Comfort Of Fabrics Research Articles

CAMPANHA DE LANÇAMENTO DE CALÇADOS INFANTIS

This article aims to analyze the design of a project to create and launch a children's footwear brand on the market. The importance of this project is proven to be a brand design with distinct peculiarities in the children's shoes division. It is a trend, where all models of the children's shoes line in this collection will be very modern, according to the main fashion trends that accompany the models of the adult footwear segment. Care for the comfort and quality of shoe materials will be maintained according to the standard required by the target audience, who are mostly mothers of children, boys and girls aged 7 to 10 years, from classes A, B and C. The project will have an investment in several media to publicize the campaign to its buyers.

Analyzing the Effect of Yarn Tension, Weft Yarn Type, and Weft Yarn Density on Thermal Resistance, Thermal Conductivity, and Air Permeability of Plain Woven Fabric

ABSTRACT Uncomfortable feelings during wear highly affect human health, work efficiency, and mental satisfaction. This study evaluated the thermal comfort of woven fabrics made from 16Ne ring and rotor spun weft yarns(x1). The other variables involved are warp tensions (x2) of 1 kilo newton (KN) and 2 kN, weft tensions (x3) of PFT/B- and PFT/B+T, and weft densities (x4) of 14 picks per centimeter (PPC) and 18 PPC. Comfort properties such as thermal conductivity, thermal insulation, and air permeability were measured and analyzed. The fabric produced from rotor-spun weft yarn showed better thermal comfort properties than the fabric made from ring-spun weft yarn. The results of the analysis revealed that when warp and weft yarn tension increased and weft density decreased, thermal conductivity and air permeability also increased. However, thermal insulation of the fabric decreased as yarn tension increased. On the other hand, as the weft density increased, the thermal insulation of the fabric increased. Air permeability increased as weft tension increased from PFT/B- to PFT/B+T and it decreased as weft density increased from 14 PPC to 18PPC. The maximum thermal conductivity and minimum thermal resistance were attained at 14 PPC weft density and ring-spun weft yarn.

Janus Structure Construction of Polyester-Cotton Fabrics for Achieving Excellent Moisture, Moisture-Permeability, and Antibacterial Capability.

Integration of hydrophobic and antibacterial functionalities into polyester-cotton blended (PTCO) textiles has attracted more attention but remains a challenge. Here, a Janus fabric with antibacterial effect, hydrophobicity, and enhanced moisture-permeability is fabricated using a "mist polymerization" approach. The PET fibers in the PTCO fabric are amino-functionalized through ammonolysis reactions of PET molecules with HDA, and mist treatments of poly lauryl methacrylate (PLMA) and poly(DMC-co-MA) (PDM) are applied on the two side surfaces of the PTCO-HDA fabric, respectively. The resulting Janus fabric exhibits an antibacterial rate of 99.9% against both E. coli and S. aureus, along with a hydrophobic property on its single side (PTCO-HDA@PLMA). Additionally, the establishment of a surface-free energy gradient across the fabric confers superior moisture-permeability to the Janus fabric, offering advantages in preserving textile comfort. Moreover, this approach does not significantly compromise the original fabric properties, such as mechanical strength, moisture permeability, and fabric softness. The proposed method offers a straightforward and scalable strategy for textile finishing, demonstrating great potential in expanding the application scope of PTCO fabrics, and it may hold a pivotal role in diverse applications, notably encompassing home textiles, wound dressings, and high-performance sportswear.

Investigating the Impact of Air Permeability and Thermal Properties on Rib Knit Structures

Factors influencing the comfort and performance of knitted fabrics can be investigated to enhance the understanding and development of functional accessories. Issues related to the thermal regulation and moisture management of these materials are systematically explored in this research. Additionally, the effects of fibre type, yarn properties, fabric variables, and finishing methods are examined through the evaluation of physical properties relevant to the comfort of rib knit structures, particularly in sportswear design. 1x1 Rib knit 1structures were created using polyester spun, cotton spun, polyester filament, and viscose filament yarns with varying linear densities employing a KH-323N computerized flatbed knitting machine. Evaluations of physical properties, thermal characteristics, air permeability, antibacterial efficiency, and hydrophilic finish were conducted following ASTM standards and specific testing methods to thoroughly assess the quality and performance of the fabric. Significant insights into the physical and comfort properties of the fabrics were provided by the results. Varying thermal and air permeability characteristics were demonstrated by polyester-cotton and viscose-cotton fabrics. Thermal resistance and conductivity are influenced by filament denier, loop length, and knit structure, while these same factors affect air permeability. Air permeability is also impacted by finishing treatments, thereby highlighting the complex interplay between fabric properties and comfort. Advanced finishing techniques and novel fibre blends could be explored in future research to further optimize fabric comfort properties.

