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Technical Textile Market (By Product Type: Woven Technical Textiles, Nonwoven Technical Textiles, Composites and Laminated Textiles, Coated Technical Textiles; By Technology: 3D Weaving, Thermal Bonding & Needle Punching, Coating & Lamination, Electrospinning, Digital Printing/Conductive Printing; By Manufacturing Process: Spinning & Weaving, Knitting (Warp & Weft), Nonwoven Fabrication, Lamination & Coating, Finishing; By Material: Natural Fibers, Synthetic Fibers, High-Performance Fibers, Biodegradable & Bio-based Fibers; By Application; By End User) - Global Industry Analysis, Size, Share, Growth, Trends, Regional Analysis and Forecast 2025 To 2034

Technical Textile Market Size and Growth 2025 to 2034

The global technical textile market size was reached at USD 238.45 billion in 2024 and is expected to exceed around USD 390.62 billion by 2034, growing at a compound annual growth rate (CAGR) of 5.20% over the forecast period from 2025 to 2034.

The technical textile market is expected to grow significantly owing to its expanding application across industries such as automotive, construction, healthcare, and agriculture. Rising demand for durable, high-performance materials that offer enhanced strength, thermal resistance, and moisture control is a major driver. Additionally, government initiatives promoting the use of geotextiles in infrastructure projects and increasing adoption in PPE, medical textiles, and smart fabrics contribute to market acceleration.

Technical Textile Market Size 2025 to 2034

The technical textile market includes textiles designed for specific high performance in automotive, healthcare, construction, and defense industries. Growth is propelled by demand within those industries concerning fire resistance, durability as well as antimicrobial active properties of textiles. Innovations are spurred with government and corporate funding through eco-friendly sustainable R&D alongside smart fibers and nanotechnology which furthers production technology as well as fabrics themselves. Product development is aided greatly through collaboration across different domains enabling the fusion of sensors and electronics into textiles leading them towards real-time data exchange capabilities thus revolutionizing industrial safety standards while improving efficiency and sustainability simultaneously.

Technical Textile Market Report Highlights

  • By Region, North America has accounted highest revenue share of around 44.3% in 2024.
  • By Product Type, the nonwoven technical textiles segment has recorded revenue share of around 37.6% in 2024. Nonwoven technical textiles dominate due to their cost-efficiency, lightweight properties, and widespread use in hygiene, filtration, and geotextile applications, driven by automation and disposable product demand.
  • By Application, the transportation (Mobiltech) segment has recorded revenue share of around 36.8% in 2024. Mobiltech leads applications due to the rising use of technical textiles in automotive components like airbags, seat covers, insulation, and composites, offering weight reduction and improved fuel efficiency.
  • By Technology, the 3D weaving/knitting segment has recorded revenue share of around 36.4% in 2024. 3D weaving/knitting holds major share due to increasing demand in aerospace and medical implants, offering structural strength, durability, and multi-dimensional properties tailored for advanced industrial uses.
  • By End-User, the mobiltech (automotive & aerospace) segment has recorded revenue share of around 35.7% in 2024. Mobiltech remains dominant as automakers and aerospace firms adopt high-performance technical textiles for lightweight composites, thermal shielding, and occupant safety systems, enhancing fuel economy and performance.
  • By Manufacturing Process, the nonwoven fabrication (Meltblown, Spunbond) segment has recorded revenue share of around 36.1% in 2024. Meltblown and spunbond methods are preferred for their versatility, cost-efficiency, and mass production capability in filtration, medical PPE, and hygiene applications, especially after COVID-19.
  • By Material, the synthetic fibers (Polyester, Polyamide, Polypropylene) segment has recorded revenue share of around 45.6% in 2024. Synthetic fibers dominate due to their mechanical strength, chemical resistance, and affordability, making them ideal for high-performance textiles used in automotive, industrial, and construction applications.

Technical Textile Market Growth Factors

  • Rising Demand in Automotive & Transportation: Technical textiles in vehicles—like airbags, noise-dampening layers, and reinforced composites—improve safety, comfort, and weight reduction. These materials support EV adoption and regulatory emissions goals. From 2022 to 2025, India’s NTTM supported R&D in nonwoven and composite fabrics for electric vehicle interiors. The U.S. EPA's new coating rules drove investment in VOC-compliant auto interiors. Germany’s Clean Mobility initiative funded lightweight composite textile applications for EVs. These initiatives are boosting technical textile penetration across the automotive sector.
  • Advancements in Healthcare and Hygiene Textiles: Through healthcare textiles like dressings, gowns, and implantables, hygienic, anti-microbial, and bio-compatible functions are provided. Their usage is increasing with a wearable health device trend. Post-COVID, India’s BIS revised the emergency response norms for medical textiles. Sensor-integrated smart dressings designed for real-time wound monitoring via remote systems were approved by U.S. FDA in 2023. Funds from Japan’s METI are targeted towards the nonwoven fabric development of advanced surgical masks and drapes. These initiatives globally enhance the innovative applications of medicine and hygiene textiles.
  • Government Policy & Mission-Based Initiatives: Funding has been attested for nurturing innovations in technical textiles under Government Missions which also offers certification support along R&D assistance to scale innovation within the country’s supply chains while improving competitiveness across borders relative to other nations capitals outside India due to low production costs were received as The Indian NTTM emerged with over RS 1,400 crore pledged until 2026 supporting 70+ projects. EU Horizon funded effortless sustainable grantable smart-textile evolution furthering focus giving rise to sustainable protective wear enhancing softness whilst retaining function launching pioneering advanced guard civilian gear dedicated solely towards women without zipper adds accentuating gentle comfort transforming feminine-esque appeal unlike anything cfidan likes never seen before all thanks mission driven vision designing cross sector collaborations changing societies perception unlock infinite possibilities fostering Advanced Smart Future.
  • Growing Application in Defense and Security: Flame-retardant fabrics, ballistic vests, and sensor-embedded uniforms are examples of defense textiles that must operate under extremely harsh circumstances. They are imperative for the protection of soldiers as well as mission accomplishment. With India’s Ministry of Defence sanctioning domestic procurement of high tenacity fabrics under Make-II provisions in 2023 enables smarter wearables funded by U.S DIU which tracks soldier vitals in real-time is a step closer to be fully adapted. By 2024 NATO approved the use of advanced fabrics for uniform anti-chemical standards with uniformed proposed chemical warfare protective standards dubbed ‘uniform anti-chemical standards. These initiatives strengthen global capabilities in defense textiles.
  • Advancements in Textile Production Automation: The use of robotics, AI, and smart sensors to automate processes in textile manufacturing improves productivity and minimizes human error. It positively impacts compliance, energy efficiency, and quality control. With the commencement of 2023, India's NTTM along with the PLI schemes funded over 50 pilot units for the adoption of automation in smart textiles. In 2024, U.S. NIST was set to enhance circularity with automated textile-sorting datasets. The EPA allocated funds toward smart emissions monitoring for textiles in their 2024 budget proposal. These initiatives are modernizing textile production towards scalable solutions that are environmentally friendly.
  • Integration with Wearable Electronics: E-textiles or smart textiles are fabric-based materials which embed wires and other electronics capable of monitoring various health parameters useful to the medical field, military, or fitness industries. From 2022 to 2024, NTTM sponsored THE GREAT initiative in India which funded eight startups focused on creating wearable technologies for textiles. Such garments were developed under the sponsorship from the US DoD through its Defense Innovation Unit. In 2024 NIST put forward draft calibration protocols concerning sensor fibers and fabrics as well as smart clothing while EU initiated pilot programs involving intelligent garments directed at elderly people suffering chronic diseases who require constant surveillance.
  • Digital Printing on Technical Textiles: With digital printing, the antimicrobial or fire-retardant coatings can be applied meticulously to the textiles with minimum wastage. Regulatory compliance as well as customization is supported. In India, BIS released new applicable revisions for medically printed textiles in 2023. As of 2024, the EPA had classified coated textiles as digitally printed composites concerning VOC emissions. Legally engineered fabric composites for electric vehicles were included in Germany's Clean Mobility Initiative—sustainability and lightweighting were achieved through digitally printed fabric composites. This initiative strengthens sustainable manufacturing alongside advancements in textile printing technology.

