Surface Of Wool Fibers Research Articles

Valorization of Waste Wool to Keratin with a Green Solvent Based on a Deep Eutectic Mixture of Choline Chloride and Lactic Acid

Abstract Waste wool, a by-product of sheep husbandry, is primarily composed of keratin, which has potential use in cosmetic products, biotechnology and medical applications. Traditional chemical methods for keratin extraction face limitations due to health and environmental concerns, and thus, green alternatives such as deep eutectic solvents (DESs) have been developed. The aim of the present study was to determine whether a natural DES composed of choline chloride and lactic acid can be used to extract keratin from sheep wool. The dissolution and keratin yield were investigated under different reaction times, temperatures, and wool-to-DES ratios. Fractions of water-soluble keratin and water-insoluble keratin aggregates were obtained by dialysis, centrifugation, and drying. The results showed that both the dissolution of wool and the yield of recovered keratin increased as the reaction time and temperature increased from 1 to 8 h and from 80 to 110 $$^{\circ }$$ ∘ C, respectively. With the longest reaction time of 8 hours and the highest temperature of 110 $$^{\circ }$$ ∘ C, the yield of water-soluble keratin increased to 23 %. Characterizations revealed that DES detached first the cuticular scales from the surface of wool fibres and subsequently degraded wool cortex layer. The extracted water-soluble keratin retained the characteristic amide structure of wool, but the secondary structure of keratin was converted to cross-$$\beta$$ β sheet form. Moreover, it had a narrow size distribution and a molecular weight of 10 kDa. The results of this study indicate that the proposed DES can be used as a green solvent for recovering keratin from sheep wool. Graphical Abstract

Enhanced coloration and functionality of wool fabric by Hydroxypropyl-β-cyclodextrin coated magnetic nanoparticles

The functionality and excellent low temperature dyeability of wool fabrics play a crucial role in expanding their potential applications in the fields of healthcare and technical textiles. The study proposes a highly effective modification method to impart coloration enhancement and functionality for wool fibers using lipoic acid (LA) as a coupling agent to bind hydroxypropyl-β-cyclodextrin (HP-β-CD) capped magnetic nanoparticles (Fe3O4). The structure and morphology of the modified wool fabrics (MWF) were characterized by various measure techniques including FT-ATR, FE-SEM/EDS, XRD, X-ray photoelectron spectroscopy (XPS) and thermogravimetric analysis (TG). The results demonstrated the successful immobilization of HP-β-CD capped Fe3O4 nanoparticles on the surface of wool fibers through LA. The MWF exhibited enhanced wettability, anti-wrinkle performance, improved UV resistance, effective antioxidation, and good antibacterial effect against Gram-positive (Staphylococcus aureus). These properties were found to be dosage-dependent on LA. In addition, the dyed MWF with Curcumin and Acid red 1 demonstrated higher color strength compared to untreated wool, and the color strength (K/S value) reached to 17.1 and 23.4 respectively when using 4% (o.w.f) dye concentration at 80℃ without any pH adjustment. Furthermore, the dyed MWF with both dyes exhibited the improved rubbing and washing colorfastness. This study presents a potential effective approach for enhancement in the bio-functionality and dyeability of wool fabrics.

An interfacial interlocking strategy for upcycling wool textiles to prepare polypropylene composite via interfacial diffusion and assembly

Substantial waste of wool textiles, along with a lack of effective treatment technology, has resulted in a significant resource and environmental constraints. Integrating wasted wool textiles with polymer is an effective way to prepare lightweight structural materials, but the resulting properties is closely linked to the interfacial interaction. Here, we proposed an interfacial manipulation strategy to direct interfacial diffusion and aggregation of amide-based nucleating agents (WBG) in polypropylene (PP)/wool fiber (WF) composites. Accordingly, the branched WBG fibers were anchored onto the WF surface to construct an interlocking interface between WF and PP so as to strengthen the interfacial interaction. The formation and regulation mechanism of the branched WBG fibers were demonstrated. Benefited from mechanical interlocking and β-nucleating function of the branched WBG fibers, the interfacial interaction between the WF and PP matrix was enhanced while the formation numerous β-PP was cultivated, endowing the composite with excellent strength and ductility. To demonstrate the application potential of this strategy, waste wool textiles were alternately embedded between WBG-containing PP sheets to create an interlocking interfacial laminate with an exceptional combination of strength and toughness, which is important to upcycle waste wool textiles.

