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Today, expectations from textile products have increased and the comfort features of clothes have gained more importance, especially for leisure and sports clothes. Therefore, the liquid moisture transmission of clothes is quite important, which has a significant effect on the body's ability to cool itself and the user's feeling cold after sweating. A new test instrument “3D-MMD” (3 Dimension Moisture Mapping Device), that measures the liquid moisture transmission feature of the fabrics in multidirection is introduced in this paper. The developed system includes two thermal cameras that allow measurement below and above of the sample. When the test liquid is dropped on the sample, the heat transfer occurs and due to the heat transfer during the transmission of moisture, the surface temperature of wetted and non-wetted parts of the fabric changes. This change is detected in the form of infrared data with the help of thermal cameras and converted into an electronic image. The wet area can be easily created by processing the images of the color visuals coming instantly from the thermal camera. The patent for this new method has been registered by the Turkish Patent and Trademark Office (TR2020/21004). Meanwhile, the international patent application process continues (PCT/TR2021/051223).

Today, expectations from textile products have increased and the comfort features of clothes have gained more importance, especially for leisure and sports clothes. Therefore, the liquid moisture transmission of clothes is quite important, which has a significant effect on the body's ability to cool itself and the user's feeling cold after sweating. A new test instrument "3D-MMD" (3 Dimension Moisture Mapping Device), that measures the liquid moisture transmission feature of the fabrics in multidirection is introduced in this paper. The developed system includes two thermal cameras that allow measurement below and above of the sample. When the test liquid is dropped on the sample, the heat transfer occurs and due to the heat transfer during the transmission of moisture, the surface temperature of wetted and non-wetted parts of the fabric changes. This change is detected in the form of infrared data with the help of thermal cameras and converted into an electronic image. The wet area can be easily created by processing the images of the color visuals coming instantly from the thermal camera. The patent for this new method has been registered by the Turkish Patent and Trademark Office (TR2020/21004). Meanwhile, the international patent application process continues (PCT/TR2021/051223). [ABSTRACT FROM AUTHOR]

Today, the capacity to regulate moisture is one of the most crucial qualities of knitted fabrics. This study focuses on the interaction between core ratio, twist, and loop length on the moisture management capabilities of single jersey knitted textiles manufactured from 100% regenerated bamboo, 80:20 regenerated bamboo: polyester yarns, and 60:40 regenerated bamboo: polyester yarns. The Box-Behnken experimental design was used to optimize the design parameters in this study. It was discovered that the moisture management qualities were improved by the increased polyester core content, high twist, and short loop length. Single jersey knitted fabrics made from 100% regenerated bamboo yarns swiftly wick away sweat and maintain moisture in their structure, resulting in a very fast wetting rate, spreading speed, and extremely large maximum wetted radius, as well as a very excellent AOTI value and very good OMMC ratings. Additionally, it can be suggested that single jersey knitted textiles consisting of core-spun yarns provide quick absorption and quick drying rates, meeting the needs of sportswear applications.

In this study eri silk/micro denier polyester/bamboo, eri silk/micro denier polyester/tencel plated interlock fabrics and the moisture management properties have been developed and analyzed. The effects of raw material combination and fabric structure on moisture management properties with plated interlock knit fabrics are examined. For this study, two types of plated interlock knit structures have been developed. The outer layer made up of bamboo/tencel yarns (14.8 tex), the middle layer micro denier polyester (125 denier) connected with more tuck points, the next to skin layer made up of eri silk yarns (14.3 tex). The result shows that plated interlock knit structure are highly influences the moisture management properties. When compare to eri silk/micro denier polyester/bamboo and tencel combination Excellent moisture management properties were observed in eri silk/micro denier/tencel combination plated interlock knitted fabrics.

Cellulose is the most abundant substance existing in the form of plants on the earth. These fibers are obtained either directly or indirectly from the seed, leaves, stem, or wood of plants. Cellulosic fibers are preferred for apparels owing to their abundance, ease of processing, biodegradation, and compatible with the human body in terms of better moisture management, thermal regulation, and tactile comfort. In this study, woven fabric made of four different cellulosic yarns, i.e. cotton, bamboo, tencel, and viscose were produced, and their thermo-physiological comfort properties were compared. The linear density of yarns, and thread density and weave structure (3/1 twill) of all the fabrics were kept constant on the weaving machine. Air permeability, thermal resistance, and moisture management tests were carried out to analyze their thermo-physiological comfort properties. The results showed that cotton fabric showed higher air permeability and thermal resistance as compared to other cellulosic fabrics. Whereas the moisture management properties of tencel fabric were superior to the rest of cellulosic fabrics. Moreover, the effect of cellulosic materials on air permeability and moisture management properties of the woven fabrics was found statistically significant.

