Background
Along with the development of technology and the improvement of living standard of people, people put forward requirements of more and more versatility and comfort for wearing and household articles besides beautiful appearance. In hot summer days, the human body's appeal to the textile fabric is mainly light, thin and dry. In order to consider the light texture of the fabric, the market often selects single-sided fabric to make summer ready-made clothes, but the fabric contacting the human body does not absorb sweat after the human body sweats, the human body can feel sultry, and the fabric with good moisture absorption capability is soaked by sweat, feel cold and is dried often for a period of time, and the fabric is easy to adhere to the human body to influence the air permeability in the period of time, so the textile fabric with the unidirectional moisture guiding function is produced by the needs, meets the requirements of people on wearing, and is favored by consumers and the market.
The weft-knitted single-sided unidirectional moisture-guiding knitted fabric in the prior art is mainly divided into two major types, one type is that a coating or printing process is used for printing a water-repellent pattern on one side of the existing textile fabric by a post-finishing method so as to achieve different moisture-guiding capacities of two sides of the textile fabric, or the yarns are subjected to water-repellent pretreatment so that the textile fabric manufactured by the yarns is beneficial to a single-sided moisture-guiding function, and the other type is that the transfer capacity of liquid water on a skin-attaching surface layer and a garment surface layer of the textile fabric is realized by utilizing the yarn collocation of special-shaped sections or the double-sided variable tissue structure design mainly comprising a double-sided tissue structure.
Patent application CN202010881143.3, a polyester cover cotton one-way moisture-guiding school uniform fabric and a preparation process thereof, discloses a knitted fabric comprising an inner layer and an outer layer, wherein the inner layer fabric is made of polyester low stretch yarn with the density of 110dtex/130f, and the outer layer fabric is made of cotton yarn with the density of 13-16 tex. The preparation process comprises the following steps of S1 pretreatment, S2 dyeing, S3 dehairing, S4 post treatment and S5 forming, wherein the formed fabric has the characteristics of unidirectional moisture guiding, quick drying and ventilation.
The patent application CN201911344139.7, a preparation method of a multifunctional unidirectional wet-guiding cotton fabric, discloses a unidirectional conductive fabric formed by combining functional materials and the fabric in a coating mode, and mainly comprises the steps of (1) carrying out hydrophobic modification on gas-phase nano silicon dioxide by adopting a silane coupling agent, dispersing the gas-phase nano silicon dioxide in absolute ethyl alcohol to prepare a hydrophobic gas-phase nano silicon dioxide absolute ethyl alcohol dispersion liquid, (2) mixing the hydrophobic gas-phase nano silicon dioxide absolute ethyl alcohol dispersion liquid with a fluorine-containing water repellent agent to prepare a water repellent coating agent, and (3) carrying out single-sided interval coating finishing on the cotton fabric by adopting the water repellent coating agent, and after pre-baking and baking, obtaining the multifunctional unidirectional wet-guiding cotton fabric.
Patent application CN201922433023.2, a unidirectional moisture-conducting fabric, discloses a unidirectional moisture-conducting fabric comprising a waterproof inner layer, unidirectional moisture-conducting points, a fabric inner layer, a fabric surface layer and a hydrophilic outer layer, wherein the waterproof inner layer and the unidirectional moisture-conducting points are positioned at the innermost side and are in contact with a human body, the waterproof inner layer is compounded on the inner side of the fabric inner layer through a printing process, the fabric surface layer is combined on the outer side of the fabric inner layer through a binding method, the unidirectional moisture-conducting points are formed on the inner side of the fabric inner layer, the hydrophilic outer layer is compounded on the outer side of the fabric surface layer through a soaking-rolling-baking process, and the hydrophilic outer layer is positioned at the outermost side to realize the unidirectional conduction function.
Patent application CN201811027306.0, "a multi-functional unidirectional moisture-conducting fabric", discloses a multi-functional unidirectional moisture-conducting fabric is double-sided knitting mesh cloth, weaves through the double-sided knitting machine and forms the grey cloth of double-sided structure, the inlayer of grey cloth forms the mesh structure through the weave of collection circle, the outer surface area of grey cloth is greater than the inlayer, forms the yarn of inlayer is polyethylene yarn or polyethylene composite fiber yarn, forms the outer yarn is the yarn that the hydroscopicity is good, has cool and smooth, easily dyes and has unidirectional moisture-conducting and ultraviolet resistance function.
