Circular knitted fabric structure and production method with regional capillary channels providing unidirectional moisture transfer.

Abstract

The invention relates to a circular knit fabric developed for use in the textile field, particularly in sports textiles, performance wear, outdoor clothing, technical underwear, military textiles, active lifestyle products, and functional knitted fabric applications requiring high sweat management. The invention specifically concerns the structure of the circular knit fabric with regional capillary channels that enable controlled and unidirectional transport of body sweat from the inner surface of the fabric in contact with the skin to the outer surface, and the method of producing this fabric.

Description

1 TARIFF Circular knitting with regional capillary channels providing unidirectional moisture transfer. Fabric Structure and Production Method Technical Area The invention is in the textile field, specifically in sports textiles, performance apparel, outdoor clothing, 5 Technical underwear, military textiles, active lifestyle products, and high sweat management products. round shape developed for use in functional knitted fabric applications requiring It relates to knitted (circular knit) fabric. The invention specifically enables the controlled transfer of body sweat from the inner surface of the fabric in contact with the skin to the outer surface. and circular knitting with regional capillary channels that enable unidirectional transport 10 It relates to the structure of knitted fabric and the method of its production. State of the Art Today, in sportswear, technical textiles and performance-oriented apparel applications Moisture management in the fabrics used is mainly based on moisture-absorbing fibers and quick drying. 15 by using synthetic yarns with this property and polyester fibers with a multi-channel cross-section This is achieved by transporting sweat within the fabric structure. The goal is to accelerate evaporation and leave the user feeling drier. However, moisture transport is a major issue in the fabric structures used in current technology. This depends to a certain extent on the natural capillary action of the fibers and the random pore structure on the fabric surface. This occurs by allowing the moisture to move in a controlled manner in specific directions. Because there is no directed capillary network structure, sweat mostly settles on the fabric surface. It spreads homogeneously and irregularly. This situation allows sweat to effectively penetrate from the skin surface to the external environment. and limits its controlled removal. 25 Especially during high-intensity physical activities, the inner part of the fabric that comes into contact with the skin... Moisture can accumulate on the surface, resulting in a prolonged feeling of wetness. This prolongs the drying time and negatively affects user comfort. Furthermore... Uncontrolled spread of moisture within the fabric reduces evaporation efficiency and 30 This leads to a decrease in the thermophysiological comfort expected from performance clothing. It is possible. 2 On the other hand, in current fabric technologies, the capillary channel structure and density are generally It is designed to be permanently fixed throughout the entire fabric surface, conforming to the different shapes of the human body. Regionally optimized according to the varying amounts of sweating occurring in different regions. This is not possible. Therefore, in areas with high sweating such as the armpits, back, chest, and waist... Moisture transfer performance and the required moisture level in areas with lower sweating are measured in 5. The management is attempted to be met with the same structure. This situation affects both the moisture transport efficiency. both reduce and optimize the functional performance of the fabric. This leads to the inability to deliver. The solutions included in current technology enable the directed and controlled transport of moisture. capillary duct architecture that can be optimized according to regional sweating intensity. It cannot provide this. Therefore, it will increase user comfort and control moisture transfer. new fabric that will direct and provide moisture management specific to different body areas They need these structures. In conclusion, due to the negative aspects described above and the current solutions, the subject matter... Due to its shortcomings, an improvement is needed in the relevant technical field. It has been made. Purpose of the Invention 20 The present invention meets the aforementioned requirements while eliminating all disadvantages. Regional moisture transfer system that removes moisture and brings some