This study was aimed to develop knitted denim fabrics by using cotton and eri silk yarns. Three combinations of 3/1 twill knitted denim fabrics were developed. Two materials cotton yarn 30s and eri silk yarn 2/80s Nm with three types (100% cotton, 50% cotton/50% eri silk, 100% eri silk) of knitted denim fabrics were produced. Moisture management properties were tested for the developed samples.100% eri silk knitted denim fabric was found with the excellent accumulative one way transport index % and a very good overall moisture management capability better than that of 100% cotton and 50% cotton/50%eri silk knitted denim fabrics. The results indicated that the eri silk knitted denim fabric is more suitable for active wear and functional wear applications.

In recent times, due to increased environmental awareness, the usage of sustainable, eco-friendly textile products has gained momentum. In this respect, the Soya bean protein fiber (SPF) based fabric structure is considered a potential product. Single Jersey and Single Pique knitted structures were developed by changing the yarn count and loop length using Soya bean fiber for next-to-skin applications. Multidimensional moisture management properties were measured using MTT tester to understand the influence of process parameters (fabric structure yarn count and loop length). Further to this, physical properties and wetness comfort properties of the SPF knitted fabrics were also studied. It was found that the OMMC properties of most of the SPF knitted samples were highly rated. The influence of knit structure, yarn count, and loop length on moisture properties was studied through ANOVA. Similarly, the correlation between the physical parameters and moisture properties was also investigated. The Single Pique structure with finer yarn count and higher loop length configuration showed higher moisture management properties. The fabric thickness was correlated with all the moisture management properties. However, the fabric tightness factor was correlated with all the moisture management properties except MWR and AOTI.

Musa Acuminata SAP has greater influence on moisture management property of the fabric. The fabric finished with Musa Acuminata SAP also shows higher level of comfort. An examination was made on the effect of Musa Acuminata SAP-finished fabric on moisture management properties of the cotton-finished fabric like wetting time, absorption time, spreading area, spreading speed, accumulative one-way transport index, and moisture management capability. The results prove that the fabric finished with the highest concentration of Musa Acuminata SAP at a moderate temperature with the least processing time has good performance in the moisture management behavior of the finished fabric when compared with the lower concentration of Musa Acuminata SAP with the highest temperature at the highest processing time.

A study was conducted to develop Pashmina blended woven fabrics to enhance their functional properties by chemical processing. The samples were prepared from Pashmina, wool and nylon fibers in five blends: T1 (60:0:40); T2 (45:15:40); T3 (30:30:40); T4 (15:45:40) and T5 (0:60:40). Each blend was subjected to spun yarns of three different linear densities 246, 164, and 123 dtex. These yarns were utilized as a filling thread to form 15 different fabric samples keeping warp linear density 168.6 dtex common among all samples. All fabric samples were gently treated with HCl to dissolve nylon fiber and keep only Pashmina and wool natural protein fibers. Different functional properties were tested, including moisture management potential, water vapor transmittance, ultraviolet protection factor (UPF), porosity, and luster. Among all samples, the linear yarn density significantly affected the UPF of fabric samples. The yarn evenness increases by increasing the wool content with pashmina fiber and increases by decreasing the yarn decitex. The Lusture index of fabric increases by increasing the pashmina fibre content. The porosity of the fabric sample increases by increasing the wool fibre content and yarn fineness (dtext). The fabric made of 246 dtex in weft exhibited a maximum UPF of 40. The highest value of the overall moisture management coefficient (OMMC) was attained by sample T148. The fabric samples made of 246 dtex exhibited better functionalities than 164 and 123 dtex. The water vapor transmission rate (WVTR) increases by increasing the wool content and weft yarn fineness.