Functional dyeing of cellulose macromolecule/synthetic fibers two-component fabrics with sustainable microbial prodigiosins

As an important cellulose macromolecular-based material, cotton/polyamide and cotton/polyester fabrics are widely utilized in the textile and garment field due to their combination of the advantages of both cotton and synthetic fibers, such as excellent breathability, hygroscopicity, and abrasion performance. However, the synthetic dyes used in fabric coloration are derived from non-renewable resources, and the long-time dyeing procedure poses large pollution problems. Herein, microbial prodigiosins fermented by Serratia marcescens were employed for cotton/polyamide and cotton/polyester fabric dyeing and functionalizing. The results demonstrated that the prodigiosins suspension exhibited outstanding stability. Synthetic fibers contributed significantly to the overall color of fabrics and provided good dimensional stability and durability. In contrast, cotton fibers imparted relatively lighter color but played an essential role in enhancing the softness and comfort of fabrics. The dyed fabrics presented bright overall color light with good uniformity. Furthermore, the antibacterial rates of the dyed cotton/polyamide and cotton/polyester fabrics were 87.31 % and 89.70 %, respectively. The UPF values of the dyed cotton/polyamide and cotton/polyester fabrics were recorded as 52.3 and 93.5, respectively. This study provided a novel approach for cleaner functional dyeing of cotton/synthetic fiber two-component fabrics using prodigiosins.

Enhancing the dyeability of polyurethane fibers by introducing protonated tertiary amine groups

Traditional polyurethane fibers (CPUF) are widely used in the preparation of blend clothing in order to improve the elasticity and comfort of fabrics. However, there has been a problem of low acid dye adsorption for CPUF, resulting in light hue of dyed CPUF. In this work, a poly (HMDI-BHOPA) was prepared with dicyclohexylmethane 4,4′-diisocyanate (HMDI) and 1,4-(2-hydroxyethyl) piperazine (BHOPA), and then added into the CPUF spinning solution for the preparation of modified polyurethane fibers (BPUFs) through dry-spinning technology. Tertiary amine groups were introduced after the addition of poly (HMDI-BHOPA), which could be protonated at acidic conditions to form binding sites for acid dyes, further enhancing the adsorption capacity of the fibers. Nuclear magnetic resonance spectroscopy (1H and 13C NMR) was used to confirm the structure of poly (HMDI-BHOPA). The results of differential scanning calorimetry (DSC) and thermogravimetry analysis (TGA) demonstrated that the addition of poly (HMDI-BHOPA) had little effect on the glass transition temperature and thermal stability of BPUFs. The addition of poly (HMDI-BHOPA) affected the ordered arrangement of hard segments and reduced crystallization enthalpy of hard and soft segments in polyurethane. Hence, the elastic recovery of BPUFs showed little change, and the elongation at break and break strength decreased compared to CPUF. Zeta potential testing results showed that BPUFs was protonated under acidic conditions. Dyeing results proved the enhancement of dyeability of BPUFs. The dyeing kinetics and thermodynamics of acid dyes on BPUFs were studied to investigate the dyeing mechanism. From the dyeing kinetics results, both CPUF and BPUFs fitted Elovich model. From dyeing thermodynamics results, Langmuir model showed a better applicability for BPUFs at a low pH and temperature condition, while Freundlich model fitted better for CPUF.

The influence of NaOH/urea treatment on the transfer law of water in cotton fabric

