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Dimpled metamaterial in hourglass pattern Photo Harvard John A. Paulson School of Engineering and Applied Sciences
Dimpled metamaterial in hourglass pattern
26.11.2025

New textile can adjust its aerodynamic properties

Imagine a road cyclist or downhill skier whose clothing adapts to their wind speed, allowing them to shave time just by pulling or stretching the fabric.

Such cutting-edge textiles are within reach, thanks to researchers at the Harvard John A. Paulson School of Engineering and Applied Sciences (SEAS). Led by SEAS mechanical engineering graduate student David Farrell, a study published in Advanced Materials describes a new type of textile that uses dimpling to adjust its aerodynamic properties while worn on the body. The research has potential to change not only high-speed sports, but also industries like aerospace, maritime, and civil engineering.

The research is a collaboration between the labs of Katia Bertoldi, the William and Ami Kuan Danoff Professor of Applied Mechanics, and Conor J. Walsh, the Paul A. Maeder Professor of Engineering and Applied Sciences.  

Imagine a road cyclist or downhill skier whose clothing adapts to their wind speed, allowing them to shave time just by pulling or stretching the fabric.

Such cutting-edge textiles are within reach, thanks to researchers at the Harvard John A. Paulson School of Engineering and Applied Sciences (SEAS). Led by SEAS mechanical engineering graduate student David Farrell, a study published in Advanced Materials describes a new type of textile that uses dimpling to adjust its aerodynamic properties while worn on the body. The research has potential to change not only high-speed sports, but also industries like aerospace, maritime, and civil engineering.

The research is a collaboration between the labs of Katia Bertoldi, the William and Ami Kuan Danoff Professor of Applied Mechanics, and Conor J. Walsh, the Paul A. Maeder Professor of Engineering and Applied Sciences.  

On-demand golf ball dimples
Farrell, whose research interests lie at the intersection of fluid dynamics and artificially engineered materials, or metamaterials, led the creation of a unique textile that forms dimples on its surface when stretched, even when tightly fitted around a person’s body. The fabrics utilize the same aerodynamic principles as a golf ball, whose dimpled surface causes a ball to fly further by using turbulence to reduce drag. Because the fabric is soft and elastic, it can move and stretch to change the size and shape of the dimples on demand.  

Adjusting dimple sizes can make the fabric perform better in certain wind speeds by reducing drag by up to 20%, according to the researchers’ experiments using a wind tunnel.

“By performing 3,000 simulations, we were able to explore thousands of dimpling patterns,” Farrell said. “We were able to tune how big the dimple is, as well as its form. When we put these patterns back in the wind tunnel, we find that certain patterns and dimples are optimized for specific wind-speed regions.”

Farrell and team used a laser cutter and heat press to create a dual-toned fabric made of a stiffer black woven material, similar to a backpack strap, and a gray softer knit that’s flexible and comfortable. Using a two-step manufacturing process, they cut patterns into the woven fabric and sealed it together with the knit layer to form a textile composite. Experimenting with multiple flat samples patterned in lattices like squares and hexagons, they systematically explored how different tessellations affect the mechanical response of each textile material.

Lattice pattern
The textile composite’s on-demand dimpling is the result of a lattice pattern that Bertoldi and others have previously explored for its unusual properties. Stretch a traditional textile onto the body, and it will smooth out and tighten. “Our textile composite breaks that rule,” Farrell explained. “The unique lattice pattern allows the textile to expand around the arm rather than clamp down.

“We’re using this unique property that [Bertoldi] and others have explored for the last 10 years in metamaterials, and we’re putting it into wearables in a way that no one’s really seen before,” Farrell said. 

The paper was co-authored by Connor M. McCann and Antonio Elia Forte. The research had federal support from the National Science Foundation under award No. DMR-2011754. The Harvard Office of Technology Development has safeguarded the innovations associated with this research and is exploring commercial opportunities.

Source:

Anne J. Manning, Harvard John A. Paulson School of Engineering and Applied Sciences

Reinforced with dimensionally stable HMLS yarn, tires remain dimensionally stable even under load and temperature. (c) Oerlikon Barmag
Reinforced with dimensionally stable HMLS yarn, tires remain dimensionally stable even under load and temperature.
20.11.2025

Demand for high-performance yarns on the rise

Barmag, a subsidiary of the Swiss Oerlikon Group, will commission three HMLS yarn systems with a total of 30 stations at renowned technical yarn manufacturers in China over the next three months.