Report Scope

Area of Focus Details
Market Size in 2025 USD 250.51 Billion
Expected Market Size in 2034 USD 390.62 Billion
Projected CAGR 2025 to 2034 5.20%
Dominant Area North America
High-growth Region Asia-Pacific
Key Segments Product Type, Application, Technology, End-User, Manufacturing Process, Material, Region
Key Companies Asahi Kasei, Baltex, Du Pont, Filspec, Freudenberg Performance Materials, Heathcoat Fabrics, Huntsman International, Khosla Profil, Milliken & Company, Mitsui Chemicals, Nikol Advance Materials, Nobletex, Srf, Toray Industries, Toyobo

Technical Textile Market Dynamics

Market Drivers

  • Consumer Demand for Functional Apparel: As a result of an active lifestyle and for health-related purposes, apparel need to be equipped with extra features such as UV protection, moisture management, or antibacterial layers. Between 2022 and 2024 India’s Bureau of Indian Standards (BIS) approved over twenty functional quality norms for textiles. Advancements made towards environmental compliance has increased the feasibility of functional and recycled apparel in the U.S. The adoption of smart wearables compliant with GDPR-regulations in the EU has fostered a more health-conscious use of monitoring apparel. Such shifts are spurring investment into high-performance products made from industrial-level textiles.
  • Technological Advances Related to Fibers & Yarns: The infusing of new fibers such as nano-infused, conductive, or even biodegradable yarns is changing the performance, safety and range of applications of textiles. These innovations enable usage in medicine, industry, and defense sectors. India’s NTTM sponsored over 160 R&D fiber projects from 2022 to 2025. In 2024 the US lulled nanofiber textiles safety restrictions under its nanotech framework. Biopolymer yarns funded by EU granters for agriculture and fashion segments were also introduced. All these breakthroughs greatly increase the scope and value of specialized yarns around the world.
  • Need for Lightweight Materials in Aerospace & Transport: As in the case of aircraft and electric vehicles (EVs), textiles-based composites improve structural reinforcement, energy efficiency, and weight reduction. This helps to achieve global emissions targets which is an added incentive. Adoption of composite textiles for cabin interiors by India's aviation sectoras part of its Clean Skies initiative further bolsters integrated aviation emission systems. In 2024 advanced lightweight interiors were made mandatory by US FAA as well. Joint technical minimum requirements on lightweight fabrics for troop transport have been established by NATO too. All these changes very much boost the need for engineered lightweight textiles.

Market Restraints

  • High Regulatory Compliance Costs in Healthcare & Defense: Textiles for medical and defense use must comply with strict certification, safety, and material traceability laws, increasing production costs and delays. India’s CDSCO framework for medical textiles raised compliance costs significantly since 2023. U.S. Berry Amendment sourcing rules add 25% to textile procurement expenses. The EU revised PPE and MDR norms, requiring repeated CE and ISO audits. These regulations, though critical, act as financial and operational hurdles to many manufacturers.
  • Slow Adoption in Developing Countries: Many low-income countries lack textile infrastructure, regulatory incentives, or R&D funding, delaying adoption of technical fabrics despite local needs. The construction of MITRA parks, along with the subsidy programmes for nurture and promotion of textile technologies (NTTM), shifts India to a different category. Conversely, countries in Africa and Latin America still depend on imported synthetic fabrics. The absence of EPR requirements hinders investment aimed at adopting sustainable practices for production. In the case of these regions where growth is stagnated, local policy frameworks become far more critical.
  • Low Recycling Rates and Infrastructure Gaps: The existing gaps that pertain to recycling and other forms of infrastructure, along with low rates of adoption within the sector: blends as composite materials—due to their fibrous intricacy combined with the lack of standardized e-sorting facilities—pose significant challenges concerning technical textile recycling. NIST sponsoring the creation of NIR-SORT for fabric sorting improves recovery rates substantially. GAO’s 2024 report highlighted under-reported <15% recovery of textile waste across the US. The enforcement of EPR alongside bans on PFOA’s for textile Cali SB 707 exemplify dire need towards uniform global hygienic infrastructure available for recycling fabrics freely and without restrictions.

Market Opportunities

  • Partnerships Between Tech Firms and Textile Manufacturers: Collaborations between textile companies and tech innovators enable the creation of smart fabrics, wearable healthcare garments, and AI-driven safety gear. In India, startups in wearable fabrics secured government grants under the GREAT program in 2023. Defense initiatives in the U.S. have integrated biosensor technology and textile fabrication. Partnerships were IoT smart fabrics which NIST published standards for. Funded by Horizon Europe, multinational teams collaborated on sensor-embedded garments.
  • Online B2B Textile Marketplaces: Textile supply chains are more easily accessed through online B2B marketplaces which increase regulatory compliance as well as access to certified high-quality textiles. To boost B2B engagement, India’s export councils participated in tech fairs and government portals. Federal contracts from the US started listing smart textiles on public procurement since 2023. The EU fostered circularity through mandating digital compliance integration in textile platforms.
  • Geotextile Market Stimulated by Government Infrastructure Projects: The construction of flood controls, roads, and even rivers require geotextiles for resisting erosion and maintaining stability which creates secondary demand. India ordered more than seventy projects requiring geotextile orders from NTTM between 2022 to 2025 under the fortification policies. In 2023 the US EPA updated guidelines on erosion fabric reinforcing climate-resilient adaptability. Europe has made extensive investment on flood protection infrastructures using textiles under horizon programs. Centralized purchasing like this vastly diversifies application using textile solutions while also enhancing production capacity.

