Processing method and processing system for single-side raising of warm-keeping clothes

Abstract

The processing method comprises the following steps that S1, according to the number of sub-areas needing to be divided and the throwing thickness, the number of the sub-areas needing to be divided is calculated according to the number of the sub-areas needing to be divided, and the throwing thickness is calculated; determining first side cloth, second side cloth longer than the first side cloth, quilting line positions of all sub-areas of the first side cloth and quilting line positions of all sub-areas of the second side cloth; s2, after the starting part of the second side cloth is aligned with the starting part of the first side cloth, the quilting line positions of all the sub-areas of the second side cloth are sequentially aligned with the quilting line positions of all the sub-areas of the first side cloth in the length direction of the second side cloth, and sewing is conducted, a plurality of three-dimensional spaces are respectively formed between the sub-areas of the second side cloth and the first side cloth; and S3, sewing the openings at the two ends of each sub-region forming the plurality of three-dimensional spaces. Compared with the prior art, the garment obtained through processing is of a single-face throwing structure, and the appearance flatness, the softness, the heat retention property and the down filling effect are all improved.

Description

Technical Field

[0001] The invention relates to the technical field of clothing, in particular to a single-sided raised processing method for thermal clothing and a processing system thereof. Background Art

[0002] Warm clothing is one of the main clothing for people to prevent cold in winter. Among them, down jackets are one of the most popular warm clothing. Down jackets are tops filled with down. The main reason for down jackets to keep warm is that the filling is made of down. The down flowers are in a flower-like structure, and each down flower is composed of a feather core and feather filaments. The feather filaments are very fine and slender. Each feather of down is composed of thousands of tiny scales. These scales are hollow. This means that a large amount of still air is stored in these tiny gaps. Since the thermal conductivity of air is very low, a natural barrier that hinders the flow of hot and cold air is formed, which can lock the heat released by the body in the air of the down jacket, while the cold air outside cannot enter because of this layer of air. This is the thermal insulation principle of down jackets. Therefore, it is not the down but the air in the down jacket that really plays a role in keeping warm. It is precisely because of this large amount of static air that down has a higher fluffiness and better warmth retention than other thermal insulation materials of the same weight (such as silk, cotton, chemical fiber, etc.). That is, the thickness of the air layer provided by the fluffy down greatly affects the warmth retention of the down jacket. Since the filling material in the middle of the down jacket requires a certain amount of support to hold up a certain space to make the down fluffy, the thermal insulation materials in the existing down jackets are composed of down and feathers, and the down content is the proportion of down in the down jacket. However, feathers have two disadvantages compared to down: first, feathers are flat and do not contain a lot of air like down, so feathers are less warm than down; second, feathers are easy to drill into the down and will run out from the gaps in the fabric. In order to prevent the problem of down drilling and the problem of not keeping warm, the existing technology usually adopts the method of filling all down without filling feathers. However, due to the lack of feather support, more down is needed to create the same thickness of throw as before, which greatly increases the amount of down required for filling, increases the weight of the down jacket and the cost of the down jacket. Moreover, due to the lack of support, the down jacket is not easy to throw up, and the down in the down jacket is not easy to be fluffy, which makes it difficult to produce a thick air layer, thus affecting the warmth retention of the down jacket. Summary of the invention

[0003] The purpose of the present invention is to overcome the above-mentioned defects of the existing thermal insulation clothing in terms of thermal insulation performance and to provide a single-sided raised thermal insulation clothing processing method and a processing system thereof.

[0004] The purpose of the present invention can be achieved by the following technical solutions:

[0005] One of the technical solutions of the present invention is to provide a method for processing a thermal garment with one side raised, comprising the following steps:

[0006] S1. Determine the first side fabric, the second side fabric which is longer than the first side fabric, the quilting line positions of each sub-region of the first side fabric, and the quilting line positions of each sub-region of the second side fabric according to the number of sub-regions to be divided and the raised thickness;

[0007] S2, after aligning the starting position of the second side fabric with the starting position of the first side fabric, align the sewing line positions of each sub-region of the second side fabric with the sewing line positions of each sub-region of the first side fabric in sequence along the length direction thereof and sew them, so that a plurality of three-dimensional spaces are formed between each sub-region of the second side fabric and the first side fabric;

[0008] S3, sewing the openings at both ends of each sub-area forming a plurality of three-dimensional spaces.