China expands HMLS capacities
Among them are two HMLS producers who had previously purchased from competitors. "They were convinced by our process technology, which guarantees the economic production of HMLS yarns of the very best quality," says Sales Director Oliver Lemke, who, together with his colleagues on site, provides support to customers in the field of technical yarns. The sophisticated material obtains its special properties during the spinning process. High speeds in the production process guarantee a stable arrangement of the molecules within the polymer that forms the actual thread. The internal structure of the molecular chain, in turn, is decisive for the dimensional stability of the final yarn.

Barmag, a subsidiary of the Swiss Oerlikon Group, will commission three HMLS yarn systems with a total of 30 stations at renowned technical yarn manufacturers in China over the next three months.

China expands HMLS capacities
Among them are two HMLS producers who had previously purchased from competitors. "They were convinced by our process technology, which guarantees the economic production of HMLS yarns of the very best quality," says Sales Director Oliver Lemke, who, together with his colleagues on site, provides support to customers in the field of technical yarns. The sophisticated material obtains its special properties during the spinning process. High speeds in the production process guarantee a stable arrangement of the molecules within the polymer that forms the actual thread. The internal structure of the molecular chain, in turn, is decisive for the dimensional stability of the final yarn.

Growing demand for HMLS yarns
The industry expects demand for HMLS yarns to increase in the coming years. This is mainly due to the trend toward lighter tires. Whereas high-modulus polyester yarn (HMLS) was previously used mainly in high-speed tires, its properties now also allow the tire carcass of small vans to be converted from steel cord to polyester. HMLS yarn is extremely tear-resistant, yet highly elastic and temperature- and dimensionally stable.

Another factor is the steadily increasing number of vehicle registrations worldwide. In China in particular, the production of local car brands has increased rapidly in recent years, which explains the expansion of capacity in the country.

Scanning electron microscopy image (left) shows the surface of a porous asymmetric UF membrane created at Cornell by mixing chemically distinct block copolymer micelles. Machine-learning segmentation (right) identified patterns formed by different micelle types and chemistries, revealing how the approach could lead to UF membranes that sort by chemical affinity. Credit: Wiesner Group/Provided
Scanning electron microscopy image (left) shows the surface of a porous asymmetric UF membrane created at Cornell by mixing chemically distinct block copolymer micelles. Machine-learning segmentation (right) identified patterns formed by different micelle types and chemistries, revealing how the approach could lead to UF membranes that sort by chemical affinity.
20.11.2025

Machine learning teaches membranes to sort by chemical affinity

Ultrafiltration membranes used in pharmaceutical manufacturing and other industrial processes have long relied on separating molecules by size. Now, Cornell researchers have created porous materials that filter molecules by their chemical makeup.

Two molecules of identical size and weight but different chemistry, such as antibodies with distinct molecular structure, are difficult to separate using current ultrafiltration (UF) membrane technology. But in a study published Nov. 13 in Nature Communications, researchers find that blending chemically distinct block copolymer micelles – tiny self-assembling polymer spheres – could be applied to making membranes capable of filtering molecules by chemical affinity.

Scanning electron microscopy image (left) shows the surface of a porous asymmetric UF membrane created at Cornell by mixing chemically distinct block copolymer micelles. Machine-learning segmentation (right) identified patterns formed by different micelle types and chemistries, revealing how the approach could lead to UF membranes that sort by chemical affinity.

Ultrafiltration membranes used in pharmaceutical manufacturing and other industrial processes have long relied on separating molecules by size. Now, Cornell researchers have created porous materials that filter molecules by their chemical makeup.

Two molecules of identical size and weight but different chemistry, such as antibodies with distinct molecular structure, are difficult to separate using current ultrafiltration (UF) membrane technology. But in a study published Nov. 13 in Nature Communications, researchers find that blending chemically distinct block copolymer micelles – tiny self-assembling polymer spheres – could be applied to making membranes capable of filtering molecules by chemical affinity.