The ability to transport and evaporate moisture quickly and effectively is a very essential and expected property of a fabric chosen for the clothing purposes. The present study analyzed the moisture management properties of four different natural and manmade cellulosic fibers, its blends and by varying three different knitted structures using moisture management tester. The result reveals that the modal fiber wicks and spreads quickly and it requires an average 50% lesser time than other fiber samples. Among the three structures, single jersey fabrics showed excellent behavior of transportation of moisture through its surface. Single jersey modal fabric was rated as superior moisture management fabric, which can be recommended for the applications such as sportswear, where high moisture management properties with greater comfort are demanded.

Availability, simplicity of processing, biodegradability, sustainability, and compatibility with human skin in terms of moisture management and temperature regulation, cellulosic fibers are preferred for clothing. In this study four (04) different cellulosic yarns (cotton, bamboo, viscose, and tencel) and two weave designs (1/1 plain and 2/2 warp rib) were used to develop eight (08) woven fabrics with equal thread densities, and their volume porosity %, air permeability, thermal resistance, water vapor permeability index, and moisture management properties were compared. The results showed that tencel fabrics showed the highest water vapor permeability index and overall moisture management capability (OMMC) values, whereas cotton fabrics had the highest values of volume porosity %, air permeability, and thermal resistance. Furthermore, the 2/2 warp rib weave design showed higher values of volume porosity %, air permeability, and thermal resistance in comparison with 1/1 plain woven fabrics, while the water vapor permeability index and OMMC values were higher in 1/1 plain woven fabrics. Moreover, the statistical significance of both factors (cellulose material and weave design) on different results was also analyzed.

A study was conducted to develop Pashmina blended woven fabrics to enhance their functional properties by chemical processing. The samples were prepared from Pashmina, wool and nylon fibers in five blends: T1 (60:0:40); T2 (45:15:40); T3 (30:30:40); T4 (15:45:40) and T5 (0:60:40). Each blend was subjected to spun yarns of three different linear densities 246, 164, and 123 dtex. These yarns were utilized as a filling thread to form 15 different fabric samples keeping warp linear density 168.6 dtex common among all samples. All fabric samples were gently treated with HCl to dissolve nylon fiber and keep only Pashmina and wool natural protein fibers. Different functional properties were tested, including moisture management potential, water vapor transmittance, ultraviolet protection factor (UPF), porosity, and luster. Among all samples, the linear yarn density significantly affected the UPF of fabric samples. The yarn evenness increases by increasing the wool content with pashmina fiber and increases by decreasing the yarn decitex. The Lusture index of fabric increases by increasing the pashmina fibre content. The porosity of the fabric sample increases by increasing the wool fibre content and yarn fineness (dtext). The fabric made of 246 dtex in weft exhibited a maximum UPF of 40. The highest value of the overall moisture management coefficient (OMMC) was attained by sample T148. The fabric samples made of 246 dtex exhibited better functionalities than 164 and 123 dtex. The water vapor transmission rate (WVTR) increases by increasing the wool content and weft yarn fineness. [ABSTRACT FROM AUTHOR]

Availability, simplicity of processing, biodegradability, sustainability, and compatibility with human skin in terms of moisture management and temperature regulation, cellulosic fibers are preferred for clothing. In this study four (04) different cellulosic yarns (cotton, bamboo, viscose, and tencel) and two weave designs (1/1 plain and 2/2 warp rib) were used to develop eight (08) woven fabrics with equal thread densities, and their volume porosity %, air permeability, thermal resistance, water vapor permeability index, and moisture management properties were compared. The results showed that tencel fabrics showed the highest water vapor permeability index and overall moisture management capability (OMMC) values, whereas cotton fabrics had the highest values of volume porosity %, air permeability, and thermal resistance. Furthermore, the 2/2 warp rib weave design showed higher values of volume porosity %, air permeability, and thermal resistance in comparison with 1/1 plain woven fabrics, while the water vapor permeability index and OMMC values were higher in 1/1 plain woven fabrics. Moreover, the statistical significance of both factors (cellulose material and weave design) on different results was also analyzed. [ABSTRACT FROM AUTHOR]

The ability to transport and evaporate moisture quickly and effectively is a very essential and expected property of a fabric chosen for the clothing purposes. The present study analyzed the moisture management properties of four different natural and manmade cellulosic fibers, its blends and by varying three different knitted structures using moisture management tester. The result reveals that the modal fiber wicks and spreads quickly and it requires an average 50% lesser time than other fiber samples. Among the three structures, single jersey fabrics showed excellent behavior of transportation of moisture through its surface. Single jersey modal fabric was rated as superior moisture management fabric, which can be recommended for the applications such as sportswear, where high moisture management properties with greater comfort are demanded. [ABSTRACT FROM AUTHOR]

