TWM647025U - Breathable and dryable thermoregulatory elastic fabric - Google Patents

Abstract

The breathable, moisture-permeable and body-temperature-regulating elastic fabric of this invention includes: multiple breathable and moisture-permeable layers and multiple thermal insulation layers. Each breathable and moisture-permeable layer at least includes an upper leno layer, and the upper leno layer includes a plurality of interlaced upper leno warp yarns and a plurality of upper leno weft yarns. A plurality of thermal insulation layers are alternately arranged and connected to the plurality of breathable and moisture-permeable layers, and each thermal insulation layer includes an upper plain woven layer and a lower plain woven layer, wherein the breathable, moisture-permeable layer and thermal insulation layer include an elastic fiber structure. The average gap of the upper leno layer is larger than the average gap of the upper plain woven layer, so that while the breathable and moisture-permeable layer provides good moisture permeability and heat dissipation effects, the thermal insulation layer can also provide excellent thermal insulation effect at the same time. In addition, The elastane structure improves the fabric's wearing comfort.

Description

Breathable, moisture-permeable, thermoregulating elastic fabric

This invention relates to a breathable fabric, especially a breathable, moisture-permeable, thermoregulating elastic fabric, which can maintain the body temperature while being breathable and moisture-permeable, allowing the body to achieve good temperature regulation and thereby avoid body temperature loss.

Usually, when people exercise, the human body will produce a large amount of sweat and heat to dissipate heat from the human body, and the structure of the clothing worn by the athlete determines the heat dissipation efficiency of the human body.

A common way for clothing to help the body dissipate heat is to use specific fabric structures to create fabrics with good breathability and moisture permeability.

Although the above-mentioned good breathable and moisture-permeable fabrics can allow the human body to have breathable and moisture-permeable effects to achieve the discharge of body heat energy, however, after the human body dissipates a large amount of heat energy during exercise, it may cause the body's body temperature to be hypothermic after exercise. Therefore, it is difficult for existing fabrics to have both breathability and moisture permeability as well as warmth retention properties to maintain human body temperature.

The main purpose of this creation is to provide a breathable and moisture-permeable thermoregulating elastic fabric that can maintain the body temperature while being breathable and moisture-permeable, allowing the body to achieve good temperature regulation and thereby avoid body temperature loss.

In order to achieve the above purpose, the breathable, moisture-permeable and thermoregulating elastic fabric of this invention includes:

A plurality of breathable and moisture-permeable layers, each of which includes:

An upper leno layer, the upper leno layer includes a plurality of interlaced upper leno warp yarns and a plurality of upper leno weft yarns; and

A lower leno layer is connected to the upper leno layer and includes a plurality of lower leno warp yarns and a plurality of lower leno weft yarns interlaced;

A plurality of thermal insulation layers are alternately arranged and connected to the plurality of breathable and moisture-permeable layers, and each thermal insulation layer includes:

An upper plain woven layer connects at least one adjacent upper leno layer and includes a plurality of interlaced upper warp yarns and a plurality of upper weft yarns; and

The lower plain woven layer is located below the upper plain woven layer, connects at least one adjacent lower leno layer, and includes a plurality of interlaced lower warp yarns and a plurality of lower weft yarns;

wherein the average gap between the upper leno warp yarn and the upper leno weft yarn of the upper leno layer is greater than the average gap between the upper warp yarn and the upper weft yarn of the upper plain woven layer, and the upper The average gap between the upper leno warp yarn and the upper leno weft yarn of the leno layer is greater than the average gap between the lower warp yarn and the lower weft yarn of the lower plain woven layer;

Wherein, the average gap between the lower leno warp yarn and the lower leno weft yarn of the lower leno layer is greater than the average gap between the upper warp yarn and the upper weft yarn of the upper plain woven layer, and the The average gap between the lower leno warp yarn and the lower leno weft yarn of the lower leno layer is greater than the average gap between the lower warp yarn and the lower weft yarn of the lower plain woven layer;

Wherein, at least one of the upper leno weft yarn, the lower leno weft yarn, the upper weft yarn, and the lower weft yarn includes an elastic fiber structure.