Market Challenges

  • Reconciling Competing International Regulations: Issues related to chemicals, safety, emissions, and privacy regulations intersect several jurisdictions. This cross border regulatory ‘compliance whiplash’ increases the burden on manufacturers, propelling additional operational expenses while simultaneously stifling innovation. The 2024 revisions to TSCA in the US eased some controls on PIP and decaBDE as well as imposing new more enduring restrictions on persistent chemicals used in textiles. Similarly, India’s Bureau of Indian Standards (BIS) has made mandatory QCOs for certain meditech & geotech products. European Union forbade PFAS finishes which marks further compliancy milestones for other regions. These gaps in compliance strangulate innovation by increasing barriers to market access.
  • Intellectual Property Concerns in Fiber Innovation: The borderless complexities of jurisdictional innovation claim competition cumulatively versify frameworks for delineating infringement risks along with grant delays. Last year India released the IP hotspots Guideline on smart textiles and nanotechnology fabrics under NITI Ayog’s vision which represents its emerging policies for intellectual property concerning innovation driven areas. U.S. patent authorities created protocols to safeguard nano-yarn innovations. EU amended its biotech patenting rules in 2024 to cover new functional fibers. These differences demand extensive legal planning, especially for startups in advanced yarns.
  • Scaling Production While Maintaining Quality: Stringently enforced environmental policies pose challenges to hygienic, eco-friendly, and emission-compliant practices during the mass production of coated electronic textiles. Commercialization rates remain starkly low for NTTM-supported sensor textile pilot plants in India—30% by 2025. VOC facility compliance noted by EPA results in an increase of 40% capex cross region smog regulatory spend (cross-region). Blended NIR-SORT referred gap-removed fiber sorting revealing infused standardization loss known as quality transparency gaps, scale alongside unhampered factory output per hour collision-free spaced flight remains a common struggle within many businesses hybridized for silence-prevention productivity.

Technical Textile Market Segmental Analysis

Product Type Analysis

Woven Technical Textiles: Woven technical textiles are made by interlacing yarns perpendicular to one another. This form of weaving possesses high dimensional stability and load-bearing capacity. As such, they are utilized in critical strength or durability applications. There is a global oversight on VOC emission regulations on weaving facilities from 2022 until 2025. BIS set standards on product quality for woven composite fabrics used in automotive seat covers in 2023. The U.S. EPA added air toxics monitoring for large woven textile plants in 2024. Germany’s Clean Mobility initiative funded lighter woven composite panels for EV interiors in 2024.

Nonwoven Technical Textiles: The Nonwoven segment has dominated the market in 2024. Nonwoven textiles are created through the bonding or felting of fibers into webs or mats and offer filtration, hygiene, and insulation at low cost. These fabrics are significant in medical, filtration, and disposable uses. Nonwovens N95 and surgical masks mandated quality-control orders from India’s NTTM since 2022. Recognition of wound dressings containing nanofiber layers was given by U.S. FDA with cross horizon application in 2023. In 2024, NIST included nonwoven blends to its sorting protocol to promote recycling. Woven hygiene products gained legal status under EPR regulations enforcement by the EU in 2025.

Composites and Laminated Textiles: The Fiber Reinforced Polymer (FRP) composites are hybrid materials composed of high-performance filaments infused with resins, while laminate fabrics add supplementary functions such as waterproof or fire resistance. These textiles are designed for aerospace, construction and defense applications. Between 2022-2025 the U.S. EPA increased VOC emission limits for resin-coated structural panels used in construction. In 2023 India’s NTTM sponsored the creation of prototype carbon-fiber composite laminates for healthcare shielding. In 2024 the EU's Horizon program funded antimicrobial laminate development intended for hospital use. Germany sponsored eco-friendly composite laminates to help achieve green building certification in 2025.

Coated Technical Textiles: Coated rainwear includes technical textiles with functional finishes like PU, PVC or PTFE which offer water resistance, UV protection or chemical shielding on woven substrates and applied to fabrics at lower temperatures than their melting point Fused Layers Superlattice, giving it ultra-high temperature resistant properties. This coat is widely worn in industrial, protective, and recreational settings. Standards for coated rainwear were issued by BIS in 2023 under its certification scheme. Emissions from production lines of coated textiles were included into revised NESHAP rule by United States Environmental Protection Agency (EPA) in 2024. Development of bio-based polyurethanes (PU) films targeted to agriculture was financed by India in year 2024. Restrictions on PFAS substances used in coating textile fabrics came into force within the European Union in late 2023.

Application Analysis

Medtech (Healthcare & Hygiene): Medtech textiles include surgical drapes, gowns, wound dressings, and sanitary products, engineered for absorbency, biocompatibility, and safety. They're essential in infection control and patient care. From 2022–2025, the U.S. FDA authorized smart wound dressings with embedded sensors in 2023. India’s BIS upgraded surgical gown standards in 2023 under pandemic preparedness guidelines. EU medical textile PPE regulations were updated in 2024, requiring CE marking and traceability. Japan funded smart diaper R&D with fluid-sensing tech in 2025.

Mobiltech (Transportation): The Mobiltech segment leading the market in 2024. Mobiltech covers textiles used in vehicles—seat fabrics, airbags, filters, and insulation—that enhance safety, comfort, and weight efficiency. They meet stringent regulatory and emissions norms. Between 2022–2025, India funded high-strength seatbelt nav-composites for EVs. The U.S. EPA tightened VOC regulations for cabin air filters in vehicles in 2024. Germany subsidized anti-noise reinforcement fabrics in EV chassis in 2023. EU emissions law amendments in 2024 drove lightweight textile insulation projects for trains.

Buildtech (Construction): Buildtech comprises textiles like geotextiles, roofing membranes, scaffolding nets, and insulation used in civil infrastructure for reinforcement and protection. They improve durability and sustainability in construction. From 2022 to 2025, India mandated geotextile use in highway expansion under NTTM frameworks. EU funded eco-friendly roofing textile membranes via Horizon in 2024. The U.S. EPA revised emissions standards for applicators of coated scaffolding nets in 2023. Germany adopted noise-reduction wall coverings in urban renewal projects in 2025.

Agrotech (Agriculture): Agrotech encompasses shading and crop covers, protective nets, and fabrics aimed at improving agricultural productivity while conserving water. In the agriculture sector, these textiles provide low-cost solutions. In 2023, India’s NTTM subsidized biodegradable crop nets tailored for resource-poor farmers. The U.S. EPA added mandates for irrigation systems to include textile filters capable of removing pesticides in 2024. EU regulations put a stop on non-degradable multi-layered mulch films in 2022, which sparked innovation around textiles. Japan sponsored solar-reflective shade fabrics in 2025 to mitigate heat-related losses during cropping seasons.

Indutech (Industrial Filtration & Cleaning): Indutech covers filtration textiles as well as those used in conveyor belts, industrial wipes, drill pipes insulation tubes for heavy industries are also included indutech products. These face harsh environments and require high-temperature resistance. The US textile filter limit set by chemical plants between 2022-2025 faced Oregon setting more stringent regulation back in 2023 that was stricter than previous ones. Industrial standards regarding cleaning wipes specific to manufacturing were released by India’s BIS in 2024. The EU with its circular initiatives regarding filtration dipers fabricated into use the same year.