Today, the capacity to regulate moisture is one of the most crucial qualities of knitted fabrics. This study focuses on the interaction between core ratio, twist, and loop length on the moisture management capabilities of single jersey knitted textiles manufactured from 100% regenerated bamboo, 80:20 regenerated bamboo: polyester yarns, and 60:40 regenerated bamboo: polyester yarns. The Box-Behnken experimental design was used to optimize the design parameters in this study. It was discovered that the moisture management qualities were improved by the increased polyester core content, high twist, and short loop length. Single jersey knitted fabrics made from 100% regenerated bamboo yarns swiftly wick away sweat and maintain moisture in their structure, resulting in a very fast wetting rate, spreading speed, and extremely large maximum wetted radius, as well as a very excellent AOTI value and very good OMMC ratings. Additionally, it can be suggested that single jersey knitted textiles consisting of core-spun yarns provide quick absorption and quick drying rates, meeting the needs of sportswear applications. [ABSTRACT FROM AUTHOR]

Musa Acuminata SAP has greater influence on moisture management property of the fabric. The fabric finished with Musa Acuminata SAP also shows higher level of comfort. An examination was made on the effect of Musa Acuminata SAP-finished fabric on moisture management properties of the cotton-finished fabric like wetting time, absorption time, spreading area, spreading speed, accumulative one-way transport index, and moisture management capability. The results prove that the fabric finished with the highest concentration of Musa Acuminata SAP at a moderate temperature with the least processing time has good performance in the moisture management behavior of the finished fabric when compared with the lower concentration of Musa Acuminata SAP with the highest temperature at the highest processing time. [ABSTRACT FROM AUTHOR]

In recent times, due to increased environmental awareness, the usage of sustainable, eco-friendly textile products has gained momentum. In this respect, the Soya bean protein fiber (SPF) based fabric structure is considered a potential product. Single Jersey and Single Pique knitted structures were developed by changing the yarn count and loop length using Soya bean fiber for next-to-skin applications. Multidimensional moisture management properties were measured using MTT tester to understand the influence of process parameters (fabric structure yarn count and loop length). Further to this, physical properties and wetness comfort properties of the SPF knitted fabrics were also studied. It was found that the OMMC properties of most of the SPF knitted samples were highly rated. The influence of knit structure, yarn count, and loop length on moisture properties was studied through ANOVA. Similarly, the correlation between the physical parameters and moisture properties was also investigated. The Single Pique structure with finer yarn count and higher loop length configuration showed higher moisture management properties. The fabric thickness was correlated with all the moisture management properties. However, the fabric tightness factor was correlated with all the moisture management properties except MWR and AOTI. [ABSTRACT FROM AUTHOR]

This study was aimed to develop knitted denim fabrics by using cotton and eri silk yarns. Three combinations of 3/1 twill knitted denim fabrics were developed. Two materials cotton yarn 30s and eri silk yarn 2/80s Nm with three types (100% cotton, 50% cotton/50% eri silk, 100% eri silk) of knitted denim fabrics were produced. Moisture management properties were tested for the developed samples.100% eri silk knitted denim fabric was found with the excellent accumulative one way transport index % and a very good overall moisture management capability better than that of 100% cotton and 50% cotton/50%eri silk knitted denim fabrics. The results indicated that the eri silk knitted denim fabric is more suitable for active wear and functional wear applications. [ABSTRACT FROM AUTHOR]

In this study eri silk/micro denier polyester/bamboo, eri silk/micro denier polyester/tencel plated interlock fabrics and the moisture management properties have been developed and analyzed. The effects of raw material combination and fabric structure on moisture management properties with plated interlock knit fabrics are examined. For this study, two types of plated interlock knit structures have been developed. The outer layer made up of bamboo/tencel yarns (14.8 tex), the middle layer micro denier polyester (125 denier) connected with more tuck points, the next to skin layer made up of eri silk yarns (14.3 tex). The result shows that plated interlock knit structure are highly influences the moisture management properties. When compare to eri silk/micro denier polyester/bamboo and tencel combination Excellent moisture management properties were observed in eri silk/micro denier/tencel combination plated interlock knitted fabrics. [ABSTRACT FROM AUTHOR]