In a preferred embodiment of this invention, the thermal insulation layer is connected between two adjacent breathable and moisture-permeable layers.

In a preferred embodiment of the invention, an air-permeable and moisture-permeable layer is connected between two adjacent thermal insulation layers.

In a preferred embodiment of the invention, the plurality of breathable and moisture-permeable layers and the plurality of thermal insulation layers are staggered at least along the column direction or the row direction.

In a preferred embodiment of the present invention, among the two adjacent upper lenocompass yarns, the braiding structure of one of the upper lenocompass yarns is to pass over three of the upper lenocompass yarns, and then wrap around Pass under at least three other consecutive upper leno weft yarns, and continue to regularly and repeatedly bypass other consecutive upper leno weft yarns. The knitting structure of the other upper leno compass yarn allows it to bypass one of them. Above the upper leno weft yarn, and then around the bottom of another consecutive upper leno weft yarn, and continue to regularly and repeatedly bypass other consecutive upper leno weft yarns; and on two adjacent upper leno weft yarns Among the leno weft yarns, the weaving structure of one of the upper leno compass yarns is such that it passes above three of the upper leno compass yarns, and then passes below at least three other consecutive upper leno compass yarns, and Continue to regularly and repeatedly bypass other consecutive upper lenocompass yarns. The braiding structure of the other upper lenocompass yarn is such that it passes over one of the upper lenocompass yarns, and then bypasses the other consecutive upper lenocompass yarns. Below the upper leopard compass yarn, and continue to regularly and repeatedly bypass other consecutive upper leopard compass yarns and

Among the two adjacent lower leno compass yarns, the braiding structure of one of the lower leno compass yarns is to pass over three of the lower leno compass yarns, and then pass around at least three other consecutive lower leno compass yarns. Below the leno weft yarn, and continue to regularly and repeatedly bypass other successive lower leno weft yarns. The weaving structure of the other lower leno weft yarn is such that it passes above one of the lower leno weft yarns, and Then it goes around the bottom of another consecutive lower leno weft yarn, and continues to regularly and repeatedly pass around other consecutive lower leno weft yarns; and among the two adjacent lower leno weft yarns, one of the lower leno weft yarns The weaving structure of the lower leno compass yarns is such that they pass above three of the lower leno compass yarns, and then pass below at least three other consecutive lower leno compass yarns, and continue to regularly and repeatedly pass around other consecutive ones. The braiding structure of the lower leno compass yarn and the other lower leno compass yarn is to pass over the top of one of the lower leno compass yarns, and then pass around the bottom of the subsequent other lower leopard compass yarn, and Continue to loop around other successive lower leopard yarns regularly and repeatedly.

In a preferred embodiment of the present invention, the braiding structure of each upper warp yarn of the upper plain woven layer is such that it passes above one of the upper weft yarns, and then passes below the other consecutive upper weft yarn, and Continue to regularly and repeatedly bypass other consecutive upper weft yarns; and the braiding structure of each upper weft yarn of the upper plain woven layer is such that it passes over one of the upper warp yarns, and then bypasses the other consecutive upper weft yarns. Below the upper warp yarn, continue to go around other successive upper warp yarns regularly.

In a preferred embodiment of the present invention, the braiding structure of each lower warp yarn of the lower plain woven layer is such that it passes above one of the lower weft yarns, and then passes below the other consecutive lower weft yarn, and Continue to regularly and repeatedly bypass other successive lower weft yarns; and the braiding structure of each lower weft yarn of the lower plain woven layer is such that it loops over one of the lower warp yarns, and then bypasses the other successive lower weft yarns. Below the lower warp yarn, and continue to go around other successive lower warp yarns regularly and repeatedly.

In a preferred embodiment of the invention, the upper leopard yarn, the lower leopard yarn, the upper warp yarn, and the lower warp yarn are made of polyester yarn ranging from 10 to 600 denier.

In a preferred embodiment of the invention, the elastic fiber structure includes a plurality of inelastic fiber filaments and elastic fiber filaments entangled with each other.

In a preferred embodiment of this invention, the non-elastic fiber yarn is made of one of polyester yarn, polyester fiber, polyamide fiber, cotton fiber, polypropylene fiber, or a combination thereof, and the elastic fiber yarn is made of polyurethane Fiber manufacturing.