The moisture absorption and water conductivity of fabrics determine the thermal and moisture comfort of textiles and clothing. In this study, the water transfer law in cotton fabrics treated with a NaOH/urea system was investigated. The morphological changes and structural properties of the cotton fabrics before and after treatment were analyzed using scanning electron microscopy, Fourier transform infrared spectroscopy, and X-ray diffraction. Additionally, the relationship between the gaseous and liquid water transfer performance and the fiber morphology and structure was studied. The results indicate that after the NaOH/urea treatment, the surface of the cotton fibers gradually became rougher, and the fibers swelled slightly along the cross-sectional direction. With an increase in treatment time, the axial twist of the fibers decreased, and a trend of dissolution was observed. However, after 5 min of treatment, the cotton fabric tended to adhere to the partially dissolved fibers at the junction of the warp and weft yarns. Although the chemical structure of the cotton fibers did not show significant changes after the treatment, their crystallinity gradually decreased. Following treatment, the air permeability and moisture permeability of the fabric increased, while the wicking height and water retention rate initially increased and then decreased, resulting in an interesting pattern of change. The NaOH/urea treatment also increased the dyeability of the cotton fabrics, and the fastness to rubbing and washing of the fabrics reached grades ≥ 3. Prolonged NaOH/urea treatment enhanced the breaking strength of the cotton fabrics. The establishment of the entropy weight-TOPSIS method to evaluate the moisture transfer performance of fabrics treated with the NaOH/urea system has theoretical significance for the comprehensive analysis of cotton fabrics treated with NaOH/urea and related product development. This study provides a new basis for the comprehensive analysis and evaluation of the water transfer and moisture comfort performance of the fabrics, further advancing the application of NaOH/urea treatment to cotton fabrics, which has promising prospects for the future.

Evaluation of Skid Resistance and Comfort of Pedestrian Pavement with Asphalt-Based Wood Chip

This paper conducts an in-depth study and evaluation of pedestrian paths, with a particular focus on the anti-slip performance and walking comfort of wooden chip pedestrian walkways. Through controlled experiments, a comparative analysis was performed between wooden chip pedestrian walkways and ordinary paved brick walkways. The experimental results indicate that under dry conditions, the anti-slip performance of various road surfaces is good. However, in wet environments, the anti-slip performance of paved brick roads deteriorates significantly. In contrast, wooden chip pedestrian walkways, especially those mixed with asphalt and wood chips, exhibit excellent anti-slip properties and comfort. Additionally, the study reveals that the comfort of wooden chip pedestrian walkways is significantly better than that of paved brick walkways, and the comfort of asphalt materials is slightly better than emulsified asphalt. It is worth mentioning that fine wood chips provide less comfort than coarse wood chips. Although reducing the thickness can enhance comfort, considering the service life of the road, a thickness of 4–6 cm is most suitable. Finally, asphalt and wooden chip mixtures with coarse wood chips possess good water permeability, making them suitable for permeable drainage pavement designs, effectively reducing road surface water accumulation.

Evaluation of thermal comfort and air permeability properties of Lyocell blended drapery fabrics

PurposeThe paper aims to provide an investigation about the effect of weft yarn type on thermal comfort and air permeability properties of Lyocell blended drapery fabrics.Design/methodology/approachThe paper evaluates the effect of weft yarn type on thermal comfort and air permeability properties of Lyocell blended drapery fabrics. Twill drapery fabrics with 18 Tex linen warp yarn where two types of weft yarns were utilized respectively with the order of “A” yarn and “B” yarn. 58 Tex Lyocell Linen blended first weft yarn (A yarn) was kept constant and the second weft yarn (B yarn) varied in different yarn structures and yarn count. Thermal comfort properties such as thermal conductivity, thermal resistivity, thermal absorptivity, fabric thickness were measured by means of Alambeta device. Correlation matrix between the thermal properties was also displayed. Air permeability results were obtained by using SDL Atlas Digital Air Permeability Tester Model M 021 A. One way analysis of variance (ANOVA) test was performed in order to investigate the effect of weft yarn type on thermal comfort and air permeability properties of Lyocell blended drapery fabrics.FindingsIn this paper, weft yarn type was found as a significant factor on some of the thermal comfort properties such as thermal conductivity, thermal resistivity, thermal absorptivity, fabric thickness and on the air permeability properties.Originality/valueThere are limited works related to evaluation of some thermal comfort and air permeability properties of Lyocell blended drapery fabrics.

