The New Rules Of Workwear

Lycra workwear
Inclusive workwear is a growing market as more and more women enter the skilled trades.

How apparel-grade comfort and fit are becoming workwear essentials — supporting safety, productivity and inclusivity on the job.

Textile World Special Report

Today’s workers have lived their lives in performance fabrics for years — their activewear stretches and supports their bodies, their outerwear provides just-right thermal comfort and their everyday gear fits comfortably and holds its shape.

They expect the same on the job. Workwear, though, has long been treated as the exception: a category where protection came first, of course, while comfort was an afterthought, at times even in conflict with safety. Now, workers no longer have to compromise.

With labor markets tighter, standards shifting and expectations around well-being at work on the rise, no longer is simply meeting a standard enough. Delivering better is a market opportunity, not just a nice-to-have. And the right fiber ingredients can make the difference.

The Comfort-Safety Connection

When workwear doesn’t feel comfortable for the wearer, there can be real safety consequences.

Picture a worker whose heavy, rigid high-vis jacket doesn’t breathe and causes overheating. They’re bound to unzip it, remove it, or avoid wearing it altogether, just to cool down.

This is true across industries and work sites. A 2025 study1 published by Frontiers in Public Health found a roughly 50% PPE compliance rate across sectors, with workers citing discomfort — including overheating, poor fit, lack of breathability and the weight of a garment — as a key reason for not wearing it. Data cited in that report found that workers who did not wear PPE were at nearly three times the risk of suffering a workplace injury compared to those who wear it.

Put simply, when workwear doesn’t deliver what the body needs, workers are less likely to wear it properly — or wear it at all — which can mean more sick days, injuries, or worse.

With textile fibers and fabrics that support well-being, workers can feel better in their gear and are more likely to keep it on — opening the door to increased safety-gear compliance, better morale, higher productivity and satisfaction from the business that the job is getting done right. The LYCRA Company, known for its expertise in high-quality apparel fibers, is primed to deliver.

Across its portfolio of heritage brands, including LYCRA®, COOLMAX® and THERMOLITE® brands, the company offers fibers that enhance the comfort and performance of workwear while helping fabrics meet international safety standards.

LYCRA® ANTISTATIC fiber is a recent offering from the iconic stretch brand. It’s a special spandex fiber that delivers all-day comfort while effectively dissipating static charge, replacing the rigid carbon and silver fibers typically found in antistatic workwear. It supports fabrics to meet EN 1149, IEC 61340-4-9, ANSI/ESD S20.20 and other global antistatic standards. For workers in industrial environments and clean rooms, they get the benefit of stretch comfort without the fear of dangerous sparking.

COOLMAX® Hi-Vis fiber is another unique offering with a range of benefits. Delivering the signature cool-and-dry comfort of COOLMAX® fiber, this highly durable product also qualifies for the ISO 20471 and ANSI 107 norms, retaining its high-vis properties through harsh industrial laundering and demanding drying processes. That means safety gear can perform its critical role and remain bright while wicking moisture away from the body and allowing wearers to feel cool and dry throughout their shifts.

For outdoor laborers, COOLMAX® ALL SEASON fiber stands out. As seasons blend and regional weather patterns become increasingly unpredictable, multipurpose products are essential. With COOLMAX® ALL SEASON fiber, a durable, industrially launderable product, wearers get year-round comfort, staying cool when it’s hot and warm when temperatures drop — without the need for multiple uniforms. This keeps wearers comfortable as they work, more likely to remain in their gear and more focused on getting the job done.

Designing For Inclusivity

The benefits of apparel-grade fiber technology go beyond comfort, particularly for women laborers. Women make up a growing share of the skilled trades — in the US, women’s participation in the trades reached an all-time high in 2021, according to the Department of Labor2, as reported by Forbes in March 2024 — and the number is likely to keep climbing as trade wages rise and white-collar job opportunities tighten. The workwear segment must keep up.

Lycra workers
When workwear is well-designed and made with performance-driven fibers, comfort and safety go hand in hand.

Women in the trades are typically given smaller versions of men’s workwear, rather than garments fitted and sized for their bodies and proportions. That can mean too-long sleeves, wrong-sized pants and jackets, and garments that cause friction and overheating. This has consequences: Research cited by the British Standards Institution3 in a 2025 report on inclusive PPE found that over 80% of women experience problems with their PPE, with 57% reporting that their PPE “sometimes or significantly hampered their work.”

Using patterns designed for women’s bodies can go a long way, and choosing the right textile fibers can turn a well-cut garment into one that performs on the job.

The LYCRA® brand has defined stretch comfort for more than 65 years and today the company offers several innovative solutions for workwear.

For workwear brands crafting size-inclusive garments, such as in-flight uniforms and medical scrubs, LYCRA® ADAPTIV fiber offers unique benefits. An easy-stretch fiber, this product allows a single garment size to fit a wider range of bodies, so sizing systems can be streamlined and workers can enjoy real comfort as their bodies move and change throughout the day.

For moisture management and stretch comfort in a single, durable product, LYCRA® T400® fiber stands out. This fiber provides permanent stretch and recovery plus moisture-wicking benefits and can withstand the rigors of industrial laundering for long-lasting, high-quality wear. In garments designed to fit a broader range of bodies, this fiber checks the boxes: resilient stretch plus thermal comfort for the ups and downs of a busy workday.

The New Baseline

It’s clear that comfort-driven design isn’t just a trend — it’s the new baseline expectation, and it presents an opportunity for workwear makers to meet a critical need.

When workers are comfortable — in well-fitting garments that meet their needs — they’re more likely to keep those garments on, staying safer and more focused on the task at hand. Brands that recognize this shift stand to gain workers’ and companies’ trust, loyalty and long-term use of the safety gear they’re counting on.

The LYCRA Company works alongside workwear manufacturers to help meet this moment, applying decades of fiber innovation to build garments that perform as hard as the people wearing them. The company’s fiber experts work closely with brands and mills, ensuring safety requirements are met and comfort expectations are exceeded.

The line between fashion and workwear is only going to keep blurring. The brands that treat comfort, fit and inclusivity as core performance features — not afterthoughts — will be the ones defining what workwear looks like next.

References:

  1. https://pmc.ncbi.nlm.nih.gov/ articles/PMC12715716/
  2. https://www.forbes.com/sites/jackkelly/2024/03/07/why-more-women-should-consider-a-job-in-the-skilled-trades/
  3. https://www.bsigroup.com/en-GB/ insights-and-media/insights/whitepapers/enabling-the-provision-of-inclusive-ppe/

 

For more information on workwear solutions, visit LYCRA.com/workwear.

Sponsored content provided by The LYCRA Company.

2026 Quarterly Issue III

AI Can Strengthen Fashion’s Skilled Workforce

Lectra_AI_fashion
Fashion’s skilled workforce and emerging technologies can work together to preserve expertise and prepare the next generation of talent.
AI can preserve fashion expertise while empowering the industry’s next-generation workforce.

By John Brearley

For decades, the fashion industry has relied on skilled craftspeople, designers, product specialists, and developers whose work is informed by knowledge accumulated over years. This collective knowledge forms the backbone of fashion development, enabling brands to consistently translate creative vision into high-quality products. Today, that system is under strain.