additional advantages. It relates to the circular knitted fabric structure with capillary channels. The primary aim of the invention is to address uncontrolled moisture found in existing knitted performance fabrics. spread, feeling of wetness on the skin surface, inadequate one-way moisture transfer, and differential sweating. eliminating problems of inability to adapt to body regions with different densities The goal is to develop a new knitted fabric structure. The purpose of the invention is to create a circular knit structure in which knit (plain stitch) and tuck (sling) stitches are incorporated. Capillary channels are created using specific repetition sequences of (miss) and (skipped) stitches. these zones allow moisture to move from the inner surface of the fabric that comes into contact with the skin to the outer surface. The goal is to offer a knitted fabric structure that enables controlled and directed transport. 35 3 One aim of the invention is to create a hydrophobic or low absorbent surface on the inner surface of the fabric that comes into contact with the skin. The yarns have a high moisture dispersion and evaporation capacity on their outer surface. Unidirectional capillary fluid transport between two surfaces using multi-channel polyester yarns. The aim is to reduce moisture buildup on the inner surface, resulting in a drier feel. obtaining and spreading the moisture over a wide area on the outer surface in a shorter time 5 The goal is to vaporize it. Another objective of the invention is to be able to change the capillary channel density in different regions of the fabric. By designing it in such a way as to retain moisture in high sweating areas such as the armpits, back, chest, etc. While increasing load-bearing capacity, it also improves fabric stability in areas with lower sweating. and to provide a structure that will maintain its mechanical integrity. Another purpose of the invention is to allow for regional modification of loop reports. by enabling the creation of different capillary channel densities within the same fabric and Thus, the product depends on its intended use and the regional sweating characteristics of the human body. The goal is to ensure that appropriate and optimized humidity management is implemented. Another aim of the invention is to improve existing moisture management systems that rely solely on the use of specialized fibers or yarns. Unlike other systems, capillary channels are created within the geometry of the knitted fabric. Its architecture enables directed moisture transfer, with no additional chemical treatment required. can be produced using existing circular knit production technologies, without requiring additional materials, and with different performance characteristics. The aim is to offer a functional knitted fabric structure that can be applied to garments. Another purpose of the invention is to create sports t-shirts, performance base layers, running clothes, cycling gear, and more. In uniforms, outdoor textiles, military underwear and technical work clothes, the fabric is 25%. can be applied as a panel to the entire area or only to areas with high sweating, regionally. The goal is to create a high-performance knitted fabric structure that provides moisture management. To achieve the purposes described above, the invention involves an inner surface that comes into contact with the skin. It is a knitted fabric structure containing an outer surface located opposite this inner surface, 30 inner surface, hydrophobic or low absorbency yarn, Its outer surface is made of multi-channel polyester yarn with moisture-wicking capacity; unidirectional transfer of moisture between the inner and outer surfaces, from the inner to the outer surface. to ensure accuracy, knit, tuck, and miss stitches. It contains at least one capillary channel region formed by combinations of these and the word 35 4 The subject is capillary channel regions with different densities in different areas of the fabric. It has been arranged. To fulfill the purposes described above, the invention involves an inner surface that comes into contact with the skin. This is a knitting fabric production method that includes an outer surface located opposite an inner surface, 5 It includes the following steps; a. Using a circular knit (round knitting) nourishing system, the inner part that comes into contact with the skin a hydrophobic or low-absorbent yarn on the surface, a multi-channel polyester yarn on the outer surface nutrition, b. knit, tuck, and miss combinations (stitch 10) by weaving the report with repetitions, capillary channel regions are created between the inner and outer surfaces. creation, c. loop report densities of capillary channel