[0009] In some specific embodiments, the first side fabric includes at least one bladder fabric and / or one surface fabric; the second side fabric includes at least one bladder fabric and / or one surface fabric.

[0010] In some specific embodiments, in step S1, the length difference between the second side fabric and the first side fabric is as shown in formula (1):

[0011]

[0012] Wherein, D represents the difference between the length of the second side fabric and the length of the first side fabric, M represents the number of divided sub-regions, 2l represents the length of the unit sub-region of the first side fabric, l represents half of the length of the unit sub-region of the first side fabric, and h represents the thickest thickness among the thrown-up thicknesses of the unit sub-region.

[0013] In some specific implementations, in step S3, suturing the openings at both ends of each sub-region forming a plurality of three-dimensional spaces specifically includes:

[0014] Suturing the openings at one end of each of the sub-areas forming a plurality of three-dimensional spaces;

[0015] Filled with down;

[0016] The other ends of the sub-areas that are sewn together to form a plurality of three-dimensional spaces are open.

[0017] In some specific embodiments, in step S2, after aligning the quilting positions of each sub-region of the second side fabric along its length direction with the quilting positions of each sub-region of the first side fabric in sequence and sewing them, the process further includes bending both sides of each sub-region of the fabric inward near the sewing position;

[0018] In step S3, sewing the openings at both ends of each sub-region forming a plurality of three-dimensional spaces specifically includes bending both sides of the fabric of each sub-region inward near the stitching position and then sewing the openings at both ends.

[0019] In some specific embodiments, the length difference between the second side fabric and the first side fabric is not greater than the length difference as shown in formula (2):

[0020] D=M×(2l+2h) (2)

[0021] Wherein, D represents the difference between the length of the second side fabric and the length of the first side fabric, M represents the number of divided sub-regions, 2l represents the length of the unit sub-region of the first side fabric, and h represents the thickest thickness among the thrown-up thicknesses of the unit sub-region.

[0022] In some specific embodiments, in step S3, after bending both sides of the sub-region fabric inward near the stitching position, sewing the openings at both ends specifically includes:

[0023] After bending both sides of the plurality of sub-regions of fabric inward near the stitching positions, the openings at one end of each of the sub-regions forming the plurality of three-dimensional spaces are sewn;

[0024] Filled with down;

[0025] After the two sides of the cloth of the plurality of sub-regions are bent inwards near the stitching positions, the openings at the other ends of the sub-regions forming the plurality of three-dimensional spaces are sewn.

[0026] In some specific embodiments, the thickest thickness h among the raised thicknesses per sub-region is smaller than the length 21 of the unit sub-region of the first side fabric.

[0027] In some specific embodiments, the first side fabric and the second side fabric are fabrics woven from dense yarns that reduce air flow.

[0028] The second technical solution of the present invention is to provide a processing system for raising the single side of a thermal garment, which is used to implement a processing method for raising the single side of a thermal garment as described in one of the above technical solutions, comprising:

[0029] A fabric and quilting line determination module, for determining the first side fabric, the second side fabric longer than the first side fabric, the quilting line positions of each sub-region of the first side fabric, and the quilting line positions of each sub-region of the second side fabric according to the number of sub-regions to be divided and the raised thickness;

[0030] a quilting position sewing module, for aligning the quilting position of each sub-region of the second side fabric with the quilting position of each sub-region of the first side fabric in sequence along the length direction thereof and sewing them after the starting position of the second side fabric is aligned with the starting position of the first side fabric, so that a plurality of three-dimensional spaces are formed between each sub-region of the second side fabric and the first side fabric;

[0031] The opening suturing module is used to suturing the openings at both ends of each sub-area forming a plurality of three-dimensional spaces.

[0032] Compared with the prior art, the present invention has the following beneficial effects:

[0033] (1) The present invention solves the problem of fabric shortage on both sides

[0034] By determining the first side fabric in advance and then determining the second side fabric according to the length difference between the first side fabric and the second side fabric, errors on both sides can be reduced, further reducing the problem of fabric waste.

