Garment heat-setting machine

Abstract

The invention relates to the technical field of garment processing, and discloses a garment heat-setting machine which comprises a machine table, and a conveying assembly used for conveying fabric, a setting assembly used for setting the fabric and a heating assembly used for supplying a heat-conducting medium to the setting assembly are arranged on the machine table. According to the invention, the heat-conducting medium can be more uniform during flowing heat conduction, the temperature control is quicker and more accurate, and the local overheating or supercooling condition is effectively prevented; the situation that the temperature of one end is higher than that of the other end is prevented, and heat distribution is more uniform; the forward flow channel and the reverse flow channel can be synchronously and equivalently heated, and the temperature difference between the forward flow channel and the reverse flow channel is prevented; fiber impurities on the surface of the shaping roller can be automatically swept away, and the surface of the shaping roller is coated with an anti-sticking coating; meanwhile, scalding accidents caused by mistakenly touching the shaping roller by personnel are prevented, and the safety is improved.

Description

Technical Field

[0001] The invention relates to the technical field of garment processing, in particular to a garment heat setting machine. Background Art

[0002] In the process of garment processing, in order to ensure the processing quality of garments, it is usually necessary to heat-set the fabric. At present, the extrusion setting process mainly uses a setting roller to extrude the fabric. Some equipment sets the electric heating device on the setting roller to directly heat the setting roller to set the fabric; while some equipment transfers the flowing heat-conducting medium through the setting roller to achieve heat transfer. This method of using a heat-conducting medium is mainly used in situations where large-area, uniform heating is required.

[0003] In the prior art, when the heat-conducting medium flows in the shaping roller, there is uneven heating, which is mainly manifested in inconsistent temperatures at both ends of the shaping roller and local overheating on the shaping roller. In addition, the existing equipment usually exposes the shaping roller to the outside, and the operator is prone to accidentally touch it and be burned by the high temperature, causing safety accidents. Summary of the invention

[0004] The purpose of the present invention is to provide a garment heat setting machine to solve the problem of uneven heat distribution on the setting roller of the existing equipment.

[0005] The present invention is achieved through the following technical scheme: a clothing heat setting machine, including a machine platform, on which a conveying component for conveying fabrics, a setting component for setting the fabrics, and a heating component for supplying a heat-conducting medium to the setting component are arranged, the setting component includes a setting roller and a driving motor, the setting roller includes a setting roller outer cylinder, a flow channel component, a setting roller inner cylinder, a first axis tube, and a second axis tube which are sequentially sleeved from the outside to the inside, the second axis tube is installed on the setting roller inner cylinder, and the first axis tube is installed on the second axis tube; the cavity inside the second axis tube, the cavity between the second axis tube and the first axis tube, and the cavity between the setting roller inner cylinder and the setting roller outer cylinder are all heat-conducting medium flow cavities, and are respectively recorded as: a first flow cavity, a second flow cavity, and a third flow cavity.

[0006] The flow channel component includes two sealing ring sheets and a flow channel partition arranged between the sealing ring sheets; the outer edge of the sealing ring sheet is tightly connected to the outer cylinder of the shaping roller, and the inner edge of the sealing ring sheet is tightly connected to the inner cylinder of the shaping roller. The M flow channel partitions of the conveying component are arranged in a circular array, dividing the third flow cavity into M flow channels of the conveying component for the flow of heat-conducting medium, and M forward flow channels and M reverse flow channels of the M flow channels of the conveying component are staggered; M is a positive integer; the first flow cavity is connected to the forward flow channel in the third flow cavity through a second pipeline penetrating the second axial tube; the second flow cavity is connected to the reverse flow channel in the third flow cavity through a first pipeline penetrating the first axial tube.

[0007] In order to better realize the present invention, further, the heating assembly includes a pump body for heating the heat-conducting medium and two groups of supply pipes connected to both sides of the pump body; the pump body includes a heating box installed on the machine, the ball pair on the heating box is connected to the ball rod, the drive shaft is installed on the drive motor, the drive shaft is rotatably connected to the ball rod, a partition is installed on the heating box, an electric heating plate is installed on the ball rod, and the electric heating plate cooperates with the partition; both sides of the heating box are provided with an inlet hole for the heat-conducting medium to flow in and an outlet hole for the heat-conducting medium to flow out, and the inlet hole and the outflow hole on the same side are distributed on both sides of the partition.