regions in different regions of knitted fabric Creating regional channel density by modifying the existing channels. The structural and characteristic features and all the advantages of the invention are given in the figures below. Thanks to the detailed explanation written with references to the figures, it becomes clearer. This will be understood, and therefore the evaluation should also take these figures and detailed explanations into account. It must be done by taking 20. Figures that will help understand the invention. Figure 1: Unidirectional moisture transfer from the inner surface to the outer surface. Figure 2: Regional capillary channel arrangement on the fabric surface. Figure 3: Regions of high, low, and medium capillary duct density 25 Figure 4: Capillary channel with Knit / Tuck / Miss stitch pattern. formation Figure 5: Circular knit feeder system and yarn placement. Figure 6: Revised fabric cross-section view. Explanation of References 1) Knitted fabric 2) Inner surface 3) Outer surface 4) Capillary canal region 5) Direction of moisture transfer 6) Moisture collection zone 5 7) Moisture release / drainage area 8) Multi-channel polyester yarn 9) Knit Stitch 10) Tuck Loop 11) Missed Stitch 10 12) Hydrophobic or low absorbency yarn 13) Circular knit feeding system 14) Regional channel density 14A) Region with high capillary channel density 14B) Region with low capillary channel density 15 14C) Region with moderate capillary duct density 15) Fabric cross-section Detailed Description of the Invention 20 This detailed explanation of the invention is solely for the purpose of better understanding the subject and does not include any other information. It is explained in a way that will not create a limiting effect. The invention consists of an inner surface (2) that comes into contact with the skin and an outer surface (2) located opposite this inner surface. It is related to the structure of the knitted fabric (1) containing the surface (3). The knitted fabric (1) in question is related to the skin. The inner surface in contact (2) is hydrophobic in such a way as to reduce the retention of moisture in the fabric. or contains low absorbency yarn (12); outer surface (3) opposite inner surface (2) multi-channel polyester yarn (8) which facilitates the spreading and evaporation of moisture. It includes. 30 The subject of the invention is a knitted fabric (1), with a plain loop (knit) (9) between the inner surface (2) and the outer surface (3), Certain repetitions of the combination of tuck (10) and miss (11) It includes capillary channel regions (4) formed by their arrangements. The said capillary channel regions (4), moisture is directed from the inner surface (2) to the outer surface (3) within the fabric It creates a channel structure that will enable one-way transfer in this way. 35 6 The mentioned capillary channel regions (4) have different densities in different regions of the fabric. It has been arranged. The channel density mentioned in the invention refers to the knit (K), tuck (T) and capillary channel regions that make up the capillary channel. miss (M) stitch reports repeat 5 in the direction of the fabric's wale, in other words, the stitch column. This is achieved by varying the frequency and number of Wales between the two capillary channel regions. Reports of loops forming capillary channels are more frequent in regions with high capillary channel density. The channels are repeated and preferably positioned every 4–6 watts. Low In areas with high capillary channel density, the repeat interval of the loop patterns is increased, and Channels are preferably positioned every 10–12 vales. Middle capillary channel 10 In densely populated areas, canals are preferably positioned every 7–9 wales. In addition, differentiating channel density and moisture carrying capacity. The structure of the loop report used can also be modified. In this context, high density KTKM in regions, KKTKM in medium-density regions, and low-density regions KKKTKM stitch repeat patterns are used. 15 The unidirectional moisture transfer described in the invention is achieved not only through capillary channel geometry, but also... Capillary channel geometry and different moisture management techniques used on the inner and outer surfaces of the fabric. This is achieved through a structure formed by yarns that possess these properties working together. The hydrophobic or low-absorbent yarn used on the inner surface of the fabric that comes into contact with the skin, 20 It limits the retention of moisture on the inner surface and its subsequent spreading back to the surface. Knit, tuck and The capillary channel geometry created by the miss loop combinations allows moisture to pass