner mold are closed, the pressing belt is driven to move and press along the special-shaped part of the non-stressed surface by the closing force, so as to apply force to the textile in the special-shaped part to ensure that the position of the special-shaped part is stressed uniformly in a single closing process, and avoid subsequent loosening of the textile due to the non-stressed surface. In addition, the pressing belt moves continuously during pressing, which can also comb and shape the textile. BRIEF DESCRIPTION OF DRAWINGS

[0023] 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 as follows. 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 based on these drawings.

[0024] Figure 1 The overall schematic diagram provided for the embodiments of the present application;

[0025] Figure 2 The overall schematic diagram provided for the embodiments of the present application;

[0026] Figure 3 The schematic diagram of the forming mechanism and the driving mechanism provided for the embodiments of the present application;

[0027] Figure 4 The Figure 3 The enlarged schematic diagram of A in the middle;

[0028] Figure 5 The cross-sectional schematic diagram of the driving mechanism provided for the embodiments of the present application;

[0029] Figure 6 The overall cross-sectional schematic diagram provided for the embodiments of the present application;

[0030] Figure 7 The Figure 6 The forward rotation schematic diagram of the pressing belt at B in the middle;

[0031] Figure 8 The Figure 6 The reverse rotation schematic diagram of the pressing belt at B in the middle;

[0032] Figure 9 The Figure 6 The reverse rotation schematic diagram of the pressing belt at C in the middle;

[0033] Figure 10 The Figure 6 The reverse rotation schematic diagram of the pressing belt at D in the middle;

[0034] Figure 11 Pressing belt side view provided for the embodiment of the invention.

[0035] Reference signs:

[0036] 1, outer mold; 12, inner mold; 121, opening part; 11, special-shaped part; 2, forming mechanism; 20, pressing roller; 200, rotating ring; 201, air guide part; 202, blocking plate; 21, elastic retainer; 210, elastic limiting frame; 211, elastic barb; 22, pressing belt; 221, air channel; 222, inclined limiting groove; 23, water removal plate; 231, bending driving plate; 3, driving mechanism; 31, driving plate; 311, first spring; 312, guide sleeve; 32, transmission gear; 321, conveying belt; 33, sliding rotation part; 331, second spring; 332, fixing groove; 333, locking disc; 34, transmission column; 341, connecting block; 35, telescopic motor; 4, air supply assembly; 41, air supply pipe; 411, one-way flip half plate. DETAILED DESCRIPTION

[0037] In order to make the purpose, technical scheme and advantages of the embodiments of the present disclosure clearer, the technical scheme of the embodiments of the present disclosure will be described clearly and completely below in conjunction with the drawings of the embodiments of the present disclosure. Obviously, the described embodiments are part of the embodiments of the present disclosure, rather than all the embodiments. Based on the described embodiments of the present disclosure, all other embodiments obtained by a person of ordinary skill in the art without any inventive effort fall within the protection scope of the present disclosure.

[0038] As Figures 1-11 shown, a linear straight rail type production system of a textile body includes an outer mold 1 and an inner mold 12 cooperating with each other, the outer mold 1 is provided with a special-shaped part 11, and further includes

[0039] A forming mechanism 2 includes a pressing belt 22 movably arranged on the inner mold 12.

[0040] A driving mechanism 3 includes a driving plate 31 arranged on the inner mold 12, the driving plate 31 is driven to move along the inner mold 12 and press against the inner mold 12, so as to drive the pressing belt 22 to move along the special-shaped part 11.

[0041] Specifically, the inner mold 12 is provided with a guide sleeve 312, the driving plate 31 is provided with a guide column slidingly connected in the guide sleeve 312, and the guide sleeve 312 and the guide column are provided with a first spring 311. When the driving plate 31 is driven by the driving source (cylinder or hydraulic cylinder, etc.) to push the inner mold 12 to engage the outer mold 1, the inner mold 12 is pushed to adhere to the outer mold 1 by the first spring 311, and then the first spring 311 is compressed to transmit pressure for shaping. The inner mold 12 is provided with an opening part 121, and the opening part 121 is provided with an elastic limiting frame 210. The pressing belt 22 moves along the elastic limiting frame 210. In use, the outer mold 1 is filled with a textile, the driving source drives the driving plate 31 to carry the inner mold 12 to engage the outer mold 1, and then the guide sleeve 312 and the guide column slide to compress the first spring 311 to increase the pressure of the inner mold 12. At the same time, the pressing belt 22 is charged. Then, the pressing belt 22 is released to move along the elastic limiting frame 210 to extrude the textile in the special-shaped part 11. The moving process continuously rubs and extrudes the textile in the special-shaped part 11 for shaping. Compared with single opening and closing shaping capacity, the pressing belt 22 continuously moves to comb the textile to assist shaping.