[0008] The supply pipe includes a second supply pipe, a first supply pipe and a second rotating connector installed on the second supply pipe, and a first rotating connector installed on the first supply pipe. The first axial tube is connected to the first rotating connector, and the second axial tube is connected to the second rotating connector. In one group of supply pipes, the second supply pipe is connected to the inflow hole on the same side, and the first supply pipe is connected to the outflow hole on the same side. In another group of supply pipes, the second supply pipe is connected to the outflow hole on the same side, and the first supply pipe is connected to the inflow hole on the same side.

[0009] In order to better realize the present invention, further, the conveying assembly includes two groups of feed rollers, one group of feed rollers is used for feeding, and the other group of feed rollers is used for discharging, the feed rollers include a first feed roller unit and a second feed roller unit, gears are installed on the first feed roller unit and the second feed roller unit, and the two gears are meshed; the two first feed roller units achieve synchronous movement by means of a belt, and a conveying motor is installed on the machine platform, and the conveying motor is transmission-connected to the second feed roller unit in a group of feed rollers.

[0010] In order to better realize the present invention, further: the machine includes a shell, two sets of slide rails are fixedly connected to the shell, a sliding support frame is slidably connected to the slide rails, and the first rotating connecting head is installed on the sliding support frame; a pressure regulating unit is arranged on the machine, and the pressure regulating unit includes an adjusting motor installed on the shell, a screw is installed on the adjusting motor, and the screw is threadedly connected to the sliding support frame.

[0011] In order to better implement the present invention, further, a maintenance component is provided on the sliding support frame, and the maintenance component includes a coating unit for coating the anti-stick coating and a lateral movement unit for driving the coating unit to move.

[0012] In order to better realize the present invention, further, the coating unit includes a guide rod fixedly connected to the sliding support frame, the guide rod is slidably connected to the support ring, multiple groups of mounting rings are installed on the support ring, a maintenance cylinder is installed on the mounting ring, a limit slider is installed on the maintenance cylinder, the limit slider is embedded in the mounting ring, and a coating head is provided on the maintenance cylinder.

[0013] In order to better realize the present invention, further, the transverse movement unit includes a transverse movement shaft rotatably connected to the sliding support frame, the transverse movement shaft is connected to the first axis tube through a belt, two mirror-arranged and connected threaded grooves are arranged on the transverse movement shaft, a transverse movement ring is movably connected to the transverse movement shaft, a switching member is arranged on the transverse movement ring, the switching member cooperates with the threaded groove, a reset spring is arranged between the switching member and the transverse movement ring, a limit block is installed on the outer shell, the switching member cooperates with the limit block; a passive block is fixedly connected to the maintenance cylinder, and the passive block cooperates with the transverse movement ring.

[0014] In order to better realize the present invention, further, the mounting ring is provided with a sliding groove cooperating with the limiting slider, and the maintenance cylinder is provided with a brush strip; a plurality of spiral grooves are provided in a circumferential array on the maintenance cylinder, the support ring is rotatably connected to a driven ring, and the driven ring is provided with a sliding column cooperating with the spiral groove on the maintenance cylinder.

[0015] In order to better realize the present invention, further, the flow channel partition is spiral, that is, the formed flow channel is spiral; the inner cylinder of the shaping roller is hollow.

[0016] In order to better implement the present invention, further, the shaping assembly also includes two sealing covers respectively installed on the ends of the inner cylinder of the shaping roller through fastening bolts, and the first axial tube is fixedly connected to the sealing covers.

[0017] Compared with the prior art, the present invention has the following advantages and beneficial effects: (1) The present invention provides a plurality of evenly distributed flow channels, which can make the heat transfer medium flow more evenly and smoothly, control the temperature more quickly and accurately, and effectively prevent local overheating or overcooling. The flow channels are arranged in a spiral shape, which can make the heat transfer medium stay in the shaping roller for a longer time, and further make the heat distribution more even. The effective spiral flow design can reduce the resistance of the heating oil during the circulation process, thereby reducing energy consumption and reducing heat energy loss. (2) The present invention provides a forward flow channel and a reverse flow channel, and the forward flow channel and the reverse flow channel are arranged alternately; thus, the heating effect at both ends of the shaping roller is consistent, and the situation that the temperature at one end is higher than that at the other end is prevented, and the heat distribution is further made more uniform; (3) The present invention provides a heating assembly so that the heat-conducting medium can be evenly heated in the heating box, that is, the forward flow channel and the reverse flow channel can be heated synchronously and equivalently, thereby preventing the forward flow channel and the reverse flow channel from having a temperature difference, and further making the heat distribution more uniform; (4) The present invention can automatically clean fiber impurities on the surface of the shaping roller and apply an anti-stick coating to the surface of the shaping roller by providing a maintenance component, thereby reducing the labor intensity of personnel and effectively preventing scalding accidents caused by improper operation, thereby improving safety.