Tunable porous fiber-shaped strain sensor with synergistic conductive network for human motion recognition and tactile sensing

With the rapid development of portable electronic products, smart wearable devices show great application potential in personalized motion monitoring, health monitoring and even in human-machine interaction. In particular, high-performance flexible fiber-shaped strain sensors are receiving more and more attention because they can be well integrated with clothes or human skin for real-time human activities monitoring. However, achieving improved sensitivity, wide detection range, diverse applications and easy operation of them remains a challenge. Here, we adopt a simple wet-spinning technique to prepare a porous fiber-shaped carbon nanotubes (CNTs)/silver nanoparticles (AgNPs)/thermoplastic polyurethane (TPU) fiber (CATF) for high-performance strain sensor, of which the synergistic conductive network of CNTs and AgNPs enables a wide detection range (∼248 %), high sensitivity (GF > 4295), fast response/recovery time (120 ms/140 ms) and excellent stability. Interestingly, strain sensing range and sensitivity of the sensor can be tuned by changing the AgNPs loading to make it suitable for different application scenarios. All the merits of the sensor make it capable for diverse human movements monitoring, pronunciation recognition, and gesture recognition. More importantly, our prepared CATF strain sensor can be easily weaved into wearable smart textiles, showing great potential for tactile sensing to realize multi-touch and pressure tracking. Finally, the CATF also displays efficient photothermal conversion capability even under different tensile strains up to 150 %, showing great potential in human body thermal management to improve the wearing comfort of wearable electronic fabric.

Evaluating the impact of sportswear with different fabric properties on comfort and physiological response during running

ABSTRACT Comfort is vital in sportswear design. Previous research focused on the thermo-physiological comfort of modal blended fabric by examining its physical and thermal properties, neglecting comprehensive wear trials. This study compared the perceived comfort of two sportswear samples: polyester fabric and modal blended fabric. Ten participants (mean age = 22.4) wore the samples in random order during two trials. Each trial involved 25 min of treadmill running at a self-selected speed in a laboratory with a room temperature of 23.5 ± 1°C and 50% humidity. Heart rate, blood lactate level, skin temperature, perceived exertion, self-reported comfort, sportswear weight change, and fabric properties were recorded. Results showed that the blended fabric offered superior comfort despite the polyester fabric demonstrating better moisture transfer. This suggests that fabric composition and absorbency contribute to comfort and moisture transmission. Future studies should explore fabric structures and their impact on comfort in modal blended fabric using comprehensive human trials.

Determining Tactile Comfort of Cellulose-Based Woven Fabrics, Knitted Fabrics and Terry Towels Using a Novel Instrument

ABSTRACT In this study, tactile comfort of woven bed sheets, terry towels, and weft knitted fabrics made of cotton and blends was investigated. Tactile Sensation Analyzer (TSA) was used for determining surface characteristics and low-stress mechanical properties of fabrics. Micro and macro-surface variations were determined via a special sound analysis technique, and low-stress mechanical properties (deformation, elasticity, hysteresis, and plasticity) were measured in out-of-plane deformation state. Total hand (TH) scores of fabrics were determined by expert assessors via sensory tests. Findings of the study revealed that surface and low-stress mechanical properties measured using TSA were strongly and significantly correlated with sensory evaluation results in general. It was detected that tactile comfort of knitted fabrics and towels was strongly related to the magnitude of macro-surface variations; meanwhile, micro-surface variations were found out to be a more determinant parameter for bed sheets. It was observed that deformation and recovery characteristics of bed sheets and towels have a significant effect on TH scores as well. Hand of fabrics was also investigated by a conventional nozzle test equipment for comparison purposes, and it was detected that TSA results can represent fabric hand better than the raw data obtained from the nozzle test equipment.

Preparation and moisture transport behavior of multilevel branching network nanofiber membrane: Based on the Lattice Boltzmann method and inspired by plant transpiration

Ensuring the efficiency and safety of firefighters relies heavily on optimizing the moisture permeability of their suits. Inspired by the intricate multi-level network structure of plant transpiration, this study utilized electrospinning technology to prepare biomimetic vascular, veined multilevel branched network quick-drying nanofiber membranes. Combining X-ray microtomography (XMT) and the lattice Boltzmann method (LBM), this study conducted a 3D reconstruction of the microstructure of quick-drying nanofiber materials, establishing a characterization method for moisture permeability behavior from a micro to mesoscale perspective and conducted numerical simulations. The results indicate that in the nanofiber membrane, the fiber diameter and pore size between fibers gradually decrease from the inlet to the outlet in the forward flow direction (from PET side to PAN side). At the same displacement pressure difference, the average and maximum flow rates of forward percolation were significantly greater than reverse percolation (from PAN side to PET side); in the initial stage of forward percolation (x < 11), the flow rate first increased and then gradually decreased, with the rate of increase (k = 0.712623) significantly higher than the rate of decrease (k'=0.001102), while in reverse percolation, the flow rate continuously increased throughout the process; These phenomena are primarily due to different startup pressure gradients. Furthermore, the analysis of moisture transport performance indicates that the fiber membrane exhibits highly efficient unidirectional moisture transport capability. This study expands the understanding of the moisture permeability mechanism of nanofibers, which is significant for enhancing the protective performance and comfort of quick-drying firefighter fabrics.