In a preferred embodiment of this invention, the non-elastic fiber yarn is made of 75-denier polyester yarn, and the elastic fiber yarn is made of 40-denier polyurethane fiber.

The breathable, moisture-permeable, thermoregulating elastic fabric of this creation includes at least the following advantages:

1. The breathable, moisture-permeable and body-temperature-regulating elastic fabric of this invention includes a plurality of breathable and moisture-permeable layers and a thermal insulation layer that are interlaced and stitched with each other. The different weaving methods of the breathable, moisture-permeable layer and the thermal insulation layer result in different knitting structures of the two. As a result, the average gap of the breathable and moisture-permeable layer is larger than the average gap of the thermal insulation layer. After the breathable and moisture-permeable layer and the thermal insulation layer are staggered, the fabric can be moisture-permeable through the breathable and moisture-permeable layer at the same time, and through the thermal insulation layer. The layers are used to keep warm, so that athletes wearing clothes made of this fabric can achieve the multiple effects of being breathable and moisture-permeable while exercising, and at the same time, the heat energy of the body parts can be preserved and insulated, thereby achieving human body temperature regulation. effect.

2. The elastic fiber structure in the upper weft yarn, the lower weft yarn, the upper weft yarn, and the lower weft yarn of this invention can further provide the wearing comfort of the fabric, allowing the user to improve the wearing comfort of the fabric. The comfort of your clothing.

3. The thermal insulation layer of this creation uses a double-layered upper plain woven layer and a lower plain woven layer. The air layer can be contained between the two layers to achieve excellent thermal insulation effect.

Please refer to Figures 1 to 6. The breathable, moisture-permeable, body temperature regulating elastic fabric 1 of this invention includes: a plurality of breathable and moisture-permeable layers and a plurality of thermal insulation layers.

Each breathable and moisture-permeable layer includes an upper leno layer 10a and a lower leno layer 10b.

The upper leno layer 10a includes a plurality of interlaced upper leno warp yarns 11a and a plurality of upper leno weft yarns 12a.

The lower leno layer 10b is connected to the upper leno layer 10a, and includes a plurality of interlaced lower leno warp yarns 11b and a plurality of lower leno weft yarns 12b. In further detail, as shown in FIG. 6 , the hooking line segment 125 of the lower leno weft yarn 12b of the lower leno layer 10b is hooked to the upper leno weft yarn 11a of the upper leno layer 10a, For example, the lower leno weft yarn 12b can be hooked by forming a hooking line segment 125 at intervals of 0.1cm along the warp direction (the intervals can be in the range of 0.01-30cm), or can be hooked along the weft direction. Every 0.17cm interval forms a hooking line segment 125 for hooking (the interval can be in the value range of 0.01-30cm). Usually, this connection method by hooking is only available in the breathable and moisture-permeable layer, and the plain woven layer does not have this hooking connection configuration.

The plurality of thermal insulation layers and the plurality of breathable and moisture-permeable layers are alternately arranged and connected, and each thermal insulation layer includes: an upper plain woven layer 20 and a lower plain woven layer 30 .

The upper plain woven layer 20 connects at least one adjacent upper leno layer 10a, and includes a plurality of interlaced upper warp yarns 21 and a plurality of upper weft yarns 22.

The lower plain woven layer 30 is located below the upper plain woven layer 20 , connects at least one adjacent lower leno layer 10 b , and includes a plurality of interlaced lower warp yarns 31 and a plurality of lower weft yarns 32 .

The average gap between the upper leno warp yarn 11 a and the upper leno weft yarn 12 a of the upper leno layer 10 a is greater than the average gap between the upper warp yarn 21 and the upper weft yarn 22 of the upper plain woven layer 20 gaps, and the average gap between the upper leno yarns 11a and the upper leno weft yarns 12a of the upper leno layer 10a is larger than the lower warp yarns 31 and the lower weft yarns 32 of the lower plain woven layer 30 average gap between. The aforementioned difference in average air gap is mainly achieved by the difference in the weaving method of the upper leno layer 10a and the weaving methods of the upper plain woven layer 20 and the lower plain woven layer 30.