Technology Analysis

3D Weaving/Knitting: The 3D Weaving/Knitting segment has captured leading position in 2024. 3D knitting and weaving create multi-layered, seamless textile structures for which the strength-to-weight ratio is high. Aerospace, automotive, and medical devices capture complex multi-dimensional shapes. NIST and ASTM published 2024 standards from 2022-2025 covering 3D structures, textiles considering circularity and repair. In India, the NTNM sponsored pilots in ‘23 for knitted orthopedic braces that were 3D modeled. In 2024, the US EPA started regulating VOC emissions on composites infused with resin and 3D woven filaments while the focus was on additives in the EU Horizon program for electric vehicles PPE legroom capusen in ’25 EU. The horizon was sponsorship of cab parts with textile composites for EVs.

Thermal Bonding & Needle Punching (nonwovens): Thermal bonding joins fibres using heat while needle punching uses mechanical entanglement to join fibres nonwovens ensuring porous and durable fabric used for filtration, insulation as well as hygiene products. These methods are essential within disposable and industrial textiles manufacturing. This was applied by BIS adding quality criteria to thermally bonded nonwoven filters PPE’s from ‘22-‘25 in India. The US responded to an oil spill problem with funding hydrophobic materials designed geo nonwovens needed for flood control spent in green energy projects like needle punched german funds working ever since 2024 while over here applying ecofriendly adhesive designs tor (tea)spouts created mulch counters featuring banned single use items since 2022.

Technical Textile Market Revenue Share, By Technology, 2024 (%)

Technology Revenue Share, 2024 (%)
3D Weaving / Knitting 36.40%
Thermal Bonding & Needle Punching (for nonwovens) 23.10%
Coating & Lamination 20.30%
Electrospinning (for nanofibers) 11.50%
Digital Printing / Conductive Printing 8.70%

Coating & Lamination: Coating and lamination serve to apply functional materials such as PU, PVC, or PTFE to textiles fo waterproofing and flame, chemical, and wear resistance which make the materials protective implementing coating enhances the functionality of textile. For the period 2022-25 the U.S. EPA’s revised NESHAP rules for 2024 included VOC and PFAS monitoring in coated Texas. In 2023 India’s NTTM granted funds for bio based PU coatings in agromembranes. In 2026 BIS introduced certification hospital grade laminated fabrics issued in 2024. EU REACH restrictions on PFAS-based coatings came into force in late 2023.

Electrospinning (nanofibers): The process of electrospinning utilizes an electric field to produce nano fibrous mats with a large surface area which also have porosity making them useful for filtration, sensors and even medical dressings. Subsequently these nanofibres will enable propulsive functional textiles of the future. From 22-25 NIST added identification of electrospun nanofibers to textile sorting standards in 2024. Electrospun nanofiber wound dressings were approved by the US FDA in 2023. In agronomy NTNTM funded prototype construction of masks via electrospinning in 2023. Supported by EU research programs, restoration of filters using biodegradable plastics which would prevent npnoplastic pollution was aimed at metered out micro plastic pollutants until nano fiber water filtration system is fully competent.

Digital Printing / Conductive Printing: Similar to other forms of digital printing, conductive printing applies functional inks (conductive, antimicrobial, or UV-blocking) to textile substrates with precision. These actions support the efficient creation and personalization of smart garments. Between 2022-2025 NIST’s 2024 Guidelines defined criterion for standard compliance on Digital Textile Printing. The EPA's 2025 VOC regulations also apply to aerosol digital coatings. In 2023 India’s BIS approved digitally printed PPE Fabrics. EU funded research projects in 2024 for garments embedded with health monitors designed for printed circuitry using conductive ink.

End User Analysis

Automotive & Aerospace: The Automotive & Aerospace segment leading the market in 2024. Technical textiles improve safety and protection for occupants in vehicles and airplanes while enhancing durability, reducing weight, and improving aerodynamics. They are also used in airbags, seatbelt insulation, structural reinforcements, trims, and seat interiors. These materials must meet stringent mechanical and fire-retardant requirements. Under NTTM in 2023, India’s Ministry of Textiles sponsored research on nonwoven composites for the interiors of electric vehicles (EVs). Boeing widened their collaboration with Toray in 2024 to use carbon fibre reinforced textiles on commercial airplanes to increase fuel efficiency and range. BASF collaborated with Audi on the e-mobility batteries regarding insulation using technical textiles. Teijin, a Japanese supplier, introduced flame resistant battery housing fabrics for EVs in 2025. The above innovations showcase the increasing cross-sectoral integration of mobility industries with advanced technical textiles driven by rigorous sustainability objectives enhancing safety performance standards.

Medical & Healthcare: Out of all surgical gowns, wearable health monitoring devices, and biocompatible implants. surgical dressings must be bio-compatible. They are paramount to infection control and management of the patient. After the post-COVID changes in 2022, India’s Bureau of Indian Standards (BIS) revised the national quality regulations for disposable gowns and drapes. MediPrint’s smart wound dressings containing embedded sensors received US FDA approval in 2023. METI further developed long-term biodegradable nonwovens for use as implants in Japan in 2024. Freudenberg Medical designed an antimicrobial textile catheter sheath intended to surgically reduce infection risk during surgery in 2025. These advances confirm that dedicated innovative efforts and further advancement within this field of medical textiles remain essential in regard to public healthcare concerns.

Technical Textile Market Share, By End-User, 2024 (%)

Defense & Military: For Defense grade textiles, ballistic protection, flame resistance, chemical shielding, stealth signature reduction, and many more are all achievable under extreme conditions. The prerequisites for these functionalities include rigorous durability and safety benchmarks. There have been notable advancements such as the purchase order approved by India’s Ministry of Defense for domestically manufactured bullet resistant fabrics in 2023 as part of the Make-II initiative. In 2024, the MIT Entrepreneurship Ecosystem together with DIU launched smart biosensor uniforms and in 2025 NATO published finalized testing guidelines for chemically-protective suits constructed from membrane coated textiles. Alongside these Israel’s defense ministry investing into lightweight bulletproof aramid fiber vests showcase noteworthy international military multifunctional intelligent apparel prioritized funding trends globally.

Construction & Infrastructure: In the building industry, technical textiles are used as geotextiles, tarpaulins, insulation layers, roofing membranes and fire barriers. They help with soil reinforcement, moisture control, and the protection of building silos. In India’s infrastructure initiatives, the use of geotextiles for slope stabilization on highways became compulsory in 2022 under BIS norms. Sioen Industries received approval from DIBt Fire Protection Office in Germany for high-rise façade fire retarding building textile in 2023. Advanced geo-sythethics for flood control were introduced by US Federal Highway Administration (FHWA) in 2024. Then in 2025 China Construction Tech Group launched a line of site-used modular fabrics specially coated to be UV resistant. Alongside various other policies these products bolstered the contribution of technical textiles towards constructing climate-resilient durable infrastructure.