Scanning electron microscopy image (left) shows the surface of a porous asymmetric UF membrane created at Cornell by mixing chemically distinct block copolymer micelles. Machine-learning segmentation (right) identified patterns formed by different micelle types and chemistries, revealing how the approach could lead to UF membranes that sort by chemical affinity.

“This is the first real pathway to creating UF membranes with chemically diverse pore surfaces,” said Ulrich Wiesner, the Spencer T. Olin Professor of Materials Science and Engineering, and the study’s senior author. “In principle, post-fabrication processes may achieve this, but the cost would be prohibitive for industry to adopt it. This new approach could truly revolutionize ultrafiltration.”

Taking inspiration from nature – such as protein channels in cells that can distinguish between similar-sized metal ions using pore wall chemistry – lead author Lilly Tsaur, Ph.D. ’24, of the Wiesner group, explored how neutral and repulsive interactions among micelles influence their self-assembly within the top separation layer. By combining up to three distinct block copolymers, the team demonstrated how these competing interactions control where different chemistries appear in the pores of the film’s surface.

“While in principle this is a really simple idea, in practice, developing this experimentally is really difficult,” said Wiesner, also a professor in the Department of Design Tech. “In particular, identifying where the different micelle chemistries are located in the top separation layer is nontrivial.”

Using scanning electron microscopy, Tsaur imaged hundreds of samples to study how the different micelles arranged themselves. Because imaging could not easily identify the chemistries, she used machine learning to detect subtle differences in pore patterns to identify where each micelle type appeared.

Co-author Fernando A. Escobedo, the Samuel W. and M. Diane Bodman Professor of Chemical and Biomolecular Engineering (Cornell Engineering), ran molecular simulations to help reveal rules that govern how the micelles self-organize – a challenge due to the large number of micelles and their tendency to assemble into states relatively far from equilibrium.

“This necessitated the use of highly coarse-grained models and numerous calibrations to capture the time and length scales involved in the experimental process,” said Escobedo, who conducted the research with Luis Nieves-Rosado, Ph.D. ’25.

The study builds on the Wiesner group’s previous advances in block copolymer self-assembly that led to the founding of Terapore Technologies, a startup company led by Rachel Dorin, Ph.D. ’13, that uses the group’s scalable block copolymer process to make cost-effective UF membranes that separate viruses from biopharmaceuticals. The new research paves the way for companies to use the same manufacturing process to produce membranes that can perform affinity separations based on programming pore surface chemistry.

“Companies simply want to change the recipe, the ‘magic dust,’ that goes into the same process they’ve been using for decades in order to give membranes chemically diverse pore surfaces,” Wiesner said. “Our method has the potential to lead to a paradigm shift in UF-based operations, and to open a whole new avenue for how to use UF membranes.”

Beyond filtration, the research could lead to new materials with novel properties for applications such as smart coatings that respond to their environment and biosensors that detect specific molecules. Wiesner’s group is continuing the work and developing methods to probe deeper into the top separation layer of these materials to see how the chemical patterns extend below the surface.

The research was supported by the National Science Foundation and was enabled by the Cornell Materials Research Science and Engineering Center and the Cornell Nuclear Magnetic Resonance Facility.

Source:

Syl Kacapyr, associate director of marketing and communications for Cornell Engineering.

Trevira CS® at CSI Show Hamburg Graphic Trevira CS/Indorama Ventures
Trevira CS® at CSI Show Hamburg
20.11.2025

IMO-Tested Flame-Retardant Textiles: Trevira CS® at CSI Show Hamburg

Trevira CS, a leading brand of inherently flame-retardant textiles, is set to showcase its high-performance fabric solutions for the cruise ship industry at the CSI (Cruise Ship Interiors) Show in Hamburg on December 3rd and 4th. The booth's motto, "All aboard with Trevira CS," highlights the brand's commitment to safety and luxury in marine interiors. The exhibit will feature an array of some 27 IMO-tested Trevira CS fabrics specifically designed for cruise ship applications. 
 
Safety and Luxury Meet Rigorous Marine Standards 
As cruises worldwide continue to grow in popularity, the demand for luxurious and inviting textile designs which comply with uncompromising safety performance is increasing. Inherently flame retardant and easy to care for, Trevira CS fabrics comply with the strict FTP Code 2010 Resolution MSC.307(88), Annex 1, part 5, 7, 8, and 9 for various applications, such as wallcoverings, drapes and decorative fabrics, sunscreens, upholstery fabrics and bedding textiles.
 