[0035] (2) The present invention improves the softness and warmth retention of down jackets

[0036] The present invention uses the feature that the second side fabric is longer than the first side fabric, so that a three-dimensional space is generated between the second side fabric and the first side fabric during sewing, and then down is filled into the three-dimensional space. Due to the existence of the three-dimensional space, the down can become fluffy and store still air, thereby playing a role in keeping warm. The fluffy down makes the down jacket softer and more comfortable. The present invention also reduces the squeezing force of the fabric on the down at the seam by bending the two sides of the fabric of each sub-area inward near the seam position, and the gap between the down at the seam becomes smaller, increasing the amount of three-dimensional space, so that the fluffiness of the down is significantly improved, and thus the warmth retention is significantly improved. While reducing the amount of down, the fluffiness of the down is also increased, achieving the goal of increasing the softness of the thermal clothing, reducing the sense of heaviness, and maintaining the warmth retention function.

[0037] (3) The appearance smoothness of the thermal insulation clothing processed by the present invention is improved

[0038] The finished garment made by the present invention has one side in a three-dimensional space shape and the other side in a flat shape. The flat surface is placed on the visible side, which can make the garment look less bulky. The first side fabric and the second side fabric can be selected to adopt a layer of lining fabric or a layer of surface fabric or different combinations of a layer of lining fabric and a layer of surface fabric. When a layer of lining fabric and a layer of surface fabric are selected, the lining fabric layer is attached to the surface fabric layer, so that there are no concave and convex marks on the appearance of the finished garment, which is different from the conventional filling method that makes the surface of the finished garment have obvious concave and convex marks. Since the thrown part of the filling fabric has space to release the amount, the surface is in a grid state. The length difference between the lining fabric layer and the surface fabric layer is not large, and the length of the surface fabric layer is easy to control, which can reduce the difficulty of process operation. In addition, there are a variety of operating methods to choose from, and the operation is flexible, so the desired process effect can be achieved.

[0039] (4) The thermal insulation clothing obtained by the present invention has low cost

[0040] By throwing up the down on one side, the finished garment can be made three-dimensional and full. When the thickness is the same, the filling amount only needs to be about 70% of the normal filling amount, which greatly reduces the amount of down used and saves costs.

[0041] (5) The processing method of the present invention has a wide range of applications, multiple operation methods, and good finished product effects.

[0042] Different from the traditional filling method, the size of the upper and lower layers of fabric is the same. The present invention can flexibly change the difference between the first side fabric and the second side fabric according to the formula according to the desired garment effect, and finally control the appearance of the garment by controlling the three-dimensional space where the subsequent filling is located, so as to achieve the desired filling effect. This improves the shortcomings of the traditional method that it is not easy to adjust and change the filling effect, and the final garment effect can only be changed by continuously increasing or decreasing the actual filling amount and weight. BRIEF DESCRIPTION OF THE DRAWINGS

[0043] Figure 1 Schematic diagram of the structure of the first side fabric and the second side fabric according to an embodiment of the present invention.

[0044] Figure 2 It is a schematic diagram showing a suturing method according to an embodiment of the present invention.

[0045] Figure 3 Based on Figure 2 A schematic diagram of the cross-sectional structure of a single-sided raised seam showing the stitching method.

[0046] Figure 4 It is a schematic diagram showing another suturing method according to an embodiment of the present invention.

[0047] Figure 5 Based on Figure 4 A schematic diagram of the cross-sectional structure of a single-sided raised product is shown in the stitching method.

[0048] The following are marked in the figure:

[0049] 1 is the first side fabric, 2 is the second side fabric, and 3 is the starting point. DETAILED DESCRIPTION

[0050] In order to make the purpose, technical solutions and advantages of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, rather than all of the embodiments. Based on the embodiments in 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. The term "including" and its variations used in this article represent open inclusion, that is, "including but not limited to", and other explicit and implicit definitions may be included below. In the following embodiments, if there is no special description of the functional components or structures, it means that they are all conventional components or conventional structures used in the field to achieve the corresponding functions.

