Integrated quilting-seam-free three-dimensional down-filled down jacket template

Abstract

The invention discloses an integrated quilting-seam-free three-dimensional down-filled down jacket template in the technical field of down jacket templates. The integrated quilting-seam-free three-dimensional down-filled down jacket template comprises a template I, a template II and a template III, wherein the template II and the template III are rotationally connected to the two sides of Wherein a plurality of sets of grooves are formed in the first mold plate, a plurality of sets of protruding blocks corresponding to the grooves are arranged on the second mold plate, a heating press-fit part is arranged on the third mold plate, and the heating press-fit part is correspondingly pressed in the outer side area of the top of the three-dimensional down feather cavity when the third mold plate turns over towards the first mold plate for mold closing. The fabric I, the hot melt adhesive net film and the fabric II are bonded at corresponding positions. According to the down jacket template disclosed by the invention, through the turnover die assembly cooperation of the template I, the template II and the template III and the arrangement of the heating press-fit part, the integrated forming of down jacket cut-parts is realized, a traditional quilting process is abandoned, the problems of cold spots and down penetration from needle holes caused by sewing stitches are effectively eliminated, and the warm keeping performance and durability of the down jacket are improved.

Description

Technical Field

[0001] This invention relates to the field of down jacket templates, specifically to an integrated seamless three-dimensional down-filled down jacket template. Background Technology

[0002] Traditional down jacket manufacturing typically involves producing multiple individual down jacket panels and then assembling them into a garment. This process commonly relies on quilting, which involves sewing multiple lines into the fabric using a sewing machine to create a grid pattern for the down filling. While simple and easy, this method suffers from several drawbacks in actual wear. The quilted seams compress the fabric, leading to reduced warmth and creating "cold spots." Furthermore, the needle holes can cause down to escape, affecting both aesthetics and lifespan. Therefore, we propose an integrated, seamless, three-dimensional down-filled jacket template. Summary of the Invention

[0003] The purpose of this invention is to provide an integrated seamless three-dimensional down-filled jacket template, which solves the technical problems of existing down jackets made by quilting processes, such as reduced warmth retention and "cold spots" caused by the fabric being compressed at the quilting seams, and the down feathers easily leaking out through the sewing needle holes, affecting the appearance and service life.

[0004] The present invention achieves the above objectives through the following technical solutions: An integrated seamless three-dimensional down-filled jacket template includes a template one and template two and template three, which are rotatably connected to both sides of the template one. The template one is used to support the fabric one and the hot melt adhesive mesh from bottom to top. The template one has several sets of grooves. The template two has several sets of protrusions corresponding to the grooves. When the template two is flipped and closed with the template one, the protrusions are embedded into the corresponding grooves, so that multiple three-dimensional down cavities with open tops are formed on the fabric one. The template three is used to support the fabric two. The template three has a heating and pressing part. When the template three is flipped and closed with the template one, the heating and pressing part is pressed onto the top outer area of ​​the three-dimensional down cavity to bond the fabric one, the hot melt adhesive mesh and the fabric two at the corresponding positions.

[0005] A further improvement is that the inner wall of the groove is provided with a positioning adhesive strip one, and the template three is provided with a positioning adhesive strip two on the side facing the template one after being flipped over.

[0006] A further improvement is that both template two and template three are provided with locking components, and template one is provided with a receiving part for cooperating with the locking components. The locking components are used to detachably and fix the template one after template two or template three are flipped and closed.

[0007] A further improvement is that the template two is also provided with a tube placement component. The tube placement component includes guide frames symmetrically arranged on both sides of the template two. Each guide frame is connected to a horizontal slider through a pivot shaft. The horizontal slider is slidably arranged on the side wall of the template two. A vertical slider is slidably arranged in each guide frame. A diverter is arranged between the vertical sliders on both sides. One end of the diverter is rotatably connected to a vertical slider through a pivot shaft, and the other end is connected to a connecting pipe. The connecting pipe movably passes through another vertical slider. The outer wall of the diverter is connected to several sets of Z-shaped down filling tubes for filling the three-dimensional down cavity. The down filling tubes correspond one-to-one with the grooves.