The prior patent fabric realizes the unidirectional conduction function through the after-finishing, structural design and other technologies. The unidirectional conductive fabric realized by the after-finishing modes such as printing or coating has poor water washing resistance, hard feel and dryness, and affects the softness and comfort of wearing. The technology is suitable for flat cloth covers, is not suitable for cloth with fluff or concave-convex structures on the back surfaces, is thick and heavy, causes the wearing to feel oppressive, and is poor in heat preservation performance, and the prior double-sided patent fabric has a single conduction function realized by combining structural design with raw material collocation, such as a mesh structure is adopted on a clothing surface, and a plain weave structure is adopted on a skin-adhering surface, so that sweat is not beneficial to contact and diffusion of water absorption materials on the clothing surface due to a small clearance of the plain weave structure.
Disclosure of Invention
In order to solve the technical problems, the invention provides a light, thin and soft single-sided weft knitting fabric with differential moisture transfer, which adopts the following technical scheme:
A light, thin and soft single-sided weft-knitted fabric with differential moisture transfer comprises a fabric body, wherein the fabric body comprises a first yarn Y 1 and a second yarn Y 2 which are interwoven and are woven through a weft-knitted single-sided plain weave and/or single-sided variable weave structure, the fabric body is provided with a garment surface and a skin surface, the skin surface is provided with geometrically discontinuous raised areas, the garment surface is formed by a loop forming and tucking structure in unit area, the skin surface is formed by a loop forming and tucking or floating structure, the garment surface is formed with a loop forming weaving unit and a tucking weaving unit, the skin surface is formed with a loop forming weaving unit and a non-loop forming weaving unit, in one unit cycle structure of the fabric body, the skin surface at least contains one path of yarns for weaving the non-loop forming unit, the length of the non-loop forming weaving unit is less than or equal to 4 needles, and the area of the yarns for weaving the non-loop forming weaving unit is less than or equal to 70% of the unit area in the total path number of the unit cycle structure.
Further, the ratio of the yarn coverage area of the clothing surface to the yarn coverage area of the skin surface is more than 1.5, the clothing surface coverage area S F is S F=mSY1+nSY2, the skin surface yarn coverage area S B is S B=mSY1+W×nSY2, whereinM is the number of first yarns in a unit circulation structure, n is the number of second yarns in the unit circulation structure, in one knitted coil in the unit circulation structure of the fabric body, the unit coverage area S 1=5.42D2 of the skin-facing yarn is in the unit circulation structure of the fabric body, the unit coverage area S 2=6.928D2 of the clothing surface yarn is in the unit coverage area S 2=6.928D2 of the clothing surface yarn, and D is the inner radius of a semicircle of a needle knitting arc and a sinker arc.
Further, the first yarn Y 1 has a moisture-conductive capacity greater than that of the second yarn Y 2, and the ratio of the moisture-conductive capacity of the second yarn to that of the first yarn is greater than 1.2, and the second yarn Y 2 is woven on a non-skin-facing surface.
Further, the first yarn Y 1 is one or at least two blended yarns of polyester fiber, polyamide fiber, plant fiber and regenerated cellulose fiber.
Further, the second yarn Y 2 is one or a mixture yarn of at least two of polypropylene, polyester fibers, plant fibers and regenerated cellulose fibers, and the surface contact angle theta 2 is more than or equal to 45 degrees.
Further, the clothing surface is a jacquard weave structure combining a looping knitting unit and a tuck knitting unit, or a plain weave structure.
Further, the ratio of the number of the loop knitting units to the tuck knitting units in the unit area of the clothing surface is more than 1 and less than or equal to 3.
Further, the ratio of loop-forming knit units to non-loop-forming knit units of the skin facing is between 1:1 and 1:3.
Further, the skin-facing surface is subjected to napping treatment to form a napped surface, so that the warmth retention capacity of the fabric is improved, the wearing comfort is improved, and the unidirectional liquid water transmission index is increased.
Further, the fabric body further comprises spandex elastic fibers.