through the fabric cross-section. It ensures that the direction of movement is from the inner surface to the outer surface. Used on the outer surface Multi-channel polyester yarn distributes moisture transported through capillary channels over a larger surface area. It spreads and accelerates the evaporation of moisture. Therefore, unidirectional moisture transfer; 25  The difference in absorbency and moisture release capacity between the inner and outer surfaces,  Directed capillary channel geometry created with knit, tuck, and miss stitches,  the combination of moisture-wicking properties of the multi-channel polyester yarn on the outer surface It occurs as a result of its operation. The yarn to be used for multi-channel polyester yarn should be a standard circular cross-section polyester yarn. creating a higher surface area compared to others, or containing longitudinal channels or its indentations and the fact that it allows moisture carried to the outer surface to spread over a wide area It is necessary. In this context, different channel numbers and multi-channel configurations such as lobed, star, Y, plus, or similar are required. Polyester yarns with channel cross-sectional geometries can be used. 35 7 The subject of the invention is the knitted fabric (1); capillary channel regions (4), knit (K), tuck (T) and miss (M) These capillaries can be formed using different repetition patterns of loops. channel area (4) preferably consisting of knit (K), tuck (T) and miss (M) stitches KKTKMK- 5 using at least one of the following loop repeat patterns: T, KKTKM, KKKTKM, or KTKM. is being created. In a preferred application, the capillary canal region (4) KKTKMKT loop repeat pattern It is formed with. In this structure, tuck loops (10) create local volume within the loop structure and While contributing to the formation of micro-gaps, miss stitches (11) continuity between stitches knit loops (9) create passageways showing the overall structure of the fabric. It ensures the preservation of its stability. The moisture generated during use is primarily deposited in the moisture collection area (2) on the inner surface. (6) reaches, then moisture transfer direction along the capillary channel regions (4) (5) It is carried from the fabric cross-section (15) to the outer surface (3). On the outer surface (3) 15 moisture spreading / draining zone (7), surface provided by multi-channel polyester yarns (8) Thanks to its surface area, the liquid spreads over a wider area and the evaporation rate increases. It contributes to its increase. The subject of the invention is the knitted fabric (1), the density of capillary channel regions (4) of the fabric's use 20 This can vary depending on the region and the required level of humidity management. knitted fabric (1) within the scope of which it includes at least one of the following regions It has a structured regional channel density (14); - A region with high capillary channel density for areas exhibiting high sweating. (14A), 25 - A region of low capillary channel density for areas showing low sweating (14B) And - A region with a moderate capillary channel density for areas where balanced moisture transfer is desired. (14C). Region with high capillary channel density in areas with high sweating density (14A) By using, the density of capillary channel regions (4) is increased and the moisture carrying capacity is being upgraded. It has a lower perspiration density or the stability of the fabric is prioritized. By using the low capillary channel density region (14B) in the regions where it is planned, more A sparse channel structure is created. There is a 35% correlation between moisture transfer capacity and fabric stability. 8 In regions where balanced performance is desired, the region with moderate capillary channel density (14C) It is applicable. Regional channel density (14), depending on the intended use on knitted fabric (1) It can be applied in various areas, especially in areas with high sweating such as the armpits, back, and chest. Regions with high capillary channel density (14A) are preferred in regions with high density. By doing this, the moisture transfer capacity can be increased; resulting in lower transpiration density. low capillary channel density areas (14B), moderate level of humidity management In areas where required, regions with moderate capillary channel density (14C) can be used. The subject of the invention is knitted fabric (1), capillary channel regions (4), regional channel density 10 (14) depending on the different knit (K), tuck (T) and miss (M) stitch repeat patterns used can be created. In a preferred application, low capillary channel density In the region (14B) KKKTKM, in the region with medium