[0018] (5) The present invention places the shaping roller in the machine and uses the fabric to surround the shaping roller, thereby improving energy utilization and reducing heat loss. At the same time, it prevents people from accidentally touching the shaping roller and causing scalding accidents, thereby improving safety. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0020] Figure 2 It is a front view of the overall structure of the present invention.

[0021] Figure 3 It is a sectional view of the overall structure of the present invention from a left angle.

[0022] Figure 4 It is a schematic diagram of the internal structure of the present invention.

[0023] Figure 5 It is a schematic diagram of the internal structure of the present invention from a front view angle.

[0024] Figure 6 It is a schematic diagram of the internal structure of the present invention from a left angle.

[0025] Figure 7 Schematic diagram of the transport component structure.

[0026] Figure 8 It is a cross-sectional view of the local structure of the molded component.

[0027] Fig. 9 It is a schematic diagram of the structure of the first pipeline and the second pipeline.

[0028] Fig.10 Schematic diagram of the flow channel baffle structure.

[0029] Fig.11 It is a schematic diagram of the inner cylinder structure of the shaping roller.

[0030] Fig.12 It is a schematic diagram of the structure of the first axis tube and the second axis tube.

[0031] Fig.13 It is a cross-sectional view of the structure of the second supply pipe and the first supply pipe.

[0032] Fig.14 It is a cross-sectional view of the heating component structure.

[0033] Fig.15 It is a schematic diagram of the electric heating plate and partition structure.

[0034] Fig.16 This is a schematic diagram of the maintenance component structure.

[0035] Fig.17 This is a cross-sectional view of the local structure of the maintenance component.

[0036] Fig.18 This is a schematic diagram of the brush bar and applicator head structure.

[0037] Fig.19 Schematic diagram of the switching component structure.

[0038] Fig. 20 It is a schematic diagram of the passive block and limit slider structure.

[0039] Among them: 1-machine; 2-transport component; 3-setting component; 4-maintenance component; 5-heating component; 6-fabric; 101-housing; 102-slide rail; 103-sliding support frame; 104-adjusting motor; 105-screw; 106-limiting block; 201-first feeding roller unit; 202-second feeding roller unit; 203-gear; 204-conveying motor; 301-setting roller outer cylinder; 302-driving motor; 303-sealing cover; 304-setting roller inner cylinder; 305-flow channel partition; 306-fastening bolt; 307-first pipeline; 308-second pipeline; 309-first axis tube; 3 10-second axis tube; 311-reinforcement ring; 312-sealing ring; 401-transverse axis; 402-guide rod; 403-support ring; 404-mounting ring; 405-limit slider; 406-maintenance cylinder; 407-passive block; 408-switching member; 409-reset spring; 410-brush strip; 411-applicator head; 412-driven ring; 413-transverse ring; 501-heating box; 502-drive shaft; 503-first rotary connector; 504-second rotary connector; 505-second supply pipe; 506-first supply pipe; 507-ball rod; 508-electric heating plate; 509-partition. DETAILED DESCRIPTION

[0040] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0041] Embodiment 1: This embodiment provides a garment heat setting machine, specifically, Figure 1-Figure 11 As shown, the machine 1 includes a conveying component 2 for conveying the fabric 6, a shaping component 3 for shaping the fabric 6, and a heating component 5 for supplying a heat-conducting medium to the shaping component 3. The shaping component 3 includes a shaping roller, and the shaping roller includes a shaping roller outer cylinder 301, a flow channel member, a shaping roller inner cylinder 304, a first axis tube 309, and a second axis tube 310 which are sequentially sleeved from the outside to the inside; the second axis tube 310 is fixedly mounted on the shaping roller inner cylinder 304, and the first axis tube 309 is fixedly mounted on the second axis tube 310. The cavity inside the second axis tube 310, the cavity between the second axis tube 310 and the first axis tube 309, and the cavity between the shaping roller inner cylinder 304 and the shaping roller outer cylinder 301 are all heat-conducting medium flow cavities, and are respectively recorded as: the first flow cavity, the second flow cavity, and the third flow cavity.