The average gap between the lower leno warp yarn 11b and the lower leno weft yarn 12b of the lower leno layer 10b is greater than the average gap between the upper warp yarn 21 and the upper weft yarn 22 of the upper plain woven layer 20 There is a gap, and the average gap between the lower leno warp yarn 11b and the lower leno weft yarn 12b of the lower leno layer 10b is larger than the lower warp yarn 31 and the lower weft yarn 32 of the lower plain woven layer 30 average gap between.

At least one of the upper weft yarns 12a, the lower weft yarns 12b, the upper weft yarns 22, and the lower weft yarns 32 includes an elastic fiber structure.

Please refer to Figure 5. In a preferred embodiment of the present invention, the elastic fiber structure includes a plurality of inelastic fiber filaments 500 and elastic fiber filaments 600 intertwined with each other. At least one of the upper weft yarns 12a, the lower weft yarns 12b, the upper weft yarns 22, and the lower weft yarns 32 includes an elastic fiber structure. In a preferred embodiment of the present invention, the non-elastic fiber yarn 500 is made of one of polyester yarn, polyester fiber, polyamide fiber, cotton fiber, polypropylene fiber, or a combination thereof, and the elastic fiber yarn 600 is Made of polyurethane fiber. In a preferred embodiment of the invention, the non-elastic fiber yarn 500 is made of 75-denier polyester yarn, and the elastic fiber yarn 600 is made of 40-denier polyurethane fiber.

In addition, the weaving machine of the fabric 1 of this invention can use a small jacquard water loom, an air-jet loom, a sword belt loom, or a jacquard loom.

In a preferred embodiment of this invention, the thermal insulation layer is connected between two adjacent breathable and moisture-permeable layers.

In a preferred embodiment of the invention, an air-permeable and moisture-permeable layer is connected between two adjacent thermal insulation layers.

In a preferred embodiment of the invention, the plurality of breathable and moisture-permeable layers and the plurality of thermal insulation layers are staggered at least along the column direction or the row direction.

In the preferred embodiment of this invention, among the two adjacent upper lenocompass yarns 11a, one of the upper lenocompass yarns 11a has a weaving structure such that it passes over three of the upper lenocompass yarns 12a. And then go around the bottom of at least three other consecutive upper leno weft yarns 12a, and continue to regularly and repeatedly bypass the other consecutive upper leno weft yarns 12a, and the knitting structure of the other upper leno warp yarn 11a It goes around the top of one of the upper leno weft yarns 12a, and then goes around the bottom of the other consecutive upper leno weft yarn 12a, and continues to regularly and repeatedly go around the other consecutive upper leno weft yarns 12a. ; And among the two adjacent upper leno weft yarns 12a, the braiding structure of one of the upper leno weft yarns 12a is to pass over three of the upper leno compass yarns 11a, and then go around the other consecutive ones. At least three of the upper lenocompass yarns 11a are below and continue to regularly and repeatedly bypass other consecutive upper lenocompass yarns 11a. The other upper lenocompass yarn 12a has a weaving structure such that it bypasses one of the upper lenocompass yarns 11a. Above the upper leopard compass yarn 11a, and then around the bottom of the other consecutive upper leopard compass yarn 11a, and continue to regularly and repeatedly bypass the other consecutive upper leopard compass yarns 11a. With the above knitting structure, part of the upper leno yarn 11a crosses above three or more upper leno weft yarns 12a at a time and then winds below another three or more upper leno weft yarns 12a. The gap between the upper leno compass yarn 11a and the spanned three consecutive upper leno compass yarns 12a is compared to the position where the upper leno compass yarn 11a only spans one upper leno compass yarn 12a at a time. The gaps are large; part of the upper lenocompass yarns 12a cross over more than three upper lenocompass yarns 11a at a time and then wind under another three or more upper lenocompass yarns 11a, so that The gap between the upper leno compass yarn 12a and the spanned three consecutive upper leno compass yarns 11a is compared to the gap where the upper leno compass yarn 12a only spans one upper leno compass yarn 11a at a time. Therefore, the average gap of the upper leno layer 10a can be increased to achieve the effect of improving air permeability and moisture permeability.