[0042] In the above technical solution, when the outer mold 1 and the inner mold 12 are closed, the pressing belt 22 is driven to move and press along the non-stressed surface of the special-shaped part 11 by the closing force to apply force to the textile in the special-shaped part 11 for shaping. In this way, the position of the special-shaped part 11 is uniformly stressed in a single closing process, avoiding subsequent loosening of the textile due to the non-stressed surface. Moreover, the pressing belt 22 continuously moves during pressing to comb the textile to assist shaping.

[0043] As an embodiment provided by the present application, a gas supply assembly 4 is further included. The gas supply assembly 4 includes supply pipes 41 symmetrically arranged on the pressing belt 22. The pressing belt 22 is provided with air channels 221. The pressing belt 22 is driven to rotate or reverse to drive the air channels 221 to communicate with hot air or cold air in the two supply pipes 41, respectively.

[0044] Specifically, the two supply pipes 41 are respectively fixedly connected with a cold gas source and a hot gas source. The supply pipes 41 are fixed on the inner mold 12 and always adhere to the pressing belt 22. After the pressing belt 22 is charged and released, the pressing belt 22 rotates forward along the elastic limiting frame 210. When the pressing belt 22 rotates forward, the air channels 221 in the pressing belt 22 communicate with the supply pipe 41 supplying hot air to heat and press the special-shaped part 11 during pressing. When the outer mold 1 and the inner mold 12 are separated, the pressing belt 22 reverses to make the air channels 221 communicate with the supply pipe 41 supplying cold air to cool the special-shaped part 11 which has been hot and formed, to accelerate cooling and keep the shape, avoiding damage to the special-shaped part 11 during opening and closing.

[0045] In use, the outer mold 1 is filled with textile, the driving source drives the driving plate 31 to engage the inner mold 12 with the outer mold 1, then the guide sleeve 312 and the guide column slide to compress the first spring 311 to pressurize the inner mold 12, at the same time, the press belt 22 is pressed to store energy, then the press belt 22 is released to rotate forward along the elastic limiting frame 210 to extrude the textile in the special-shaped part 11, at the same time, the air duct 221 is connected with the supply pipe 41 to supply hot air to assist the thermoplastic, after the thermoplastic, the outer mold 1 and the inner mold 12 are separated, the press belt 22 is reversed to connect the supply pipe 41 to supply cold air to cool the special-shaped part 11 which has been thermoplastic formed.

[0046] As the optimal embodiment provided by the application, the driving mechanism 3 further comprises a transmission gear 32 and a sliding rotation part 33 which are connected with each other, the driving plate 31 is close to or away from the inner mold 12 to engage the transmission gear 32 to drive the press belt 22 to rotate forward or reverse with the sliding rotation part 33;

[0047] The sliding rotation part 33 is provided with a transmission column 34 and a locking disc 333 at two ends respectively, the sliding rotation part 33 is assembled in the following three stations:

[0048] The first station: the sliding rotation part 33 is locked with the locking disc 333, the transmission column 34 is rotated to store energy with the sliding rotation part 33;

[0049] The second station: the sliding rotation part 33 is unlocked to rotate forward to release the stored energy;

[0050] The third station: the sliding rotation part 33 is synchronized to reverse with the transmission column 34.

