TW202216450A - Patterned thermoplastic fabric composite structure and protective gear made therefrom - Google Patents

Abstract

A patterned thermoplastic fabric composite structure is provided in which a pattern layer is incorporated into a thermoplastic 3D spacer or 2D planar fabric composite structure. The pattern layer is formed by selectively printing various patterns, characters, colors, or a combination thereof on separate fabric using a printing method, such as a general dyeing technique, a printing technique, or other suitable transfer techniques. A 2D knitted mesh with high breathability can optionally be selected as the fabric main body constituting the pattern layer. The pattern layer is bonded to the thermoplastic fabric composite structure by thermal bonding, thereby forming the patterned thermoplastic fabric composite structure of the present invention. Furthermore, the patterned thermoplastic fabric composite structure of the present invention can be used to manufacture a myriad of support and immobilization products, such as protective gear or paddings for medical, sports, or personal daily use.

Description

Thermoplastic fabric composite structure with pattern and related protective gear made therefrom

The present invention relates to a thermoplastic fabric composite structure with a pattern, in particular to a thermoplastic fabric composite structure with a pattern that can be made into medical, sports or personal daily protective gear, pads and other supporting and fixing objects.

The impact-resistant orthopaedic supports or pads used in general medical protective gear and sports equipment are usually made of hard material casting materials as the main body. However, these hard material casting materials do not have the required softness and comfort, so they cannot meet the needs of general users. If a support or a cushion body is formed of a material with softness and comfort on the market, both mechanical strength and impact resistance cannot be taken into consideration. Furthermore, most soft pad support products, such as pads made of polyurethane foam, usually suffer from a lack of air permeability. On the other hand, in order to have better air permeability for the support pad with impact resistance, the hard material pad is usually punched in order to achieve the required air permeability. However, depending on the punching density, different effects will result. For example, when the hole density is low, it may cause insufficient air permeability, but when the hole density is high, it may cause Insufficient mechanical strength.

Polymer materials with shape memory capabilities belong to a kind of intelligent materials, which can be returned from a deformed transient state (temporary shape) to its permanent state by external stimuli such as heat, light, electric field, magnetic field, etc. (initial shape) material, it has been widely used in electronic circuit components, thermal sensing components, biomedical fields and other fields. Thermoplastic fabric composite materials, structures, pads, protective gear, and thermoplastic fabric composite bandages containing these polymers with shape memory capabilities have been successively developed. For example, disclosed In Taiwan Invention Patent Publication No. I646982 - "Shape Memory Three-dimensional Fabric Composite Material", Invention Publication No. I648160 - "Manufacturing Method of Three-dimensional Fabric Composite Material, Coating Machine and Composite Material Obtained by Using the Method", New Patent Publication No. No. M577021 - "Cushion Body Composite Structure, Cushion Body and Protective Gear", Taiwan Invention Patent Application No. 109116737 - "Thermoplastic Thin 2D Mesh Composite Material Structure and Related Products and Manufacturing Methods", and New Patent Application No. 109116737 No. 109206227 - "Thermoplastic thin 2D mesh composite structure and related products" and other documents, all of which are incorporated herein by reference.

However, for modern people who pursue aesthetic appearance and fashion sense, when wearing medical, sports or personal daily protective gear, pads or other support items made of such fabric composite structures, it is simple and boring. There is nothing aesthetic about the appearance. In addition, modern people attach great importance to personal privacy. Personal medical protective equipment made of the above-mentioned fabric composite structure, such as wrist guards, foot guards or neck guards, are easy to use because of their simple appearance without decorative patterns or patterns. It was revealed that the wearer suffered from Problems such as a sprained wrist or a sprained neck. Therefore, if the above-mentioned symptoms or discomfort are the wearer's privacy that the wearer does not want to tell others, because of wearing these protective gear or supporting fixed objects, the private symptoms will be revealed inadvertently, which will cause the wearer's psychological level. A lot of pressure and rejection.