In the preferred embodiment of this invention, among the two adjacent lower leno compass yarns 11b, the weaving structure of one of the lower leno compass yarns 11b is such that it passes over three of the lower leno compass yarns 12b. And then go around the bottom of at least three other consecutive lower leno weft yarns 12b, and continue to regularly and repeatedly bypass the other consecutive lower leno weft yarns 12b, and the knitting structure of the other lower leno warp yarn 11b It goes around the top of one of the lower leno weft yarns 12b, and then goes around the bottom of the other consecutive lower leno weft yarn 12b, and continues to regularly and repeatedly go around the other consecutive lower leno weft yarns 12b. ; And among the two adjacent lower leno weft yarns 12b, the weaving structure of one of the lower leno weft yarns 12b is to go around three of the lower leno weft yarns 11b, and then go around the other consecutive ones. There are at least three lower leno compass yarns 11b below and continue to regularly and repeatedly bypass other successive lower leno compass yarns 11b. The other lower lenocompass yarn 12b has a knitting structure in which it bypasses one of the lower lenocompass yarns 11b. Above the lower leopard compass yarn 11b, and then around the lower side of another successive lower leopard compass yarn 11b, and continue to regularly and repeatedly loop around other successive lower leopard compass yarns 11b.

In the preferred embodiment of the invention, the braiding structure of each upper warp yarn 21 of the upper plain woven layer 20 is such that it passes over one of the upper weft yarns 22 and then passes around the other consecutive upper weft yarn. 22 below, and continue to regularly and repeatedly bypass other consecutive upper weft yarns 22; and the braiding structure of each upper weft yarn 22 of the upper plain woven layer 20 is such that it bypasses one of the upper warp yarns 21, And then it goes around the bottom of the other consecutive upper warp yarn 21, and continues to regularly and repeatedly pass around the other consecutive upper warp yarns 21.

In the preferred embodiment of the present invention, the braiding structure of each lower warp yarn 31 of the lower plain woven layer 30 is such that it passes over one of the lower weft yarns 32 and then passes around the other subsequent lower weft yarn. 32 below, and continue to regularly and repeatedly bypass other successive lower weft yarns 32; and the weaving structure of each lower weft yarn 32 of the lower plain woven layer 30 is such that it bypasses one of the lower warp yarns 31, And then it goes around the bottom of another consecutive lower warp yarn 31, and continues to regularly and repeatedly pass around the other consecutive lower warp yarns 31.

In the preferred embodiment of this invention, the upper leopard yarn 11a, the lower leopard yarn 11b, the upper warp yarn 21, and the lower warp yarn 31 are made of polyester yarn in the range of 10-600 denier.

In addition, the weaving machine of the fabric 1 of the present invention can use a dobby water loom, an air-jet loom, a sword belt loom, a jacquard loom, or similar devices.

The breathable, moisture-permeable and thermoregulating elastic fabric 1 of this creation includes at least the following advantages:

1. The breathable, moisture-permeable and thermoregulating elastic fabric 1 of this invention includes a plurality of breathable and moisture-permeable layers and a thermal insulation layer that are interlaced and sewn with each other. The different weaving methods of the breathable, moisture-permeable layer and the thermal insulation layer result in different knitting structures. As a result, the average gap of the breathable and moisture-permeable layer is larger than the average gap of the thermal insulation layer. After the breathable and moisture-permeable layer and the thermal insulation layer are staggered, the fabric can be moisture-permeable through the breathable and moisture-permeable layer at the same time, and through the breathable and moisture-permeable layer. The thermal insulation layer keeps warm, so that athletes wearing clothes made of this fabric can achieve the multiple effects of being breathable and moisture-permeable while exercising, and at the same time, the heat energy of the body part can be preserved and insulated, thus reaching the body temperature. The effect of regulation.

2. The elastic fiber structure in the upper weft yarn 12a, the lower weft yarn 12b, the upper weft yarn 22, and the lower weft yarn 32 of this invention can further provide the wearing comfort of the fabric and improve the user's comfort. The comfort of wearing clothing made from this fabric.

3. The thermal insulation layer of this invention uses a double-layered upper plain woven layer 20 and a lower plain woven layer 30. The air layer can be contained between the two layers, thereby achieving excellent thermal insulation effect.