[0051] Specifically, a transmission belt 321 is sleeved between the transmission gear 32 and the transmission column 34, the transmission gear 32 is rotationally connected to the inner mold 12 through a rotating shaft, a rack is arranged on the guide column, the rack engages the transmission gear 32 to drive the transmission gear 32 to rotate when the driving plate 31 moves towards the inner mold 12, the sliding rotating part 33 is rotationally connected to the transmission column 34, a second spring 331 is arranged between the two, the second spring 331 serves to store force, a locking disc 333 is arranged on the inner mold 12, the locking disc 333 and the transmission column 34 are both provided with a connecting block 341, the sliding rotating part 33 is provided with a fixed groove 332 at both ends, the inner mold 12 is provided with a telescopic motor 35, the output end of the telescopic motor 35 is rotationally connected to the sliding rotating part 33 to drive the sliding rotating part 33 to switch positions, in use, the fixed groove 332 on the sliding rotating part 33 is driven to be inserted into the connecting block 341 on the locking disc 333 to be locked to keep the first position, then the driving plate 31 moves towards the inner mold 12 to drive the transmission gear 32 and the transmission column 34 to rotate forward to store force through the second spring 331, and after the inner mold 12 and the outer mold 1 are engaged, the sliding rotating part 33 is switched to the second position to be separated, at this time, the second spring 331 releases the continued force to drive the sliding rotating part 33 to rotate forward to drive the pressing belt 22 to rotate to be thermoplastic, then when the outer mold 1 and the inner mold 12 need to be separated, the sliding rotating part 33 is switched to the third position to be connected with the connecting block 341 on the transmission column 34, so that the sliding rotating part 33 can be reversely rotated synchronously with the transmission column 34 to drive the pressing belt 22 to be turned over.

[0052] In use, the outer mold 1 is filled with a textile, the driving source drives the driving plate 31 to carry the inner mold 12 to engage with the outer mold 1, at this time, the sliding rotating part 33 is located at the first position, then as the inner mold 12 and the driving plate 31 approach, the transmission gear 32 and the transmission column 34 rotate forward to store force on the second spring 331, then as the inner mold 12 and the outer mold 1 are completely engaged, the sliding rotating part 33 is switched to the second position, at this time, the second spring 331 releases the continued force to drive the sliding rotating part 33 to rotate forward, so that the pressing belt 22 rotates forward along the elastic limiting frame 210 to extrude the textile in the special-shaped part 11, at the same time, the air channel 221 communicates with the supply pipe 41 to supply hot air to assist thermoplastic, when the outer mold 1 and the inner mold 12 are separated after thermoplastic, the sliding rotating part 33 is switched to the third position, the sliding rotating part 33 can be reversely rotated synchronously with the transmission column 34 to drive the pressing belt 22 to be reversely rotated to communicate with the supply pipe 41 to supply cold air to cool the special-shaped part 11 which has been thermoplastic.

[0053] As an embodiment provided by the application, a plurality of pressing rollers 20 are linearly arranged on the pressing belt 22, the pressing rollers 20 move with the pressing belt 22 to adhere to the special-shaped part 11.

[0054] Specific, press the band 22 through the elastic block is connected with the rotating ring 200, press the roller 20 rotationally connected to the rotating ring 200, press the roller 20 with press the band 22 adhere to the special-shaped part 11 moves, press the special-shaped part 11 on the textile, to enhance the shaping effect of press the band 22, press the roller 20 is made of elastic metal, when adhering to the special-shaped part 11 can be deformed to increase the pressure, press the roller 20.

[0055] In use, the outer mold 1 is filled with textile, the driving source drives the driving plate 31 to carry the inner mold 12 and the outer mold 1 is engaged, at this time the slip rotating part 33 is located in the first station, and then with the inner mold 12 and the driving plate 31 close, the transmission gear 32 and the transmission column 34 are positively rotated and the second spring 331 is charged, and then with the inner mold 12 and the outer mold 1 complete engagement, the slip rotating part 33 switches to the second station, at this time the second spring 331 releases the continued force to drive the slip rotating part 33 to rotate positively, so that the press belt 22 rotates positively along the elastic limiting frame 210 to extrude the textile in the special-shaped part 11 through the press roller 20, and at the same time the air channel 221 communicates with the supply pipe 41 supplying hot air to assist in heat molding, after heat molding, the outer mold 1 and the inner mold 12 are separated, the slip rotating part 33 switches to the third station, the slip rotating part 33 can be reversely rotated with the transmission column 34 to drive the press belt 22 to reverse to communicate with the supply pipe 41 supplying cold air to cool the special-shaped part 11 which has been heat molded.

[0056] As the most preferred embodiment of the present application, a plurality of air guide parts 201 are circumferentially arranged on the press roller 20, and the press belt 22 rotates positively or reversely to drive the air guide parts 201 to communicate with the air channel 221.