[0042] The flow channel component includes two sealing ring pieces 312 and a flow channel partition 305 fixedly connected between the sealing ring pieces 312; the outer edge of the sealing ring piece 312 is tightly connected to the outer cylinder 301 of the shaping roller, and the inner edge of the sealing ring piece 312 is tightly connected to the inner cylinder 304 of the shaping roller. The 2M flow channel partitions 305 of the conveying component are arranged in a circular array, dividing the third flow cavity into 2M flow channels of the conveying component for the flow of the heat transfer medium, and M forward flow channels and M reverse flow channels of the 2M flow channels of the conveying component are staggered; M is a positive integer; the first flow cavity is connected to the forward flow channel in the third flow cavity through the second pipeline 308 set on the second axial tube 310; the second flow cavity is connected to the reverse flow channel in the third flow cavity through the first pipeline 307 set on the first axial tube 309.

[0043] The outer cylinder 301 of the shaping roller, the inner cylinder 304 of the shaping roller and the flow channel are coaxially arranged, the flow channel partition 305 is spiral, that is, the formed flow channel is spiral; the inner cylinder 304 of the shaping roller is hollow. The heat transfer medium can be heat transfer oil or water.

[0044] By providing the shaping roller inner cylinder 304, the amount of heat-conducting medium in the shaping roller can be greatly reduced, and the hollow design of the shaping roller inner cylinder 304 can be used for heat preservation and reduce heat loss.

[0045] By setting up multiple evenly distributed flow channels, the heat transfer medium can flow more evenly and smoothly, and the temperature control can be faster and more accurate, effectively preventing local overheating or overcooling. Setting the flow channel in a spiral shape can make the heat transfer medium stay in the shaping roller for a longer time, while further making the heat distribution more even. The effective spiral flow design can reduce the resistance of the heating oil during the circulation process, thereby reducing energy consumption and reducing heat energy loss.

[0046] By setting a plurality of staggered forward flow channels and reverse flow channels, the heating effect at both ends of the shaping roller is made consistent, preventing the situation where the temperature at one end is higher than the other end, and further making the heat distribution more uniform.

[0047] A plurality of threaded holes are provided on the inner cylinder 304 of the shaping roller, and the shaping component 3 also includes two sealing covers 303 respectively fixedly mounted on the two ends of the inner cylinder 304 of the shaping roller by fastening bolts 306, the first axis tube 309 is fixedly connected to the sealing cover 303, the first axis tube 309 and the second axis tube 310 are reinforced by a reinforcement ring 311, and a driving motor 302 is fixedly installed on the machine 1, and the driving motor 302 is connected to a first axis tube 309 by a belt sleeve, so as to drive the shaping roller to rotate.

[0048] By providing the sealing cover 303 , the first pipe 307 and the second pipe 308 can be protected and heat dissipation can be reduced.

[0049] By placing the shaping roller in the machine platform 1, it is possible to prevent the operator from accidentally touching the shaping roller when it is working, thereby preventing accidents such as burns, thereby improving the safety of the device and ensuring the safety of personnel.

[0050] Embodiment 2: This embodiment is further expanded on the basis of Embodiment 1. Figure 12-Figure 15 As shown, the heating component 5 includes a pump body for heating the heat-conducting medium and two groups of supply pipes connected to the two sides of the pump body; the pump body includes a heating box 501 installed on the outer shell 101, the ball pair on the heating box 501 is connected to the ball rod 507, the driving shaft 502 is installed on the driving motor 302, the driving shaft 502 is rotatably connected to the ball rod 507, a partition 509 is fixedly installed on the heating box 501, and an electric heating plate 508 is fixedly installed on the ball rod 507, and the electric heating plate 508 is in contact with the partition 509; both sides of the heating box 501 are provided with an inlet hole for the heat-conducting medium to flow in and an outlet hole for the heat-conducting medium to flow out, and the inlet hole and the outflow hole on the same side are distributed on both sides of the partition 509.

[0051] When the driving shaft 502 drives the ball rod 507 , the ball rod 507 drives the electric heating plate 508 to swing, and the electric heating plate 508 cooperates with the partition plate 509 in the heating box 501 to discharge and absorb the heat-conducting medium.