1: Fabric

A: Dotted box

10a: Top the leno layer

10b:Lower leno layer

11a: Upper leopard compass yarn

12a: Upper leno weft yarn

11b: Lower leno compass yarn

12b:Lower weft yarn

125: Draw line segments

20: Upper plain weave layer

21: Upper warp yarn

22: Upper weft yarn

30: Lower plain weave layer

31: Lower warp yarn

32: lower weft yarn

500: non-elastic fiber yarn

600: elastic fiber yarn

Figure 1 is a partial top view of the breathable, moisture-permeable, body temperature regulating elastic fabric of the present invention.

FIG. 2 is an enlarged partial top view of the dotted box A in FIG. 1 .

Figure 3 is an exploded top view of the upper leno layer and the lower leno layer of the breathable, moisture-permeable, body-temperature-regulating elastic fabric of the present invention.

Figure 4 is an exploded top view of the upper plain woven layer and the lower plain woven layer of the thermal insulation layer of the breathable, moisture-permeable and thermoregulating elastic fabric of the present invention.

Figure 5 is a partially enlarged three-dimensional appearance view of the elastic fiber structure of this invention.

Figure 6 is a partial side cross-sectional view of the connection structure of the upper leno layer and the lower leno layer of the present invention.

1: Fabric

A: Dotted box

10a: Top the leno layer

10b:Lower leno layer

20: Upper plain weave layer

30: Lower plain weave layer

Claims (11)