[0008] A further improvement is that the first rotating shaft and the guide frame are rotatably connected and fixedly connected by a first fixing member. The vertical slider is provided with a second fixing member for fixing it to the second rotating shaft. A groove is provided on one side of the horizontal slider. A toggle block is slidably provided in the groove. One side of the toggle block is connected to the inner wall of one side of the groove through an elastic member. An insertion rod is provided on the other side of the toggle block. Several sets of blind holes for inserting the insertion rod are provided along the length of the side wall of the second template.

[0009] A further improvement is that, after the template three is flipped over, a notch is opened on the side facing the template one, and a support block is fixedly provided in the notch corresponding to the groove position. The heating and pressing part is located between the support block and the notch. The heating and pressing part includes a pressing part one and a pressing part two. The pressing part one is used to press three sides of the top of the three-dimensional down cavity, and the pressing part two is used to press the other side of the top of the three-dimensional down cavity.

[0010] A further improvement is that the pressing component includes a movable frame 1 located in the recess and movably sleeved on the outside of the support block. The movable frame 1 is provided with a U-shaped heating pressure plate, which is used to be sleeved on the periphery of all the grooves when the template 3 is flipped and closed. A vertical heating pressure plate is integrally connected to one side of the U-shaped heating pressure plate at the position between adjacent grooves. One side of both the U-shaped heating pressure plate and the vertical heating pressure plate passes through the recess and is flush with the surface of the support block and the template 3. Several sets of support rods are provided on the side of the movable frame 1 away from the U-shaped heating pressure plate. Each support rod movably passes through the template 3 and is connected to a pressing plate 1 located on its outside. An elastic connector is provided between the movable frame 1 and the inner wall of the recess.

[0011] A further improvement is that the second pressing component includes a transverse heating plate disposed within the recess and parallel to the transverse section of the U-shaped heating plate. When the template three is flipped and closed, the transverse heating plate is located on the side of the groove facing the template two. One side of the transverse heating plate is in contact with the ends of the U-shaped heating plate and the vertical heating plate. The U-shaped heating plate, the vertical heating plate, and the transverse heating plate are used to jointly enclose and form several heating and pressing contours corresponding to the outer region of the top of the three-dimensional down cavity. The transverse heating plate is disposed on the second movable frame, which is movably disposed within the recess. One side of the second movable frame is provided with several sets of support rods. Each support rod movably passes through the template three and is connected to the second pressing plate located on its outer side. An elastic connector is provided between the second movable frame and the inner wall of the recess.

[0012] A further improvement is that the template is mounted on the mounting base.

[0013] The beneficial effects of this invention are as follows: The down jacket template of this invention achieves integrated molding of down jacket pieces through the collaborative flipping and closing of template one, template two, and template three, as well as the setting of a heated pressing part. It abandons the traditional quilting process, effectively eliminates the problems of "cold spots" and down leakage caused by sewing stitches, and improves the warmth and durability of down jackets. By using the cooperation of protrusions and grooves to pre-form a three-dimensional down cavity, the down can be evenly and fluffily filled in the three-dimensional space, which not only improves the warmth efficiency, but also gives the garment a better three-dimensional aesthetic. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the down jacket template structure of the present invention; Figure 2 This is a schematic diagram of the template two structure in this invention; Figure 3 For the present invention Figure 2 Another perspective structural diagram; Figure 4 For the present invention Figure 2 Enlarged schematic diagram of structure A in the image; Figure 5 This is a schematic diagram of the template three-structure in this invention; Figure 6 This is a schematic diagram of the pressing component one and pressing component two in this invention.