[0052] The supply pipes include a second supply pipe 505, a first supply pipe 506, a second rotating connector 504 installed on the second supply pipe 505, and a first rotating connector 503 installed on the first supply pipe 506, the first axial tube 309 is connected to the first rotating connector 503, and the second axial tube 310 is connected to the second rotating connector 504; in one group of supply pipes, the second supply pipe 505 is connected to the inflow hole on the same side, and the first supply pipe 506 is connected to the outflow hole on the same side; in another group of supply pipes, the second supply pipe 505 is connected to the outflow hole on the same side, and the first supply pipe 506 is connected to the inflow hole on the same side, and the second supply pipe 505 and the first supply pipe 506 are both hoses.

[0053] When the heat-conducting medium in the heating box 501 enters the second supply pipe 505, it is transported to the second axis tube 310 on the same side, and then enters the flow channel of the shaping roller through the second pipe 308 for heating, and then is discharged from the second pipe 308 on the other side to the second axis tube 310, and then is sucked into the heating box 501 through the corresponding second supply pipe 505 to complete the cycle. The same applies to the first supply pipe 506.

[0054] By providing the heating assembly 5, the heat-conducting medium can be evenly heated in the heating box 501, so that the forward flow channel and the reverse flow channel can be heated synchronously and equivalently, preventing temperature difference between the forward flow channel and the reverse flow channel, and further making the heat distribution more uniform.

[0055] Embodiment 3: This embodiment is further expanded on the basis of Embodiment 1 or 2. Figure 6-Figure 7 As shown, the conveying assembly 2 includes two groups of feed rollers, one group of feed rollers is used for feeding, and the other group of feed rollers is used for discharging. The feed rollers include a first feed roller unit 201 and a second feed roller unit 202. The first feed roller unit 201 and the second feed roller unit 202 are rotatably connected to the housing 101. Gears 203 are fixedly installed on the first feed roller unit 201 and the second feed roller unit 202, and the two gears 203 are meshed. The two first feed roller units 201 achieve synchronous movement by means of a belt. A conveying motor 204 is installed on the housing 101, and the conveying motor 204 is transmission-connected to the second feed roller unit 202 in a group of feed rollers.

[0056] The conveying motor 204 drives the second feed roller unit 202 to rotate. The second feed roller unit 202 rotates the first feed roller unit 201 of the same group through the gear 203. The first feed roller unit 201 rotates the first feed roller unit 201 of the other group synchronously through the belt, so as to achieve the synchronous movement of the two groups of feed rollers. The first feed roller unit 201 and the second feed roller unit 202 are both covered with rubber, so that the first feed roller unit 201 and the second feed roller unit 202 firmly clamp the fabric 6; the linear speed of the shaping roller is the same as that of the first feed roller unit 201 and the second feed roller unit 202, so as to prevent the fabric 6 from sliding with the shaping roller.

[0057] The shaping roller is arranged between the two groups of feeding rollers so that the fabric 6 can be covered on the shaping roller, thereby increasing the contact time between the shaping roller and the fabric 6 and effectively reducing the heat loss on the shaping roller.

[0058] like Figure 7 As shown, the machine 1 includes a shell 101, two sets of slide rails 102 are fixedly connected to the shell 101, a sliding support frame 103 is slidably connected to the slide rails 102, and the first rotating connector 503 is installed on the sliding support frame 103; a pressure regulating unit is provided on the machine 1, and the pressure regulating unit includes an adjusting motor 104 installed on the shell 101, a screw 105 is installed on the adjusting motor 104, and the screw 105 is threadedly connected to the sliding support frame 103.

[0059] By adjusting the motor 104 to drive the screw 105 to control the sliding support frame 103 to move up and down, the fabric 6 is tensioned by the shaping roller. By controlling the displacement of the sliding support frame 103, the tensioning force of the shaping roller on the fabric 6, that is, the pressure of the shaping roller on the fabric 6, is controlled to improve the shaping effect.

[0060] Embodiment 4: This embodiment is further expanded on the basis of Embodiment 3. Figure 16-Figure 19 As shown, the sliding support frame 103 is provided with a maintenance assembly 4, and the maintenance assembly 4 includes a coating unit for coating an anti-stick coating and a lateral movement unit for driving the coating unit to move. The coating unit includes a guide rail rod 402 fixedly connected to the sliding support frame 103, a support ring 403 is slidably connected to the guide rail rod 402, a plurality of mounting rings 404 are fixedly mounted on the support ring 403, a maintenance cylinder 406 is installed on the mounting ring 404, a limit slider 405 is fixedly mounted on the maintenance cylinder 406, the limit slider 405 is embedded in the mounting ring 404, and a coating head 411 is provided on the maintenance cylinder 406.