As younger professionals continue to enter the fashion workforce, the traditional pathways for learning need to evolve. Emerging talent is expected to work faster and apply existing knowledge without adequate training. This creates a disconnect where shared understanding is rooted in assumptions rather than formal training.

Most brands aren’t struggling because they lack tools or creativity —they struggle because the pace and complexity of modern fashion operations have outgrown traditional ways of working. New hires are often expected to navigate fragmented systems, shifting consumer demand, supply-chain volatility, and data-driven decision-making from day one.

As timelines tighten and speed to market becomes a defining competitive advantage, the brands that will thrive are the ones using technology to better connect people, ideas, data and operations, while continuing to invest in human expertise and the next generation of talent.

The Growing Skills Shortage Within Design And Development Teams

Fashion development remains deeply dependent on specialized human experience. Patternmaking, fit, material usage and costing accuracy are skills refined through years of hands-on experience and contextual learning. These capabilities are highly nuanced and difficult to document, scale or replace.

As experienced professionals retire or move on, brands face a serious risk of knowledge loss. Critical decisions become inconsistent, execution varies across teams and younger employees are left without clear guidance on best practices. In many organizations, this results in an over-reliance on a few key individuals rather than resilient systems that support knowledge continuity.

At the same time, younger generations entering the fashion workforce have different expectations. They look for transparent career pathways, intuitive tools and environments where learning is embedded into daily work. Unfortunately, outdated workflows, fragmented systems and undocumented processes often fail to meet these expectations. When the tools feel disconnected from reality, adoption stalls and frustration grows.

Resistance to change is rarely about technology itself. More often, it stems from underestimated change management, unclear role evolution and insufficient training. Without a clear connection between new systems and real-world workflows, teams are left unsure of how technology supports their expertise rather than complicates it.

Bridging Talent Gaps With Technology

Technology alone will not solve the talent gap, but when applied intentionally, it can significantly amplify scarce expertise. The challenge is not whether to adopt technology, but how. Fashion companies must integrate digital tools in ways that are accessible to new employees while respecting the experience of existing teams. When systems reflect real workflows and decision logic, they act as a bridge between generations rather than a source of disruption. Structured, intuitive platforms allow junior and senior team members to collaborate more effectively, embedding best practices directly into the process instead of relying on an informal knowledge transfer.

This is evident in intelligent manufacturing, automation and robotics, which can reduce production time and improve consistency without eliminating the need for skilled professionals. Technology handles repetitive or data-heavy tasks, allowing human talent to focus on creativity, judgment and problem-solving.

The urgency of this balance is underscored by broader workforce trends. Research from McKinsey & Company and The Business of Fashion Insights, published in The State of Fashion 2026, indicates that by 2030, up to 40% of workers in developed economies may need to reskill or transition to new roles as technology advances. Fashion is no exception: roles are evolving, and the ability to support continuous learning is becoming a competitive differentiator.

Lectra_Fashion_AI
Lectra describes a connected fashion ecosystem that brings together the three core domains of create, manufacture and market with collaboration and traceability, linking workflows and data across the value chain.

AI As An Amplifier Of Human Expertise In Fashion Manufacturing

As fashion brands navigate increasing operational complexity, AI is emerging as a powerful catalyst for transforming human roles. This requires viewing AI not as a replacement for creative or technical expertise, but as an amplifier that enhances how that experience is applied.

AI-driven solutions can capture institutional knowledge, standardize best practices and provide real-time insights that support better decisions. By embedding intelligence into design, development and production workflows, brands can reduce dependency on individual memory while creating more consistent outcomes.

For example, AI can analyze historical data to guide material selection, optimize fit adjustments, or flag production risks earlier in the process. This allows teams, especially less experienced ones, to operate with greater confidence while learning from established practices. Senior professionals, in turn, are freed from repetitive tasks and can focus on innovation, mentorship and strategic direction.

AI also plays a role in modernizing training. Digitized workflows, guided processes and intelligent recommendations help transform learning from an informal afterthought into a continuous, embedded experience. These benefits are further reinforced by using AI in predictive maintenance and manufacturing optimization, enabling manufacturers to reduce downtime, improve operational efficiency and support performance commitments such as 98% equipment availability. In doing so, AI supports one of fashion’s most pressing needs: preserving knowledge while making it accessible to the next generation.

Long-Term Outlook: Investing In Skills To Secure the Future

The talent gap in fashion development is not a future concern; it is already here. Brands that ignore skill shortages risk becoming slower, less consistent, and more vulnerable in an increasingly competitive market.

Those that succeed will be the ones willing to invest in their people as much as their technology. This means supporting continuous learning, digitizing training and automating administrative tasks while using technology as an enabler of human expertise.

To survive in today’s fashion landscape, companies must commit to preserving, scaling and amplifying skills. In doing so, they ensure that craftsmanship, creativity and innovation continue to define fashion, even in the most technologically advanced era.

Editor’s Note: John Brearley is president, Americas, at Lectra.

2026 Quarterly Issue III

ITMA ASIA + CITME 2026

Shanghai show expands machinery and technology coverage.

Textile World Special Report

ITMA ASIA + CITME 2026 will be held Nov. 20-24 at the National Exhibition and Convention Centre in Shanghai. The combined exhibition will occupy seven halls and approximately 180,000 square meters of gross exhibition area, a 10% increase from the last edition.

More than 1,800 exhibiting companies have applied to participate, with nearly 90% from China. Exhibits will be organized by production process and span the textile and garment manufacturing value chain, from spinning and man-made fibers through weaving, knitting, printing, dyeing and finishing, nonwovens, garment making, recycling, testing and packaging.

New sectors will include equipment for textile-reinforced composites, textile recycling technologies, digital platforms and automation solutions for production processes. A dedicated Research and Innovation sector will bring together Chinese universities to present research developments and industry-academia-research collaboration, including embodied robots for textile applications, intelligent inspection technologies and artificial intelligence development platforms.

Among companies that have confirmed participation are Atexco, B.T.D., Barmag, Beijing Chonglee, BEST, CHTC, Cixing, Dornier, Epson, Fong’s, Hicorp, Hongyuan, Itema, Karl Mayer, Konica Minolta, LMW, Murata, Picanol, Rieter, Rifa, Santoni, Saurer, Shima Seiki, Staubli, Taitan, Texpro, TMT, Truetzschler, Vandewiele, Yingyang and Yoantion.

Exhibitors will present developments in digitalization, intelligent manufacturing and automation intended to support sustainability, energy and resource efficiency, and smarter production.

The 2024 edition attracted more than 90,000 visitors from 111 countries and regions, nearly 90% of them from China. Organizers also reported growing visitor numbers from Algeria, Japan, Italy, Sri Lanka, Türkiye and the United Kingdom that year.

International trade visitors may preregister through itmaasia.com and citme.com.cn through Nov. 19. Trade visitors can receive a 40% early-bird discount on admission tickets. Domestic and international trade associations, industry organizations and corporate visitor groups of six or more participants may apply for preferential group admission packages.