Analyzing the effect of polydopamine cross-linked serine protease on anti-shrinkage finishing of wool using response surface methodology design

The polydopamine-cross-linked serine protease anti-felting process of wool fibers was optimized by response surface methodology to prepare wool fabrics with a low tendency to shrink and high strength. The effects of dopamine substrate concentration, serine protease substrate concentration, and reaction time on the physical properties and surface color of wool were investigated. The experimental data were fitted and analyzed by the polynomial regression model, and the predicted area shrinkage and breaking strength response of wool fabric were obtained. The results were analyzed by variance analysis to determine the important parameters for optimization. Wool fabrics were prepared under the conditions of dopamine substrate concentration of 0.834 g/l, serine protease substrate concentration of 2.5 g/l, and reaction world of 127 min. Scanning electron microscopy images showed that the surface of wool fibers was covered with a large amount of polydopamine and some edge scales were passivated. After 20 cycles of washing, the shrinkage area of wool fabric is from 1.49–7.25%, with good durability. In addition, X-ray photoelectron spectroscopy, and X-ray diffraction analysis results showed that the behavior of polydopamine-coated fibers prevented the excessive hydrolysis of scales by serine protease, and the crystallization index and solubility in alkaline solution increased.

Broadening Color Shade of Dyed Wool Fibre with Binary and Ternary Natural Plant Dye Combinations

ABSTRACT A limited selection of natural dyes’ color impedes the development of textile dyeing with natural plant dyes. Inspiring by the conventional coloration of textiles with a combination of three synthetic dyes generally, the present work is to investigate the broadening color shade of dyed wool fiber with ternary natural dye combinations of madder red (MR), gardenia yellow (GY), and gardenia blue (GB) without mordants in a decamethylcyclopentasiloxane (D5) medium. The wool yarn was wetted in an aqueous solution of pH 3 to own a 300% pickup rate, followed by immersion in a D5 medium containing 2% of alcohol ethoxylate (AEO-3) and solid natural dyes at 90°C for 90 min for coloration. The colorfastness to washing was achieved at a 4–5 for fading and a 5 rating for staining for all colors. The XRD patterns and TGA analysis confirmed that the dyeing procedure did not affect the crystallinity nature and stable thermal tendency. SEM images and cross-sections showed that the dyeing procedure did not damage the morphological structure of the wool fiber surface, and the dyes were evenly distributed. Finally, many color shades of dyed fibers were prepared with various dyes’ ratios.

Fabrication, Structural Characteristics, and Properties of Sericin-Coated Wool Nonwoven Fabrics.

Recently, nonwoven fabrics from natural silk have attracted considerable attention for biomedical and cosmetic applications because of their good mechanical properties and cytocompatibility. Although these fabrics can be easily fabricated using the binding character of sericin, the high cost of silk material may restrict its industrial use in certain areas. In this study, sericin was added as a binder to a cheaper material (wool) to prepare wool-based nonwoven fabrics and investigate the effect of the amount of sericin added on the structural characteristics and properties of the wool nonwoven fabric. It was found using SEM that sericin coated the surface of wool fibers and filled the space between them. With an increase in sericin addition, the porosity, moisture regain, and the contact angle of the sericin-coated wool nonwoven fabric decreased. The maximum stress and initial Young's modulus of the nonwoven fabric increased with the increase in sericin amount up to 32.5%, and decreased with a further increase in the amount of sericin. Elongation at the end steadily decreased with the increase in sericin addition. All of the nonwoven fabrics showed good cytocompatibility, which increased with the amount of sericin added. These results indicate that sericin-coated wool-based nonwoven fabrics may be successfully prepared by adding sericin to wool fibers, and that the properties of these fabrics may be diversely controlled by altering the amount of sericin added, making them promising candidates for biomedical and cosmetic applications.