[0061] like Figure 16-Figure 19As shown, the transverse movement unit includes a transverse movement shaft 401 rotatably connected to the sliding support frame 103, the transverse movement shaft 401 is connected to the first axis tube 309 through a belt, and two sections of mirror-imaged and connected thread grooves are arranged on the transverse movement shaft 401, a transverse movement ring 413 is sleeved on the transverse movement shaft 401, and a switching member 408 is movably connected to the transverse movement ring 413, the switching member 408 cooperates with the thread groove, and a return spring 409 is arranged between the switching member 408 and the transverse movement ring 413, a limit block 106 is installed on the housing 101, and the switching member 408 cooperates with the limit block 106; a passive block 407 is fixedly connected to the maintenance cylinder 406, and the passive block 407 cooperates with the transverse movement ring 413.

[0062] When the shaping roller is working, the adjustment unit will drive the sliding support frame 103 to move downward so that the fabric 6 is tensioned. At this time, since the limit block 106 limits the downward displacement of the switching member 408, the return spring 409 is stretched, and the switching member 408 does not engage with the thread groove on the transverse shaft 401. When the transverse shaft 401 rotates synchronously with the shaping roller, the transverse ring 413 will not move horizontally; when the shaping roller is finished, the sliding support frame 103 is reset. At this time, the transverse ring 413 is reset synchronously. Under the action of the return spring 409, the switching member 408 is embedded in the thread groove on the transverse shaft 401; since the passive block 407 limits the transverse ring 413, the transverse ring 413 cannot rotate. 01 rotates, the switching member 408 starts to drive the transverse ring 413 to move transversely along the transverse shaft 401 axially, at this time the switching member 408 disengages from the limit block 106, the transverse ring 413 moves transversely to push the passive block 407, because the limit slider 405 is embedded in the mounting ring 404, at this time the maintenance cylinder 406 cannot rotate, so the passive block 407 drives the maintenance cylinder 406 and the entire support ring 403 to start transverse movement, at this time the coating head 411 starts to apply the anti-stick coating to the surface of the outer cylinder 301 of the shaping roller, when the transverse ring 413 moves to the other end of the transverse shaft 401, the switching member 408 engages with another threaded groove, at this time the transverse ring 413 starts to move transversely and reset, and the coating head 411 completes the coating work.

[0063] Embodiment 5: This embodiment is further expanded on the basis of Embodiment 4. Fig. 20 As shown, the mounting ring 404 is provided with a slide groove cooperating with the limiting slider 405, and the maintenance cylinder 406 is provided with a brush strip 410; a plurality of spiral grooves are provided in a circumferential array on the maintenance cylinder 406, and the support ring 403 is rotatably connected to a driven ring 412, and the driven ring 412 is provided with a slide column meshing with the spiral groove on the maintenance cylinder 406.

[0064] Since the mounting ring 404 is provided with a slide groove, when the transverse ring 413 pushes the passive block 407, the passive block 407 first rotates the maintenance cylinder 406 connected thereto and then pushes the maintenance cylinder 406 to move transversely. When the maintenance cylinder 406 rotates, the spiral groove arranged on it causes the driven ring 412 to start rotating. The rotation of the driven ring 412 causes the remaining maintenance cylinders 406 to rotate synchronously. Therefore, after all the maintenance cylinders 406 rotate, the brush strip 410 contacts the surface of the outer cylinder 301 of the shaping roller. After that, when the maintenance cylinder 406 moves transversely, the brush strip 410 will sweep away the impurities such as fibers that may be adhered to the surface of the outer cylinder 301 of the shaping roller; when the transverse ring 413 starts to move transversely and reset, the transverse ring 413 also pushes the passive block 407. At this time, the passive block 407 causes all the maintenance cylinders 406 to rotate, and then the coating head 411 contacts the surface of the outer cylinder 301 of the shaping roller. During the transverse reset process of the transverse ring 413, the coating head 411 completes the coating work.

[0065] Embodiment 6: This embodiment provides an application description of the working principle based on the embodiment 5, wherein the heat transfer medium is heat transfer oil, and the 2M is 108; at the initial stage of shaping the fabric 6, the fabric 6 is first passed through the feed roller for feeding, then wound around the shaping roller, and then passed through the feed roller for discharging; at this time, the regulating motor 104 is started, so that the sliding support frame 103 drives the shaping roller to move downward until the fabric 6 is tensioned to the required degree, and at the same time, the electric heating plate 508 is turned on to heat the heat transfer oil in the heating box 501, and then the conveying motor 204 and the driving motor 302 are started, at this time, the fabric 6 starts to move, and at the same time, the heat transfer oil in the heating box 501 also starts to be transported to the shaping roller along the second supply pipe 505 and the first supply pipe 506, at this time, the heat transfer oil starts to heat the shaping roller, and the shaping roller shapes the fabric 6; then the heat transfer oil returns to the heating box 501 to continue heating and circulation.