From April through July, organizers conducted outreach in key textile markets as part of efforts to broaden international visitor participation. Further activities are planned in Bangladesh, Brazil, Egypt, Pakistan, South Africa and other markets. More than 100 overseas trade associations, industry organizations and key enterprises have received invitations for group participation. Within China, promotional activity is focused on Jiangsu, Zhejiang, Fujian, Shandong and Guangdong, as well as industrial clusters in Xinjiang, Hubei and Henan.

2026 Quarterly Issue III

VDMA’s Threads of the Future: Textile Production Toward 2035

VDMA GherziA new Gherzi Germany study prepared for VDMA examines how textile processing, cut-and-sew and finishing are expected to evolve through 2035.

Textile World Special Report

The textile industry is entering a new phase of transformation. A new Gherzi Germany study prepared for VDMA argues that future competitiveness in textile processing, cut-and-sew, and finishing will depend less on individual machines and more on integrated, digitally networked production systems.

Building on that thesis, “Threads of the Future,” prepared by Gherzi Germany for VDMA Textile Care, Fabric and Leather Technologies, explores how textile processing, cut-and-sew, and finishing will evolve through 2035.

Its central message is clear: competitiveness is no longer defined by individual process steps, but by how well entire production systems perform as a whole.

From Processes To Integrated Systems

For decades, textile production has been organized as a sequence of largely separate steps — cutting, sewing, finishing — each optimized individually. That logic is now breaking down. Digital connectivity, data integration and automation are linking processes that once operated in isolation into increasingly coordinated production environments.

In this new reality, value is shifting away from process-level optimization toward system-level performance. Cutting systems feed directly into sewing operations, quality inspection loops back into process control, and finishing is no longer the final step but part of a continuous, data-driven workflow. The key question is no longer how efficient a single process is, but how efficiently the entire production chain operates.

Several forces are driving this transformation simultaneously. Traditional growth models built on scale are reaching their limits as overcapacity and pricing pressure reduce the benefits of volume alone. Productivity, flexibility and consistency are becoming the decisive factors. At the same time, production environments are becoming more integrated, with automated cutting, modular sewing solutions and AI-supported inspection increasingly forming connected systems rather than stand-alone applications.

This shift is reinforced by changes in demand. Growth is moving toward technically demanding applications — from automotive and filtration to medical and advanced materials — where precision, traceability and reliability are essential. These segments require tightly integrated processing capabilities and reward solutions that work seamlessly across multiple steps.

Sustainability is adding another layer of complexity. What was once primarily a reporting topic is rapidly moving onto the shop floor. Energy consumption, water usage and material efficiency are becoming measurable and controllable production variables, directly influencing how processes are designed and operated.

At the same time, circularity is gaining momentum. Recycling and material recovery are moving beyond niche applications toward industrial-scale relevance, placing new demands on processing — from sorting and separation, to reintegration into production flows.

Automation, Global Shifts And The Road To 2035

Automation plays a central role in all of this, but with clear limits. In areas such as cutting, inspection and parts of finishing, automation is already well established. Digital workflows, CNC systems and real-time quality monitoring are standard in many operations.

However, one challenge remains unresolved: the handling of flexible materials. Sewing and joining processes are still difficult to automate fully, as textiles are inherently variable and hard to control. While robotics and AI are advancing, full automation remains limited to highly standardized applications. In practice, the most effective production models are likely to remain hybrid, combining machine efficiency with human expertise.

These technological shifts are mirrored by changes in global production structures. Rather than a broad reshoring of manufacturing to high-cost regions, the industry is reorganizing into more differentiated, regionally distributed networks. Established hubs continue to handle large-scale volumes, increasingly supported by automation, while nearshore regions gain importance for flexibility and responsiveness. At the same time, high-value process-ing and innovation activities are strengthening closer to end markets.

For providers of textile processing technologies, this changing landscape brings significant implications. Customers are no longer looking for stand-alone solutions; they expect integrated systems that connect processes, generate data, and deliver measurable performance across the entire production chain. Digital integration, real-time monitoring, predictive maintenance and built-in traceability are becoming baseline expectations.

At the same time, business models are evolving. Alongside physical equipment, software, data-driven services and performance-oriented offerings are gaining importance. The ability to combine process expertise with digital capabilities is emerging as a critical differentiator.

Looking ahead to 2035, textile processing is set to become more flexible, more connected and more intelligent. Modular automation will allow greater adaptability, while AI-supported quality control will increasingly move from defect detection to prediction. Integrated data systems will link design, production and logistics, and sustainability will become an operational discipline —managed continuously rather than reported retrospectively.

What emerges is not a gradual evolution, but a structural shift. Textile processing is moving from fragmented processes toward integrated systems, from labor-intensive production toward hybrid automation, and from linear value chains toward more circular models.

In this environment, success will depend less on optimizing individual steps and more on connecting them. Those who can design and operate intelligent, integrated production systems will not only adapt to the transformation — they will shape it.

TW‘s Quick Take

For textile producers, garment makers and technology suppliers, this study makes one point clear: future competitiveness will depend less on individual machines and more on how well entire production systems work together.

Cutting, sewing, inspection and finishing are becoming part of integrated, digitally networked environments, so equipment and technology decisions must consider connectivity, traceability and system fit, not just stand-alone performance.

— Textile World Editors

Editor’s Note: This report was submitted by VDMA Textile Care, Fabric and Leather Technologies and Gherzi Germany. Textile World edited the text for length, clarity and house style.

2026 Quarterly Issue III

Filtration Basics: Quiet Giant

Filtration_Torch_Air_Baghouse _filter
VORTEX baghouse dust collector, from industrial air cleaning and filtering equipment company Torch-Air.com.

For U.S. manufacturers, technical demands and the strategic importance of filtration products are creating new opportunities.

Textile World Special Report

Like many technical textile applications, filtration technologies are often undervalued and overlooked by everyday consumers and professionals alike.

Wherever air has to be cleaned, water clarified, or process streams kept on spec, there is almost always a textile hidden in the system. As manufacturers, utilities and regulators have asked more of filtration — collecting finer particles, hotter gases, harsher chemistries — U.S. textile producers have shifted from basic textiles to engineered nonwovens and laminates designed around specific performance targets. Filtration has emerged as a significant technical outlet for U.S. textiles at a time when much commodity production has come under pressure. Industry analyses place the global nonwoven filter media market in the multibillion-dollar range, with one recent estimate valuing it at $6.55 billion in 2022 and projecting it to reach nearly $10 billion by 2030. INDA, Association of the Nonwoven Fabrics Industry, also identifies filtration as one of the key North American nonwovens end-use segments in its outlook work.

Meeting Basic Needs

In the early days of industrial filtration, textiles were used largely because they were available, not because they were engineered for the task. Woven cotton and wool fabrics — some felted — were pressed into service wherever a porous barrier was needed to keep solids out of water, air, or product. Municipal water plants relied on sand beds and simple filter cloths to hold back grit, while factories used cloth bags and basic screens to catch dust and fibers before they fouled machinery or finished goods.