[0057] The press belt 22 is driven to rotate positively to drive the press roller 20 to deform and press into the air channel 221 along the special-shaped part 11, so that the air channel 221 and the air guide part 201 communicate.

[0058] Specifically, the press roller 20 can individually communicate with two separate supply pipes 41 through the air channel 221 respectively to supply air through the air guide parts 201 on the press roller 20, and the press roller 20 and the air channel 221 are symmetrically provided with a blocking plate 202, which blocks the air channel 221 when the press roller 20 is not extruded, at this time the press roller 20 does not communicate with the blocking air channel 221, and when the press roller 20 is extruded, the press roller 20 sinks into the air channel 221 to extrude and open the blocking plate 202, so that the air guide part 201 and the air channel 221 communicate and guide air, and the press roller 20 is deformed when it is extruded, so that the air guide part 201 is bent, at this time the hot air flow impacts on the bent air guide part 201 to heat the press roller 20 to assist heat molding.

[0059] In use, the outer mold 1 is filled with the textile, the driving source drives the driving plate 31 to carry the inner mold 12 to engage with the outer mold 1, at this time the sliding rotating part 33 is located at the first station, and then as the inner mold 12 and the driving plate 31 approach, the transmission gear 32 and the transmission column 34 are positively rotated and store the force of the second spring 331, and then as the inner mold 12 and the outer mold 1 complete engagement, the sliding rotating part 33 switches to the second station, at this time the second spring 331 releases the continued force to drive the sliding rotating part 33 to positively rotate, so that the pressing belt 22 positively rotates along the elastic limiting frame 210 to extrude the textile in the special-shaped part 11 through the pressing roller 20, and at the same time the air channel 221 is connected with the supply pipe 41 supplying hot air, and the pressing roller 20 sinks into the air channel 221 to spray hot air from the air guide part 201 to the textile to assist in thermoplastic, and after thermoplastic, the outer mold 1 and the inner mold 12 are separated, the sliding rotating part 33 switches to the third station, and the sliding rotating part 33 can be reversely rotated synchronously with the transmission column 34 to drive the pressing belt 22 to reversely rotate to connect the supply pipe 41 supplying cold air to cool the special-shaped part 11 which has been thermoplastic.

[0060] As the optimal embodiment provided by the present application, the inner mold 12 is provided with the elastic retaining frame 21, the elastic retaining frame 21 is provided with the elastic barb 211, the pressing belt 22 is reversely driven to tilt the elastic barb 211 to make the air channel 221 and the air guide part 201 communicate.

[0061] Specifically, the elastic retaining frame 21 and the elastic limiting frame 210 form a guide channel, the pressing belt 22 is movably arranged on the guide channel, and the pressing belt 22 is provided with the tilt limiting groove 222 on the side close to the elastic retaining frame 21, the tilt limiting groove 222 does not limit the elastic barb 211 when the pressing belt 22 is positively rotated, and when the pressing belt 22 is reversely rotated, the elastic barb 211 is clamped into the tilt limiting groove 222 to make the elastic barb 211 tilt and protrude, so that the protrusion pushes the blocking plate 202 to open and close to the pressing roller 20 to connect the air channel 221 and the air guide part 201, at this time the pressing roller 20 is not extruded, the air guide part 201 is in a straight state, and the cold air can be sprayed out along the straight air guide part 201 to cool the textile of the special-shaped part 11.

[0062] In use, the outer mold 1 is filled with textile, the driving source drives the driving plate 31 to carry the inner mold 12 to engage with the outer mold 1, at this time the sliding rotating part 33 is located at the first station, and then as the inner mold 12 and the driving plate 31 approach, the transmission gear 32 and the transmission column 34 rotate in the positive direction and store the force of the second spring 331, and then as the inner mold 12 and the outer mold 1 complete engagement, the sliding rotating part 33 switches to the second station, at this time the second spring 331 releases the continued force to drive the sliding rotating part 33 to rotate in the positive direction, so that the pressing belt 22 rotates in the positive direction along the elastic limiting frame 210 to extrude the textile in the special-shaped part 11 through the pressing roller 20, at the same time the air channel 221 is connected with the supply pipe 41 supplying hot air, and the pressing roller 20 sinks into the air channel 221 to spray hot air from the air guide part 201 to the textile to assist in thermoplastic, after thermoplastic, the outer mold 1 and the inner mold 12 are separated, the sliding rotating part 33 switches to the third station, and the sliding rotating part 33 can be reversely rotated synchronously with the transmission column 34 to drive the pressing belt 22 to reverse to connect the supply pipe 41 supplying cold air, at this time the reverse rotation of the pressing belt 22 can make the elastic barb 211 tilt and protrude, so that the cold air flows along the air guide part 201 to spray out to cool the special-shaped part 11 which has been thermoplastic.