Agriculture & Forestry: Agrotech bolsters crop protection and irrigation alongside soil amelioration using shade nets, mulch mats root bags, and anti-insect net barriers. These materials enhance yield while reducing chemical usage. The Indian Council of Agricultural Research (ICAR) has implemented jute-based agrotech mats for organic farming in tribal areas in 2022. Later that year, Spain’s IRTA introduced UV-stable shade cloths for extreme temperature regions which also increases tomato yield. EMBRAPA of Brazil invested in biodegradable drip irrigation textiles for small-scale farmers in 2024. In 2025 FAO worked with Kenyan cooperatives to test hail resistant netting fabrics. Initiatives such as these demonstrate that technical textiles are critical to achievement of global sustainable climate-smart agriculture.

Manufacturing Process Analysis

Spinning & Weaving: The processes of spinning and weaving are essential for manufacturing technical textiles with complex strength, elasticity, and durability. They are crucial in industrial applications like industrial belts, conveyor fabrics, and ballistic textiles. In 2023, the NTTM in India assisted in the modernization of legacy mills to incorporate high tenacity yarn spinning located in Tamil Nadu. In 2024, The Itema Group from Italy adopted an air-jet weaving machine specialized for technical fabric production that is energy efficient. USA-based Milliken invested in aramid weaving looms incorporated into firefighting suits which Toyota Industries plans to complete by 2025 along with real-time defect monitoring sensors developed during the weaving process in Japan. These innovations reflect continued upgrades to traditional textile techniques for specialized industrial use.

Knitting (Warp & Weft): Warp and weft knitting methods are favored for applications requiring elasticity, comfort, and seamless construction, such as compression wear, medical textiles, and sports gear. Knitting offers great flexibility and efficiency for complex shapes. In 2022, KARL MAYER of Germany introduced an industrial flat-knitting machine designed specifically for the technical composite reinforcements industry. In 2023, India's Apparel Export Promotion Council sponsored warp-knit R&D projects aimed at orthotics and sportswear design. Nike increased production of its 3D-knitted Flyknit series in 2024 with automated weft knit machinery. In Nottingham University UK, work commenced on warp-knit scaffolds for tissue engineering design, completing them by 2025. These innovations mark knitting's transformation from clothing into biomedicine and structural fields.

Nonwoven Fabrication (Meltblown, Spunbond): The Nonwoven Fabrication has held dominant position in 2024. The categories meltblown and spunbond are examples of nonwoven processes that make fabrics from a polymer without weaving or knitting as is common with filtration and hygiene protective textiles. Translated as ‘not woven’ these fabrics are light weight and provide a superior barrier to flow. The first indigenous meltblown unit based out of Gujarat was launched by India in 2022. Berry Global USA expanded its mask – diaper spun bond line to meet sustainability goals in 2023. PLA-based nonwovens became funded projects intended for medical drape fabrics within Europe in 2024 while Asahi Kasei scaled up his hybrid spun bond air filter systems for use in electric vehicle cabins set for completion by 2025. International investment continues to be drawn to nonwoven materials due to their unique characteristics and versatility as well as diverse applications.

Technical Textile Market Revenue Share, By Manufacturing Process, 2024 (%)

Manufacturing Process Revenue Share, 2024 (%)
Spinning & Weaving 24.20%
Knitting (Warp & Weft) 16.40%
Nonwoven Fabrication (Meltblown, Spunbond) 36.10%
Lamination & Coating 14.70%
Finishing (Chemical & Mechanical) 8.60%

Lamination & Coating: These processes increase a textile’s protective quality by incorporating a polymer, rubber or resin layer which serves as waterproof, fireproof or bonding protective layer. Laminated textiles form an important part of the military fabrics as well as in geotextile and upholstery engineering. The Textiles Ministry of India sponsored a coating facility under NTTM in 2022 to produce flame retardant coatings. In 2023, SIKA Switzerland launched construction membranes with textile-lamination for UV and chemical resistance. The U.S. EPA guidance issued in 2024 on low-VOC emissions coatings prompted manufacturers to switch to water-based solutions for fabrics used in upholstery furniture goods. In 2025, ARAMCO Saudi Arabia formed a joint venture to manufactor PTFE coated fabrics designed to protect from desert climate extremes. Enhancement of customization tailored sophisticated advanced requirements and the durability of textiles still dominate this segment.

Finishing (Chemical & Mechanical): Finishing encompasses several calendaring, surface enhancement, and flame resistance treatments. For technical textiles, these processes are essential from an end-use performance perspective. In 2023, Freudenberg invested in antimicrobial finishing lines for medical and HVAC textiles. SASMIRA developed an enzymatic method for finishing biodegradable textiles in 2022. The U.S. Department of Energy sponsored low-energy plasma-based finishings on aramid fabrics in 2024. Odour-resistant finishing on sports and defense gear employing silver-free technology was introduced by Polygiene of Sweden in 2025. Finishing plays a crucial role in preparing fabrics for defense, healthcare, sportswear industries, or any other industrial applications.

Material Analysis

Natural Fibers (Cotton, Wool, Jute): Each natural fiber has a distinct role to play in natural technical textiles. Agro-geo-home insulation textiles require breathability combined with biodegradability and cost efficiency. In 2022 the National Jute Board of India sponsored pilot projects on jute geotextiles in Bihar’s flood area. Netherlands promoted the use of flax and hemp fibers in building composites under its Green Building Directive in 2023. In 2024 eco-friendly agro-mats for sustainable agriculture manufactured from coir were introduced by Bangladesh aided with FAO grants. Then, a Finnish startup launched thermally treated wool felt used as acoustic insulation for architecture textiles in 2025. These examples showcase interdisciplinary movements around the world embracing the use of natural fibers in technical applications.

Synthetic Fibers (Polyester, Polyamide, Polypropylene): The Synthetic Fibers segment has recorded highest revenue share in 2024. These are widely accepted and put to use on professional sites like construction due to their strength alongside water resistance coupled with particular thermal properties of automotive as well as filtration industry. Reliance Industries increased the production scale of specialty polyester yarns for safety gear causing an eruption in demand in India back in 2022. Moving onto Turkey where Korteks also had recent breakthroughs by producing anti UV polypropylene fibers aimed at outdoor textile products serving their intended purpose since 2023. New advancements don’t stop there: BASF created flame-retardant polyamide yarns marketed for cable textiles slated for release next year. In 2024 Sinopec will be introducing new lines targeted towards used polyester industrial nonwovens recyclables avenue offer yet another glimpse into the future across borders. It is clear that these strategies of synthesis are undisputed dominantly due to their flexibility and, in addition, providing novel methods while seeking approaches for GoGreen options—after all, the above catchphrases can come from any angle.

Technical Textile Market Revenue Share, By Material, 2024 (%)

Material Revenue Share, 2024 (%)
Natural Fibers 15.20%
Synthetic Fibers 45.60%
High-Performance Fibers 28.70%
Biodegradable & Bio-based Fibers 10.50%

High-Performance Fibers (Aramid, Carbon, Glass Fibers): Military and aerospace industries utilize these specialized fibers for thermal insulation owing to their lightweight composition coupled with a remarkable tensile strength. Meeting global ballistic textile requirements in 2023 prompted Teijin to scale up aramid fiber production in the Netherlands. The “Atmanirbhar” initiative led to sanctioning by India’s DRDO for carbon fiber fabrics on UAV frames in 2024. The following year Owens Corning launched low-density glass-fiber mats earmarked EV battery insulators. Toray partnered with NASA developing space-grade aramid layers for deep-space missions which illustrates the critical safety and structural integrity need advanced technology strives toward, underlining why these fibers are crucial to evolution.