The invention has the beneficial effects that a single-sided weft knitting loom is used, wherein the fabric clothing surface is formed by a loop forming and loop collecting structure to form micro holes for enhancing air convection, and the fabric skin surface is formed by a loop forming, loop collecting and yarn floating structure to enhance air permeability. And at least one yarn of the clothing surface of the fabric in one unit circulation structure has the action of not participating in looping knitting, and the non-looping action accounts for less than or equal to 70% of the unit area of the total number of the yarns in one unit circulation structure. The first yarn Y 1 is a low water conductivity yarn and the second yarn Y 2 is a high water conductivity yarn. The second yarn Y 2 is a non-skin-facing surface, so that the probability of the high water-conducting yarn contacting the skin is reduced, thereby reducing wet sticky feeling after sweating and slowing down the horizontal diffusion of moisture in the skin-facing surface. The invention has the characteristics of differentiated moisture-conducting capability, light weight, thinness and softness, and ensures that the skin-contacting surface is always dry, comfortable and non-sticky.
Detailed Description
The following description of the embodiments of the present invention will be made clearly and completely with reference to the accompanying drawings, in which it is apparent that the embodiments described are only some embodiments of the present invention, but not all embodiments. All other embodiments, which can be made by those skilled in the art without making any inventive effort, are within the scope of the present invention, based on the embodiments of the present invention, and refer to fig. 1-4.
A light, thin and soft single-sided weft-knitted fabric with differential moisture transfer is knitted by a single-sided weft-knitted knitting machine, and comprises a fabric body, wherein the fabric body comprises first yarns Y 1 and second yarns Y 2 which are interwoven and knitted through weft-knitted single-sided plain weave and/or single-sided variable weave structures, the fabric body is provided with a clothing surface and a skin surface, the skin surface is provided with geometrically discontinuous raised areas, the clothing surface is formed by a looping and tucking structure in unit area, the skin surface is formed by a looping and tucking or floating structure, a looping weaving unit, a tucking weaving unit and a non-looping weaving unit are formed on the skin surface, the skin surface at least contains one path of yarns for weaving the non-looping weaving unit in one unit cycle organization of the fabric body, the length of the non-looping weaving unit on the skin surface is less than or equal to 4 needles, and the total unit area of the yarns for the non-looping weaving unit in one unit cycle organization is less than or equal to 70%. The looping knitting units and the tucking knitting unit structure of the clothing surface can form micro holes for enhancing air convection and improve the air convection effect.
The first yarn Y 1 is a low water conductivity yarn, the second yarn Y 2 is a high water conductivity yarn, the water conductivity of the first yarn Y 1 is greater than that of the second yarn Y 2, the ratio of the water conductivity of the second yarn to that of the first yarn is greater than 1.2, and the second yarn Y 2 is woven on a non-skin-contact surface, so that the probability of contact between the high water conductivity yarn and skin is reduced, wet sticky feeling after sweating is reduced, and horizontal diffusion of moisture on the skin-contact surface is slowed down.
The clothing surface coverage area S F is S F=mSY1+nSY2, the skin-adhering surface coverage area S B is S B=mSY1+W×nSY2, and the method comprisesM is the number of first yarns in a unit circulation structure, n is the number of second yarns in the unit circulation structure, in one coil in the unit circulation structure of the fabric body, the unit coverage area S 1=5.42D2 of the skin-contacting surface yarns and the unit coverage area S 2=6.928D2 of the clothing surface yarns are formed, wherein D is the inner circle radius of a semicircle of a needle knitting arc and a sinker arc.
Referring to fig. 1, from the Peirce classical weft-knitted loop model it follows:
The Peirce coil model assumes that yarns are in an ideal state completely in a fabric, the yarns are not stretched and pressed, the cross section of the yarns is uniformly and uniformly circular, the stitch loops and the sinker loops are approximately represented by semicircles, the stitch loops and the sinker loops are connected by straight lines, the stitch loops of the next row are tangential to the sinker loops of the previous row, two adjacent sinker loops or two adjacent stitch loops are tangential, the outer radius of the stitch loops and the sinker loops is 2D, the inner radius of the stitch loops is D, the outer circle area = 4pi D 2, the inner circle area = pi D 2, and the cylinder height is h:
The unit organization structure of the skin-facing surface and the clothing surface shown in fig. 1 is formed by alternately knitting the first yarn Y 1 and the second yarn Y 2, wherein the unit organization structure is obtained according to a Peirce coil model, and the unit coverage area S 1 of the skin-facing surface yarn in one coil is equal to the outer circle area-inner circle area
=4πD2-πD2
=3πD2
=9.42D2-4D2
=5.42D2
In one loop, the unit coverage area S 2=h Ring column x D x2 of the clothing face yarn
=h×D×2
=3.464D×D×2
=6.928D2
As a further aspect of the present invention, the first yarn Y 1 has a moisture-conducting capacity greater than that of the second yarn Y 2, and D Y2:DY1 is greater than 1.2, and the second yarn with high moisture-conducting capacity is woven on a non-skin-facing surface. The first yarn Y 1 may be a polyester fiber, a polyamide fiber, a plant fiber, a regenerated cellulose fiber, and a blended yarn thereof.