Enhancing the hydrophobicity of the mineral wool through surface modification with organo-silane

Mineral wool materials are consistently preferred material to be used for building thermal insulation because of their low heat conductivity, making energy-efficient structures impossible to construct without highly insulating thermal envelopes. A mineral wool with a hydrophobic external surface could be used for several applications where hydrophobicity would be helpful. Organo-silanes are one of the most promising materials to impart hydrophobic character to varied surfaces to achieve performance properties such as dust-resistant coatings on building glass, solar panels with self-cleaning surfaces, biofouling resistant paints, self-cleaning car windshields etc. In this study, mineral wool was treated with methyltrimethoxysilane (MTMS) to achieve hydrophobic surfaces.A Fourier Transform Infrared Spectrometer is used to confirm the successful deposition of organosilane/siloxane networks on glass wool fibre surfaces. The hydrophobicity of treated wool was assessed and quantified using a contact angle measurement. Contact angle measurement was used to quantify the hydrophobicity of treated wool. The thermal conductivity of treated mineral wool fiber was calculated using the portable Lee's disc method. To determine the thermal stability and crystallinity of the treated wool, X-ray diffraction spectroscopy and thermogravimetric analysis were used, respectively. The treated mineral wool exhibited excellent thermal stability up to 800 °C, and wettability tests proved the treated surface highly hydrophobic, allowing water droplets to roll off with contact angles up to 134.9°. Surface modification reduced thermal conductivity by 20%, showing good thermal resistance. Here, we show easy and sustainable methods of treating mineral wool surfaces, which can serve as a thermal insulation option under humid conditions.

Decoration of wool fibers with mono or bimetallic nanoparticles for use in versatile applications

Wool fibers with multifunctional properties are highly in demand for use in different applications. The chemicals used to impart multifunctional properties to wool fibers are environmentally harmful and necessitate multi-step processing to achieve them. In order to endow and improve the effectiveness of the various properties of wool fibers, the current work offers evidence to support the viability of using a quick, efficient, and eco-friendly one-pot approach instead of a multi-step process. This approach enables wool fibers' prospective ability to be used in a wide range of applications, including domestic, industrial, and environmental applications. This approach focused on the facile simultaneous synthesis and immobilization of mono- or bimetallic nanoparticles on the wool fiber surface using the proteins present in the wool fibers as a reducing agent, to reduce metal ions to metal nanoparticles, with simultaneous binding of the formed nanoparticles on the wool fibers surface. First, the wool fibers are added to individual metal salt solutions comprising Ag+, Cu2+, or Fe3+ ions or to mixed metal salt solutions that comprise Ag+/Cu2+, Ag+/Fe3+, and Cu2+/Fe3+ ions. Under the influence of moisture and heat, the proteins (sulfur-containing amino acids (Cysteine)) acted as reduction agents to change the metal ions that have adsorbed on the wool fibers' surface into zero-valent atoms with simultaneous binding on the wool fibers' surface. The nanoparticles-immobilized wool fibers were characterized using SEM, EDX, and FTIR. To investigate the effect of metal nanoparticles on the dyeing process, wool fibers treated with monometallic nanoparticles were subsequently dyed with natural dye (cochineal dye). The results showed that the presence of mono- or bimetallic nanoparticles within the wool fiber surface imparts multifunctional properties to wool fibers. The mono- and bimetallic nanoparticles endowed the wool fiber with different colors depending on the type of metal. The monometallic nanoparticles immobilized on the wool fibers enhanced the dyeing of wool fibers with cochineal dye, with different colors ranging from purple to reddish-purple and acceptable colorfastness properties. The mono- and bimetallic nanoparticles immobilized on the wool fibers' surface enhanced the UV protection, antistatic properties, and antimicrobial activities of the wool fibers' surface. It is considered great that the UPF values for modified wool fibers were 50 and 50 +. Mono- and bimetallic nanoparticles improved the antistatic characteristics of wool fibers, with an average static half-life of less than 1 s. The mono- and bimetallic nanoparticles immobilized on the wool fibers showed excellent antimicrobial activities against Gram-positive bacteria (S. Aureus), Gram-negative bacteria (E. Coli), and fungi (C. Albicans). Furthermore, dyed wool fibers@monometallic nanoparticles showed excellent UV protection very good antistatic behavior and excellent antimicrobial activities. Furthermore, the effectiveness of mono- and bimetallic nanoparticles immobilized on the surface of wool fibers was evaluated for the removal of phenol from fuel. The findings demonstrated that wool fibers immobilized with mono- or bimetallic nanoparticles had a high adsorption potential and could be employed as a removable substrate for fuel purification. Wool fibers treated with mono- or bimetallic nanoparticles proved to be greatly promising for versatile applications, as well as a value-adding material for different fields. In this way, they can be used for multipurpose applications ranging from protective clothing to technical textiles, and environmental applications.