Biodegradable & Bio based Fibers (PLA, PHA ): These materials pose an alternative to synthetic substitutes as they are targeted at hygiene and farming biodegrading without harmful remnants suited for medical uses. The EU’s Bio-Based Industries Joint Undertaking funded a trial of PLA diaper fabric which occurred in Spain during 2022. In 2023, Daicel from Japan commercialized PHA nonwoven fabrics for use in single-use wound dressings. A bio-tech firm backed by Reliance created PLA mats intended for tea estates with hopes of mitigating plastic pollution in 2024. Unilever together with Lenzing tested bio-fiber hygiene wipes conducted trials across Asia intending to roll out biodegradable alternatives in 2025. As tighter regulations on plastics come into effect, there is rapid advancement of technical textiles designed to biodegrade.

Technical Textile Market Regional Analysis

The technical textile market is segmented into several key regions: North America, Europe, Asia-Pacific, and LAMEA (Latin America, Middle East, and Africa). Here’s an in-depth look at each region.

Why is North America region continues to lead in the technical textile market?

  • The North America technical textile market size was valued at USD 105.63 billion in 2024 and is expected to reach around USD 173.04 billion by 2034.

North America Technical Textile Market Size 2025 to 2034

The region continues to lead in the technical textile industry, driven by innovations in high-performance apparels and compliance with legal and social environmental obligations. USA maintains a leading position in defense textiles, smart fabrics as well as medical nonwovens. During the period of 2023-2025, the US EPA (Environmental Protection Agency) Emissions Standards for Textile Finishing Processes stipulated more stringent emission norms resulting in VOC-compliant coating technologies for VOC-upholding coatings. Canada implemented circular economy policies at the national level through which he advanced its textile recycling policies and introduced EPRs concerning textiles. Mexico set protective tariffs on texiles while under “Program for the Promotion of Exports of the Maquila Industry” (IMMEX), enhanced assistance to domestic clusters of technical textiles. All these developments continue reshaping supply chains for technical textiles within th region focused on green construction and automation. Innovation is being accelerated on smart wearables and protective fabrics due to sustainability policies coupled with government grants.

What are the driving factors of Europe technical textile market?

  • The Europe technical textile market size was reached at USD 61.28 billion in 2024 and is expected to hit around USD 100.39 billion by 2034.

The UK, Germany, and France are the leaders in innovative sustainable and functional technical textiles spanning all of Europe. These nations are adopting biosourced fibers, PFAS-free coatings, and composites that can be recycled. Germany financed the research and development of advanced composites from recovered aramid fibers for use in electric vehicles (EVs) as well as public infrastructure in 2023. Post Brexit, the UK incorporated EU and U.S. standards into its regulatory framework which included antimicrobial performance mandates on technical fabrics. In 2024 France initiated policies that required the textile industry to repair and reuse garments along with supporting domestic circular economy clusters via its Green Industry Plan. There is now an emerging response among European manufacturers for advanced textiles to stricter regulations set by REACH and ECHA regarding laminates and coatings which is spurring innovation towards sustainability. We can now observe a growing presence of eco-certifications alongside automation that will redefine European competitiveness.

Technical Textile Market Revenue Share, By Region, 2024 (%)

Region Revenue Share, 2024 (%)
North America 44.30%
Europe 25.70%
Asia-Pacific 21.80%
LAMEA 8.20%

Why is the Asia-Pacific region experiencing rapid growth in the technical textile market?

  • The Asia-Pacific technical textile market size was estimated at USD 51.98 billion in 2024 and is projected to surpass around USD 85.16 billion by 2034.

The region remains the primary manufacturing hub for industrial textiles, gaining strong government support and cheap labor, along with an established demand in the automotive, healthcare, and agriculture industries. China has dominated by increasing exports of coated and laminated textiles while also fostering domestic smart textile initiatives. India’s NTTM sponsored over 70 pilot projects in agritech, meditech, and defense funded tech by 2025. Japan expanded grant schemes for nonwovens with antimicrobial and biodegradable properties applied to surgical and disaster relief uses. South Korea introduced PM2.5 air filtration programs using electrospun nanofibers for use in national health priorities in early 2025. Australia added bio-insulation geotextiles that are fire resistant to housing retrofit programs. Regional governments have spearheaded creating innovation hubs for industrial textiles in Asia-Pacific.

Why is the LAMEA region an emerging region for technical textiles market?

  • The LAMEA technical textile market size was reached at USD 19.55 billion in 2024 and is anticipated to grow around USD 32.03 billion by 2034.

LAMEA is an emerging region, with growing demand in infrastructure, defense, filtration, and climate-resilient applications. Brazil has focused on agrotech by supporting biodegradable nonwoven fabrics for soil conditioning and water retention. The UAE launched government-backed initiatives to incorporate smart geotextiles in coastal and desert infrastructure projects under its 2030 Vision. Saudi Arabia funded high-performance coatings and thermal protection materials as part of its construction mega-projects like NEOM. South Africa passed new textile waste management frameworks in 2024, encouraging reuse and localized circular textile hubs. Government interest in domestic manufacturing and protective textiles is leading to investments in both education and industrial modernization. LAMEA is poised to grow as a niche producer of functional and climate-adaptive textiles supported by policy momentum.

Technical Textile Market Top Companies

Recent Developments

Recent partnerships in the technical textile industry emphasize innovation, sustainability, and advanced material integration across sectors. Freudenberg Performance Materials partnered with Rheinmetall in 2023 to co-develop high-resistance textiles for defense and mobility applications. DuPont teamed up with Apollo Hospitals in India to explore medical-grade textile solutions for infection control. Asahi Kasei collaborated with Toyobo to enhance smart wearables using sensor-integrated fibers for health monitoring. In 2024, Lenzing Group joined hands with Archroma to advance biodegradable and non-toxic coating solutions for agri-textiles. Meanwhile, Baltex and Nottingham Trent University continued joint research on 3D warp-knitted fabrics for aerospace interiors. These partnerships are driving the integration of performance, safety, and sustainability, positioning technical textiles as a core enabler in next-gen industrial and consumer applications.

  • In September 2023, Toray Industries has expanded its LIVMOA™ series of single-use personal protective clothing with two new models: the LIVMOA™ 4300AS and LIVMOA™ 1000AS. The 4300AS is designed for manufacturing, maintenance, and painting sectors prone to oil stains, featuring water- and oil-resistant, breathable fabrics for comfort and protection. The 1000AS is an entry-level, JIS T 8115:2015 Type 5 and Type 6-compliant model, offering affordable comfort and protection from particulates and mist, suitable for tasks like asbestos removal and general maintenance. Both models emphasize breathability to reduce heat stress and improve comfort in hot environments. The new products reflect customer feedback, with design improvements such as elastic sleeves and enhanced mobility. Available in multiple sizes, they will launch in November 2023 through various suppliers. Toray’s ongoing innovation aims to support safer, more comfortable work environments across diverse industries.
  • In September 2024, DuPont Artistri is a leading name in digital textile printing inks, offering vibrant color, UV resistance, and consistent quality. Its water-based pigment inks support DTG, DTF, and roll-to-roll printing with high wash durability. Certified by OEKO-TEX and GOTS, Artistri promotes safe and sustainable production. The inks are compatible with multiple printheads and ensure batch-to-batch consistency. Recent launches like the P1600 and PN 1000 series demonstrate DuPont’s push toward eco-friendly innovation. Artistri continues to lead with versatile, high-performance solutions for diverse textile applications.