As industrial processes intensified, those materials reached their limits. Higher throughputs and more aggressive chemistries exposed the weaknesses of traditional fibers, prompting broader adoption of synthetics such as polyester, polypropylene and nylon. Nonwoven technologies, meanwhile, made it possible to create thick, three-dimensional felts capable of trapping particles throughout the structure rather than only on the surface. In many operations, what had been a simple fabric became an engineered component.

Environmental regulation accelerated that evolution. As air-quality standards tightened, fabric-filter baghouses became established in cement, metals, power generation and waste-to-energy operations. Those systems depend on textile filter bags that can withstand hot, dust-laden and chemically aggressive gas streams while maintaining acceptable pressure drop and service life. Producers responded with structures based on aramids, PTFE and glass, along with finishes tailored to specific dust loads and cleaning methods.

In-Plant Filtration

Filtration also became more important inside manufacturing plants. Dust, lint and airborne fibers were increasingly treated not just as housekeeping concerns but as occupational and product-quality issues. Textile operations installed dedicated air- and lint-filtration systems around weaving, knitting and finishing, while improved liquid filtration for process water, dyes, coatings and auxiliary chemicals helped reduce downtime and improve consistency.

Nonwoven technologies added another layer of capability. Spunbond and melt-blown processes gave producers new ways to tune fiber diameter, web structure and basis weight for particular air- and liquid-filtration duties. Multilayer constructions — for example, a spunbond backing carrying a fine melt-blown layer — delivered higher efficiency without sacrificing strength or processability. Melt-blown media in particular became important where very fine fibers and high surface area were needed, including high-efficiency air filtration and some liquid applications.

As commodity textiles came under pressure from offshore production, many U.S. plants leaned more heavily into technical products, including filtration. Industry observers have pointed to filtration textiles, along with other performance fabrics and nonwovens, as one route away from price-driven competition and toward application-specific business with higher value added.

A Variety Of Constructions

From a manufacturing standpoint, filtration textile development starts with a basic question: What does the application require? The answer usually determines fiber selection and whether a producer relies on woven, knitted, or nonwoven constructions, or combines several in a composite.

Polyester and polypropylene continue to account for a large share of air and liquid filtration where temperatures are moderate and a balance of cost and performance is acceptable. Where processes involve hotter gases or more aggressive chemistries, producers report greater use of aramids, PTFE and glass to prevent softening, shrinkage, or chemical attack. In that sense, fiber choice sets the operating window for a medium before fabric construction is even considered.

Engineered wovens remain important where dimensional stability and mechanical strength are central. By adjusting yarn size, monofilament or multifilament construction and weave design, manufacturers can target specific pore geometries and flow characteristics. Those fabrics are widely used in press cloths and belt filters in mining and chemical processing, where media must tolerate abrasion, pressure and mechanical cleaning.

Knitted structures play a narrower but still significant role. Warp-knit spacer fabrics and other knits serve as support or flow-management layers in spiral-wound membrane modules and some multilayer laminates. In those applications, the textile is there primarily to maintain channel spacing and support more fragile layers rather than deliver the main filtration performance.

Nonwovens have become central in many air- and a growing number of liquid-filtration applications. Needle-punched constructions are standard in dust-collection bags and industrial air filters, valued for their depth-filtration behavior and manageable pressure drop. Spunbond and melt-blown nonwovens, often used together, dominate many high-efficiency HVAC and cleanroom filters and are common in industrial cartridges. The ability to tune fiber diameter, porosity and thickness allows producers to balance efficiency, dirt-holding capacity and energy consumption in ways that differ from traditional wovens.

Air, Liquid And Process

In practice, textile-based filtration tends to appear in three broad categories: air, liquid and process. One INDA-based market analysis described the North American filtration market as about $21 billion in end-user sales in 2019 and projected it to approach $27 billion by 2024, illustrating the scale of the opportunity for media suppliers and converters. Textile World’s reporting on the North American nonwovens filter market, drawing on INDA data, described filtration as the most diversified of the nonwoven end-use categories, spanning more than 30 major market segments.

On the air side, nonwoven and composite constructions are common in industrial dust collectors and HVAC systems. Needle-punched fabrics provide depth filtration that captures dust through the thickness of the media, while surface treatments encourage the dust cake to release during cleaning rather than blind the pores. Higher-efficiency applications often rely on melt-blown layers and finer fibers to raise capture performance without pushing pressure drop beyond acceptable limits. The broader North American air filter market is also growing, with one forecast estimating an increase from $5.29 billion in 2025 to $7.21 billion by 2030.

The Largest Segment

In liquids, textiles are used wherever solids need to be separated from water, oils, or more complex fluids. Woven and nonwoven media appear in belt presses, filter presses, cartridge and bag filters. Mining and chemical plants rely on robust woven filter cloths to handle abrasion and pressure in dewatering duties, while food and beverage operations use nonwovens and engineered fabrics to keep products clear and consistent. Liquid filtration is also the largest segment of the broader industrial filtration market, accounting for 57.6 percent of global revenue in one 2024 market summary.

Filtration_n95_mask_covid_electrostatic
A variety of N95 respirator masks (Image courtesy of CDC/Pexels)

Process filtration cuts across both air and liquid. In power generation, cement and metals, high-temperature filter bags made from aramid, PTFE and glass-based felts are used to control particulate emissions. In transportation and industrial equipment, cartridge filters built with nonwoven media protect engines, hydraulic circuits and lubricating systems from wear-causing particles. Across these examples, the task is similar: matching fiber, structure and finishing to the demands of the stream.

Innovation In Fiber And Finish

Although the main constructions are well established, much of the recent innovation has occurred at the fiber and finish level. Finer fibers and bicomponent designs provide more surface area and more tightly controlled pore structures, which can be used to increase efficiency or reduce energy use. Multilayer structures let producers combine a robust backing with a delicate, high-performance surface layer tuned for a specific particle size or droplet behavior.

Finishing chemistry is another area of activity. Hydrophobic and oleophobic treatments are used to help shed water or oil in coalescing and separation applications. Antimicrobial treatments are being applied to nonwoven and technical textile media to inhibit microbial growth on filter surfaces, particularly in HVAC, appliance and some water applications. In industrial dust collection, specialized surface treatments can reduce blinding, improve cake release and extend the service life of filter bags between changeouts.

Energy consumption is also a growing focus. Every inch of pressure drop across a filter translates into fan or pump power. Media designed for lower resistance at a given efficiency, or that can be cleaned more effectively to maintain performance over time, contributes directly to plant-wide energy and emissions targets.

N95 — A Lifesaver

The COVID-19 pandemic underscored the need for reliable domestic filtration capacity as demand for respirators surged and supply chains came under strain (see “A Necessary Filter,” Textile World). In 2020, during the early months of the COVID-19 pandemic, Behnam Pourdeyhimi, then executive director of The Nonwovens Institute and associate dean for industry research and extension at NC State’s Wilson College of Textiles, explained that N95 respirators are generally built as a sandwich of spunbond nonwoven layers that give the mask shape and protect an inner melt-blown filtration layer that captures microscopic particles such as viruses and bacteria. One key differentiation is that polypropylene can be made into fine fibers through meltblown processes and electrostatically charged, and that charge can be made stable and durable by using a variety of additives. Other materials such as polyesters and nylons are not capable of producing fine fibers in the same way and their charge durability and charge density are limited. Therefore, traditional textiles cannot offer the enhanced filtration made possible by electrostatic charge. The pandemic highlighted how important it is for the United States to maintain this manufacturing capability.