capillary channel density (14C) KKKTKM and KTKM loop repeat patterns in high capillary channel density region (14A) It can be used. These loop repeat patterns can be used for different uses of the knitted fabric (1). regionally, depending on the moisture transfer capacity required in those regions can be changed and thus capillary channel structures of different densities can be created on the fabric (4) can be created. In a preferred application, knitted fabric (1), circular knit feeder system 20 It is produced using a 28–32 gauge circular knitting machine (13). The subject of the invention is knitted fabric (1); capillary channel in the region with high capillary channel density (14A). regions (4) preferably every 4–6 wale (loop column) interval, with low capillary duct density In region (14B), they are preferably located every 10–12 wales. Middle capillary 25 In the canal-dense region (14C), the capillary canal regions are every 7–9 wales (loop columns) They are positioned within this range. Thus, high-volume systems are created every 4–6 wales. high-density zones and low-density zones created every 10–12 wales a balanced transition between them in terms of moisture transfer capacity and fabric structural stability. is provided. 30 The loop length of the knitted fabric (1) in the capillary channel regions (4) The value is preferably kept in the range of 2.7–3.0 mm, except for the capillary duct regions (4) In these areas, the loop length value is preferably selected in the range of 3.1–3.5 mm. This allows for 35 9 While the moisture transport effect is increased in the capillary channel regions (4), the overall structural of the fabric The preservation of its stability is ensured. The liquid formed in the moisture collection area (6) transfers moisture along the capillary channel areas (4). It moves in the direction (5) and is carried over the fabric cross-section (15) to the outer surface (3). Multi-channel polyester yarns (8) located on the surface (3) carry the liquid over a wider area 5 It ensures its spread and increases the evaporation rate. Thanks to this structure, the inner surface (2) of the knitted fabric (1) that comes into contact with the skin is drier. while the feeling of use is obtained, the outer surface has (3) rapid moisture diffusion and drying performance. is provided. The subject of the invention is the knitted fabric (1) on the inner surface (2) that comes into contact with the skin, preferably 75–100 denier. or Ne 30 / 1–40 / 1 number range hydrophobic or low absorbency polyester yarns (12) are used. These yarns (12) ensure that moisture is retained on the inner surface (2). By reducing it, it contributes to the redirection of fluid to the capillary channel regions (4). The subject of the invention is the knitted fabric (1); on its outer surface (3) preferably in the range of 75–150 denier. Multichannel polyester yarns (8) are used. Multichannel polyester yarns (8) are used on the outside. in the moisture spreading / discharging zone (3) on the surface (7) the liquid has a larger surface area By facilitating its spread, it contributes to rapid drying performance. The subject of the invention is knitted fabric (1); its grammage is preferably between 130 g / m² and 180 g / m² and more preferably in the range of 140–160 g / m². Capillary canal zones (4), in preferred applications KKTKM, KKKTKM or KT- KM can be created using at least one of the loop repeat patterns. High sweating 25 In regions with high density, capillary duct regions (4) preferably every 4–6 wales (loops) (column) interval, and preferably every 10–12 in regions with low sweating intensity. It is located within the Wales area. The invention consists of an inner surface (2) that comes into contact with the skin and an outer surface (2) located opposite this inner surface. The production method of knitted fabric (1) containing surface (3) includes the steps below; a. Using a circular knit feeding system (13), the inner lining that comes into contact with the skin (2) hydrophobic or low absorbent yarn (12) to the surface, (3) multi-channel to the outer surface Feeding of polyester yarn (8), b. knit (9), tuck (10) and miss (11) by knitting the inner surface (2) and the outer surface (3) with repeating the loop report of the combinations the formation of capillary canal regions (4) between them, c. different loop report densities of capillary channel regions (4) of knitted fabric (1) Creating regional channel density (14) by changing the regions 5 In the method in question; capillary channel regions (4) preferably KKTKMKT, KKTKM, K- It is created using at least one of the KKTKM or KTKM report formats. In one application of the method that is the subject of the invention; capillary channel regions (4) each 4–6 wale 10 (loop column) positioning in areas with high capillary channel density (14A) is being created. In one application of the method that is the subject of the invention; every 10–12 wales of capillary channel regions (4) by positioning it between low capillary channel density regions (14B) 15 is being created. The invention method involves a circular knit feeding system (13) preferably containing circular knit feeding system. Obtaining knitted fabric (1) using a 28–32 gauge circular knitting machine It includes. 