Market Segmentation

By Product Type

  • Woven Technical Textiles
  • Nonwoven Technical Textiles
  • Composites and Laminated Textiles
  • Coated Technical Textiles

By Application

  • Healthcare & Hygiene (Medtech)
  • Transportation (Mobiltech)
  • Construction (Buildtech)
  • Agriculture (Agrotech)
  • Industrial Filtration & Cleaning (Indutech)

By Technology

  • 3D Weaving / Knitting
  • Thermal Bonding & Needle Punching (for nonwovens)
  • Coating & Lamination
  • Electrospinning (for nanofibers)
  • Digital Printing / Conductive Printing

By End-User

  • Automotive & Aerospace
  • Medical & Healthcare
  • Defense & Military
  • Construction & Infrastructure
  • Agriculture & Forestry

By Manufacturing Process

  • Spinning & Weaving
  • Knitting (Warp & Weft)
  • Nonwoven Fabrication (Meltblown, Spunbond)
  • Lamination & Coating
  • Finishing (Chemical & Mechanical)

By Material

  • Natural Fibers (Cotton, Wool, Jute)
  • Synthetic Fibers (Polyester, Polyamide, Polypropylene)
  • High-Performance Fibers (Aramid, Carbon, Glass fibers)
  • Biodegradable & Bio-based Fibers (PLA, PHA)

By Region

  • North America
  • APAC
  • Europe
  • LAMEA

Chapter 1. Market Introduction and Overview
1.1    Market Definition and Scope
1.1.1    Overview of Technical Textile
1.1.2    Scope of the Study
1.1.3    Research Timeframe
1.2    Research Methodology and Approach
1.2.1    Methodology Overview
1.2.2    Data Sources and Validation
1.2.3    Key Assumptions and Limitations

Chapter 2. Executive Summary
2.1    Market Highlights and Snapshot
2.2    Key Insights by Segments
2.2.1    By Product Type Overview
2.2.2    By Technology Overview
2.2.3    By Manufacturing Process Overview
2.2.4    By Material Overview
2.2.5    By Application Overview
2.2.6    By End User Overview
2.3    Competitive Overview

Chapter 3. Global Impact Analysis
3.1    Russia-Ukraine Conflict: Global Market Implications
3.2    Regulatory and Policy Changes Impacting Global Markets

Chapter 4. Market Dynamics and Trends
4.1    Market Dynamics
4.1.1    Market Drivers
4.1.1.1    Consumer Demand for Functional Apparel
4.1.1.2    Technological Advances Related to Fibers & Yarns
4.1.1.3    Need for Lightweight Materials in Aerospace & Transport
4.1.2    Market Restraints
4.1.2.1    High Regulatory Compliance Costs in Healthcare & Defense
4.1.2.2    Slow Adoption in Developing Countries
4.1.2.3    Low Recycling Rates and Infrastructure Gaps
4.1.3    Market Challenges
4.1.3.1    Reconciling Competing International Regulations
4.1.3.2    Intellectual Property Concerns in Fiber Innovation
4.1.3.3    Scaling Production While Maintaining Quality
4.1.4    Market Opportunities
4.1.4.1    Partnerships Between Tech Firms and Textile Manufacturers
4.1.4.2    Online B2B Textile Marketplaces
4.1.4.3    Geotextile Market Stimulated by Government Infrastructure Projects
4.2    Market Trends

Chapter 5. Premium Insights and Analysis
5.1    Global Technical Textile Market Dynamics, Impact Analysis
5.2    Porter’s Five Forces Analysis
5.2.1    Bargaining Power of Suppliers
5.2.2    Bargaining Power of Buyers    
5.2.3    Threat of Substitute Products
5.2.4    Rivalry among Existing Firms
5.2.5    Threat of New Entrants
5.3    PESTEL Analysis
5.4    Value Chain Analysis
5.5    Product Pricing Analysis
5.6    Vendor Landscape
5.6.1    List of Buyers
5.6.2    List of Suppliers

Chapter 6. Technical Textile Market, By Product Type
6.1    Global Technical Textile Market Snapshot, By Product Type
6.1.1    Market Revenue (($Billion) and Growth Rate (%), 2022-2034
6.1.1.1    Woven Technical Textiles
6.1.1.2    Nonwoven Technical Textiles
6.1.1.3    Composites and Laminated Textiles
6.1.1.4    Coated Technical Textiles

Chapter 7. Technical Textile Market, By Technology
7.1    Global Technical Textile Market Snapshot, By Technology
7.1.1    Market Revenue (($Billion) and Growth Rate (%), 2022-2034
7.1.1.1    3D Weaving / Knitting
7.1.1.2    Thermal Bonding & Needle Punching (for nonwovens)
7.1.1.3    Coating & Lamination
7.1.1.4    Electrospinning (for nanofibers)
7.1.1.5    Digital Printing / Conductive Printing

Chapter 8. Technical Textile Market, By Manufacturing Process
8.1    Global Technical Textile Market Snapshot, By Manufacturing Process
8.1.1    Market Revenue (($Billion) and Growth Rate (%), 2022-2034
8.1.1.1    Spinning & Weaving
8.1.1.2    Knitting (Warp & Weft)
8.1.1.3    Nonwoven Fabrication (Meltblown, Spunbond)
8.1.1.4    Lamination & Coating
8.1.1.5    Finishing (Chemical & Mechanical)

Chapter 9. Technical Textile Market, By Material
9.1    Global Technical Textile Market Snapshot, By Material
9.1.1    Market Revenue (($Billion) and Growth Rate (%), 2022-2034
9.1.1.1    Natural Fibers (Cotton, Wool, Jute)
9.1.1.2    Synthetic Fibers (Polyester, Polyamide, Polypropylene)
9.1.1.3    High-Performance Fibers (Aramid, Carbon, Glass fibers)
9.1.1.4    Biodegradable & Bio-based Fibers (PLA, PHA)

Chapter 10. Technical Textile Market, By Application
10.1    Global Technical Textile Market Snapshot, By Application
10.1.1    Market Revenue (($Billion) and Growth Rate (%), 2022-2034
10.1.1.1    Healthcare & Hygiene (Medtech)
10.1.1.2    Transportation (Mobiltech)
10.1.1.3    Construction (Buildtech)
10.1.1.4    Agriculture (Agrotech)
10.1.1.5    Industrial Filtration & Cleaning (Indutech)