In view of the above, the present invention provides a thermoplastic fabric composite structure with a pattern, which is formed by combining with a pattern layer on the original thermoplastic fabric composite structure. The pattern layer is formed by selectively printing various patterns, characters, colors or combinations thereof on another fabric by using general dyeing technology, printing technology, or other suitable printing methods such as transfer printing technology. The fabric body constituting the pattern layer can optionally be a 2D knitted mesh fabric with high air permeability. The pattern layer is bonded to the thermoplastic fabric composite structure by thermal bonding, thus forming the thermoplastic fabric composite structure with the pattern in the present case. Using this thermoplastic fabric composite structure with a pattern, it can be further made into various medical, sports or personal daily protective gear or pads for supporting and fixing.

According to another embodiment of the present invention, the thermoplastic composite structure in the thermoplastic fabric composite structure with the pattern can be composed of a 3D (three dimensional) three-dimensional thermoplastic fabric composite structure. The thermoplastic 3D three-dimensional composite structure is formed by coating a high molecular polymer with shape memory capability on a breathable 3D three-dimensional fabric. The high molecular polymer can be coated on the 3D three-dimensional fabric by means of thermal adhesive coating. Since the high molecular polymer has a molding temperature, namely the melting temperature (Tm) point) between about 60°C to 90°C (60°C~90°C), which can be remodeled when heated to or above the shaping temperature, thereby adjusting the thermoplastic fabric composite structure. geometry, and when it cools to room temperature it hardens back into place. The 3D three-dimensional fabric mainly includes a first outer layer, a second outer layer, and a spacer forming a three-dimensional space (spacer) between the first outer layer and the second outer layer, wherein the spacer can be a monofilament structure, the The monofilament structure can be composed of at least one monofilament, which is disposed between the first outer layer and the second outer layer, whereby the first outer layer and the two outer layers can be intertwined and combined to form a three-dimensional fabric.

In another embodiment, the thermoplastic fabric composite structure in the patterned thermoplastic fabric composite structure may be composed of a 2D (two dimensional) planar thermoplastic fabric composite structure. The thermoplastic 2D flat fabric composite structure includes a breathable monolithic 2D flat mesh fabric and a high molecular polymer with shape memory capability, and the high molecular polymer is coated on the breathable monolithic 2D flat mesh fabric . The breathable single-piece 2D flat mesh fabric includes upper and lower layers, and there is no spacer formed by a spacer between the upper layer and the lower layer, but optionally a plurality of additional layers can be added between the upper layer and the lower layer The monofilament structure is used to further entangle the upper and lower layers together, thereby increasing the strength and toughness of the breathable monolithic mesh. Similarly, the plastic 2D planar composite structure can be remodeled by utilizing the molding temperature (ie the melting point Tm) of the high molecular polymer.

The high molecular polymer with shape memory capability of the present invention can be selected from polyester, polyurethane (PU), polyamide (polyamide), polyol (polyol) at least one random copolymer (random copolymers) or block copolymers (block copolymers) in the group consisting of. In some embodiments, the high molecular polymer (30) may comprise polycaprolactone (PCL) high molecular polymer material. In other embodiments, the shaping Tm point of the high molecular polymer may be greater than about 60° C. to ensure that the polymer has good mechanical properties. In some embodiments, the Tm point of the high molecular polymer can be less than about 90°C, so the temperature of the polymer can be raised to or greater than the shaping Tm point by means of a microwave oven or a hair dryer and other devices by means of low temperature heating. , which allows the user to process the thermoplastic fabric composite structure for reshaping and reuse. In some embodiments, the high molecular weight polymer includes a chain entangled polymer material to enhance its mechanical properties and impact resistance.