20 The invention describes the creation of capillaries between the inner surface (2) and the outer surface (3) in the knitted fabric (1). channel regions (4), from the inner surface (2) to the outer surface (3) within the fabric structure It creates micro-passages that enable directed moisture transfer. 25 different combinations of capillary channel regions (4), knit (9), tuck (10) and miss (11) stitches Created with repeating patterns, it contributes to moisture transfer across the fabric cross-section (15). It forms channel structures. Within this structure, tuck loops (10), in the loop structure While contributing to the formation of local volume and micro-spaces, miss stitches (11) between stitches knit loops (9) support the formation of open passageways; and the integrity of the fabric and It contributes to maintaining structural stability. 30 Within the scope of the invention, capillary channel regions (4) have the same density throughout the fabric. instead of being applied, it depends on the intended use and the required level of moisture management. It can be arranged in different densities. In this way, the knitted fabric (1) has different Different moisture management characteristics are achieved in these regions, and 35 depending on the area of ​​use. A predetermined capillary channel density can be created. 11 The invention concerns a hydrophobic or used on the inner surface (2) of the knitted fabric (1) that comes into contact with the skin. low absorbency yarn (12) to reduce the tendency of liquid to be retained on the inner surface It is structured. The multi-channel polyester yarn (8) used on the outer surface (3) is capillary. 5 allows the liquid transported through the channel regions (4) to spread over a wider surface. By providing this, it increases the efficiency of the moisture spreading / discharging zone (7). Thus, moisture, By directing the fabric cross-section (15) from the inner surface (2) to the outer surface (3), more on the outer surface It can spread over a wide area. The subject of the invention, the knitted fabric (1), is made of 10 single pieces thanks to its circular knit structure. It can be produced in fabric form, or, depending on its intended use, it can be applied to clothing in specific ways. It can also be implemented in panel form in various regions. This structure is used in sports t-shirts, Performance base layers, running apparel, cycling jerseys, outdoor products, military underwear in products where moisture management is important, such as products and technical workwear It is available. 15 The invention specifically covers areas with high moisture levels, such as the back, armpits, chest, and under the shoulders. Humidity is achieved by applying high capillary channel density zones (14A) in the expected regions. Transfer capacity can be increased; and in regions where lower humidity levels are expected. Using regions with low capillary channel density (14B), the structural stability of the fabric was determined. protection can be ensured. The structure described in the invention does not rely solely on the use of quick-drying or moisture-absorbing yarn. knit (9), tuck (10) and miss (11) stitches are formed within the circular knit structure. Capillary channel architecture created by combinations and the fabric of this architecture 25 It is based on the principle of organizing them at different densities according to their regions. Therefore The invention enables directed moisture transfer and localized moisture management within the fabric. It offers a structural knitted fabric solution. The invention does not consist solely of solutions aimed at improving the mechanical strength properties of the fabric. In contrast, the controlled, directed, and localized management of moisture from sweating is 30 It focuses on the problem. In this context, the subject of the invention is knitted fabric (1), its use Capillary channel regions that can be formed with different densities depending on the region (4) Thanks to this, suitable moisture transfer performance is achieved in areas with varying moisture levels. It offers a functional moisture transport architecture that provides . 35