The second yarn Y 2 is one or a mixture yarn of at least two of polypropylene, polyester fiber, plant fiber and regenerated cellulose fiber, and the surface contact angle theta 2 is more than or equal to 45 degrees.
The garment surface is a jacquard weave structure or a plain weave structure formed by combining a looping and weaving unit and a tuck and weaving unit.
The ratio of the number of the looping and weaving units to the number of the tucking and weaving units in the unit area of the clothing surface is more than 1 and less than or equal to 3, so that the cloth surface has a tiny Kong Jili, the convection between the air is enhanced, and the air permeability of the fabric is improved.
The ratio of the skin-facing looping textile unit to the non-looping textile unit is between 1:1 and 1:3.
The knitted fabric facing surface can be subjected to napping treatment to form a thermal layer, so that the thickness of the fabric is increased to facilitate the differentiated transfer of liquid water.
The skin-facing surface is subjected to napping treatment to form a heat-insulating layer, so that the heat-insulating capability of the fabric is improved, the wearing comfort is improved, the unidirectional transfer index of liquid water is increased, the probability of yarn contact with skin is reduced, the thickness of the fabric is increased to facilitate the differentiated transfer of the liquid water, and the soft comfort of hand feeling is improved.
The spandex elastic fiber is added into the knitted fabric, and the spandex content is more than 5%, so that the elasticity and the quality of the fabric body are improved.
The fabric body has the fabric gram weight smaller than 200g/m < 2 >, and is light in weight and free of oppression.
The fabric body adopts the production process of yarn, grey cloth weaving, high Wen Yuding, overflow dyeing and shaping, the gram weight of the finished fabric after shaping is 130g/m <2 >, and the skin-facing surface is subjected to napping treatment to increase warmth retention, so that the fabric is comfortable and soft to wear, light and thin, and has no sense of compression.
Example 1:
The first yarn Y 1 adopts common polyester with C-shaped section, PES 80D/144F, and the second yarn Y 2 adopts common polyester with circular section, PES 30D/24F. The two yarns are interwoven to form a fabric body, and the weft knitting single-sided plain weave is formed. The fabric body is provided with a clothing surface and a skin-adhering surface, the clothing surface is formed by a looping and tucking structure, and the first yarn Y 1 and the second yarn Y 2 are woven to form the clothing surface. The skin-adhering surface is composed of a looping and collecting loop or floating line structure. The second yarn Y 2 is knitted on the skin surface to form a non-looping knitting unit, and the first yarn Y 1 is exposed on the skin surface to form a geometric discontinuous raised area. In a unit circulation structure, two first yarns Y 1 and one second yarn Y 2 are formed, m=2, and n=1.
In this embodiment, as shown in FIGS. 1 to 3, the coverage area S B=2S1Y1+S2y2 W of the skin-facing yarn is equal to the coverage area S F=2S2y1+S2y2 of the knitted fabric clothing face yarn.
The equivalent radius of the terylene monofilament of the first yarn Y 1 (80D/144F) is as follows:
DY1=2×3.80=7.6(μm)
Similarly, we calculated the second yarn Y 2 (30D/24F) as having an equivalent radius of polyester monofilament of:
DY2=2×5.70=11.4(μm)
In summary, the coverage area of the skin-facing yarns of the knitted fabric in a unit circulation weave structure
The knitted fabric has a covering area S of the face yarn of the garment in a unit cycle weave structure F=2S2Y1+S2Y2=6.928DY1 2×2+6.928DY2 2
=1700.69μm2
Thereby, S F:SB =1.39.
In this example the first yarn Y 1 (contact angle 55 ° and the second yarn Y 2 contact angle 63 °) was measured according to the standard AATCC 195"Liquid Moisture Management Properties of Textile Fabrics liquid moisture management performance of the textile.