The pattern layer selected in this case needs to have certain characteristics, so that it can maintain a certain degree of clarity during the process of printing and heat shaping into various medical, sports or personal daily protective gear or pads and other supporting and fixing objects. with firmness. The fabric selected as the pattern layer in this case can be a 2D knitted mesh fabric, and various patterns, characters, colors or combinations thereof can be printed on the mesh fabric by using dyeing technology, printing technology or suitable transfer technology and other printing methods. superior. The pattern layer formed according to the present case has high air permeability, heat resistance, and certain color fastness. And the heat-resistant temperature of the pattern layer is between 100°C and 140°C (100°C-140°C), and it will not deform or melt when heated for more than 10 minutes, preferably, it will not deform or melt when heated for more than 15 minutes. In this way, the pattern layer is bonded to the thermoplastic fabric composite structure by thermal bonding, and is formed into the desired shape by heating. When supporting and fixing objects such as medical, sports or personal daily protective gear, pads, etc., the pattern layer will not be deformed or melted by high temperature heating. The material of the fabric forming the pattern layer can be a polyester, a nylon, a cotton or a mixture thereof. Furthermore, the pattern layer can have a color fastness of more than 4 grades, so that during use or processing, it can withstand external factors (such as heating, extrusion, friction, water washing, rain, exposure, light, saliva immersion, The degree of fading caused by the action of water stains, sweat stains, etc.), so that it still retains a degree of clarity and fixation.

Based on the above, the fabric selected as the pattern layer in this case can be a 2D knitted mesh fabric, which can be printed with various patterns, characters, colors or combinations thereof by using printing methods such as dyeing technology, printing technology or suitable transfer technology. onto the mesh. For example, suitable printing methods for the fabrics of the present case may include, but are not limited to, screen printing, offset printing, direct-jet printing, cold transfer printing, thermal transfer printing, thermal sublimation, and the like.

Compared with lithographic, letterpress, gravure printing, etc., it is necessary to use flat, convex, and gravure circular cylinder printing plates to pick up ink and then imprint on the substrate, which restricts the printing of only film or sheet materials (such as paper, cardboard, etc.). Plastic film, metal sheet), screen printing is not limited by materials, and is more suitable for fabrics and other substrates, such as the 2D knitted mesh fabric in this case. Screen printing is characterized by a variety of ink types, color printing, functional inks, and electronic printing functional inks. Offset printing is also a printing method that is widely used in fabrics, etc. The principle is to transfer ink-colored images to the substrate through a blanket, which is characterized by being less restricted by the color of the fabric. Direct inkjet printing is different from traditional printing, it belongs to a digital printing technology, and is also suitable for the printing of textile fabrics. Direct inkjet printing tools are environmentally friendly and cost-saving This and other advantages can effectively reduce the pollution caused by the printing process because it does not require plate making and saves ink. Among them, UV direct-injection printing quickly dries the dye through ultraviolet rays at the same time of jet dyeing, and the ink consumption is small. After printing, other processing can be carried out directly. The process is simple and fast.

The transfer techniques that can be used in this case include, but are not limited to, cold transfer, thermal transfer, and thermal sublimation. Cold transfer needs to use cold transfer paper, mainly using a printer (such as an inkjet printer) to print images and text on the cold transfer paper in a mirror image, and then transfer to the substrate, as in this case. 2D knitted mesh fabric. The production speed of cold transfer printing is fast, and there is no need for high temperature spray coating in advance (that is, the temperature required for transfer printing is low), and the printed products are bright in color and can be customized as their main features. Both thermal transfer printing and sublimation use the principle of high temperature and pressure to transfer the pattern on the transfer paper to a substrate, such as the 2D knitted mesh fabric in this case. Thermal transfer technology is easy to operate, the production process is fast, and the pattern can be customized according to personal preferences. Thermal transfer does not require tedious processes such as traditional plate making, and the thermal transfer paper used is easy to obtain and has many material options. The difference between thermal sublimation and general thermal transfer printing technology is only that thermal sublimation adds the step of "ink from solid to gaseous state". Dye sublimation utilizes the sublimation ink that will produce heat rise after heating to a specific temperature. The ink dye will be sublimated from a solid state to a gaseous state, and when the temperature drops, the ink dye will be restored to a solid state, whereby the ink dye can penetrate into the fabric. surface, so as to achieve the purpose of transfer printing.