[0051] like Figure 1-3 As shown, the first embodiment of the present invention provides a method for processing a thermal garment with one side raised, comprising the following steps:

[0052] S1. Determine the first side fabric 1, the second side fabric 2 which is longer than the first side fabric 1, the quilting positions of each sub-region of the first side fabric 1, and the quilting positions of each sub-region of the second side fabric 2 according to the number of sub-regions to be divided and the raised thickness;

[0053] S2, after aligning the starting part 3 of the second side fabric 2 with the starting part 3 of the first side fabric 1, align the sewing line positions of each sub-region of the second side fabric 2 with the sewing line positions of each sub-region of the first side fabric 1 in sequence along the length direction thereof and sew them, so that a plurality of three-dimensional spaces are formed between each sub-region of the second side fabric 2 and the first side fabric 1;

[0054] S3, sewing the openings at both ends of each sub-area forming a plurality of three-dimensional spaces.

[0055] The technical solution of the first embodiment includes scenarios with and without filling objects. For example, in the scenario without any filling objects, the second side fabric 2 is longer than the first side fabric 1, so that a three-dimensional space is generated between the second side fabric 2 and the first side fabric 1 during sewing, which is convenient for storing still air. Dry still air is the best thermal insulation material, which prevents the alternation of cold and hot air, thereby achieving a warming effect.

[0056] In one embodiment, the length difference between the second side fabric and the first side fabric is as shown in formula (1):

[0057]

[0058] Wherein, D represents the difference between the length of the second side fabric and the length of the first side fabric, M represents the number of divided sub-regions, 2l represents the length of the unit sub-region of the first side fabric, l represents half of the length of the unit sub-region of the first side fabric, and h represents the thickest thickness among the thrown-up thicknesses of the unit sub-region.

[0059] The derivation process of formula (1) is as follows:

[0060] like Figure 3 As shown, let the chord length (i.e., the length of the unit sub-region of the first side fabric) be 2l, the chord height (i.e., the thickest thickness among the thrown-up thickness of the unit sub-region) be h, the radius of the circle where the chord is located be R, and the central angle corresponding to the chord be 2a;

[0061] According to the intersecting chord theorem, we can conclude that: (2R-h)h=l 2 ,but

[0062] because Substituting into R, we get

[0063]

[0064] Then the single sub-area between the second side fabric and the first side fabric

[0065] Then the length difference D between the second side fabric and the first side fabric = the number of divided sub-areas × the length of a single sub-area between the second side fabric and the first side fabric

[0066] Thus, the length of the first side fabric and the second side fabric can be determined in advance, thereby reducing the technical problem of error. If the length of the first side fabric and the second side fabric is not determined in advance, there will be a problem that one side of the fabric is too short and cannot be replenished; or one side of the fabric is too long and causes fabric waste.

[0067] In another embodiment, in step S3, suturing the openings at both ends of each sub-region forming a plurality of three-dimensional spaces specifically includes:

[0068] Suture the openings at one end of each sub-region of Joao that forms several three-dimensional spaces;

[0069] Filled with down;

[0070] The other ends of the sub-areas that are sewn together to form a plurality of three-dimensional spaces are open.

[0071] This technical solution of filling down makes the down have a certain degree of fluffiness in each sub-area forming a number of three-dimensional spaces, locking in more static air. On the other hand, it also thickens the garment to provide better warmth.

[0072] In one embodiment, the first side fabric 1 and the second side fabric 2 are both made of only one piece of lining fabric, and the lining fabric can be made of a high-density lining fabric coated with anti-down glue, such as 190T-290T polyester taffeta coated with an anti-down layer, so that the fabric has the performance of anti-down dew and anti-water seepage. Down is filled in each sub-area of ​​the three-dimensional space formed by the lining fabrics on both sides, and the down increases the thickness of the finished garment and reduces the air flow in each sub-area, thereby playing a role in keeping warm.

[0073] In one embodiment, the first side fabric 1 and the second side fabric 2 are both made of only one piece of face fabric. When not filled with down, the face fabric is a face fabric woven from tight yarns that reduce air flow, and has the function of blocking the air in the three-dimensional space from the outside air, locking the air in the three-dimensional space, thereby achieving relative stillness of the air, and dry still air is the best thermal insulation material, thereby playing a role in keeping warm. When filled with down, the fabric can be any material and function of fabric, as long as there is space for support, and there is space for the down to become fluffy, thereby playing a role in keeping warm.