Trevira CS, a leading brand of inherently flame-retardant textiles, is set to showcase its high-performance fabric solutions for the cruise ship industry at the CSI (Cruise Ship Interiors) Show in Hamburg on December 3rd and 4th. The booth's motto, "All aboard with Trevira CS," highlights the brand's commitment to safety and luxury in marine interiors. The exhibit will feature an array of some 27 IMO-tested Trevira CS fabrics specifically designed for cruise ship applications. 
 
Safety and Luxury Meet Rigorous Marine Standards 
As cruises worldwide continue to grow in popularity, the demand for luxurious and inviting textile designs which comply with uncompromising safety performance is increasing. Inherently flame retardant and easy to care for, Trevira CS fabrics comply with the strict FTP Code 2010 Resolution MSC.307(88), Annex 1, part 5, 7, 8, and 9 for various applications, such as wallcoverings, drapes and decorative fabrics, sunscreens, upholstery fabrics and bedding textiles.
 
The cruise shipping industry requires high-quality fabrics for both indoor and demanding outdoor environments. For exterior use, Trevira CS textiles offer superior performance in terms of resistance to light and weather. This is, for example, achieved through flame-retardant and UV stabilised polyester, available as staple fiber and filament yarn. Such modified filament yarns are available in nearly 30 different spun dyed colours. 
 
Recognizing the cruise industry's increasing focus on sustainability, Trevira CS also offers recycled options under the trademark Trevira CS eco. These fabrics contain at least 50% recycled materials (pre-consumer or post-consumer). All fibers and yarns used for the Trevira CS eco trademark are GRS (Global Recycled Standard) certified. 

“Our trademark testing makes sure that the Trevira CS articles are made of our original Trevira® flame retardant polyester and that the textiles thereof meet the fire safety requirements of the brand and are fit to pass those of the cruise industry too. Needless to say, that also the requirements of other industries like hospitality, healthcare, rail and aviation are respected and can be met by Trevira CS® as well,” says Petra Krücken, Indorama Ventures Fibers Global Trademark Service Manager. 

Photo Kraig Biocraft Laboratories
18.11.2025

Kraig Biocraft Laboratories to deliver spider silk yarns for elite-tier athletic application

Kraig Biocraft Laboratories, Inc., a leader in spider silk technology*, announced that it is fulfilling an order for spider silk from a globally recognized performance sports apparel brand as part of a confidential pilot development program.
 
This project will incorporate the company’s  next-generation recombinant spider silk into a cutting-edge application targeted at the highest tier of performance apparel. While specific project details remain protected, Kraig Labs can confirm that the program is designed for one of the most demanding and innovation-focused segments of the athletic market.
 
This customer's market leadership, engineering sophistication, and reputation for excellence in performance apparel made them the ideal choice for this initial pilot engagement. Their market leadership and commitment to innovation is the reason Kraig Labs selected to fulfill this request from among the numerous recent inbound inquiries it received.
 

Kraig Biocraft Laboratories, Inc., a leader in spider silk technology*, announced that it is fulfilling an order for spider silk from a globally recognized performance sports apparel brand as part of a confidential pilot development program.
 
This project will incorporate the company’s  next-generation recombinant spider silk into a cutting-edge application targeted at the highest tier of performance apparel. While specific project details remain protected, Kraig Labs can confirm that the program is designed for one of the most demanding and innovation-focused segments of the athletic market.
 
This customer's market leadership, engineering sophistication, and reputation for excellence in performance apparel made them the ideal choice for this initial pilot engagement. Their market leadership and commitment to innovation is the reason Kraig Labs selected to fulfill this request from among the numerous recent inbound inquiries it received.
 
The Company is now processing a portion of its recombinant spider silk inventory into yarns tailored to the precise specifications provided by the customer's development team. Delivery of these specialized materials is expected before the end of the first quarter.
 
As a focused pilot program, this order calls for a small, purpose-built quantity of spider silk designed explicitly for this highly specialized application. Even at this limited scale, the project provides a powerful platform for demonstrating the performance capabilities and commercial potential of the Company's specialized spider silk technology within a premier performance environment.
 