Room To Grow

The demands placed on filtration textiles are unlikely to ease. Tighter air and water standards, greater attention to indoor air quality and continuing pressure to reduce energy and waste all point toward higher performance expectations for filters. Market researchers tracking nonwoven filter media place global revenues in the high single-digit billions of dollars today, forecasting continued growth through the next decade. The broader industrial filtration market is also expanding, with one recent forecast projecting growth from $37.1 billion in 2024 to $47.1 billion by 2029. INDA’s North American outlook work likewise points to continued importance for filtration within the nonwovens industry as producers adapt to changes in trade, sourcing and downstream demand.

At the same time, recent supply-chain disruptions have drawn more attention to the value of domestic capacity for critical technical materials. For U.S. manufacturers, that combination of technical challenge and strategic importance suggests continued opportunity. Plants that can combine expertise in fibers, constructions and finishing with specific application knowledge — and that are willing to work closely with equipment makers and end users — appear well positioned to compete. The same demand-driven evolution that carried filtration textiles from utility cloth to engineered media is still underway, as customers ask more of the systems that keep air clean, water clear and processes running.

Filtration_FiltXpo_textile_trade fair

FiltXPO™ Minneapolis

FiltXPO™ 2026, organized by Cary, N.C.-based INDA, Association of the Nonwoven Fabrics Industry, will take place Oct. 28-29, 2026, at the Minneapolis Convention Center in Minneapolis, Minn. Held every 18 months, the event brings together more than 1,200 filtration professionals and features more than 120 exhibitors showcasing technologies, equipment and solutions for air, liquid and industrial filtration applications.

Co-organized with the American Filtration and Separations Society, based in North Olmsted, Ohio, the Advances in Filtration Conference will highlight emerging technologies, including artificial intelligence, sustainability initiatives, PFAS mitigation and applications in e-mobility and data centers. The program will include technical presentations, panel discussions and research posters from industry experts, academics and students. A Filter Media Training Course is scheduled for Oct. 26-27.

“FiltXPO is where technologies, industry leaders and business opportunities converge,” said Tony Fragnito, president and CEO, INDA. “This is the leading filtration event for companies looking to grow their business and engage with decision-makers who are shaping the future of filtration.”

The event also will feature the FiltXPO Innovation Awards, recognizing advances in air filtration, liquid filtration and equipment. Winners will be announced live during the exhibition.

2026 Quarterly Issue III

U.S. Textiles: Staying The Course

Rough water challenges even the best run ships and crews. High winds, cross currents and unseen obstacles can suddenly test even the strongest vessel.

This year’s textile events have felt a lot like that — U.S. mills and brands navigating their own rough seas. From the macro shocks of war, high energy prices and the lingering effects of COVID 19, textile manufacturers are universally challenged.

Undercurrents of nearshoring decisions, trade policy shifts and global price pressures are testing even well-managed companies, while leaps in technology and regulatory changes unexpectedly hit their path forward.

All in all, this isn’t really new water for U.S. textiles.

There is a deep history of offshoring, plant closures and strong companies facing unexpected shocks or final blows. But the industry also has a history of resilience and a remarkable instinct for finding a new path forward.

Both Techtextil Frankfurt and Techtextil North America echoed these challenges —and opportunities — this year.

As reported in this issue’s coverage of the Frankfurt show, “The overall situation reflects the current global uncertainty. Companies are cautious with investments and eager to cut costs,” said Matthias Schemken, managing director of Trützschler Nonwovens. “This is exactly where practical, efficient solutions become important.”

Beyond that practicality was a desire to look past the headwinds for a path forward; both shows shared the same tone — acknowledging the current situation while trying to see past it to the opportunities ahead.

Whether it was NASA’s discussion of a need for textiles in the Artemis program, or hemp fiber making new strides, there was —and still is — positive change to be embraced.

The Red Land Cotton cover story is a great example of looking at one’s strengths and fearlessly pushing forward for the company’s gain — and, in Red Land’s case, for the security of family and farm.

The nay-sayers can’t be discounted — and there are plenty of them. But navigating through rough waters has never been for the faint of heart.

An interesting detail of the Red Land Cotton story is easy to overlook. Red Land Cotton built a U.S.-based textile supply chain to take their Alabama cotton all the way through domestic manufacturing, to deliver heirloom sheets to consumers:

“We all got in the same room at Techtextil in Atlanta, in 2016, and by October of that year we had our first product to sell,” recalled Brakefield.

“Parkdale was there. Jim Hopkins [Hamrick Mills] was there. Brewster Yates was there. You know, so all of a sudden, they’re in this big room full of textile people and realize, hey, here’s our supply chain right here,” said Miller.

Anna Yeager Brakefield is a founder of Red Land Cotton and Jack Miller is the textile veteran instrumental in Red Land’s ability to navigate the U.S. textile industry.

But it goes to show that “being there” matters. Showing up, looking for opportunity, solving problems — U.S. textiles has weathered many a storm, and rough water or not, will continue to stay the course.

James M. Borneman
jborneman@TextileWorld.com

2026 Quarterly Issue III

U.S. Cotton, Nearshoring And The Resilient Supply Chain

CottonUSA_SunriseCottonFieldBole
U.S. Cotton Trust Protocol provides audited field-to-mill data and verified regenerative practices, validated on the ground and via satellite imagery, from a U.S. cotton industry built on about 14,000 farms and supporting more than 200,000 jobs.
As sourcing volatility reshapes brand decision making, U.S. cotton is being evaluated on more than raw material cost, including quality, traceability, compliance and nearshore supply chain performance.

By Liz Hershfield

The sourcing environment right now is unlike anything most of us have navigated in our careers. The trade landscape has shifted considerably, reshaping sourcing economics across multiple regions. Supply chains that looked efficient in one set of conditions have adapted quickly. And brands that optimized purely for cost are now reckoning with what it really means: margin exposure, lead time and the ability to respond when conditions change.

Fiber choice sits right in the middle of that reckoning. Where your fiber comes from, what you can verify about it and how it moves through the supply chain all have real consequences for cost, compliance and competitiveness. The brands thinking seriously about this are the ones building supply chains that can withstand a dynamic and volatile environment.

After 30 years in sourcing and supply chain, mostly on the brand side, I have learned that price is always a key consideration with U.S. cotton. But the question isn’t just raw material cost. It’s what the alternative actually costs you, in yields, compliance exposure, verifiable sustainability data and supply chain resilience. That’s where the real math lives and that’s the conversation worth having right now.

Quality That Delivers: From Field To Finished Garment

U.S. cotton’s fiber characteristics — length, uniformity and strength — consistently rank among the highest in the world. That matters at every stage of processing. Better fiber uniformity means fewer breaks in spinning, higher yields and more consistency in the dyeing and finishing stages. When you run the full cost-in-use analysis rather than stopping at price-per-pound, the gap with perceived lower-cost alternatives often becomes cost neutrality, if not cost savings.