Another embodiment of the present invention relates to a supporting and fixing object such as a medical, sports or personal daily protective gear, pad, etc., which is made of the above-mentioned thermoplastic with a pattern. The fabric composite structure is heated and shaped. The supporting and fixing objects in this case not only have the original remodelability, but also enhance the overall fashion and aesthetics of the formed protective gear and cushion body due to the different visual effects presented by the pattern layer, which is further effective. Improve the user's willingness to wear. For example, the visual pattern presented by the pattern layer can be selected as a cartoon to attract younger wearers, or a pattern or color that is more suitable for middle/old age wearers. In addition, the visual aesthetics created by the pattern layer can not only increase the wearer's willingness to wear, but also relieve the wearer's psychological pressure from other people's strange eyes.

10: Thermoplastic 3D three-dimensional fabric composite structure with pattern

11: Thermoplastic 2D flat fabric composite structure with pattern

20: Thermoplastic 3D three-dimensional fabric composite structure

20a: First outer layer

20b: Second outer layer

22: Mesh

24: Monofilament structure

30: Pattern Layer

31: 2D knitted mesh

32: mesh

34: Pattern

40: Thermoplastic 2D Flat Fabric Composite Structure

40a: upper level

40b: lower level

42: mesh

44: Monofilament structure

50: high polymer

60: Pore

101: Wrist Immobilizer

102: Ankle Immobilizer

FIG. 1 is an exploded perspective view of a thermoplastic 3D three-dimensional fabric composite structure with a pattern formed according to an embodiment of the present invention.

2 is a cross-sectional view of a thermoplastic 3D three-dimensional fabric composite structure used in an embodiment of the present invention, wherein the middle part of the first and second outer layers is a three-dimensional space with pores formed by the monofilament structure.

FIG. 3 is a cross-sectional view of a design layer bonded to the thermoplastic 3D three-dimensional fabric composite structure of FIG. 2 .

4 is a cross-sectional view of a thermoplastic 2D flat fabric composite structure used in an embodiment of the present invention, wherein a monofilament structure arranged parallel to the upper and lower layers is provided.

FIG. 5 is a cross-sectional view of the thermoplastic 2D three-dimensional fabric composite structure of FIG. 4 bonded with a pattern layer.

FIG. 6 is a view according to an embodiment of the present invention, using the pattern of the present case A wrist fixer (wrist fixation auxiliary wood) made of thermoplastic fabric composite material structure, the outer layer of the wrist fixation is printed with an aesthetic design.

Fig. 7 is an ankle anchor (ankle anchor auxiliary wood) made of the thermoplastic fabric composite structure with the pattern of the present invention according to an embodiment of the present invention, and the outer layer of the ankle anchor is printed with an aesthetic pattern.

The above-mentioned technical content of the present invention and its features and effects can be clearly revealed in the detailed description of the embodiments below with reference to the accompanying drawings. It should be understood that the directional terms mentioned below, such as "up", "down", "left", "right", "front", "rear" and similar terms, are only for the convenience of describing certain (some) in the drawings. ) the relative relationship between an element or feature and another element or feature(s), and these spatially relative terms are not intended to limit a certain element(s) or feature(s) or feature(s) specifically to it relative to the other element(s) or feature(s). position above or below, which encompass different orientations including elements or features. The accompanying drawings are provided for reference and illustration only, and are not intended to limit the present invention. In addition, as described in "A layer (or element) is disposed on B layer (or element)", it is not limited to the state that A layer is directly adhered to and contacts B layer, that is, sandwiched between A and B layers Other adhesive or other functional layers are also within the scope of the present invention. After reading the detailed description of the following embodiments, those skilled in the art will know that many modifications or additions can be made without departing from the scope of the present invention, which are all included in the scope of the present invention.