[0015] In the diagram: 100, Template 1; 101, Groove; 102, Positioning Adhesive Strip 1; 200, Template 2; 201, Protrusion; 300, Tube Placement Component; 301, Guide Frame; 302, Horizontal Slider; 303, Actuating Block; 304, Elastic Component; 305, Diverter; 306, Connecting Pipe; 307, Filling Pipe; 308, Fixing Component 1; 400, Template 3; 401, Support Block; 402, Pressing Component 1; 4021, Movable Frame 1; 4022, Vertical Heating Pressing Plate; 4023, U-shaped Heating Pressing Plate; 4024, Pressing Plate 1; 403, Pressing Component 2; 4031, Horizontal Heating Pressing Plate; 4032, Movable Frame 2; 4033, Pressing Plate 2; 500, Mounting Base; 600, Locking Component. Detailed Implementation

[0016] The present application will now be described in further detail with reference to the accompanying drawings. It should be noted that the following specific embodiments are only used to further illustrate the present application and should not be construed as limiting the scope of protection of the present application. Those skilled in the art can make some non-essential improvements and adjustments to the present application based on the above application content.

[0017] Example 1 Please see the appendix Figure 1 An integrated seamless three-dimensional down-filled jacket template includes a template 100 and templates 200 and 300 rotatably connected to both sides of the template 100 via hinges or pivots, respectively. Templates 200 and 300 can be independently flipped. The template 100 is used to support the fabric 1 and the hot melt adhesive web film sequentially from bottom to top (a conventional structure in this field, which will not be described in detail here). Specifically, the fabric 1 is first laid on the template 100, then the fabric 1 is processed and the hot melt adhesive web film is laid on its surface. The template 100 has several sets of grooves 101, as shown in the attached figure. Figure 1 As shown, in this embodiment, the groove 101 is provided with at least three sets. The groove 101 is used to form a three-dimensional down cavity on the fabric. The template 200 is provided with several sets of protrusions 201 corresponding to the groove 101. When the template 200 flips and closes the mold to the template 100, the protrusions 201 are embedded into the corresponding groove 101, so that multiple three-dimensional down cavities with open tops are formed on the fabric, so that down can be filled into them later. The template 300 is used to support the fabric. The template 300 is provided with a heating and pressing part. When the template 300 flips and closes the mold to the template 100, the heating and pressing part is pressed onto the top outer area of ​​the three-dimensional down cavity to bond the fabric, the hot melt adhesive mesh and the fabric 2 at the corresponding positions. The down jacket template is used as follows: First, lay fabric 1 on template 100, covering all the grooves 101. Then, flip template 200 towards template 100, pressing the protrusions 201 on template 200 into the corresponding grooves 101. This causes fabric 1 to partially sink into the grooves 101, creating multiple open-topped three-dimensional down cavities on fabric 1. A preset amount of down is then injected into these cavities manually or using auxiliary filling equipment. After filling, a hot melt adhesive mesh is applied to fabric 1. Next, fabric 2 is laid on template 300 and flipped towards template 100. Template 3 400 is used to mold template 1 100, which carries fabric 1, down, and hot melt adhesive mesh. Finally, heat and pressure are applied to the outer top area of ​​the three-dimensional down cavity through the heating and pressing part on template 3 400, so that fabric 1, hot melt adhesive mesh and fabric 2 are permanently bonded in this area. This completes the integrated seamless three-dimensional molding of a single down jacket piece. This method not only eliminates the pinholes and stitches produced by traditional quilting process, eliminates the risk of down leakage and improves the appearance of the garment, but also ensures that the shape, size and bonding strength of each three-dimensional down cavity are highly consistent through the template preparation, which improves production efficiency and product quality stability.

[0018] Preferably, the inner wall of the groove 101 in this embodiment is provided with a positioning adhesive strip 102. The positioning adhesive strip 102 can temporarily bond and fix the part of the fabric that is embedded in the groove 101 after the protrusion 201 is pressed into the groove 101 to form a three-dimensional down cavity. This ensures that the three-dimensional down cavity formed on the fabric can remain stable after the template 200 is flipped open and the protrusion 201 is removed from the groove 101, providing reliable shape retention for the subsequent down filling process. After the template 3 400 is flipped, a positioning adhesive strip 2 is provided on the side facing the template 100. This is used to flatly bond and fix the fabric to its correct position, preventing it from shifting during the flipping and mold closing process. Optionally, the positioning adhesive strip 1 and positioning adhesive strip 2 in this embodiment can be made of reusable low-adhesion double-sided tape or electrostatic adsorption material, etc., which will not be described in detail here.