This isn’t a claim I make lightly. Comparative fiber testing data backs it up and mills that have switched to U.S. cotton or increased their share of it report real, measurable improvements in processing efficiency. The technical work to prove this, done side-by-side with suppliers, is where COTTON USA’s team has been focused. We’re now extending that directly to brand partners — through the U.S. Cotton Trust Protocol — who want to deploy this service in their supply chains to take full advantage of all that U.S. cotton has to offer.

A Sustainability Story Backed By Data

Most U.S. cotton comes from multi-generational family farms. Many of these growers have been practicing soil health-focused, reduced-input farming for years, well before “regenerative agriculture” became an industry buzzword.

What has changed is the ability to verify and communicate that. The U.S. Cotton Trust Protocol, now in its sixth year, gives brands field-to-mill audited aggregated data on water use, greenhouse gas emissions, soil health and energy efficiency. For the 2025 crop year, the U.S. Cotton Trust Protocol launched a dedicated Field Partner Program pilot for regenerative practices, testing a dual framework that combines verified practice adoption with quantifiable, data-driven outcomes, validated through field visits and satellite imagery analysis. Broader implementation is planned for 2026. This is serious, rigorous work: audited proof of practice at field level, not a marketing exercise.

Scrutiny on sustainability claims is intensifying. The EU Green Claims Directive is one example and U.S. regulatory attention is growing. Verified, supply chain-specific data has become a basic expectation, not a selling point. U.S. cotton also comes without the forced labor or deforestation risks that demand constant due diligence elsewhere. In the current environment, that clarity has real value.

CottonUSA
More brands are asking harder questions about fiber origin, inputs and proof, and turning to the U.S. Cotton Trust Protocol to trace garments back to U.S.-grown cotton through spinning, knitting, sewing and finishing in an audited, compliant nearshore supply chain — a story they can substantiate and build on.

The Latin America Connection: Nearshoring + U.S. Cotton

One of the biggest sourcing shifts I’ve watched over the past two years isn’t about fiber. It’s about geography. Latin America has gone from a supplemental sourcing option to a genuine strategic priority for many brands with U.S. distribution and the current trade environment has accelerated that considerably.

The reasons aren’t hard to see. Shipping times from Latin America to the U.S. run three to twelve days, making weekly replenishment cycles possible. That has direct consequences for inventory management: fewer markdowns, faster response to demand signals.

Trade agreements are also a meaningful part of the picture. Mexico and the U.S. have had a mutually beneficial trade relationship for more than 30 years. Today, USMCA offers duty- and tariff-free access for qualifying goods, helping to make Mexico one of the largest importers of U.S. cotton in Latin America. CAFTA-DR provides duty- and tariff-free entry for qualifying yarn-forward goods from Central America and the Dominican Republic and brands with strong rules of origin compliance are well-positioned to take advantage of that. CAFTA-DR’s FTA utilization rate reached 75.7% in 2025, up from 73% in 2024, reflecting growing investment in supply chains built to meet those requirements.

Across the region, the manufacturing offer has developed into a sophisticated operation: premium denim in Mexico and Guatemala; performance and activewear in Central America; and high-quality knitwear in Guatemala and Peru (which consistently ranks among the top three countries in the world by average apparel export price).

Additionally, there is the benefit — through the U.S. Cotton Trust Protocol — of being able to trace a finished garment back to U.S.-grown fiber, through spinning, knitting, sewing and finishing, all within a compliant and audited nearshore supply chain: that’s a story more brands are starting to build and it’s one that resonates.

The Opportunity Ahead

The U.S. cotton industry continues to evolve by investing in technology, sustainability and technical support. For example, the U.S. Cotton Trust Protocol recently announced its partnership with Oritain implementing a forensic testing strategy to provide physical assurance along with the best-in-class digital traceability offering. Now, it’s time for brands to come to the table prepared to evaluate the full value case, not just compare price per pound.

The brands I keep an eye on are the ones asking hard questions about what goes into their products, where the fiber comes from and what they can actually prove. Some are smaller companies building natural-fiber commitments from scratch. Some are larger brands who are evolving their sourcing approach to include nominating fiber origin so they can benefit from a compliant supply chain and higher quality.

Connecting U.S. cotton to Latin American manufacturing, through strong trade partnerships, increased traceability and trusted supplier relationships, is a supply chain model with real integrity. It performs under pressure, it can be audited and it tells a coherent story from field to finished garment.

Behind that story is a U.S. cotton industry that supports communities in rural America, providing more than 200,000 jobs across roughly 14,000 farms. These aren’t passive operations waiting to be sourced from. They’re investing in their practices, their data and their connections to the brands and mills downstream. When you go and actually look at what’s been built, the case makes itself.

Editor’s Note: Liz Hershfield is Executive Director of COTTON USA™ and Director of the U.S. Cotton Trust Protocol.

2026 Quarterly Issue I

Textiles: Composite’s Secret Ingredient

Composites_Bcomp_flaxCompositeBMW
Bcomp’s flax composite material for BMW dash components demonstrates new natural fiber composite applications.
Textile reinforcements give composite materials their strength, form and manufacturing versatility across markets ranging from tires to aerospace, creating opportunities for textile professionals.

Textile World Special Report

To many people, the word “composites” brings to mind NASA rockets, aerospace applications and Formula One cars. But composites are also close at hand. The tires on a car depend on reinforcing cords and fabrics; a fishing rod may rely on carbon fiber; and boats, bicycles and building products also make use of composite materials.

In many cases, the textile component is largely out of sight. Yet it often helps determine how a product carries load, holds its shape, resists damage or can be manufactured efficiently. That is where the textile industry enters the composite story.

From woven glass fabrics and nonwoven mats to braided carbon preforms and 3D-woven structures, textile technologies give composite materials much of their practical utility. The same basic relationship between reinforcement and matrix appears in products ranging from tires and sporting goods to industrial equipment, infrastructure and aerospace structures.

The Textile Contribution

The role of textiles in composites becomes clearer when the materials are considered as a system. Fibers, arranged as yarns, fabrics, mats, braids or other preforms, provide reinforcement. Resin holds the structure together and helps transfer loads among the fibers.

A textile preform is more than fabric awaiting impregnation or coating. Its architecture is part of the engineering design. Yarn count, fiber type, weave construction, crimp, areal weight, porosity, thickness and fiber orientation influence stiffness, strength, impact behavior, permeability, surface quality and manufacturability.

In manufacturing, permeability is particularly important. It refers to how readily resin can flow through a dry textile preform during processes such as resin transfer molding or vacuum infusion. A construction that is difficult to wet out consistently can slow production or contribute to dry areas and voids in the finished part. The best textile choice is not always the reinforcement with the highest fiber properties; it is the construction that performs reliably in the intended process and end use.