The terms "about", "approximately" and "substantially" in this specification usually mean within 20% of a given value or range, preferably within 10%, more preferably within 5% within 3%, or within 2%, or within 1%, or within 0.5%. The numerical values given herein are approximate numerical values, that is, the meanings of "about", "approximately" and "substantially" may be implied unless otherwise specified.

Please refer to FIG. 1 , which is an exploded perspective view of a thermoplastic 3D three-dimensional fabric composite structure 10 with a pattern formed according to an embodiment of the present invention. As shown in the figure, the thermoplastic 3D three-dimensional fabric composite material structure 10 with a pattern mainly includes a pattern layer 30 and a thermoplastic 3D-three-dimensional fabric composite material structure 20 . The pattern layer 30 can be bonded to the thermoplastic 3D three-dimensional fabric composite structure 20 by thermal bonding. The pattern layer 30 is to selectively print patterns 34 composed of various patterns, characters, colors or combinations thereof by using general dyeing technology, printing technology, or other suitable printing methods such as transfer printing technology. formed on another fabric (ie, the second fabric). The fabric body of the pattern layer 30 may be a highly breathable 2D knitted mesh fabric 31 with a plurality of mesh holes 32 .

The printing technology suitable for this case can be selected as a screen printing, offset printing and direct-injection printing, wherein the direct-injection printing can be a UV direct-injection printing. In addition, the transfer techniques that can be used in the present invention include, but are not limited to, cold transfer, thermal transfer, and thermal sublimation. Using suitable printing technology and transfer technology, the pattern 34 is printed on the 2D knitted mesh cloth 31 of this case.

The pattern layer 30 selected in this case needs to have certain characteristics, so that it can still maintain a certain degree of clarity and clarity during the process of printing and thermal shaping into various medical, sports or personal daily protective gear or supporting and fixing objects. firmness. Printing methods such as dyeing technology, printing technology or suitable transfer technology can be used. In the method, patterns 34 such as various patterns, characters, colors or combinations thereof are printed on the 2D knitted mesh cloth 31 . The fabric used in the pattern layer 30 of this design is composed of a 2D knitted mesh 31 with a plurality of meshes 32, so it has a high degree of air permeability.

The pattern layer 30 also has the required heat resistance, and its heat resistance temperature is between about 100°C to 140°C (100°C to 140°C), and is heated for more than 10 minutes without deformation or melting, preferably for 15 minutes. The above will not melt. In this way, when the design layer 30 is adhered to the thermoplastic 3D three-dimensional fabric composite structure by thermal bonding, and heated to form the required supporting and fixing objects such as protective equipment and pads, the design layer 30 will not be deformed due to high temperature heating. or melt loss.

Furthermore, the material of the fabric forming the pattern layer 30 can be a polyester, a nylon, a cotton or a mixture thereof. Furthermore, the pattern layer 30 can have a color fastness of more than 4 grades, so that the wearer can withstand external factors (such as heating, extrusion, friction, washing, rain, exposure, light, The effect of saliva dipping, water stains, sweat stains, etc.) causes the pattern 34 printed on it to fade or fall off, so the original vividness and complete appearance can still be maintained.

Referring to FIG. 2 , according to an embodiment of the present invention, the used fabric composite structure can be a thermoplastic 3D three-dimensional fabric composite structure 20 . As shown in the figure, the thermoplastic 3D three-dimensional fabric composite structure 20 is coated with a high molecular polymer with shape memory ability on a breathable 3D three-dimensional fabric (ie, the first fabric) with a plurality of meshes 22 50 is formed. The high molecular polymer 50 can be coated on the 3D three-dimensional fabric by means of thermal adhesive coating. The 3D Stereoscopic The fabric includes a first outer layer 20a, a second outer layer 20b, and a position between the first and second layers (that is, the X, Y planes), and the height of the Z axis perpendicular to the X, Y planes is unequal. The yarns form 3D spacers and spacers 24 for mechanical support. In addition, the spacer 24 can be a monofilament structure 24 composed of at least one monofilament, and is disposed between the first outer layer 20a and the second outer layer 20b with a plurality of pores 60 formed therebetween. The 3D three-dimensional fabric can be formed by intertwining the first outer layer 20a and the two outer layers 20b through the monofilament structure 24 .