[0063] As the optimal embodiment provided by the application, the supply pipe 41 is provided with a gas closing cover matched with the pressing belt 22, and is provided with a one-way flip half plate 411, and the pressing roller 20 is driven to rotate in the positive direction or to flip to extrude the corresponding one-way flip half plate 411 to flip to ventilate.

[0064] Specifically, the part of the gas closing cover facing the pressing belt 22 is provided with a flexible movable plate, so that the pressing roller 20 enters the gas closing cover by passing the movable plate, and when rotating in the positive direction or in the reverse direction, the pressing roller 20 will be extruded by the movement of the pressing belt 22 to make the one-way flip half plate 411 flip to open the supply pipe 41, and the pressing roller 20 will sink into the air channel 221 when extruding, the air channel 221 will be connected with the supply pipe 41 through the pressing roller 20 to transport air flow, and the setting direction and the rotating direction of the one-way flip half plate 411 of different supply pipes 41 are opposite, so as to connect different supply pipes 41 through positive rotation and reverse rotation.

[0065] In use, the outer mold 1 is filled with textile, the driving source drives the driving plate 31 to carry the inner mold 12 to engage with the outer mold 1, at this time the sliding rotating part 33 is located at the first station, and then as the inner mold 12 and the driving plate 31 approach, the transmission gear 32 and the transmission column 34 rotate in the positive direction and store the force of the second spring 331, and then as the inner mold 12 and the outer mold 1 complete engagement, the sliding rotating part 33 switches to the second station, at this time the second spring 331 releases the continued force to drive the sliding rotating part 33 to rotate in the positive direction, so that the pressing belt 22 rotates in the positive direction along the elastic limiting frame 210 to extrude the textile in the special-shaped part 11 through the pressing roller 20, and at the same time the air channel 221 is connected with the supply pipe 41 supplying hot air, and the pressing roller 20 sinks into the air channel 221 to spray hot air from the air guide part 201 to the textile to assist in thermoplastic, and after thermoplastic, the outer mold 1 and the inner mold 12 are separated, the sliding rotating part 33 switches to the third station, and the sliding rotating part 33 can be reversely rotated synchronously with the transmission column 34 to drive the pressing belt 22 to reverse to connect the supply pipe 41 supplying cold air, at this time the reverse rotation of the pressing belt 22 can make the elastic barb 211 tilt and protrude, so that the cold air flows along the air guide part 201 to spray out to cool the special-shaped part 11 which has been thermoplastic.

[0066] As the optimal embodiment provided by the present application, the driving plate 31 is provided with a water removal plate 23, which is pressed against the pressing roller 20 when the pressing belt 22 rotates in the positive direction.

[0067] Specifically, the water removal plate 23 is obliquely arranged, and condensation is generated in the air channel 221 when the hot air and the cold air are switched, and the guide column of the driving plate 31 is provided with a bending plate 231, and when the driving plate 31 and the inner mold 12 approach each other, the water removal plate 23 is attached to the lowest position (the lower end for reference) of the pressing belt 22, so that the pressing roller 20 at the lowest position moves slightly and opens the air channel 221 to discharge the condensed water in the air channel 221, and then as the driving plate 31 and the inner mold 12 are engaged to apply pressure, the bending plate 231 pushes the water removal plate 23 to bend, so as to avoid that the water removal plate 23 is attached to the driving plate 31 for a long time to discharge the condensed water while diverting too much hot air. Figure 6