A 2023 review published in Oxford Open Materials Science grouped textile preforms into four principal categories: woven, knitted, braided and nonwoven. Woven structures interlace warp and filling yarns; knitted structures use interlocking loops; braids intertwine yarns into flat, tubular or shaped forms; and nonwovens are fiber webs bonded mechanically, thermally or chemically.

Each architecture creates different technical and commercial possibilities:

  • Woven fabrics offer repeatable construction, dimensional stability and the ability to place yarns in defined directions.
  • Knitted structures can provide extensibility and conformability for complex shapes.
  • Braids can form tubular, tapered and other near-net-shape preforms, reducing the need to cut and assemble flat plies.
  • Nonwovens can support efficient coverage, isotropic or near-isotropic reinforcement and cost-effective molding systems.
  • Multiaxial noncrimp fabrics position fiber layers at selected angles and are used when designers seek directional reinforcement with limited yarn crimp.
  • Three-dimensional woven structures add through-thickness yarns, creating an integrated architecture rather than a stack of separate two-dimensional plies.

For textile manufacturers, the management implication is clear: a reinforcement supplier increasingly is expected to contribute to process capability as well as material supply. Textile construction affects lay-up time, scrap, resin use, cycle time, part quality and the degree of automation a fabricator can achieve.

Top Textiles Used In Composites

Composite reinforcements are identified by fiber chemistry but supplied in many textile forms. Glass fiber remains the dominant volume reinforcement because it balances cost, tensile performance and processing versatility. It is used in rovings, chopped strands, woven fabrics, mats and multiaxial constructions. Mordor Intelligence estimated that glass fiber represented 61.22% of the global fiber-reinforced composites market by revenue in 2025.

Carbon fiber provides high specific stiffness and strength relative to weight for aerospace, automotive, energy, sporting goods, industrial and defense applications. Its cost and processing requirements make material efficiency important.

Aramid offers toughness and impact resistance, while basalt, natural, ceramic and quartz fibers serve specialized needs. Natural fibers, including flax, hemp and other cellulosic fibers, are considered where renewable content, appearance, weight or particular sustainability objectives are relevant. Ceramic and quartz fibers serve high-temperature environments.

Ultimately, manufacturers select among unidirectional materials, woven or knitted fabrics, braids, mats, multiaxial constructions and shaped preforms based on the application, resin system, part geometry and manufacturing process.

Composites_BallyRibbonMills_3DMat
Bally Ribbon Mill’s patented 3-Dimensional Multifunctional Ablative Thermal Protection system (3-D MAT) involves 3-D weaving quartz yarns and infusing them with a cyanate ester resin for a 900% increase in tensile strength.

From Soft Goods To Structural Parts

Textile-based composites range from flexible coated fabrics to highly engineered aircraft structures. Flexible composites, such as coated fabrics, membranes, conveyor belts and protective materials, retain flexibility while textiles provide tear resistance, strength and dimensional stability.

Rigid structural composites use cured resin to form load-bearing parts reinforced with woven glass, carbon or aramid fabrics, nonwovens or chopped fibers. Sandwich composites combine lightweight cores with reinforced skins for bending stiffness at low weight. Other categories include textile-reinforced concrete and 3D textile composites.

Three-dimensional textile composites extend reinforcement architecture beyond layers stacked in a laminate. In 3D weaving, yarns are introduced through the thickness, or Z direction, rather than only in the length and width directions. This can improve resistance to delamination — separation between layers under load — and create complex, single-piece preforms. Textile World has reported that 3D weaving can reduce crack risk and production time in appropriate applications.

This range means that composites are not a single market for the textile sector. A supplier of high-volume glass mat faces a different competitive environment, capital requirement and quality framework from a company developing 3D carbon preforms for aerospace or defense structures.

Scale, End Uses And Value Chain

There is no single public measure that isolates the dollar value or tonnage of all textiles used in composites. Reinforcements can be sold as yarn, fabric, mat, prepreg, chopped fiber or a fabricated preform, and market reports do not always use identical definitions.

However, published composites data demonstrates the scale of downstream markets served by textile reinforcements. The American Composites Manufacturers Association, headquartered in Arlington, Va., reported that more than 1.9 billion pounds of glass-reinforced polyester/ vinyl ester thermoset composites were sold in the U.S. and Canada during the first half of 2025. ACMA identified construction as 34% of sales, infrastructure as 26% and transportation as 21%. The figure covers composite materials rather than textiles alone, but it provides a useful indicator of the markets supported by glass-fiber reinforcements.

At a global level, Mordor Intelligence estimated the textile composites market at $34.94 billion in 2026 and projected it would reach $49.70 billion by 2031. The figures should be treated as directional estimates rather than as an industry census because market definitions, forecasts and methodologies vary.

Common end uses include corrosion-resistant pipes, tanks, ducts and process equipment, marine hulls and structures, wind-energy components, automotive parts, rail and truck components, sporting goods, building panels, infrastructure products, aircraft components, protective equipment and consumer goods.

The property sought varies by application. A marine customer may value corrosion resistance and maintenance performance. A transportation manufacturer may focus on weight reduction, production volume and cost. An aerospace customer may place greater emphasis on repeatability, traceability, certification and long-term structural behavior. An infrastructure customer may prioritize durability, ease of installation and resistance to environmental degradation.

Modern High-Tech Applications

Some advanced textile-composite applications use fiber architecture to address structural or manufacturing problems that conventional flat laminates cannot easily solve.

Braided preforms can follow tubular, tapered and other complex shapes. They may reduce cutting, scrap and assembly compared with a process that begins with multiple flat plies. Multiaxial fabrics can position fibers at selected angles with limited yarn crimp. Three-dimensional weaving can integrate through-thickness reinforcement and support shaped, single-piece preforms.

Composites_KevlarEXO_tile
Kevlar EXO’s HA E230S, in a ceramic tile support application, is designed to enhance performance of rifle plate systems when compared to carbon fiber, fiber glass or aramid systems.
The Institute for Advanced Composites Manufacturing Innovation — IACMI, The Composites Institute® — headquartered in Knoxville, Tenn., documented a project involving textile-grade polyacrylonitrile precursor, commonly called PAN, to produce lower-cost carbon fiber for a full-size injection-molded automotive component. IACMI reported an estimated 40% to 50% cost reduction compared with a commercial carbon-fiber benchmark used in the project.

The broader implication is not that all carbon-fiber applications will move rapidly into high-volume markets. Rather, lower-cost fiber pathways, more efficient preforming and faster molding processes can expand the range of applications where advanced reinforcements are commercially feasible.

The U.S. Department of Energy describes IACMI’s work as focused on lower-cost, higher-speed and more efficient manufacturing and recycling processes for advanced composites.

Demand For Textile Professionals

Composite manufacturing needs personnel who understand both textile formation and downstream part production. That demand extends beyond laminate technicians. It includes textile engineers, fiber and polymer scientists, weavers, braiders, process engineers, tooling specialists, quality professionals, automation engineers and technicians trained in cutting, kitting, lay-up, infusion, molding and inspection.

The need is especially clear when a preform is engineered rather than purchased as a commodity fabric. Teams must understand yarn handling, tension control, fiber placement, fabric drape, permeability, nesting of plies and defects such as wrinkles, gaps and misalignment. They also must connect textile variability with resin flow, void content, cure behavior and finished-part consistency.