Cellulose is the most abundant substance existing in the form of plants on the earth. These fibers are obtained either directly or indirectly from the seed, leaves, stem, or wood of plants. Cellulosic fibers are preferred for apparels owing to their abundance, ease of processing, biodegradation, and compatible with the human body in terms of better moisture management, thermal regulation, and tactile comfort. In this study, woven fabric made of four different cellulosic yarns, i.e. cotton, bamboo, tencel, and viscose were produced, and their thermo-physiological comfort properties were compared. The linear density of yarns, and thread density and weave structure (3/1 twill) of all the fabrics were kept constant on the weaving machine. Air permeability, thermal resistance, and moisture management tests were carried out to analyze their thermo-physiological comfort properties. The results showed that cotton fabric showed higher air permeability and thermal resistance as compared to other cellulosic fabrics. Whereas the moisture management properties of tencel fabric were superior to the rest of cellulosic fabrics. Moreover, the effect of cellulosic materials on air permeability and moisture management properties of the woven fabrics was found statistically significant. [ABSTRACT FROM AUTHOR]

The present study aims to investigate the moisture management and wicking properties of eri knitted fabrics. In this study, two different knit structures, namely, single pique and honeycomb fabric, were developed with the combinations of two different tightness values of slack and tight by using 2/80s Nm and 2/140s Nm eri silk yarns. The developed fabrics were analyzed for vertical wicking, moisture management properties such as wetting time, spreading speed, absorption rate, maximum wetting radius, accumulative one-way transport index (AOTI), and overall moisture management capacity (OMMC). Variables such as yarn linear density, tightness, and knitting structure have a significant influence on the wicking and moisture management properties. The overall OMMC indices of eri silk knitted fabric lie in the ‘very good’ to ‘excellent’ category, indicating the suitability of eri silk yarn for skin fit as well as active wear applications.

In this work, the moisture management properties of combination herbal extract treated cotton knitted fabrics were explored. The herbs namely wild turmeric (Curcuma aromatica Salisb.) and holy basil (Ocimum tenuiflorum L.) were used for the study. The pre-treated single jersey cotton knitted fabrics were given finishing treatment with 50%:50% combination herbal extract of wild turmeric and holy basil using pad-dry-cure method. The randomized response surface Box–Behnken design using quadratic model was used for the finishing treatment with process parameters such as combination herbal extract concentration of 1%, 2.5%, and 4%; crosslinking agent concentration of 3%, 5%, and 7%; curing temperature of 80°, 100°, and 120°. The analysis of variance results analysis using Design Expert software shows that the moisture management properties of the treated fabrics are influenced by the finishing process parameters. The study results revealed that the finishing treatment has altered the moisture management properties of the treated fabrics and resulted in excellent accumulative one way transport capability which increased their overall moisture management capability.

This paper reports the development of multi-functional cotton knitted fabric by two-stage process. Cotton knitted fabric was finished with in situ generated nano zinc oxide (nano-ZnO) followed by electrospraying Arkophop FFR a non-fluorocarbon-based hydrophobic chemical. Electrospraying was carried out with different flow rates (0.01 and 0.02 mL/min) and durations (1– min) with the help of microprocessor controlled syringe pump. The fabric was analyzed for its antimicrobial, UV protective, and moisture management (MMT) properties. FTIR study confirmed the formation of hydrophobic chemical finish on one surface of cotton fabrics. Scanning electron microscope observation showed the presence of nano-ZnO and hydrophobic finish on the electrosprayed surface of the cotton fabric. One-way moisture transport rating of the treated fabric using MMT test was found to be very good for 0.01 mL/min flow rate of the hydrophobic chemical for duration of 3 min using an optimized voltage of 20 kV and the distance of 15 cm between the nozzle and the collector. In situ generated nano-ZnO positively influenced the MMT properties of the treated cotton fabric.