Chapter 11. Technical Textile Market, By End-User
11.1    Global Technical Textile Market Snapshot, By End-User
11.1.1    Market Revenue (($Billion) and Growth Rate (%), 2022-2034
11.1.1.1    Automotive & Aerospace
11.1.1.2    Medical & Healthcare
11.1.1.3    Defense & Military
11.1.1.4    Construction & Infrastructure
11.1.1.5    Agriculture & Forestry

Chapter 12. Technical Textile Market, By Region
12.1    Overview
12.2    Technical Textile Market Revenue Share, By Region 2024 (%)    
12.3    Global Technical Textile Market, By Region
12.3.1    Market Size and Forecast
12.4    North America
12.4.1    North America Technical Textile Market Revenue, 2022-2034 ($Billion)
12.4.2    Market Size and Forecast
12.4.3    North America Technical Textile Market, By Country
12.4.4    U.S.
12.4.4.1    U.S. Technical Textile Market Revenue, 2022-2034 ($Billion)
12.4.4.2    Market Size and Forecast
12.4.4.3    U.S. Market Segmental Analysis 
12.4.5    Canada
12.4.5.1    Canada Technical Textile Market Revenue, 2022-2034 ($Billion)
12.4.5.2    Market Size and Forecast
12.4.5.3    Canada Market Segmental Analysis
12.4.6    Mexico
12.4.6.1    Mexico Technical Textile Market Revenue, 2022-2034 ($Billion)
12.4.6.2    Market Size and Forecast
12.4.6.3    Mexico Market Segmental Analysis
12.5    Europe
12.5.1    Europe Technical Textile Market Revenue, 2022-2034 ($Billion)
12.5.2    Market Size and Forecast
12.5.3    Europe Technical Textile Market, By Country
12.5.4    UK
12.5.4.1    UK Technical Textile Market Revenue, 2022-2034 ($Billion)
12.5.4.2    Market Size and Forecast
12.5.4.3    UKMarket Segmental Analysis 
12.5.5    France
12.5.5.1    France Technical Textile Market Revenue, 2022-2034 ($Billion)
12.5.5.2    Market Size and Forecast
12.5.5.3    FranceMarket Segmental Analysis
12.5.6    Germany
12.5.6.1    Germany Technical Textile Market Revenue, 2022-2034 ($Billion)
12.5.6.2    Market Size and Forecast
12.5.6.3    GermanyMarket Segmental Analysis
12.5.7    Rest of Europe
12.5.7.1    Rest of Europe Technical Textile Market Revenue, 2022-2034 ($Billion)
12.5.7.2    Market Size and Forecast
12.5.7.3    Rest of EuropeMarket Segmental Analysis
12.6    Asia Pacific
12.6.1    Asia Pacific Technical Textile Market Revenue, 2022-2034 ($Billion)
12.6.2    Market Size and Forecast
12.6.3    Asia Pacific Technical Textile Market, By Country
12.6.4    China
12.6.4.1    China Technical Textile Market Revenue, 2022-2034 ($Billion)
12.6.4.2    Market Size and Forecast
12.6.4.3    ChinaMarket Segmental Analysis 
12.6.5    Japan
12.6.5.1    Japan Technical Textile Market Revenue, 2022-2034 ($Billion)
12.6.5.2    Market Size and Forecast
12.6.5.3    JapanMarket Segmental Analysis
12.6.6    India
12.6.6.1    India Technical Textile Market Revenue, 2022-2034 ($Billion)
12.6.6.2    Market Size and Forecast
12.6.6.3    IndiaMarket Segmental Analysis
12.6.7    Australia
12.6.7.1    Australia Technical Textile Market Revenue, 2022-2034 ($Billion)
12.6.7.2    Market Size and Forecast
12.6.7.3    AustraliaMarket Segmental Analysis
12.6.8    Rest of Asia Pacific
12.6.8.1    Rest of Asia Pacific Technical Textile Market Revenue, 2022-2034 ($Billion)
12.6.8.2    Market Size and Forecast
12.6.8.3    Rest of Asia PacificMarket Segmental Analysis
12.7    LAMEA
12.7.1    LAMEA Technical Textile Market Revenue, 2022-2034 ($Billion)
12.7.2    Market Size and Forecast
12.7.3    LAMEA Technical Textile Market, By Country
12.7.4    GCC
12.7.4.1    GCC Technical Textile Market Revenue, 2022-2034 ($Billion)
12.7.4.2    Market Size and Forecast
12.7.4.3    GCCMarket Segmental Analysis 
12.7.5    Africa
12.7.5.1    Africa Technical Textile Market Revenue, 2022-2034 ($Billion)
12.7.5.2    Market Size and Forecast
12.7.5.3    AfricaMarket Segmental Analysis
12.7.6    Brazil
12.7.6.1    Brazil Technical Textile Market Revenue, 2022-2034 ($Billion)
12.7.6.2    Market Size and Forecast
12.7.6.3    BrazilMarket Segmental Analysis
12.7.7    Rest of LAMEA
12.7.7.1    Rest of LAMEA Technical Textile Market Revenue, 2022-2034 ($Billion)
12.7.7.2    Market Size and Forecast
12.7.7.3    Rest of LAMEAMarket Segmental Analysis

Chapter 13. Competitive Landscape
13.1    Competitor Strategic Analysis
13.1.1    Top Player Positioning/Market Share Analysis
13.1.2    Top Winning Strategies, By Company, 2022-2024
13.1.3    Competitive Analysis By Revenue, 2022-2024
13.2     Recent Developments by the Market Contributors (2024)

Chapter 14. Company Profiles
14.1     Asahi Kasei
14.1.1    Company Snapshot
14.1.2    Company and Business Overview
14.1.3    Financial KPIs
14.1.4    Product/Service Portfolio
14.1.5    Strategic Growth
14.1.6    Global Footprints
14.1.7    Recent Development
14.1.8    SWOT Analysis
14.2     Baltex
14.3     Du Pont
14.4     Filspec
14.5     Freudenberg Performance Materials
14.6     Heathcoat Fabrics
14.7     Huntsman International
14.8     Khosla Profil
14.9     Milliken & Company
14.10   Mitsui Chemicals
14.11   Nikol Advance Materials
14.12   Nobletex
14.13   Srf
14.14   Toray Industries
14.15   Toyobo

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FAQ's

The global technical textile market size was estimated at USD 238.45 billion in 2024 and is expected to reach around USD 390.62 billion by 2034.

The global technical textile market size is poised to grow at a compound annual growth rate (CAGR) of 5.20% over the forecast period from 2025 to 2034.

The top companies operating in technical textile market are Asahi Kasei, Baltex, Du Pont, Filspec, Freudenberg Performance Materials, Heathcoat Fabrics, Huntsman International, Khosla Profil, Milliken & Company, Mitsui Chemicals, Nikol Advance Materials, Nobletex, Srf, Toray Industries, Toyobo and others.

Consumer demand for functional apparel, technological advances related to fibers & yarns and need for lightweight materials in aerospace & transport are the driving factors of technical textile market.

The North America region continues to lead in the technical textile industry, driven by innovations in high-performance apparels and compliance with legal and social environmental obligations.