For textile manufacturers, this creates an opportunity as well as a challenge. Traditional textile competencies — fiber handling, fabric construction, tension management and process control — are directly relevant to composites. However, companies seeking to participate in advanced-composite supply chains also need expertise in resin systems, fabrication processes, testing requirements, digital-manufacturing tools and customer qualification procedures.

ACMA has identified workforce training and outreach as industry priorities. The association provides educational resources for the fiber-reinforced polymer composites sector, including information relevant to material specification and construction applications.

IACMI includes workforce development as part of its mission. The institute connects industry, government and academia to advance the development and adoption of advanced-composites manufacturing technologies.

The Society for the Advancement of Material and Process Engineering, or SAMPE, headquartered in Diamond Bar, Calif., provides a complementary resource. Founded in 1944, SAMPE brings together professionals working in advanced materials and manufacturing processes through conferences, technical sessions and professional networking. Its relevance to textile-composite suppliers lies in the cross-disciplinary nature of product development: fiber and textile engineering must work alongside resin chemistry, tooling, automation, fabrication and end-use design.

For textile companies entering or expanding in composites, these organizations offer more than event calendars. They provide access to technical education, industry contacts and a clearer view of evolving customer requirements.

The opportunity for textile professionals lies in connecting their expertise in fibers, yarns, fabrics and preforms to the performance of the finished composite part. From reinforcing the tires on a car to enabling advanced aerospace structures, textiles give composites much of their strength, form and manufacturing versatility. Companies that understand both textile formation and downstream composite processing will be best positioned to turn that capability into new products, partnerships and markets.

Composites_CAMX_dates

CAMX 2026: A Textile-Composites Connection

CAMX — the Composites and Advanced Materials Expo — offers textile-industry professionals a concentrated view of the downstream markets for fiber reinforcements and engineered preforms. The event brings together material suppliers, equipment producers, fabricators, researchers and end users, working across the composites value chain. For textile companies, the practical value is seeing how woven, multiaxial, braided, nonwoven and other reinforcement forms are specified, handled and incorporated into finished parts.

Produced by the American Composites Manufacturers Association, headquartered in Arlington, Va., and the Society for the Advancement of Material and Process Engineering, headquartered in Diamond Bar, Calif., CAMX 2026 will take place at Atlanta’s Georgia World Congress Center. The conference runs Sept. 21-24; the exhibition is scheduled for Sept. 22-24. The program includes technical presentations, education and hands-on tutorials, providing a useful venue for companies evaluating new applications, manufacturing methods and customer requirements.

2026 Quarterly Issue III

Cone Denim Announces Strategic Transformation To Better Serve The Global Denim Market

GREENSBORO, N.C. — September 3, 2026 — Cone Denim, a global denim innovator, today announced strategic transformation plans designed to better serve the global denim fabric market. The plans include strengthening Cone Denim’s focus on its established manufacturing platform in Mexico and the planned exit of denim manufacturing operations in China by year-end 2026. This repositioning follows a comprehensive review of the global denim market, Cone’s manufacturing footprint, customer sourcing needs, and long-term business strategy.

The decision follows careful consideration of economic, market, and geopolitical factors that have increasingly affected the competitiveness and long-term sustainability of operating denim manufacturing in China. Changing global trade dynamics, evolving customer sourcing strategies, cost pressures, supply chain considerations, and broader geopolitical developments all contributed to this determination.

“We are positioning Cone Denim for its next chapter of success, with a clear priority to continue delivering for our customers with the quality, innovation, reliability, and service that have defined Cone Denim for generations,” said Steve Maggard, President of Cone Denim. “Closing the China facility was a difficult but necessary decision as we position Cone Denim for long-term competitiveness in a changing global market. While this marks a significant change in our manufacturing network, our commitment to serving customers remains unchanged, and we are committed to supporting our customers, employees, suppliers, and local stakeholders through this transition with transparency, care, and disciplined execution.”

“At Elevate Textiles, we are focused on executing our strategy—winning in the marketplace for our customers, taking care of our employees, and generating returns for our investors,” said Jeffrey P. Pritchett, Elevate CEO and Member of the Board. “Transforming Cone Denim to meet our strategic objectives, including the planned exit from denim manufacturing operations in China, is an important step in sharpening Cone Denim’s focus on the markets, capabilities, and manufacturing platforms where it is best positioned to compete and win. By supporting customers through this transition and strengthening our established Mexico platform, we are building a more focused, resilient Cone Denim business for the future.”

Cone Denim will work closely with customers to support a smooth transition, continuity of short-term fabric supply, and planning for future sourcing needs. Company teams will engage directly with customers to understand requirements, support existing commitments, and provide transition information as it becomes available.

To support ongoing demand, Cone Denim will continue to focus on its established manufacturing operations in Mexico as the company’s go-forward denim manufacturing platform. The Mexico platform provides a strong foundation for serving customers across key markets and will play an important role in maintaining the quality, innovation, responsiveness, and service levels customers expect.

Maggard added, “We are grateful for the dedication of our employees and the continued partnership of our customers, suppliers, and local stakeholders who have supported our China operations over the years. We remain committed to treating our employees with respect, working constructively with local stakeholders, and managing this transition responsibly while strengthening Cone Denim’s platform for the future.”

Posted: September 3, 2026

Source: Elevate Textiles

Tiger Group Sells Fabrication And Assembly Equipment From Two U.S. Manufacturing Plants

LOS ANGELES — September 1, 2026 — Tiger Commercial & Industrial (C&I) has completed the sale of a portfolio of high-precision fabrication and assembly machinery and equipment (M&E), along with finished products and raw materials, from two U.S. plants.

Conducted on behalf of the secured creditors, the online auction featured M&E from the former Alpharetta, Georgia, and Dallas, Texas, facilities of Auzmet, a national manufacturer of exterior building solutions such as composite metal panels, architectural façades and insulated wall panels.

Schlebach Quadro+ standing seam rollforming system

Tiger marketed a broad mix of equipment from the two facilities, including CNC routers, electro-mechanical plate shears, CNC folding machines, electro-pneumatic saws, and smart routers by brands such as Miller, Lincoln Electric, FomIndustrie, Schechtl and Schlebach.

Bidders in the 415-lot sale vied for plant-support M&E and rolling stock by brands such as Kaesar, Chevy and Mitsubishi, along with raw materials and finished-goods inventory originally valued at more than $1 million.

Tiger’s in-house auction and operations team leveraged its proprietary database of repeat buyers in composites manufacturing to drive demand across the offering, managing the entire sale and removal process across both facilities within a tight 30-day deadline set by the landlord.

“Our years of experience with aluminum fabrication equipment—including large-format panel builders from AXYZ Automation Group and units from Schechtl and Durma—gave us the ability to execute and quickly monetize the collateral,” said Jonathan Holiday, Senior Director of Tiger Commercial & Industrial. “The end result was a robust recovery for the secured creditors in a fraction of the usual timeframe.”

Posted: September 1, 2026

Source: Tiger Group

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