Comparative example 1:
The first yarn Y 1 and the second yarn Y 2 are interwoven by adopting common polyester (PES 80D/144F) to form weft-knitted single-sided plain fabric, and the contact angle is 55 degrees. Also, in a unit cycle structure, two first yarns Y 1 and one second yarn Y 2 are formed. The knitted fabric described above was measured for liquid moisture management properties "according to standard AATCC 195"Liquid Moisture Management Properties of Textile Fabrics textile. The unidirectional moisture permeability OWTC (one way transport capability) of the fabric is measured to be 80%.
Compared with the fabric, the fabric is light, thin and soft by modifying the structure and the yarn count of the fabric, the unidirectional moisture-conducting capacity of the fabric is greatly improved, and the dryness and comfort of the skin-facing surface of the fabric body can be kept for a long time.
Example 2:
Based on example 1, 150D/288F polyester was used as the first yarn Y 1 and 40D/36F polypropylene was used as the second yarn Y 2. The two yarns are interwoven to form a fabric body, and napping treatment is carried out. The second yarn Y 2 is the yarn of the non-loop knitting unit of the skin surface, and the first yarn Y 1 is exposed on the skin surface and is a geometrically discontinuous raised area. The clothing surface is of jacquard structure, and the skin-adhering surface is provided with a fluff area. In a unit circulation structure, two first yarns Y 1 and one second yarn Y 2 are formed, m=2, and n=1.
In this example, the coverage area S B=2S1Y1+S2y2 W of the skin-facing yarn was found to be the coverage area S F=2S2y1+S2y2 of the knitted fabric clothing face yarn.
The equivalent radius of the terylene monofilament of the first yarn Y 1 (150D/288F) is as follows:
DY1=2×3.16=6.32(μm)
Similarly, we calculated the second yarn Y 2 (40D/36F) as having a polypropylene monofilament equivalent radius of:
DY2=2×4.47=8.94(μm)
in summary, the invention relates to the coverage area of the skin-facing yarn in a unit circulation organization structure
The invention covers the surface yarn S in a unit circulation organization structure F=2S2Y1+S2Y2=6.928DY1 2×2+6.928DY2 2
=1107.15μm2
Thereby, S F:SB =1.34.
The contact angle of the first yarn Y 1 in this example is 58 ° and the contact angle of the second yarn Y 2 is 71 °. The knitted fabric was measured for liquid moisture management properties of standard AATCC 195"Liquid Moisture Management Properties of Textile Fabrics textiles. The unidirectional moisture-conducting capacity OWTC (one way transport capability) of the fabric body measured this time is 320%.
Comparative example 2:
The first yarn Y 1 and the second yarn Y 2 are interwoven by common polyester (150D/288F) to form weft-knitted single-sided fabric, and the structure is the same as that of the embodiment 1. The contact angle of the yarn was 56 °. Also, in a unit cycle structure, two first yarns Y 1 and one second yarn Y 2 are formed. The knitted fabric described above was measured for liquid moisture management properties "according to standard AATCC 195"Liquid Moisture Management Properties of Textile Fabrics textile. The unidirectional moisture permeability OWTC (one way transport capability) of the fabric was measured to be 90%.
By comparing the two, the fabric is light, thin and soft by modifying the structure and the yarn count of the fabric and adding the napping treatment, the unidirectional moisture-conducting capacity of the fabric is greatly improved, and the dryness and comfort of the skin-adhering surface of the fabric body can be kept for a long time.
Example 3:
Based on the embodiment 1, a first yarn Y 1 is terylene (PES 80D/144F) and a second yarn Y 2 is nylon 66 (50D/48F), and the two yarns are interwoven to form a fabric body and form the weft-knitted single-sided fabric. The second yarn Y 2 is the yarn of the non-loop knitting unit of the skin surface, and the first yarn Y 1 is exposed on the skin surface and is a geometrically discontinuous raised area. In one unit cycle structure, composed of four first yarns Y 1 and three second yarns Y 2, m=4, n=3.
In this example, the coverage area S B=4S1Y1 of the skin-facing yarn was equal to or greater than the coverage area S F=4S2y1+3S2y2 XW of the knitted fabric clothing face yarn.
The equivalent radius of the terylene monofilament of the first yarn Y 1 (80D/144F) is as follows:
DY1=2×3.80=7.6(μm)
Similarly, we calculated the second yarn Y 2 (50D/48F) nylon 66 monofilament equivalent radius as:
DY2=2×4.47=8.94(μm)
in summary, the invention relates to the coverage area of the skin-facing yarn in a unit circulation organization structure
The invention covers the surface yarn S in a unit circulation organization structure F=4S2Y1+3S2Y2=6.928DY1 2×4+3×6.928DY2 2
=3261.78μm2
Thereby, S F:SB =1.22.