[0068] ​In use, the outer mold 1 is filled with textile, the driving source drives the driving plate 31 to carry the inner mold 12 to engage with the outer mold 1, at this time the sliding rotating part 33 is located at the first station, and then as the inner mold 12 and the driving plate 31 approach, the transmission gear 32 and the transmission column 34 rotate in the positive direction and store the force of the second spring 331, at the same time, the lowest pressing roller 20 is slightly moved and opens the air duct 221 to discharge the condensed water in the air duct 221, and then as the inner mold 12 and the outer mold 1 complete engagement, the sliding rotating part 33 switches to the second station, at this time the driving bending plate 231 pushes against the water removal plate 23 to bend, and then the second spring 331 releases the continued force to drive the sliding rotating part 33 to rotate in the positive direction, so that the pressing belt 22 rotates in the positive direction along the elastic limiting frame 210 to press the textile in the special-shaped part 11 through the pressing roller 20, at the same time, as the air duct 221 is connected with the supply pipe 41 supplying hot air, the pressing roller 20 sinks into the air duct 221 to spray hot air from the air guide part 201 to the textile to assist in thermoplastic, after thermoplastic, the outer mold 1 and the inner mold 12 are separated, the sliding rotating part 33 switches to the third station, the sliding rotating part 33 can be reversely rotated synchronously with the transmission column 34 to drive the pressing belt 22 to reverse to connect the supply pipe 41 supplying cold air, at this time the reverse rotation of the pressing belt 22 can make the elastic barb 211 tilt and protrude, so that the cold air flows out along the air guide part 201 to cool the special-shaped part 11 which has been thermoplastic.

[0069] The foregoing merely illustrates some exemplary embodiments of the present application, no doubt numerous modifications and alterations can be made by those skilled in the art without departing from the spirit and scope of the present application. Accordingly, the above description is illustrative and not restrictive.

Claims

1. A linear straight rail production system of a textile body comprising a cooperating outer mold and an inner mold, said outer mold being provided with a profiled portion, characterized in that, Further comprising The forming mechanism comprises a pressing belt movably arranged on the inner mold; The driving mechanism comprises a driving plate arranged on the inner mold, which is driven to move along the inner mold and press against the inner mold, so as to drive the pressing belt to move along the special-shaped part; Further comprising a gas supply assembly, which comprises two supply pipes symmetrically arranged on the pressing belt, and the pressing belt is provided with air channels, and the pressing belt is driven to rotate or reverse, so as to drive the air channels to communicate with hot air or cold air in the two supply pipes respectively; The driving mechanism further comprises a transmission gear and a sliding rotation part connected with each other, and the driving plate is close to or away from the inner mold, so as to engage the transmission gear to drive the pressing belt to rotate or reverse with the sliding rotation part; The sliding rotation part is arranged with a transmission column and a locking disc at two ends respectively, and the sliding rotation part is assembled in the following three stations: The first station: the sliding rotation part is locked with the locking disc, and the transmission column is rotated to store energy with the sliding rotation part; The second station: the sliding rotation part is unlocked to rotate to release the stored energy; The third station: the sliding rotation part is synchronized to reverse with the transmission column; A plurality of pressing rollers are movably arranged on the pressing belt in linear array, and the pressing rollers move with the pressing belt to fit the special-shaped part; A plurality of air guide parts are arranged on the pressing roller in circumferential array, and the pressing belt is rotated or reversed to drive the air guide parts to communicate with the air channels; The inner mold is provided with an elastic retaining frame, and the elastic retaining frame is provided with an elastic barb, and the pressing belt is driven to reverse to tilt the elastic barb to make the pressing belt press against the air channels and the air guide parts to communicate; When the pressing belt is reversed, the elastic barb is clamped into the inclined limiting groove to make the elastic barb tilt and protrude, so that the protrusion pushes against the sealing plate to open and fit the pressing roller to communicate the air channels and the air guide parts, and at this time, the pressing roller is not extruded, and the air guide part is in straight state, and the cold air can be sprayed out along the straight air guide part.

2. A linear straight track production system for textile bodies according to claim 1, characterized in that, The pressing belt is driven to rotate to drive the pressing roller to deform and press into the air channel along the special-shaped part, so that the air channel and the air guide part are communicated.

3. A linear straight track production system for a textile body according to claim 2, characterized in that, The supply pipe is provided with a gas closing cover fitting the pressing belt and a one-way reversing half plate, and the pressing roller is driven to rotate or reverse to extrude the corresponding one-way reversing half plate to reverse to ventilate.

4. A linear straight track production system for a textile body according to claim 2, characterized in that, The driving plate is provided with a water removal plate, which is moved with the pressing belt to press against the pressing roller.

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