[0074] In one embodiment, the first side fabric 1 and the second side fabric 2 are both a piece of lining fabric and a piece of surface fabric. When not filled with down, the lining fabric is a fabric of any material and function, and the surface fabric is a fabric woven from tight yarns that reduce air flow, such as a fabric woven from hollow polyester fibers, which has the function of blocking the air in the three-dimensional space from circulating with the outside air, thereby achieving relative stillness of the air and playing a warming role. When filled with down, the lining fabric can be made of high-density fabric coated with down-proof glue, and the surface fabric can be a fabric of any material and function, as long as there is a space with supporting force. On the one hand, the fabric has the performance of anti-down dew and anti-water seepage, and on the other hand, the fabric has the function of blocking the air in the three-dimensional space from circulating with the outside air, thereby achieving relative stillness of the air and playing a dual warming role.

[0075] The single-sided raised structure of the thermal clothing obtained by the single-sided raised processing method of the thermal clothing provided in the first embodiment is as follows: Figure 2-3 As shown, one side is flat and the other side is three-dimensional.

[0076] like Figure 1 , 4 As shown in , 5, the second embodiment of the present invention provides a method for processing a thermal garment with one side raised, comprising the following steps:

[0077] S1. Determine the first side fabric 1, the second side fabric 2 which is longer than the first side fabric 1, the quilting positions of each sub-region of the first side fabric 1, and the quilting positions of each sub-region of the second side fabric 2 according to the number of sub-regions to be divided and the raised thickness;

[0078] S2, aligning the quilting positions of each sub-region of the second side fabric 2 along its length direction with the quilting positions of each sub-region of the first side fabric 1 in sequence and sewing them, and further comprising bending both sides of each sub-region of the fabric inward near the sewing position;

[0079] S3, sewing the openings at both ends of each sub-region forming a plurality of three-dimensional spaces specifically includes bending both sides of the fabric of each sub-region inward near the stitching position, and then sewing the openings at both ends.

[0080] This technical solution makes the cross section of the thrown cloth Figure 5 As shown, the gaps between the three-dimensional spaces are reduced. Figure 3 The gaps shown make the height of the three-dimensional space fuller and more uniform, thereby increasing the three-dimensional space where the still air is located and further improving the warmth-keeping effect.

[0081] In one embodiment, the length difference between the second side fabric 2 and the first side fabric 1 is not greater than the length difference as shown in formula (2):

[0082] D=M×(2l+2h) (2)

[0083] Wherein, D represents the difference between the length of the second side fabric and the length of the first side fabric, M represents the number of divided sub-regions, 2l represents the length of the unit sub-region of the first side fabric, and h represents the thickest thickness among the thrown-up thicknesses of the unit sub-region.

[0084] In one embodiment, h is less than 21. The two sides of the fabric in each sub-region are bent inward near the stitching position, but the bent parts are not overlapped or interlaced to solve the technical problems that overlapping or interlacing will increase thickness, weight, waste fabric, etc.

[0085] In another embodiment, in step S3, after bending both sides of the sub-region fabric inward near the stitching position, sewing the openings at both ends specifically includes:

[0086] After bending both sides of the plurality of sub-regions of fabric inward near the stitching positions, the openings at one end of each of the sub-regions forming the plurality of three-dimensional spaces are sewn;

[0087] Filled with down;

[0088] After the two sides of the cloth of the plurality of sub-regions are bent inwards near the stitching positions, the openings at the other ends of the sub-regions forming the plurality of three-dimensional spaces are sewn.

[0089] This technical solution reduces the squeezing pressure of the fabric on the down at the seam position, the gaps between the down at the seam position become smaller, and the height of the three-dimensional space is fuller. It solves the technical problem that there is no down and no still air at the seam position, resulting in the alternation of cold and hot air at the seam position, resulting in insignificant warming effect. It reduces the gaps between the three-dimensional spaces of the thermal clothing and further improves the warming effect.

[0090] through Figure 4 The stitching method, after filling with down, because the fabrics on both sides are soft, the middle of each three-dimensional space will not form a "Z" shape, but will gradually expand into Figure 5 section.