A Multifunctional Approach to Optimizing Woven Fabrics for Thermal Protective Clothing

This paper presents a detailed exploration of the development and characterization of multifunctional dual-purpose woven fabrics for thermal protective clothing. Through this research, 69 woven fabric prototypes have been carefully designed and produced, integrating various raw materials, yarn, and woven fabric construction parameters, with the aim of optimizing thermal protection properties while ensuring comfort and durability. The analysis led to the identification of two optimal woven fabric samples, which, upon further testing, exhibited exceptional dimensional stability, crease recovery, tear resistance, as well as abrasion and water resistance. Furthermore, the thermal properties were evaluated, demonstrating exceptional flame resistance, limited heat transmission, and high thermal insulation. Additionally, the study evaluated dynamic thermal properties, contact conductive heat transfer, air permeability, water vapour resistance, and thermal resistance of two clothing systems constructed from selected woven fabrics. Statistical analysis confirms significant differences between clothing systems, highlighting the influence of yarn composition and fabric structure on thermal performance and comfort, where one system exhibits better thermal insulation characteristics suitable for colder environments while the other excels in breathability for warmer climates. The developed woven fabrics meet high standards for protective clothing against heat and flame, surpassing currently available comparable woven fabrics on the market in terms of efficacy and performance. This research provides insights into the intricate balance between protection, comfort, and durability of woven fabrics, contributing to advancements in protective textile technology.

Customizable and scalable manufacture of aesthetic ionic conductive silk yarns for e-textile devices

Electronic textiles (e-textiles), which combine the comfort of textiles with the functionality of soft electronics, have attracted much attention in wearable applications. However, scale-up fabrication of stretchable textiles with concurrent high stability and aesthetic appeal features poses significant challenges. Here, we report a scalable and customizable dip-coating strategy for the preparation of multiple-colored and functionally stable ionic conductive silk yarns (i-SY) and demonstrate their effectiveness in exercise posture correction. The i-SY preserves the inherent properties of silk fibers and ionic liquids, exhibiting improved mechanical properties, weaving capabilities, flame retardancy, and electrical conductivity. The method leverages the exceptional transparency of ionic liquids, facilitating the large-scale production of colored i-SYs to meet aesthetic demands. Additionally, the i-SY sensor exhibits exemplary sensing sensitivity and stability, enabling the real-time monitoring of human joint movements and facilitating precise posture correction during fitness exercises. We envision that the proposed sensing textile holds promise for applications in wearable devices, healthcare monitoring, and human–machine interfaces.

Investigation of fabric tactile perception using the event-related potential method

The mechanism of the neuro-electrophysiological response of the human brain to skin tactile stimulation has always been an important research topic in the field of comfort perception of textile materials. In order to explore the characteristic neural potential components induced by various fabric tactile stimulation and their influence rules, event-related potential technology with ultra-high time resolution was introduced to monitor the somatosensory brain region under tactile stimulation of fabrics with different tactile properties, and the signal changes of related potentials were extracted and analyzed. The results showed that the amplitudes of N100 increased with the stiffness of the fabric, the amplitudes of P200 decreased with the smoothness of the fabric, and the amplitudes of P300 decreased with the smoothness and softness of the fabric. These results indicated that N100, P200, and P300 potentials could be used as neurophysiological response indexes of brain neurons to distinguish the subtle differences in fabric tactile properties. This finding not only laid a scientific theoretical basis for the brain perception mechanism of fabric tactile properties, but also provided a possibility for further quantification characterization of textile comfort perception.