[0066] After a certain period of use, before starting the operation, the sliding support frame 103 is placed in the initial position. At this moment, the switching member 408 is embedded in a threaded groove on the transverse shaft 401. The adjusting motor 104 is not started. At this moment, the driving motor 302 is directly started. At this moment, both the shaping roller and the transverse shaft 401 begin to rotate, and the transverse ring 413 begins to transversely move under the drive of the switching member 408. The transverse ring 413 pushes the passive block 407 to make the maintenance cylinder 406 rotate first. After the rotation, the brush strip 410 on the maintenance cylinder 406 begins to contact the surface of the shaping roller. The maintenance cylinder 406 then moves horizontally backward, allowing the brush strip 410 to sweep away fibers and other impurities on the surface of the shaping roller; when the switching member 408 moves to the end of the horizontal movement shaft 401, it automatically runs into another threaded groove. At this time, the horizontal movement ring 413 is reset, and the horizontal movement ring 413 pushes the passive block 407 to make the maintenance cylinder 406 rotate first and then move horizontally backward. After the maintenance cylinder 406 rotates in the opposite direction, the coating head 411 contacts the surface of the shaping roller, so that the coating head 411 applies the anti-stick coating to the surface of the shaping roller to prevent the shaping roller from sticking to the fabric 6 after long-term use.

[0067] The above description is only a preferred embodiment of the present invention and does not limit the present invention in any form. Any simple modification or equivalent change made to the above embodiment based on the technical essence of the present invention shall fall within the protection scope of the present invention.

Claims

1. A garment heat setting machine, comprising a machine platform (1), wherein the machine platform (1) is provided with a conveying component (2) for conveying a fabric (6), a setting component (3) for setting the fabric (6), and a heating component (5) for supplying a heat-conducting medium to the setting component (3), wherein: The shaping component (3) comprises a driving motor (302) and a shaping roller which are connected in a transmission manner. The shaping roller comprises a shaping roller outer cylinder (301), a flow channel component, a shaping roller inner cylinder (304), a first axial tube (309), and a second axial tube (310) which are sequentially sleeved from the outside to the inside. The second axial tube (310) is mounted on the shaping roller inner cylinder (304), and the first axial tube (309) is mounted on the second axial tube (310). The cavity inside the second axial tube (310), the cavity between the second axial tube (310) and the first axial tube (309), and the cavity between the shaping roller inner cylinder (304) and the shaping roller outer cylinder (301) are all heat transfer medium flow cavities, and are respectively recorded as: a first flow cavity, a second flow cavity, and a third flow cavity. The flow channel component comprises two sealing ring pieces (312) and a flow channel partition plate (305) arranged between the sealing ring pieces (312); the outer edge of the sealing ring piece (312) is tightly connected to the outer cylinder (301) of the shaping roller, and the inner edge of the sealing ring piece (312) is tightly connected to the inner cylinder (304) of the shaping roller; 2M flow channel partition plates (305) are arranged in a circular array to divide the third flow cavity into 2M flow channels for the heat transfer medium to flow, and M forward flow channels and M reverse flow channels of the 2M flow channels are arranged alternately; M is a positive integer; The first flow chamber is in communication with the forward flow passage in the third flow chamber via a second pipe (308) that is provided through the second axial tube (310); The second flow chamber is in communication with the reverse flow passage in the third flow chamber via a first pipe (307) that is provided through the second axial tube (309).