"This collaboration underscores the growing recognition of our material's potential in high-value, high-performance applications," said Kim Thompson, Kraig Labs’ Founder and CEO. "We are excited to support this project and a customer whose commitment to innovation aligns with our own. We look forward to showcasing what our spider silk can deliver at the elite level of apparel design and performance."

Source:

Kraig Biocraft Laboratories

14.11.2025

NCTO: Push for reinstatement of duty-free treatment for qualified textile and apparel goods

The National Council of Textile Organizations (NCTO), representing the full spectrum of U.S. textiles from fiber, yarn and fabrics to finished sewn products, applauded the administration’s announcement today of plans to reinstate duty-free treatment for qualified textile and apparel goods from Guatemala and El Salvador under the Dominican Republic-Central America-United States Free Trade Agreement (CAFTA-DR).

National Council of Textile Organizations President and CEO Kim Glas:
“NCTO and our industry leaders have long been pushing for the reinstatement of duty-free treatment for qualified textile and apparel goods for our CAFTA-DR partner countries. We welcome the administration’s announcements about restoring these benefits for Guatemala and El Salvador and continue to press for a resolution for the other trade partners including Honduras, the Dominican Republic and Costa Rica, while acknowledging that the administration is conducting an extensive review under Section 301 of Nicaragua and their human rights violations under a separate track.

The National Council of Textile Organizations (NCTO), representing the full spectrum of U.S. textiles from fiber, yarn and fabrics to finished sewn products, applauded the administration’s announcement today of plans to reinstate duty-free treatment for qualified textile and apparel goods from Guatemala and El Salvador under the Dominican Republic-Central America-United States Free Trade Agreement (CAFTA-DR).

National Council of Textile Organizations President and CEO Kim Glas:
“NCTO and our industry leaders have long been pushing for the reinstatement of duty-free treatment for qualified textile and apparel goods for our CAFTA-DR partner countries. We welcome the administration’s announcements about restoring these benefits for Guatemala and El Salvador and continue to press for a resolution for the other trade partners including Honduras, the Dominican Republic and Costa Rica, while acknowledging that the administration is conducting an extensive review under Section 301 of Nicaragua and their human rights violations under a separate track.

“We sincerely thank Rep. Richard Hudson (R-NC-09), Rep. David Rouzer (R-NC-07), and many members of the House Textile Caucus for their leadership and efforts in helping reinstate duty-free benefits for CAFTA-DR countries in support of the domestic textile chain.  Today was a first great step and we want to thank President Trump, U.S. Trade Representative Ambassador Jamieson Greer, and the administration for this important decision. 

“The CAFTA-DR region forms a vital co-production chain with the American textile supply chain, facilitating $11.3 billion in two-way trade in 2024 and supporting more than 470,000 U.S. workers in the domestic textile sector alone. However, since reciprocal tariffs were imposed on qualifying CAFTA-DR trade, U.S. textile and apparel imports from our free trade partner countries have declined 8 percent year to date in 2025 through July, while U.S. imports from top Asian suppliers have increased by double digits.

“The restoration of duty-free status for qualified goods from El Salvador and Guatemala is a critical key first step for our collective industries.  Restoring duty-free textile and apparel qualified goods from the CAFTA-DR region is important to bolster the U.S. textile supply chain can help bring some stability to this critical sector. The U.S. -Western Hemisphere supply chains stand as a bulwark to China and other Asian countries. We look forward to working with the Trump administration and lawmakers to find a resolution that will restore duty-free treatment for qualified trade for this vital region.”

Source:

National Council of Textile Organizations NCTO

Board elections at AVK – Industrial Association for Reinforced Plastics Graphik: AVK – Industrial Association for Reinforced Plastics
New board at AVK – Industrial Association for Reinforced Plastics
13.11.2025

Board elections at AVK – Industrial Association for Reinforced Plastics

The general meeting of AVK –Industrial Association for Reinforced Plastics has re-elected its executive board as part of its regular elections.

Gerhard Lettl (C. F. Maier) and Michael Polotzki (Menzolit) retired from the Executive Board. Both were honored for their many years of outstanding commitment to the work of the Executive Board, the management of various working groups and seminars and, in the case of Mr. Lettl, for his leadership of the AVK Innovation Award jury. As a special recognition, the AVK presented the new AVK Honorary Award for the first time, which honors the great personal commitment of both men.