[0019] Preferably, both template 200 and template 3 400 in this embodiment are provided with locking members 600, and template 1 100 is provided with a receiving part for cooperating with the locking member 600. The locking member 600 is used to detachably and fix the template 200 or template 3 400 after they are flipped and closed. When template 200 or template 3 400 are flipped towards template 1 100 and the mold is closed, a quick and reliable detachable and fixed connection can be achieved through these locking members 600 and the corresponding receiving parts on template 1 100. The locking member 600 and the receiving part can adopt a variety of connection forms known to those skilled in the art, such as the cooperation of pin and pin hole, the fastening of bolt and nut, etc., which will not be described in detail here.

[0020] Preferably, in this embodiment, the template 100 is mounted on the mounting base 500, which facilitates the installation of the down jacket template in a designated position for use.

[0021] Example 2 Please see the appendix Figure 1-6 Based on Embodiment 1, the template 200 in this embodiment is further provided with a tube placement component 300. The tube placement component 300 includes guide frames 301 symmetrically arranged on both sides of the template 200. Each guide frame 301 is connected to a horizontal slider 302 through a pivot. The horizontal slider 302 is slidably disposed on the side wall of the template 200. The guide frame 301 can be adjusted in angle through the pivot and its position on the side wall of the template 200 can be adjusted through the horizontal slider 302. A vertical slider is slidably disposed within each guide frame 301. A diverter 305 is provided between the vertical sliders on both sides. The vertical cross section of the diverter 305 is circular and is used to evenly distribute down. One end of the diverter 305 is rotatably connected to a vertical slider through a rotating shaft, and the other end is connected to a connecting pipe 306. The connecting pipe 306 movably passes through another vertical slider and is connected to the output end of an external auxiliary down filling device. Several sets of Z-shaped down filling tubes 307 for filling the three-dimensional down cavity are connected to the outer wall of the diverter 305. The down filling tubes 307 correspond one-to-one with the grooves 101. During operation, once the fabric forms a three-dimensional down-filled cavity on template 100, as... Figure 2-3As shown, firstly, the guide frame 301 is rotated and adjusted to a vertical position. Then, the guide frame 301 is moved to a position close to the template 100 by sliding the horizontal slider 302. Subsequently, the orientation and height of the Z-shaped down filling tube 307 are adjusted by rotating the distributor 305 and sliding the vertical slider, so that the Z-shaped down filling tube 307 is above the corresponding three-dimensional down cavity. Finally, a hot melt adhesive mesh is laid to prepare for subsequent down filling. In this embodiment, the section of the Z-shaped down filling tube 307 parallel to the template 100 is an elastic tube section, which can be pressed by the template 300 when the template 300 is closed. The shape can be adjusted to adapt to different conditions; when the filling process is completed or the device is not in use, it can be conveniently stored by reversing the operation: first, move the distributor 305 to the preset height, rotate the distributor 305 to adjust the Z-shaped filling tube 307 to a specific angle, then move the horizontal slider 302 to a position where the template 200 is away from the template 100, and finally rotate the guide frame 301 to a horizontal position to ensure that the tube placement component 300 will not be spatially interfered when the template 200 flips to the template 100 for mold closing, thus realizing the flexible conversion between the working state of the tube placement component 300 and the non-working state of storage.