[0091] In one embodiment, the first side fabric 1 and the second side fabric 2 are both made of only one piece of lining fabric, and the lining fabric can be made of a high-density lining fabric coated with anti-down glue, such as 190T-290T polyester taffeta coated with an anti-down layer, so that the fabric has the performance of anti-down dew and water seepage. Down is filled in each sub-area of ​​the three-dimensional spaces formed by the lining fabrics on both sides, which, on the one hand, makes the height of each three-dimensional space filled with down fuller, and on the other hand, reduces the gaps between each three-dimensional space filled with down, so that the down has more fluffy space, which plays a role in keeping warm.

[0092] In one embodiment, the first side fabric 1 and the second side fabric 2 are both made of only one piece of face fabric. When not filled with down, the face fabric is a face fabric woven from tight yarns that reduce air flow, and has the function of blocking the air in the three-dimensional space from circulating with the outside air, thereby achieving relative stillness of the air and playing a role in keeping warm. When filled with down, the face fabric can be any material and function of fabric, as long as there is a space with supporting force. The gaps of the down at the seam position become smaller, making the three-dimensional space where the down is located fuller. Therefore, there is also down and still air at the seam position, making the cold and hot air alternate, thereby playing a role in keeping warm.

[0093] In one embodiment, the first side fabric 1 and the second side fabric 2 are both a piece of lining fabric and a piece of surface fabric. When not filled with down, the lining fabric is a fabric of any material and function, and the surface fabric is a fabric woven from tight yarns that reduce air flow, such as a fabric woven from hollow polyester fibers, which has the function of blocking the air in the three-dimensional space from circulating with the outside air, thereby achieving relative stillness of the air and playing a warming role. When filled with down, the lining fabric can be made of high-density fabric coated with anti-down glue, and the surface fabric can be a fabric of any material and function, as long as there is a space with supporting force. On the one hand, the fabric has the performance of anti-down dew and anti-water seepage, and on the other hand, the fabric has the function of blocking the air in the three-dimensional space from circulating with the outside air, achieving relative stillness of the air in a fuller three-dimensional space, playing a dual warming role.

[0094] The single-sided raised structure of the thermal clothing obtained by the single-sided raised processing method of the thermal clothing provided in the second embodiment is as follows: Figure 4-5 As shown, one side is flat and the other side is fuller three-dimensional.

[0095] Compared with a conventional one-piece autumn and winter warm clothing with double-sided down filling of 150g, the processing method of the single-sided down filling implementation method in the invention can greatly save costs. The comparison results are shown in Table 1.

[0096] Table 1 Comparison of single-sided and double-sided filling methods

[0097]

[0098]

[0099] Embodiment 3 of the present invention provides a processing system for raising one side of a thermal garment, which is used to implement a processing method for raising one side of a thermal garment as described in any of the above technical solutions, comprising:

[0100] A fabric and quilting line determination module, for determining the first side fabric, the second side fabric longer than the first side fabric, the quilting line positions of each sub-region of the first side fabric, and the quilting line positions of each sub-region of the second side fabric according to the number of sub-regions to be divided and the raised thickness;

[0101] a quilting position sewing module, for aligning the quilting position of each sub-region of the second side fabric with the quilting position of each sub-region of the first side fabric in sequence along the length direction thereof and sewing them after the starting position of the second side fabric is aligned with the starting position of the first side fabric, so that a plurality of three-dimensional spaces are formed between each sub-region of the second side fabric and the first side fabric;

[0102] The opening suturing module is used to suturing the openings at both ends of each sub-area forming a plurality of three-dimensional spaces.

[0103] The above description of the embodiments is to facilitate the understanding and use of the invention by those skilled in the art. It is obvious that those skilled in the art can easily make various modifications to these embodiments and apply the general principles described herein to other embodiments without creative work. Therefore, the present invention is not limited to the above embodiments, and improvements and modifications made by those skilled in the art based on the disclosure of the present invention without departing from the scope of the present invention should be within the scope of protection of the present invention.

Claims

1. A method for processing a thermal garment with one side raised, characterized in that: The steps include: S1. Determine the first side fabric, the second side fabric which is longer than the first side fabric, the quilting line positions of each sub-region of the first side fabric, and the quilting line positions of each sub-region of the second side fabric according to the number of sub-regions to be divided and the raised thickness; S2, after aligning the starting position of the second side fabric with the starting position of the first side fabric, aligning the sewing line positions of each sub-region of the second side fabric with the sewing line positions of each sub-region of the first side fabric in sequence along the length direction thereof and sewing them, so that a plurality of three-dimensional spaces are formed between each sub-region of the second side fabric and the first side fabric; S3, sewing the openings at both ends of each sub-area forming a plurality of three-dimensional spaces.