Claims

12 REQUESTS 1. An inner surface (2) that is in contact with the skin and an outer surface located opposite this inner surface (2). (3) knitted fabric (1) structure containing; its feature is; 5  its inner surface (2) contains hydrophobic or low absorbency yarn (12),  Its outer surface (3) is made of multi-channel polyester yarn (8) with moisture dissipation capacity. includes,  Between the inner surface (2) and the outer surface (3), moisture flows from the inner surface (2) to the outer surface (3). To ensure one-way transfer, knit stitch (9), tuck stitch (10) and 10 at least one capillary channel formed with combinations of skipped loop (miss) (11) the region (4) includes and the capillary channel regions (4) of the fabric are different The difference is that they are organized with different densities in these regions.

2. According to claim 1, the knitted fabric (1) has the characteristic of; the capillary channel area (4) knit (K), tuck 15 KKTKMKT, KKTKM, KKKTKM or K- consisting of (T) and miss (M) stitches. TKM means that it is created using at least one of the loop repetition patterns.

3. A knitted fabric (1) conforming to Claim 1, having the characteristic of having at least one of the following regions: It has a regional channel density structured to include (14); 20 - A region of high capillary channel density for areas showing high sweating (14A), - A region of low capillary channel density for areas showing low sweating (14B) And - A region with a moderate capillary channel density for areas where balanced moisture transfer is desired. (14C). 25 4. A knitted fabric (1) conforming to claim 3, with the characteristic of having a high capillary channel density. knit (K), tuck (T) and miss (M) stitches of the capillary canal region (4) in region (14A). The characteristic of KTKM is that it is formed from repeating loop patterns.

5. A knitted fabric (1) conforming to claim 3, with the characteristic of having a low capillary channel density. knit (K), tuck (T) and miss (M) of the capillary canal region (4) located in region (14B) The KKKTKM stitch pattern consists of repeating stitches made up of loops. 13 6. A knitted fabric (1) conforming to claim 3, whose characteristic is; in the region of central capillary channel density. (4) knit (K), tuck (T) and miss (M) stitches of the capillary channel region located in (14C) The KKTKM is formed from repeating loop patterns.

7. A knitted fabric (1) conforming to claim 3, with the characteristic of having a high capillary channel density of 5 in region (14A) capillary channel regions (4) every 4–6 wale (loop column) interval It is its positioning.

8. A knitted fabric (1) conforming to claim 3, with the characteristic of having a low capillary channel density. In region (14B), it is located every 10–12 wales. 10 9. A knitted fabric (1) conforming to claim 3, whose characteristic is; in the region of central capillary channel density. (14C) is that the capillary channel regions are located every 7-9 wale interval.

10. A knitted fabric (1) conforming to claim 1, whose characteristic is; in the capillary channel regions (4) 15 The loop length should be between 2.7 mm and 3.0 mm, in the capillary channel. The loop length in the outer regions is between 3.1 mm and 3.5 mm. It is the fact that.

11. A knitted fabric (1) conforming to claim 1, whose characteristic is that the inner surface in contact with the skin has 20 (2) hydrophobic or low absorbency yarn (12), 75–100 denier or Ne 30 / 1–40 / 1 The yarn in the specified number range is polyester.

12. A knitted fabric (1) conforming to Claim 1, whose characteristic is; moisture dissipation (3) on its outer surface. The capacity of multi-channel polyester yarn (8) is that it is in the 75–150 denier range. 25 13. A knitted fabric (1) conforming to claim 1, with a grammage of 130 g / m² to 180 g / m² It is within the range.

14. An inner surface (2) that is in contact with the skin and an outer surface (2) located opposite this inner surface. The knitted fabric (1) containing surface (3) is a production method, and its feature is; a. Using a circular knit feeding system (13), the inner lining that comes into contact with the skin (2) a hydrophobic or low absorbent yarn (12) to the surface, (3) very to the outer surface Feeding of channel polyester yarn (8), 14 b. knit (9), tuck (10) and miss (11) by knitting the inner surface (2) and the outer surface with repeating the loop report of the combinations. Formation of capillary channel regions (4) between surface (3), c. different loop report densities of capillary channel regions (4) of knitted fabric (1) Creating regional channel density (14) by changing the regions 5 It includes the steps.

15. A method that complies with claim 14, and its feature is that the capillary channel regions (4) KKTK- With at least one of the following report formats: MKT, KKTKM, KKKTKM, or KTKM. It is the creation of. 10 16. A method in accordance with claim 14, the characteristic of which is; capillary channel regions (4) every 4–6 High capillary duct density due to its positioning within the wale (loop column) space. The creation of regions (14A).

17. A method that conforms to claim 14, and its characteristic is that every 10–12 of the capillary duct regions (4) by positioning in the wale interval, regions with low capillary channel density (14B) is the creation of.

18. A method according to claim 14, characterized by; circular knit feeder 20 knitted fabric (1) using a 28–32 gauge circular knitting machine including system (13) It is the process of obtaining it.

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