2. A garment heat setting machine according to claim 1, characterized in that: The heating assembly (5) comprises a pump body for heating a heat-conducting medium and two groups of supply pipes connected to both sides of the pump body; the pump body comprises a heating box (501) mounted on the machine (1); a ball pair on the heating box (501) is connected to a ball rod (507); a driving shaft (502) is mounted on the driving motor (302); the driving shaft (502) is rotatably connected to the ball rod (507); a partition (509) is mounted on the heating box (501); an electric heating plate (508) is mounted on the ball rod (507); the electric heating plate (508) cooperates with the partition (509); both sides of the heating box (501) are provided with an inflow hole for the heat-conducting medium to flow in and an outflow hole for the heat-conducting medium to flow out, and the inflow hole and the outflow hole on the same side are distributed on both sides of the partition (509); The supply pipe comprises a second supply pipe (505), a first supply pipe (506), a second rotating connector (504) installed on the second supply pipe (505), and a first rotating connector (503) installed on the first supply pipe (506); the first axial tube (309) is connected to the first rotating connector (503), and the second axial tube (310) is connected to the second rotating connector (504); in one group of supply pipes, the second supply pipe (505) is connected to the inflow hole on the same side, and the first supply pipe (506) is connected to the outflow hole on the same side; in another group of supply pipes, the second supply pipe (505) is connected to the outflow hole on the same side, and the first supply pipe (506) is connected to the inflow hole on the same side.

3. A garment heat setting machine according to claim 1, characterized in that: The conveying assembly (2) comprises two groups of feed rollers, one group of feed rollers is used for feeding, and the other group of feed rollers is used for discharging. The feed rollers comprise a first feed roller unit (201) and a second feed roller unit (202). Gears (203) are installed on the first feed roller unit (201) and the second feed roller unit (202), and the two gears (203) are meshed. The two first feed roller units (201) are synchronously moved by being sleeved with a belt. A conveying motor (204) is installed on the machine (1), and the conveying motor (204) is drivingly connected to the second feed roller unit (202) in the group of feed rollers.

4. A garment heat setting machine according to claim 2, characterized in that: The machine (1) comprises a housing (101), two sets of slide rails (102) are fixedly connected to the housing (101), a slide support frame (103) is slidably connected to the slide rails (102), and the first rotary connector (503) is mounted on the slide support frame (103); a pressure regulating unit is provided on the machine (1), and the pressure regulating unit comprises an regulating motor (104) mounted on the housing (101), a screw rod (105) is mounted on the regulating motor (104), and the screw rod (105) is threadedly connected to the slide support frame (103).

5. A garment heat setting machine according to claim 4, characterized in that: A maintenance component (4) is provided on the sliding support frame (103), and the maintenance component (4) comprises a coating unit for coating an anti-stick coating and a transverse movement unit for driving the coating unit to move.

6. A garment heat setting machine according to claim 5, characterized in that: The coating unit comprises a guide rail rod (402) fixedly connected to a sliding support frame (103), a support ring (403) slidably connected to the guide rail rod (402), a plurality of mounting rings (404) mounted on the support ring (403), a maintenance cylinder (406) mounted on the mounting ring (404), a limit slider (405) mounted on the maintenance cylinder (406), the limit slider (405) embedded in the mounting ring (404), and a coating head (411) arranged on the maintenance cylinder (406).

7. A garment heat setting machine according to claim 6, characterized in that: The transverse movement unit comprises a transverse movement shaft (401) rotatably connected to the sliding support frame (103), the transverse movement shaft (401) being connected to the first axis tube (309) via a belt, the transverse movement shaft (401) being provided with two mirror-image-arranged and connected thread grooves, the transverse movement shaft (401) being movably connected to a transverse movement ring (413), the transverse movement ring (413) being provided with a switching member (408), the switching member (408) cooperating with the thread groove, a return spring (409) being provided between the switching member (408) and the transverse movement ring (413), a limit block (106) being installed on the housing (101), the switching member (408) cooperating with the limit block (106); a passive block (407) being fixedly connected to the maintenance cylinder (406), the passive block (407) cooperating with the transverse movement ring (413).

8. A garment heat setting machine according to claim 7, characterized in that: The mounting ring (404) is provided with a sliding groove cooperating with the limiting sliding block (405), and the maintenance cylinder (406) is provided with a brush strip (410); a plurality of spiral grooves are provided in a circumferential array on the maintenance cylinder (406), and the support ring (403) is rotatably connected to a driven ring (412), and the driven ring (412) is provided with a sliding column cooperating with the spiral groove on the maintenance cylinder (406).

9. A garment heat setting machine according to claim 1, characterized in that: The flow channel partition (305) is spiral-shaped, that is, the formed flow channel is spiral-shaped; and the inner cylinder (304) of the shaping roller is hollow.

10. A garment heat setting machine according to claim 1, characterized in that: The shaping assembly (3) further comprises two sealing covers (303) respectively mounted on the ends of the shaping roller inner cylinder (304) via fastening bolts (306), and the first axial core tube (309) is fixedly connected to the sealing covers (303).

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