Simple surface low temperature grafting for antibacterial and anti-felting inkjet printing wool fabrics

It is a trouble to solve the problem of wool fabric shrinkage in daily washing. Coating finishing on wool fiber surface can effectively reduce shrinkage rate. In this study, wool fabrics were pretreated with H2O2 and papain. Then the pretreated wool fabric was coated with chitosan to prepare antibacterial and anti-felting fabric by employing a simple low temperature grafting method. The coated wool fabric showed expectant hydrophilic property without changing the original whiteness. Dye permeability and contour sharpness of inkjet printing wool fabrics were improved by grafting chitosan compared to pretreated wool fabric. The K/S values of wool fabric increased by 40.8 % and stayed high resolution in printed pattern. The area shrinkage of wool fabric decreased from 11.5 % to 4.7 %, which was obviously lower than “machine washable” index (8 %). What's more, the existence of chitosan coating onto wool fibers resulted in outstanding antibacterial property against E. coli in the inhibition ring test. This work opens up a pathway to fabricate anti-felting and antibacterial wool fabrics in practical production with chitosan.

Natural dyeing of air plasma‐treated wool fabric with Rubia tinctorum L. and prediction of dyeing properties using an artificial neural network

AbstractIn this study, the ecological dyeing process of wool fabrics was investigated. Wool fabric samples were treated with atmospheric pressure plasma‐jet and corona discharge plasma to modify the surface to make the process sustainable and greener. The samples were dyed with the aqueous extract procured from the powdered roots of Rubia tinctorum L. (madder) using the ultrasonic‐assisted method. Scanning electron microscopy and Fourier Transform–infrared analysis were performed to investigate the effect of plasma treatment on the physical and chemical properties of wool fibres. The effects of plasma treatment type, plasma treatment parameters and the duration of dyeing on colorimetric and fastness properties were investigated. The etching of the wool fibre surface and roughness after plasma treatment were proven with scanning electron microscopy images. The Fourier Transform–infrared spectra showed that no significant differences in the functional groups of wool fibre occurred after plasma treatment. The experimental results proved that plasma treatment parameters and dyeing time had an effect on the colorimetric and fastness properties of the samples. Furthermore, an artificial neural network model was proposed for estimating the dyeing properties of wool fabrics, namely, L, a, b, K/S, colour change, rubbing fastness (dry) and rubbing fastness (wet). The experimental results show that the proposed model achieves regression values greater than 0.97 for all dyeing properties. The proposed model is successful and can be efficiently used for estimating the dyeing characteristics of wool fabrics.

Investigation of the occurrence of binder material on airborne respirable mineral wool fibers

Mineral wool fibers can be released into the air during the production and handling of a mineral wool product where a small fraction of fibers will stay airborne and can potentially be inhaled. The aerodynamic fiber diameter determines how far an airborne fiber can pass through the human airway. Respirable fibers with an aerodynamic diameter < 3 µm can reach the deep part of the lungs (i.e., the alveolar region). Binder material (i.e., organic binder and mineral oil) is used in the production of mineral wool products. However, at the current stage, it is unknown if airborne fibers can contain binder material. We explored binder presence on airborne respirable fiber fractions being released and collected during the installation of two mineral wool products (a stone wool product and a glass wool product). Fiber collection was done by pumping a controlled air volume (2, 13, 22, and 32 l/min) through polycarbonate membrane filters during the installation of the mineral wool products. The morphological and chemical composition of the fibers were studied using scanning electron microscopy coupled with energy-dispersive X-ray spectroscopy (SEM-EDXS) analysis. The study demonstrates that binder material is found on the surface of the respirable mineral wool fiber mainly as circular or elongated droplets. Our findings suggest that respirable fibers explored in previous epidemiological studies, which have been used for proving a lack of hazardous effects of mineral wool on humans, may have also contained binder materials on the fibers.