[0022] Preferably, in this embodiment, the rotating shaft 1 and the guide frame 301 are rotatably connected by a bearing, so that the guide frame 301 can rotate around the axis of the rotating shaft 1 for angle adjustment, and the two are fixedly connected by a fixing member 308. The vertical slider is provided with a fixing member 2 for fixing it to the rotating shaft 2. In this embodiment, the fixing member 1 308 and the fixing member 2 can adopt the same structure, for example, including a disc body fixedly sleeved on the outer wall of the rotating shaft 1 or the rotating shaft 2. Multiple sets of insertion holes are evenly opened on the circumferential outer wall of the disc body. At the same time, a manually operable pin is installed at the corresponding position of the guide frame 301 or the vertical slider. By inserting the pin into the corresponding insertion hole, the angle of the guide frame 301 or the angle of the diverter 305 can be reliably fixed after adjustment. A groove is provided on one side of the horizontal slider 302. A toggle block 303 for manual operation is slidably provided in the groove. One side of the toggle block 303 is connected to the inner wall of the groove through an elastic element 304 (such as a spring). An insertion rod is provided on the other side of the toggle block 303. Several sets of blind holes for insertion rods are provided along the length of the side wall of the template 200. By toggling the toggle block 303 to overcome the elastic force of the elastic element 304, the insertion rod can be retracted. After moving the horizontal slider 302 to the target position, the toggle block 303 is released. The insertion rod automatically springs into the corresponding blind hole under the action of the elastic element 304, thereby realizing the rapid positioning and firm fixation of the horizontal slider 302 on the side wall of the template 200. In addition, in this embodiment, a pin hole 1 can be opened on one side of the vertical slider, and multiple sets of pin holes 2 can be opened from top to bottom on the corresponding side of the guide frame 301. By inserting the locking pin into any pin hole 2 on the side wall of the guide frame 301 and extending it into the pin hole 1, the vertical slider can be locked at that height position.

[0023] Preferably, in this embodiment, after the template 3 400 is flipped, a notch is opened on the side facing the template 1 100. A support block 401 is fixedly installed in the notch corresponding to the groove 101. The heating and pressing part is located between the support block 401 and the notch. The heating and pressing part includes a pressing component 1 402 and a pressing component 2 403. The pressing component 1 402 is used to press three sides of the top of the three-dimensional down cavity, and the pressing component 2 403 is used to press the other side of the top of the three-dimensional down cavity. The two are spatially complementary and work together to cover the entire closed boundary of the top of each three-dimensional down cavity. In this way, when the Z-shaped down filling tube 307 is located above the corresponding three-dimensional down cavity and the hot melt adhesive mesh is laid, the template 3 400 is first flipped to close with the template 1 100. The pressing component 1 402... The process involves pressing and heating three sides of the top of the three-dimensional down cavity. After these three sides are firmly bonded through heat pressing, the template 3 400 is flipped off from the fabric 2. Then, a fixed amount of down is filled into the corresponding three-dimensional down cavity through each Z-shaped down filling tube 307. After the down filling operation is completed, the tube placement component 300 is moved away from the work position as a whole, so that the Z-shaped down filling tube 307 is completely removed from the area above the template 1 100. Subsequently, the template 3 400 is flipped and closed. Through the individual action of the pressing component 2 403, the previously reserved area on the top of the three-dimensional down cavity is pressed and heated, thereby completing the complete sealing of the top of the three-dimensional down cavity. This method forms a partially stable adhesive boundary before down filling, effectively preventing the diffusion and splashing of down to non-target areas during the down filling process, thus improving the down filling quality.

[0024] Preferably, the pressing component 402 in this embodiment includes a movable frame 4021 disposed within the recess and movably sleeved on the outside of the support block 401. The movable frame 4021 has a through-hole that mates with the support block 401, ensuring that the movement of the movable frame 4021 does not interfere with the support block 401. A U-shaped heating plate 4023 is provided on the movable frame 4021. The U-shaped heating plate 4023 is used to correspondingly sleeve around the periphery of all the grooves 101 when the template 3 400 is flipped and closed. A vertical heating plate 4022 is integrally connected to one side of the U-shaped heating plate 4023 at a position between adjacent grooves 101, as shown in the attached figure. Figure 1-2 and appendix Figure 6As shown, if the grooves 101 are set into three groups, then one side of the U-shaped heating plate 4023 is integrally connected with two sets of vertical heating plates 4022 at the position between adjacent grooves 101. This allows the U-shaped heating plate 4023 and the two sets of vertical heating plates 4022 to cooperate and form three complete heating and pressing boundaries with a U-shaped outline on the outer top of the three sets of grooves 101 respectively. One side of the U-shaped heating plate 4023 and the vertical heating plate 4022 both pass through the notch and are flush with the surface of the support block 401 and the template 3 400 to support the fabric 2. The movable frame 1 4021 is provided with several sets of support rods on the side away from the U-shaped heating plate 4023. Each support rod moves through the template. The template 400 is connected to a pressing plate 4024 located on its outer side. An elastic connector (such as a spring) is provided between the movable frame 4021 and the inner wall of the recess. When the template 400 flips and closes with the template 100, the operator or actuator presses down the pressing plate 4024, which drives the support rod and the movable frame 4021 to move downward against the elastic force of the elastic connector. This drives the U-shaped heating plate 4023 and the vertical heating plate 4022 to move synchronously towards the template 100, applying heat and pressure precisely to the corresponding area, so that the hot melt adhesive film can bond to this part of the position. In this embodiment, both the U-shaped heating plate 4023 and the vertical heating plate 4022 can be electric heating plates, etc.