The present study aims to investigate the moisture management and wicking properties of eri knitted fabrics. In this study, two different knit structures, namely, single pique and honeycomb fabric, were developed with the combinations of two different tightness values of slack and tight by using 2/80s Nm and 2/140s Nm eri silk yarns. The developed fabrics were analyzed for vertical wicking, moisture management properties such as wetting time, spreading speed, absorption rate, maximum wetting radius, accumulative one-way transport index (AOTI), and overall moisture management capacity (OMMC). Variables such as yarn linear density, tightness, and knitting structure have a significant influence on the wicking and moisture management properties. The overall OMMC indices of eri silk knitted fabric lie in the 'very good' to 'excellent' category, indicating the suitability of eri silk yarn for skin fit as well as active wear applications. [ABSTRACT FROM AUTHOR]

In this work, the moisture management properties of combination herbal extract treated cotton knitted fabrics were explored. The herbs namely wild turmeric (Curcuma aromatica Salisb.) and holy basil (Ocimum tenuiflorum L.) were used for the study. The pre-treated single jersey cotton knitted fabrics were given finishing treatment with 50%:50% combination herbal extract of wild turmeric and holy basil using pad-dry-cure method. The randomized response surface Box–Behnken design using quadratic model was used for the finishing treatment with process parameters such as combination herbal extract concentration of 1%, 2.5%, and 4%; crosslinking agent concentration of 3%, 5%, and 7%; curing temperature of 80°, 100°, and 120°. The analysis of variance results analysis using Design Expert software shows that the moisture management properties of the treated fabrics are influenced by the finishing process parameters. The study results revealed that the finishing treatment has altered the moisture management properties of the treated fabrics and resulted in excellent accumulative one way transport capability which increased their overall moisture management capability. [ABSTRACT FROM AUTHOR]

This paper reports the development of multi-functional cotton knitted fabric by two-stage process. Cotton knitted fabric was finished with in situ generated nano zinc oxide (nano-ZnO) followed by electrospraying Arkophop FFR a non-fluorocarbon-based hydrophobic chemical. Electrospraying was carried out with different flow rates (0.01 and 0.02 mL/min) and durations (1– min) with the help of microprocessor controlled syringe pump. The fabric was analyzed for its antimicrobial, UV protective, and moisture management (MMT) properties. FTIR study confirmed the formation of hydrophobic chemical finish on one surface of cotton fabrics. Scanning electron microscope observation showed the presence of nano-ZnO and hydrophobic finish on the electrosprayed surface of the cotton fabric. One-way moisture transport rating of the treated fabric using MMT test was found to be very good for 0.01 mL/min flow rate of the hydrophobic chemical for duration of 3 min using an optimized voltage of 20 kV and the distance of 15 cm between the nozzle and the collector. In situ generated nano-ZnO positively influenced the MMT properties of the treated cotton fabric. [ABSTRACT FROM AUTHOR]

Effect of bamboo viscose/tencel blend ratio on the moisture management properties of single jersey knitted fabrics has been studied. Moisture management properties, such as wetting time of top and bottom fabric surfaces, maximum moisture absorption rates of top and bottom surfaces, maximum wetted radii of top and bottom surfaces, spreading speeds of top and bottom surfaces, and cumulative one-way transport capacity and overall moisture management capacity have been considered and correlated to the blend ratio of bamboo viscose/tencel yarn single jersey knitted fabrics. It is observed that as the tencel content increases, the wetting time, absorption rate, spreading speed, overall moisture management capacity decreases but maximum wetted radius increases.

Effect of bamboo viscose/tencel blend ratio on the moisture management properties of single jersey knitted fabrics has been studied. Moisture management properties, such as wetting time of top and bottom fabric surfaces, maximum moisture absorption rates of top and bottom surfaces, maximum wetted radii of top and bottom surfaces, spreading speeds of top and bottom surfaces, and cumulative one-way transport capacity and overall moisture management capacity have been considered and correlated to the blend ratio of bamboo viscose/tencel yarn single jersey knitted fabrics. It is observed that as the tencel content increases, the wetting time, absorption rate, spreading speed, overall moisture management capacity decreases but maximum wetted radius increases. [ABSTRACT FROM PUBLISHER]

Garments made from cotton fabrics can readily absorb perspiration during strenuous activities but give poor performance in terms of wicking and evaporation of the perspiration, resulting in wet sticky feeling to the wearer. The aim of this study was to investigate the effect of design and method of creating wicking channels on the moisture management and air permeability of cotton fabrics. The fabric specimens were printed with hydrophobic fluorocarbon finish using four different print designs, each with two different types of printing squeegees. It was found that both the type of print design and squeegee type significantly affect most of the moisture management properties of the fabric. The study concluded that by selecting a suitable print design and squeegee type, moisture management capability of cotton fabrics can be significantly improved without sacrificing the fabric air permeability. [ABSTRACT FROM PUBLISHER]