In this example the contact angle of the first yarn Y 1 (80D/144F) is 58 and the contact angle of the second yarn Y 2 (50D/48F) is 71. The knitted fabric was measured for liquid moisture management properties of standard AATCC 195"Liquid Moisture Management Properties of Textile Fabrics textiles. The unidirectional moisture-conducting capacity OWTC (one way transport capability) of the fabric body measured this time is 280%.
Comparative example 3:
As can be seen from comparison of test results, the fabric is light, thin and soft by modifying the structure and the yarn count of the fabric and adding napping treatment, and the unidirectional moisture-conducting capacity of the fabric is greatly improved.
Example 4:
Based on the embodiment 1, the first yarn Y 1 is terylene (200D/256F) and the second yarn Y 2 is terylene (30D/24F), and the two yarns are interwoven with each other to form a fabric body, and the weft-knitted single-sided fabric is formed. Wherein the second yarn Y 2 (30D/24F) is the yarn of the non-loop knitting unit of the skin-facing surface, and the first yarn Y 1 (200D/256F) is exposed on the skin-facing surface and is a geometrically discontinuous raised area thereof. One unit cycle structure consists of one first yarn Y 1 (200D/256F) and one second yarn Y 2 (30D/24F), m=1, n=1.
In this example, the coverage area S B=S1Y1+S2y2 W of the skin-facing yarn was found to be the coverage area S F=S2y1+S2y2 of the knitted fabric clothing face yarn.
The equivalent radius of the terylene monofilament of the first yarn Y 1 (200D/256F) is as follows:
DY1=2×4.77=9.54(μm)
Similarly, we calculated the second yarn Y 2 (30D/24F) as having an equivalent radius of polyester monofilament of:
DY2=2×5.70=11.4(μm)
in summary, the invention relates to the coverage area of the skin-facing yarn in a unit circulation organization structure
The invention covers the surface yarn S in a unit circulation organization structure F=S2Y1+S2Y2=6.928DY1 2+6.928DY2 2
=1530.89μm2
Thereby, S F:SB =1.23.
In this example the contact angle of the first yarn Y 1 (200D/256F) is 52 and the contact angle of the second yarn Y 2 (30D/24F) is 68. The knitted fabric was measured for liquid moisture management properties of standard AATCC 195"Liquid Moisture Management Properties of Textile Fabrics textiles. The unidirectional moisture-conducting capacity OWTC (one way transport capability) of the fabric body measured this time is 330%.
Comparative example 4:
The first yarn Y 1 and the second yarn Y 2 are respectively interwoven by terylene (200D/256F) to form weft-knitted single-sided fabric, and the structure is the same as that of the embodiment 1. The contact angle of the yarn was 48 °. Also comprised of a first yarn Y 1 (200D/256F) and a second yarn Y 2 (200D/256F) in a unit cycle of organization. The knitted fabric described above was measured for liquid moisture management properties "according to standard AATCC 195"Liquid Moisture Management Properties of Textile Fabrics textile. The unidirectional moisture permeability OWTC (one way transport capability) of the fabric was measured to be 90%.
According to comparison of test results, the fabric is light, thin and soft by modifying the structure and the yarn count of the fabric and adding the napping treatment, and the unidirectional moisture-conducting capacity of the fabric is greatly improved.
Example 5:
In example 1, elastic yarns (such as spandex) are added, and the first yarn Y 1 is made of polyester (80D/144F) and the second yarn Y 2 is made of polyester (75D/72F). The three yarns are interwoven to form a fabric body, and a weft knitting single face is formed. The fabric body is provided with a clothing surface and a skin-adhering surface, and spandex is used as binding yarn of the fabric body. The garment facing is formed of a loop forming and gathering structure, and the first yarn Y 1 (80D/144F) and the second yarn Y 2 (75D/72F) form the garment facing. The skin-adhering surface is composed of a looping and collecting loop or floating line structure. Wherein the second yarn Y 2 (75D/72F) is the yarn of the non-loop knitting unit of the skin-facing surface, and the first yarn Y 1 (80D/144F) is exposed on the skin-facing surface and is a geometrically discontinuous raised area thereof. One unit cycle consists of two first yarns Y 1 (80D/144F) and one second yarn Y 2 (75D/72F), m=2, n=1.