[0025] Preferably, the pressing component 403 in this embodiment includes a transverse heating plate 4031 disposed within the recess and parallel to the transverse section of the U-shaped heating plate 4023. When the template 3 400 is flipped and closed, the transverse heating plate 4031 is located on the side of the groove 101 facing the template 200. One side of the transverse heating plate 4031 is in contact with the ends of the U-shaped heating plate 4023 and the vertical heating plate 4022. The U-shaped heating plate 4023, the vertical heating plate 4022, and the transverse heating plate 4031 are used to jointly enclose and form several corresponding three-dimensional down feathers. The heating and pressing contour of the outer region of the top of the cavity, if the groove 101 is three sets, the U-shaped heating plate 4023, the vertical heating plate 4022 and the horizontal heating plate 4031 together form a structure with three rectangular contours. The horizontal heating plate 4031 is set on the movable frame 2 4032, which is movably set in the recess. Several sets of support rods are provided on one side of the movable frame 2 4032. Each support rod movably passes through the template 3 400 and is connected to the pressing plate 2 4033 located on its outer side. An elastic connector (such as a spring) is provided between the movable frame 2 4032 and the inner wall of the recess. When it is necessary to press the top of the three-dimensional down cavity on this side, by pressing down the second pressing plate 4033, the support rod drives the movable frame 4032 and the transverse heating plate 4031 to overcome the resistance of the elastic connector and move, thereby accurately applying heat and pressure to the predetermined position of the second fabric. After the pressing is completed, the external force is removed, and the entire component automatically resets under the action of the elastic connector, realizing efficient and reliable sealing of the last boundary of the three-dimensional down cavity. The second pressing component 403 and the first pressing component 402 work together to complete the complete bonding without omission.

[0026] The embodiments described above are merely examples of several implementations of the present invention, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the present invention. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of the present invention, and these modifications and improvements all fall within the scope of protection of the present invention.

Claims

1. A one-piece seamless three-dimensional down-filled jacket template, characterized in that, It includes template one (100) and template two (200) and template three (400) which are rotatably connected to both sides of template one (100); The template one (100) is used to support the fabric one and the hot melt adhesive mesh from bottom to top. The template one (100) has several sets of grooves (101). The template two (200) is provided with several sets of protrusions (201) corresponding to the grooves (101). When the template two (200) flips and closes the template one (100), the protrusions (201) are embedded in the corresponding grooves (101) so that multiple three-dimensional down cavities with open tops are formed on the fabric one. The template three (400) is used to support the fabric two. The template three (400) is provided with a heating and pressing part. When the template three (400) flips and closes the template one (100), the heating and pressing part is pressed into the top outer area of ​​the three-dimensional down cavity so as to bond the fabric one, the hot melt adhesive mesh and the fabric two at the corresponding positions.

2. The down jacket template according to claim 1, characterized in that, The inner wall of the groove (101) is provided with a positioning adhesive strip one (102), and the template three (400) is provided with a positioning adhesive strip two on the side facing the template one (100) after being flipped over.

3. The down jacket template according to claim 1, characterized in that, Both template 2 (200) and template 3 (400) are provided with locking parts (600), and template 1 (100) is provided with a receiving part for cooperating with the locking parts (600). The locking parts (600) are used to detachably and fix the template 2 (200) or template 3 (400) after flipping and closing the mold.