Multifunctionalization and Increased Lifespan of a Worsted Wool Fabric

A lack of dimensional stability of worsted fabrics when laundering leads to a rapid increase in wool textile waste. Dry cleaning is thus highly recommended; however, it requires solvent(s), which are not eco-friendly. The aim of this study was to produce a machine-washable, 100% worsted wool woven as an outer fabric for men’s suit jacket that is also water-repellent in order to reduce the number of washes required during use. Chemical treatments were applied through successive paddings, using a blend of aqueous dispersion of polyurethane and polysiloxane (PUPX) for shrink-proofing/dimensional stability, followed by a second blend of an aqueous emulsion of fluorotelomer methacrylate and paraffin/hydrocarbon waxes (C6PW) polymers for water-repellency. The dimensional change of the finished fabric did not exceed 2%, meeting Woolmark requirements AW-1. Zeta potential measurements confirm that the fabric coated with PUPX has an overall anionic nature, which allows the good adhesion of the successive cationic C6PW polymer blend used in the second padding. Additionally, Scanning Electron Microscopy (SEM) analysis confirmed the good adhesion of the first blend (PUPX) to the wool fiber surface and inter-fiber bonding. After the application of (C6PW) resin, the fabric exhibited durable water repellency with a 5/5 spray test rating after 10 washes and dimensional stability, as well as high resistance to wear and abrasion, while retaining a soft feel and good flexibility.

Novel nano BaTiO3-based microwave vacuum treatment for precise and controllable scales stripping of wool fibers

Barium titanate nanoparticles were used as a locator to help accurately break the scales on the surface of wool fibers under microwave vacuum treatment, as an anti-felting process of wool with low environmental impact. The nanoparticles loaded by ultrasound are sandwiched between the scales and fibers, which allows the microwave energy concentration to break the scales for the shrink resistance of wool and avoid damaging the main body of fibers synchronously. The friction and mechanical properties of wool under microwave treatment with different power, temperature and processing time were discussed, morphological and chemical analysis of the fibers after treatment was also carried out. The results suggested that compared with the uncoated fibers, the anti-felting performance of the coated fibers after treatment had been significantly improved, while maintaining the mechanical properties, the tip end of the scales on the wool surface were cut off and the volume of the felting ball was increased by 82.3%. The nanoparticles coating the wool were also easily cleaned without residue. This study provided a novel potential approach in the modification of wool fibers for anti-felting.

Comment on "Which fraction of stone wool fibre surface remains uncoated by binder? A detailed analysis by time-of-flight secondary ion mass spectrometry and X-ray photoelectron spectroscopy" by Hirth et al., 2021, RSC Adv., 11, 39545, DOI: 10.1039/d1ra06251d.

The article mentioned in the title of this comment paper reports on an investigation of the organic binder presence and distribution on stone wool fibres with surface sensitive techniques (X-ray photoelectron spectroscopy (XPS), QUASES XPS modelling, time-of-flight secondary ion mass spectrometry (ToF-SIMS) mapping) and attempts to correlate the results with fibre performance in in vitro acellular biosolubility tests. However, the study has assumptions, hypothesis and results that do not take into account the recognised science and regulations on biopersistence of stone wool fibres, limitations of the utilized surface sensitive techniques and modelling approach and it contains a contradiction with biosolubility experiments. In this comment article, we discuss these points, propose improved QUASES XPS modelling and present recent ToF-SIMS mapping results that reflect biosolubility behaviour of the stone wool fibres.

Reply to comment on "which fraction of stone wool fibre surface remains uncoated by binder? A detailed analysis by time-of-flight secondary ion mass spectrometry and X-ray photoelectron spectroscopy" by Hirth et al., 2021, RSC Adv., 11, 39545, DOI: 10.1039/d1ra06251d".

This is a reply to the Comment of Okhrimenko et al. in the same issue of RSC Advances. We discuss the arguments brought forward by said authors, oppose their objections and show the unchanged validity of our results.

The Valorization Potential of Tannery Wool Waste in the Textile Industry

ABSTRACT According to environmental issues and guidelines, increasing efforts are being focused on reducing the harmful impact of textile wastes either by lowering the use of chemicals or by recycling wastes into new products to give them a new life cycle. In this paper, we investigate the physical and chemical properties of wool wastes coming from tanning industry, where the process of pulling the wool from the hide is based on chemical processes. These so-called “’Pulled wool’” properties are compared to virgin raw wool obtained from the same pelt, to evaluate the degradation of the fiber induced by the chemicals. SEM observations indicate that the pulled wool fiber surface appeared rougher, and the scales appeared to have been affected. Based on the X-ray diffraction, the crystallinity of the pulled fibers appeared to have been slightly reduced. Attenuated ATR-FTIR analyses indicated some changes in chemical composition. HPLC tests showed an apparent increase in the amount of cystic acids indicating damage of some macromolecular chains crosslinking. Thus, some properties appeared significantly affected during the chemical unhairing process. Based on these characteristics of pulled wool, potential applications to valorize it could be suggested, as we show that it remains suitable for conventional textile processes.