2. A method for processing a thermal garment with one side raised according to claim 1, characterized in that: The first side fabric includes at least one liner fabric and / or one surface fabric; the second side fabric includes at least one liner fabric and / or one surface fabric.

3. The method for processing a thermal garment with one side raised according to claim 1, characterized in that: In step S1, the length difference between the second side fabric and the first side fabric is as shown in formula (1): Wherein, D represents the difference between the length of the second side fabric and the length of the first side fabric, M represents the number of divided sub-regions, 2 represents the length of the unit sub-region of the first side fabric, l represents half of the length of the unit sub-region of the first side fabric, and h represents the thickest thickness among the thrown-up thicknesses of the unit sub-region.

4. A method for processing a thermal garment with one side raised according to claim 3, characterized in that: In step S3, the process of sewing the openings at both ends of each sub-region forming a plurality of three-dimensional spaces specifically includes: Suturing the openings at one end of each of the sub-areas forming a plurality of three-dimensional spaces; Filled with down; The other ends of the sub-areas that are sewn together to form a plurality of three-dimensional spaces are open.

5. The method for processing a thermal garment with one side raised according to claim 1, characterized in that: In step S2, after aligning the quilting positions of each sub-region of the second side fabric along its length direction with the quilting positions of each sub-region of the first side fabric and sewing them, the process also includes bending both sides of each sub-region of the fabric inward near the sewing position; In step S3, sewing the openings at both ends of each sub-region forming a plurality of three-dimensional spaces specifically includes bending both sides of the fabric of each sub-region inward near the stitching position and then sewing the openings at both ends.

6. A method for processing a thermal garment with one side raised according to claim 5, characterized in that: The length difference between the second side fabric and the first side fabric is not greater than the length difference shown in formula (2): D=M×(2+2h)(2) Wherein, D represents the difference between the length of the second side fabric and the length of the first side fabric, M represents the number of divided sub-regions, 2 represents the length of the unit sub-region of the first side fabric, and h represents the thickest thickness among the thrown-up thicknesses of the unit sub-region.

7. A method for processing a thermal garment with one side raised according to claim 5, characterized in that: In step S3, after bending both sides of the sub-region fabric inward near the stitching position, sewing the openings at both ends specifically includes: After bending both sides of the plurality of sub-regions of fabric inward near the stitching positions, the openings at one end of each of the sub-regions forming the plurality of three-dimensional spaces are sewn; Filled with down; After the two sides of the cloth of the plurality of sub-regions are bent inwards near the stitching positions, the openings at the other ends of the sub-regions forming the plurality of three-dimensional spaces are sewn.

8. The method for processing a thermal garment with one side raised according to claim 5, characterized in that: The thickest thickness h among the raised thicknesses per unit sub-region is smaller than the length 2 of the unit sub-region of the first side fabric.

9. A method for processing a thermal garment with one side raised according to claim 3 or 5, characterized in that: The first side fabric and the second side fabric are fabrics woven from dense yarns that reduce air flow.

10. A processing system for raising one side of a thermal garment, used to implement a processing method for raising one side of a thermal garment as claimed in any one of claims 1 to 9, comprising: A fabric and quilting line determination module, for determining the first side fabric, the second side fabric longer than the first side fabric, the quilting line positions of each sub-region of the first side fabric, and the quilting line positions of each sub-region of the second side fabric according to the number of sub-regions to be divided and the raised thickness; a quilting position sewing module, for aligning the quilting position of each sub-region of the second side fabric with the quilting position of each sub-region of the first side fabric in sequence along the length direction thereof and sewing them after the starting position of the second side fabric is aligned with the starting position of the first side fabric, so that a plurality of three-dimensional spaces are formed between each sub-region of the second side fabric and the first side fabric; The opening suturing module is used to suturing the openings at both ends of each sub-area forming a plurality of three-dimensional spaces.

Images