4. The down jacket template according to claim 1, characterized in that, The template two (200) is also provided with a tube placement component (300). The tube placement component (300) includes guide frames (301) symmetrically arranged on both sides of the template two (200). Each guide frame (301) is connected to a horizontal slider (302) through a pivot. The horizontal slider (302) is slidably disposed on the side wall of the template two (200). Each guide frame (301) is slidably disposed with a vertical slider. A diverter (305) is disposed between the vertical sliders on both sides. One end of the diverter (305) is rotatably connected to a vertical slider through a pivot. The other end is connected to a connecting pipe (306). The connecting pipe (306) movably passes through another vertical slider. The outer wall of the diverter (305) is connected to several sets of Z-shaped down filling tubes (307) for filling the three-dimensional down cavity. The down filling tubes (307) correspond one-to-one with the grooves (101).

5. The down jacket template according to claim 4, characterized in that, The rotating shaft and the guide frame (301) are rotatably connected and fixedly connected by a fixing member (308). The vertical slider is provided with a fixing member (2) for fixing it to the rotating shaft. A groove is provided on one side of the horizontal slider (302). A toggle block (303) is slidably provided in the groove. One side of the toggle block (303) is connected to the inner wall of one side of the groove through an elastic member (304). An insertion rod is provided on the other side of the toggle block (303). Several sets of blind holes for inserting the insertion rod are provided along the length direction of the side wall of the template (200).

6. The down jacket template according to claim 4, characterized in that, The template three (400) has a notch on the side facing the template one (100) after being flipped over. A support block (401) is fixedly provided in the notch corresponding to the groove (101). The heating and pressing part is located between the support block (401) and the notch. The heating and pressing part includes a pressing part one (402) and a pressing part two (403). The pressing part one (402) is used to press three sides of the top of the three-dimensional down cavity, and the pressing part two (403) is used to press the other side of the top of the three-dimensional down cavity.

7. The down jacket template according to claim 6, characterized in that, The pressing component (402) includes a movable frame (4021) disposed in the recess and movably sleeved on the outside of the support block (401). The movable frame (4021) is provided with a U-shaped heating plate (4023). The U-shaped heating plate (4023) is used to be sleeved on the periphery of all the grooves (101) when the template (400) is flipped and closed. A vertical heating plate (4) is integrally connected to one side of the U-shaped heating plate (4023) at the position between adjacent grooves (101). 022), the U-shaped heating plate (4023) and the vertical heating plate (4022) both pass through the notch and are flush with the surface of the support block (401) and the template three (400). The movable frame one (4021) is provided with several sets of support rods on the side away from the U-shaped heating plate (4023). Each support rod is movably passed through the template three (400) and connected to the pressing plate one (4024) located on its outer side. An elastic connector is provided between the movable frame one (4021) and the inner wall of the notch.

8. The down jacket template according to claim 7, characterized in that, The second pressing component (403) includes a transverse heating plate (4031) disposed within the recess and parallel to the transverse section of the U-shaped heating plate (4023). When the template three (400) is flipped and closed, the transverse heating plate (4031) is located on the side of the groove (101) facing the template two (200). One side of the transverse heating plate (4031) is in contact with the ends of the U-shaped heating plate (4023) and the vertical heating plate (4022). The U-shaped heating plate (4023) and the vertical heating plate (4022) are in contact with... A horizontal heating plate (4031) is used to jointly enclose and form several heating and pressing contours corresponding to the outer side of the top of the three-dimensional down cavity. The horizontal heating plate (4031) is set on the movable frame two (4032). The movable frame two (4032) is movably set in the recess. Several sets of support rods are provided on one side of the movable frame two (4032). Each support rod movably passes through the template three (400) and is connected to the pressing plate two (4033) located on its outer side. An elastic connector is provided between the movable frame two (4032) and the inner wall of the recess.

9. The down jacket template according to claim 1, characterized in that, The template (100) is mounted on the mounting base (500).

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