Study on Process Optimization and Wetting Performance of Ultrasonic-Oxidized Wool Fiber

Abstract As lightweight and comfortable wool products have become the mainstream of the market, the surface treatment technology of wool fiber has been widely observed. Here, we treated wool fibers by ultrasonic bath and oxidation in a composite method that was better able to improve the wetting properties of wool fiber. Using this approach, we investigated the main factors influencing the effect of treatment and established the regression equations of multiple indices on processing conditions; after testing and optimization, the optimum technological parameters were obtained and experimentally verified. In addition, test results revealed that the ultrasonic-oxidation treatment in the optimum process led to the disulfide bonds (S-S) of wool fiber breaking and being oxidized, but showed less effect on the fiber's supramolecular structure; the wool fiber surface became smoother and more uniform, which resulted in a greatly increased wettability; there was a remarkable decrease in contact angle, and the rate of moisture absorption and desorption was enhanced in response to optimal treatment. These findings are significant for the potential industrial application of wool fiber as a moisture-absorbing material in textile products.

Fabrication of Chitosan-Loaded Multifunctional Wool Fabric for Reactive Dye Digital Inkjet Printing by Schiff Base Reaction.

Improving the development of high-value multifunctional wool fabrics was essential to satisfy diverse needs. Considering the various characteristics of chitosan macromolecules, herein, a padding-cross-linking process was adopted and then multifunctional wool fabrics with outstanding printing effects, shrink resistance, and antibacterial properties were fabricated. The test results showed that chitosan macromolecules loaded successfully on the wool fiber surface by Schiff base reaction. Wool fabrics changed from hydrophobic to hydrophilic due to the existence of chitosan macromolecules. The color strength (K/S value) of the reactive dye inkjet-printed wool fabric was greatly increased from 20.48 to 26.6. The area shrinkage of final samples was 2.53%, which was exceedingly lower than that of the original wool (10.96%). Moreover, the chitosan macromolecules with reactive amino groups endowed wool fabrics with certain antibacterial properties against E. coli and S. aureus. Generally, this study provided guidance for manufacturing multifunctional digital inkjet-printed wool products in mass production.

Improvement in dyeing and physical properties of wool fabrics through pretreatment based on the bacterial culture of Stenotrophomonas maltophilia DHHJ

Wool fiber is a valuable natural material in the textile industry, but keratin cuticles on its surface can deteriorate product quality. Wool fabric finishing has a long-standing problem in meeting the goal of environmental sustainability. In this study, we developed an eco-friendly simple method of wool fabric treatment based on direct incubation with the whole culture of Stenotrophomonas maltophilia DHHJ, a keratinase-producing bacterial strain. This processing method effectively reduced roughness for the surface of wool fiber and wool fabric samples by removing the cuticle scales. The keratinolytic treatment altered many physical properties of the wool fabrics, such as felting shrink, bursting strength, elongation at break, and diameter. The dyeability of wool fabric was substantially improved due to the pretreatment. The surface modification accelerated the rate of dyeing-bath exhaustion for wool fabric samples under a mild processing condition and the dyeing equilibrium was achieved within 10 min at a relatively low dyebath temperature (below 70°C). The pretreatment with the keratinase-secreting bacterial culture was beneficial for dyeing uniformity and rubbing color fastness. Besides, the fuzzing and pilling properties of wool fabrics were ameliorated in the fabric samples incubated with the bacterial culture.

Multifunctional Dyeing of Wool Fabrics Using Selenium Nanoparticles.

This work aims to utilize selenium nanoparticles (Se-NPs) as a novel dyestuff, which endows wool fibers with an orange color because of their localized surface plasmon resonance. The color characteristics of dyed fibers were evaluated and analyzed. The color depth of the dyed fabrics under study was increased with the increase in Se content and dyeing temperature. The colored wool fabrics were characterized using scanning electron microscopy (SEM), energy dispersive spectroscopy (EDX) and an X-ray diffraction (XRD) analysis. The results indicated that spherical Se-NPs with a spherical shape were consistently deposited onto the surface of wool fibers with good distribution. In addition, the influence of high temperature on the color characteristics and imparted functionalities of the dyed fabrics were also investigated. The obtained results showed that the proposed dyeing process is highly durable to washing after 10 cycles of washes, and the acquired functionalities, mainly antimicrobial activity and UV-blocking properties, were only marginally affected, maintaining an excellent fastness property.