In this embodiment, spandex is used as the binding yarn, and the area occupied by the spandex is small and can be ignored. The coverage area S B=2S1Y1+S2y2 XW of the skin-facing yarn, and the coverage area S F=2S2y1+S2y2 of the knitted fabric clothing face yarn.
The equivalent radius of the terylene monofilament of the first yarn Y 1 (80D/144F) is as follows:
DY1=2×3.80=7.6(μm)
Similarly, the equivalent radius of the second yarn Y 2 (75D/72F) terylene monofilament is calculated as follows:
DY2=2×4.47=8.94(μm)
in summary, the invention relates to the coverage area of the skin-facing yarn in a unit circulation organization structure
The invention covers the surface yarn S in a unit circulation organization structure F=2S2Y1+S2Y2=6.928DY1 2×2+6.928DY2 2
=1354.03μm2
Thereby, S F:SB =1.05.
In this example the contact angle of the first yarn Y 1 (80D/144F) is 61 and the contact angle of the second yarn Y 2 (75D/72F) is 69. The knitted fabric was measured for liquid moisture management properties of standard AATCC 195"Liquid Moisture Management Properties of Textile Fabrics textiles. The unidirectional moisture-conducting capacity OWTC (one way transport capability) of the fabric body measured this time is 290%.
Comparative example 5:
according to the invention, the structure and the yarn count of the fabric are modified and napped, so that the fabric is light, thin and soft, and the unidirectional moisture-conducting capacity of the fabric is greatly improved.
Example 6:
The same yarn and structure as in example 1 were used, and a single-sided plain weave fabric was composed of two first yarns Y 1 (80D/144F) and one second yarn Y 2 (30D/24F). In one unit cycle tissue, m=1, n=3.
In this example, the coverage area S B=S1Y1+3S2y2 W of the skin-facing yarn was found to be the coverage area S F=S2y1+3S2y2 of the knitted fabric clothing face yarn.
The equivalent radius of the first yarn Y 1 D/144F polyester monofilament is as follows:
DY1=2×3.80=7.6(μm)
Similarly, we calculated the second yarn Y 2 (30D/24F) as having an equivalent radius of polyester monofilament of:
DY2=2×5.70=11.4(μm)
in summary, the coverage area of the skin-facing yarn of the knitted fabric in a unit circulation weave structure
The knitted fabric has a covering area S F=S2Y1+3S2Y2=6.928DY1 2+6.928DY2 2 x 3 of the face yarn of the garment in a unit cycle weave structure
=3101.25μm2
Thereby, S F:SB =1.47.
In this example the contact angle of the first yarn Y 1 (80D/144F) is 55 and the contact angle of the second yarn Y 2 (30D/24F) is 63. The knitted fabric was measured for liquid moisture management properties of standard AATCC 195"Liquid Moisture Management Properties of Textile Fabrics textiles. The unidirectional moisture-conducting capacity OWTC (one way transport capability) of the fabric body measured this time is 280%.
Comparative example 6:
The same yarn count and structure as in comparative example 1 were used, and the first yarn Y 1 and the second yarn Y 2 were each interwoven with polyester (80D/144F) to form a weft knitted single sided fabric, and the structure was the same as in example 1. The contact angle of the yarn was 53 °. The unidirectional moisture permeability OWTC (one way transport capability) of the fabric is measured to be 80%.
According to comparison of test results, the fabric is light, thin and soft by modifying the structure and the yarn count of the fabric, and the unidirectional moisture-conducting capacity of the fabric is greatly improved.
The fabric can be obtained by the above example, the fine yarns are not pasted by utilizing the interweaving of the fine yarns and the coarse yarns, so that the difference of capillary water guide capacity of the two surfaces of the fabric is obviously enhanced, the purpose of keeping the skin surface of a human body dry and comfortable all the time is achieved, and meanwhile, the fabric has the light, thin, soft and differential moisture guide capacity. The knitted fabric can meet the requirements of people on wearing comfort, functionality and practicability, has a wide application range, and has good market prospect and economic and social benefits.
Furthermore, it should be understood that although the present disclosure describes embodiments, not every embodiment is provided with a separate embodiment, and that this description is provided for clarity only, and that the disclosure is not limited to the embodiments described in detail below, and that the embodiments described in the examples may be combined as appropriate to form other embodiments that will be apparent to those skilled in the art.