Effect of knitting structure and dyeing process on drying time, air and vapor permeability

Comfort is the prime need in clothing. It is affected by the properties of fibers, yarns, and fabrics. A good understanding of these factors is essential in the design and conception of functional clothes. Fabric design serves as a manufacturing tool to meet several end-use requirements. The construction specifications and design of knitted fabrics greatly influence the comfort level of the end-use garment. This study aims to investigate the effect of the knitting stitch type and the dyeing process on the clothing comfort of knitted fabrics. For this purpose, five structures were prepared by combining plain, float and tuck stitches: plain jersey, cross miss 1 × 1, single cross tuck, weft lock knit and Lacoste. Then, yellow, and black dyeing were applied. The investigated wear comfort properties were the drying time, the air permeability and the relative water vapor permeability. Tests were conducted on the finished and on domestically washed fabrics. The data obtained were statistically evaluated with Pearson correlation, paired t-test, analysis of variance analysis and the Tukey test. The results showed that tucked fabrics have the longest drying time combined with the lowest air and water vapor permeability. Black variants showed better drying behavior and higher water vapor permeability. Analysis of variance results showed that the structure has a significant effect on clothing comfort. However, the dyeing process exerts a significant influence only on the drying time and the relative water vapor permeability. The paired t-test results indicate that the domestic washing cycles significantly change the drying time and the air permeability of knitted fabrics.

Experimental investigation of mechanical and comfort properties of banana/cotton blended woven fabrics

Purpose Through this study, four different types of woven fabric structures were created by using cotton/banana blends with a 70:30 ratio by varying the weaving specifications. This study aims to investigate the comfort and mechanical properties of these woven materials. Design/methodology/approach Taguchi L16 experimental design (5 factors and 4 levels) with response surface methodology tool was used to optimize mechanical and comfort characteristics. The yarn samples used in this study are cotton/banana with a blend ratio of 70:30. Fabric type (A), grams per square metre (GSM; B), yarn count (C), fabric thickness (D) and cloth cover factor (E) are the chosen process characteristics. Findings The highest tensile strength and tearing strength of the cotton/banana blended fabric samples were obtained as 326.3 N and 90.3 k.gf/cm, respectively. Similarly, the highest thermal conductivity and overall moisture management capacity values were found to be 0.6628 and 3.06 W/mK X10−4, respectively. The optimized process parameters for obtaining maximum mechanical properties were using canvas fabric structure, 182 GSM, 36s Ne yarn count, 0.48 mm fabric thickness and 23.5 cloth cover factor. Similarly, the optimized process parameters for obtaining maximum comfort properties were achieved using a twill fabric structure, 182 GSM, 32s Ne yarn count, 0.4 mm fabric thickness and 23 cloth cover factor. Originality/value In contrast to synthetic fabrics, banana fibre and its blended materials are significant ecological solutions for apparel and functional clothing. Products made from banana fibre are a sustainable and green alternative to conventional fabrics. Banana fibre obtained from the pseudostem of the plant has an appearance similar to ramie and bamboo fibres. Numerous studies showed that banana fibre could absorb significant moisture and be spun into yarn through ring and rotor spinning technology. On the other hand, this fibre can be easily combined with cotton, jute, wool and synthetic fibre. The present utilization of pseudostem of banana plant fibre is very minimal. This type of research improves the usability of bananas their blended fabrics as apparel and functional wear.

Effect of twist factor of yarn on sensorial comfort of single jersey knitted fabrics

Effect of twist factor of yarn on sensorial comfort of single jersey knitted fabrics

Impact of vitamin E in improving comfort, moisture management and mechanical properties of flame-retardant treated cotton fabric

The aim of this study is to analyze the use of vitamin E to enhance fabric's hand feel, moisture management and fabric strength which are affected due to flame retardant finish. Flame retardant treated fabrics typically become stiff, but the addition of Vitamin E along with emulsifier and binding agent through a vertical padding mangle by two times dipping and nipping results a soft fabric without impairing the flammability properties as determined by 45-degree flammability test. The samples were characterized by FTIR spectra, SEM images, and water contact angle. A new characteristics band is appeared at 1455 cm−1 for skeletal vibration of phenyl ring system of alpha tocopherol for Vitamin E measured by Fourier transform infrared spectroscopy (FTIR) that proves the effective attachment of vitamin E with fabric. Hydrophilicity of vitamin E containing sample is discovered after showing 37.629° as a water contact angle at optical tensiometer (Attension theta lite). Additionally, fabric comfort properties, moisture management properties, and mechanical properties were measured by fabric touch tester (FTT), moisture management tester (MMT) machine and tensile strength tester respectively that demonstrate significant affirmative change in almost all indexes of FTT, 43.5 % increase of overall moisture management capacity by MMT and 23 % increase of tear strength by tensile strength tester due to use of vitamin E that effectively compensate lower strength, poor fabric comfort, and low moisture management capability of flame retardant treated fabric.