Referring to FIG. 3 , it is a schematic cross-sectional view of the thermoplastic 3D three-dimensional fabric composite material structure 20 in FIG. 2 , combined with a pattern layer 30 . The design layer 30 can be bonded to the thermoplastic 3D three-dimensional fabric composite structure 20 by thermal bonding to form the thermoplastic 3D three-dimensional fabric composite structure 10 with a pattern of the present invention.

Also, referring to FIG. 4 , according to another embodiment of the present invention, the fabric composite structure used in this case can be a thermoplastic 2D planar fabric composite structure 40 . As shown in the figure, the thermoplastic 2D flat fabric composite structure 40 is formed by coating a high molecular polymer 50 with shape memory capability on a breathable 2D flat fabric (ie, the first fabric). The high molecular polymer 50 can be coated on the 2D flat fabric by means of thermal adhesive coating. The breathable 2D flat fabric includes an upper layer 40a, a lower layer 40b, and a plurality of mesh holes 42. The upper layer 40a and the lower layer 40b are combined with each other to form a 2D flat fabric (such as a single piece of mesh cloth), and the plurality of mesh holes 42 runs through the upper layer 40a and the lower layer 40b to achieve the effect of ventilation. In addition, a plurality of monofilament structures 44 can be optionally added between the upper layer 40a and the lower layer 40b, and the monofilament structures 44 are composed of at least one monofilament, thereby further The upper and lower layers 40a, 40b are intertwined and bonded together to increase the strength and toughness of the breathable monolithic mesh, thereby effectively improving the mechanical properties of the thermoplastic 2D flat fabric composite structure 40. In addition, in other embodiments, the monofilament structure 44 can also be chosen not to be added.

FIG. 5 is a cross-sectional view of the thermoplastic 2D planar fabric composite structure 40 in FIG. 4 , incorporating a pattern layer 30 . The pattern layer 30 can be bonded to the thermoplastic 2D flat fabric composite structure 40 by thermal bonding to form the patterned thermoplastic 2D flat fabric composite structure 11 of the present invention.

The polymer 50 with shape memory used in this case belongs to a kind of intelligent material, which can return from a deformed transient state (temporary shape) to its original state by external stimuli such as heat, light, electric field, magnetic field, etc. Materials with the ability of permanent state (initial shape) have been widely used in electronic circuit components, thermal sensing components, biomedical fields and other fields. Since the high-molecular polymer 50 has a shaping temperature (ie, melting point Tm), the fabric composite structure coated with the high-molecular polymer 50 can be remodeled when heated to or above the shaping temperature , the geometric shape of the thermoplastic fabric composite structure can be adjusted, and when cooled to room temperature, it is then hardened and fixed.

The high molecular polymer 50 can be selected from at least one random copolymer or block copolymer of polyester, polyurethane (PU), polyamide and polyol. In the group composed of block copolymers, the molding temperature (Tm point) can be between about 60°C to 80°C (60°C-80°C). In this way, users can benefit from Use heating tools (such as hair dryers or steam irons, etc.) that can be easily obtained at home to locally heat and shape supporting and fixing objects such as protective gear and pads containing the high-molecular polymer according to their requirements, so that the Supporting and fixing objects such as protective gear and pads are more suitable for the body shape of the wearer or the part to be supported and fixed, so that it can not only exert its effect to alleviate or correct the diseases of various parts of the wearer's body, but also further improve the protection of the wearer. The stable supporting force of supporting and fixing objects such as tools and pads.