A breathable, moisture-permeable, body temperature regulating elastic fabric, including: a plurality of breathable and moisture-permeable layers, each of the breathable and moisture-permeable layers including: an upper leno layer, including a plurality of interlaced upper leno warp yarns and a plurality of upper leno weft yarns; and The lower leno layer is connected to the upper leno layer and includes a plurality of interlaced lower leno warp yarns and a plurality of lower leno weft yarns; a plurality of thermal insulation layers are alternately arranged and connected to the plurality of breathable and moisture-permeable layers, and each The thermal insulation layer includes: an upper plain woven layer, connected to at least one adjacent upper leno layer, and including a plurality of interlaced upper warp yarns and a plurality of upper weft yarns; and a lower plain woven layer located below the upper plain woven layer, Connects at least one adjacent lower leno layer and includes a plurality of interlaced lower warp yarns and a plurality of lower weft yarns; wherein, the upper leno warp yarn and the upper leno weft yarn of the upper leno layer The average gap between the upper warp yarn and the upper weft yarn of the upper plain woven layer is greater than the average gap between the upper leno warp yarn and the upper leno weft yarn of the upper leno layer. The average gap is greater than the average gap between the lower warp yarn and the lower weft yarn of the lower plain woven layer; wherein, the average gap between the lower leno warp yarn and the lower leno weft yarn of the lower leno layer is greater than the average gap between the upper warp yarn and the upper weft yarn of the upper plain woven layer, and the average gap between the lower leno warp yarn and the lower leno weft yarn of the lower leno layer is greater than the The average gap between the lower warp yarn and the lower weft yarn of the lower plain woven layer; wherein, at least one of the upper leno weft yarn, the lower leno weft yarn, the upper weft yarn, and the lower weft yarn One includes an elastic fiber structure. The breathable, moisture-permeable and thermoregulating elastic fabric as described in claim 1, wherein two adjacent ones The breathable and moisture-permeable layers are connected to the thermal insulation layer. The breathable, moisture-permeable and body-temperature-regulating elastic fabric of claim 1, wherein one breathable and moisture-permeable layer is connected between two adjacent thermal insulation layers. The breathable, moisture-permeable and thermoregulating elastic fabric of claim 1, wherein the plurality of breathable and moisture-permeable layers and the plurality of thermal insulation layers are staggered at least along the column direction or the row direction. The breathable, moisture-permeable and thermoregulating elastic fabric according to any one of claims 1 to 4, wherein among the two adjacent upper lenocompass yarns, one of the upper lenocompass yarns has a weaving structure that bypasses Three of them are above the upper leno weft yarns, and then go around below at least three other consecutive upper leno weft yarns, and continue to regularly and repeatedly bypass other consecutive upper leno weft yarns, and the other one is above The weaving structure of the leno warp yarn is such that it passes above one of the upper leno weft yarns, and then passes below the other consecutive upper leno weft yarn, and continues to regularly and repeatedly pass around the other consecutive upper leno weft yarns. leno weft yarn; and among the two adjacent upper leno weft yarns, the weaving structure of one of the upper leno weft yarn is to pass over three of the upper leno weft yarns, and then pass around the consecutive At least three other upper leno compass yarns are below and continue to regularly and repeatedly bypass other consecutive upper leno compass yarns. The braiding structure of the other upper leno compass yarn is such that it bypasses one of the upper yarns. Above the compass yarn, and then around the bottom of another consecutive upper leno compass yarn, and continue to regularly and repeatedly bypass other consecutive upper leno compass yarns; and between two adjacent lower leno compass yarns In the line, the weaving structure of one of the lower leno compass yarns is such that it passes above three of the lower leno compass yarns, and then passes below at least three other consecutive lower leno compass yarns, and continues with regularity. The weaving structure of the other lower leopard yarn is such that it passes over one of the lower leno weft yarns, and then bypasses the other consecutive lower yarn. below the weft yarns, and continue to regularly and repeatedly bypass other successive lower leno weft yarns; and among the two adjacent lower leno weft yarns, the knitting structure of one of the lower leno weft yarns is: Go around three of the lower lenos above the yarn, and then go around at least three more consecutive lower lenos. below the warp yarn, and continue to regularly and repeatedly bypass other successive lower leno compass yarns. The braiding structure of the other lower leno compass yarn is such that it passes above one of the lower leno compass yarns, and then Go around the bottom of another consecutive lower leno compass yarn, and continue to go around other consecutive lower leno compass yarns regularly and repeatedly. The breathable, moisture-permeable and thermoregulating elastic fabric according to any one of claims 1 to 4, wherein the braiding structure of each upper warp yarn of the upper plain woven layer is such that it passes over one of the upper weft yarns, and then Pass under another consecutive upper weft yarn, and continue to regularly and repeatedly bypass other consecutive upper weft yarns; and the braiding structure of each upper weft yarn of the upper plain woven layer is such that it bypasses one of the upper weft yarns. Above the warp yarn, and then around the bottom of the other consecutive upper warp yarn, and continue to regularly and repeatedly bypass the other consecutive upper warp yarn. The breathable, moisture-permeable and thermoregulating elastic fabric according to any one of claims 1 to 4, wherein the braiding structure of each lower warp yarn of the lower plain woven layer is such that it passes over one of the lower weft yarns, and then Pass under another successive lower weft yarn, and continue to regularly and repeatedly bypass other successive lower weft yarns; and the braiding structure of each lower weft yarn of the lower plain weave layer is such that it bypasses one of the lower weft yarns. Above the warp yarn, and then around the bottom of another successive lower warp yarn, and continue to regularly and repeatedly loop around other successive lower warp yarns. The breathable, moisture-permeable and thermoregulating elastic fabric according to any one of claims 1 to 4, wherein the upper leopard yarn, the lower leopard yarn, the upper warp yarn, and the lower warp yarn are represented by Manufacture of one of polyester yarn, polyester fiber, polyamide fiber, cotton fiber, polypropylene fiber, and combinations thereof in the range of 10-600 denier. The breathable, moisture-permeable and thermoregulating elastic fabric according to any one of claims 1 to 4, wherein the elastic fiber structure includes a plurality of mutually entangled inelastic fiber filaments and elastic fiber filaments. The breathable, moisture-permeable and thermoregulating elastic fabric according to claim 9, wherein the non-elastic The elastic fiber yarn is made of one of polyester yarn, polyester fiber, polyamide fiber, cotton fiber, polypropylene fiber, or a combination thereof, and the elastic fiber yarn is made of polyurethane fiber. The breathable, moisture-permeable and thermoregulating elastic fabric of claim 9, wherein the non-elastic fiber yarn is made of 75-denier polyester yarn, and the elastic fiber yarn is made of 40-denier polyurethane fiber.

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