Using the thermoplastic fabric composite structures 10 and 11 with patterns of the present invention, it can be made into various supporting and fixing objects such as protective gears, pads, etc. for medical treatment, sports or daily use. For example, what is shown in FIG. 6 is a wrist fixer 101 for personal care (wrist fixation auxiliary wood), and the outer side of the wrist fixer 101 has a pattern 34 rich in aesthetics. As shown in FIG. 7 , it is another ankle anchor 102 (ankle anchor auxiliary wood), and the outer side of the ankle anchor 102 also has another pattern 34 rich in fashion and beauty. It should be understood that the support and fixation objects such as protective gear or pads made by using the thermoplastic fabric composite structures 10 and 11 with patterns of the present invention are not limited to wrist fixation auxiliary wood or ankle fixation auxiliary wood, which can be any Supporting and fixing auxiliary wood or fixing bandage or supporting back frame and other supporting and fixing objects, this case only shows the above two kinds of protective gear as representative examples.

The embodiments disclosed in the present invention and their advantages are as described above, but it should be understood that any person with ordinary knowledge in the technical field can make further changes, substitutions and alterations to the present invention without departing from the spirit and scope of the present disclosure. retouch. Furthermore, the embodiments disclosed in the present invention include a plurality of features that are commonly described and that cooperate with each other to provide a series of benefits. Unless otherwise stated in the claims Furthermore, the present invention is not limited to only those embodiments that incorporate all of these features, or provide all of the described benefits. Furthermore, any reference to a claimed element in the singular, such as "a," "the," or "the," should not be construed as limiting the element to the singular. The above descriptions are only intended to disclose the specific embodiments of the present invention, and are not intended to limit the scope of implementation of the present invention. covered.

10: Thermoplastic 3D three-dimensional fabric composite structure with pattern

20: Thermoplastic 3D three-dimensional fabric composite structure

22: Mesh

30: Pattern Layer

31: 2D knitted mesh

32: mesh

34: Pattern

Claims (13)

A patterned thermoplastic fabric composite structure comprising: a thermoplastic fabric composite structure, which is formed by coating a high molecular polymer with shape memory capability on the first fabric; and A design layer, bonded to the thermoplastic fabric composite material, is formed by printing a design on the second fabric. The thermoplastic fabric composite structure according to claim 1, wherein the first fabric in the thermoplastic fabric composite structure can be a 2D flat mesh fabric or a 3D three-dimensional fabric, and the method of coating the high molecular polymer can be a Hot stick coating. The thermoplastic fabric composite structure of claim 1, wherein the pattern layer is bonded to the thermoplastic fabric composite by a thermal bonding method. The thermoplastic fabric composite material structure as claimed in claim 1, wherein the pattern layer is printed by a dyeing technique, a printing technique, or a transfer technique, etc., to make various patterns, characters, colors or The pattern formed by its combination and the like is formed by printing on the second fabric. The thermoplastic fabric composite structure of claim 4, wherein the printing techniques may include screen printing, offset printing, and direct-jet printing. The thermoplastic fabric composite structure of claim 4, wherein the transfer technique can include cold transfer, thermal transfer and thermal sublimation. The thermoplastic fabric composite structure of claim 5, wherein the direct jet printing is UV direct jet printing. The thermoplastic fabric composite structure as claimed in claim 1, wherein the material of the second fabric constituting the pattern layer can be selected from a polyester (polyester), a nylon (nylon), a cotton (cotton) and one of the mixtures thereof. The thermoplastic fabric composite structure of claim 1 or 4 or 8, wherein the second fabric can be a 2D knitted mesh. The thermoplastic fabric composite material structure as claimed in claim 9, wherein the heat-resistant temperature of the pattern layer is about 100°C to 140°C. The thermoplastic fabric composite structure as claimed in claim 9, wherein the pattern layer has a color fastness of 4 or higher. A supporting and fixing object made of the thermoplastic fabric composite structure with a pattern as claimed in claim 1, the supporting and fixing object can be various protective gears or pads suitable for medical treatment, sports or daily life. The support and fixation object according to claim 12, which can be a support and fixation object for personal care, such as a limb fixation, a neck fixation, or a fixation bandage.

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