Nicole Stöß (Polynt) and Ralph Breiltgens (Kunststoffverarbeitung Reich) were newly elected to the Executive Board.

At the constituent board meeting on the same day, the board positions were confirmed: 
Dr. Michael Effing (AMAC) remains Chairman of the Board, Dirk Punke (BÜFA) was con-firmed as Deputy Chairman. Prof. Jens Ridzewski (Applus+IMA) continues to hold the office of Treasurer.

The Executive Board will commence its new term of office on 1 January 2026 and remain in office for three years.

The general meeting of AVK –Industrial Association for Reinforced Plastics has re-elected its executive board as part of its regular elections.

Gerhard Lettl (C. F. Maier) and Michael Polotzki (Menzolit) retired from the Executive Board. Both were honored for their many years of outstanding commitment to the work of the Executive Board, the management of various working groups and seminars and, in the case of Mr. Lettl, for his leadership of the AVK Innovation Award jury. As a special recognition, the AVK presented the new AVK Honorary Award for the first time, which honors the great personal commitment of both men.

Nicole Stöß (Polynt) and Ralph Breiltgens (Kunststoffverarbeitung Reich) were newly elected to the Executive Board.

At the constituent board meeting on the same day, the board positions were confirmed: 
Dr. Michael Effing (AMAC) remains Chairman of the Board, Dirk Punke (BÜFA) was con-firmed as Deputy Chairman. Prof. Jens Ridzewski (Applus+IMA) continues to hold the office of Treasurer.

The Executive Board will commence its new term of office on 1 January 2026 and remain in office for three years.

“With the new management team, we are focusing on continuity and fresh impetus at the same time,” emphasises Dr Elmar Witten, Managing Director of AVK. “I would like to thank Mr. Lettl and Mr. Polotzki for their many years of service and look forward to continuing to work with the newly elected committee to actively shape the future of the composite ma-terials industry.”

Source:

AVK – Industrial Association for Reinforced Plastics

Techtextil India Photo Messe Frankfurt
13.11.2025

Techtextil India 2025 & Dornbirn Global Fiber Conference Asia

In line with India’s growing momentum to establish itself as a global textile manufacturing powerhouse, Techtextil India 2025, the country’s foremost B2B exhibition on technical textiles, nonwovens and composites, is set to return with an expansive and future-ready edition. Scheduled from November 19 to 21, 2025, at the Bombay Exhibition Centre, Goregaon, Mumbai, the 10th edition will feature over 215 exhibitors, including more than 100 first-time participants.

In line with India’s growing momentum to establish itself as a global textile manufacturing powerhouse, Techtextil India 2025, the country’s foremost B2B exhibition on technical textiles, nonwovens and composites, is set to return with an expansive and future-ready edition. Scheduled from November 19 to 21, 2025, at the Bombay Exhibition Centre, Goregaon, Mumbai, the 10th edition will feature over 215 exhibitors, including more than 100 first-time participants.

According to the Ministry of Textiles, India’s technical textiles exports stood at USD 2.92 billion in FY 2024–25, underscoring the sector/s growing global footprint. Packtech at 37.5% and Indutech at 28% emerged as the leading export categories, reflecting strong demand across industrial and packaging applications. With exports to the UK valued at USD 136 million, accounting for a 4.7% share, the data highlights India’s strengthening position in global value chains – setting the stage for platforms like Techtextil India that drive innovation, business and exchange of scientific knowledge for this high-growth segment. The expo will house 500+ products and 300+ brands with international participation from Belgium, Germany, Hong Kong, Italy, Japan, Sweden and the USA.

The integration of advanced manufacturing technologies, sustainability practices, focus on circularity and innovative fibers has become a necessity. Techtextil India 2025 plays a crucial role in driving this evolution by bringing together stakeholders across the value chain, fostering dialogue on policy and technology and accelerating industry-wide transformation. This year, the show takes a significant leap forward with its multi-functional approach, integrating new features under one roof — the Dornbirn Global Fiber Conference Asia, which will be held on 18th November 2025, the launch of Sporttech Pavilion, the feature of German Pavilion and a Techtextil India conference powered by Indian Technical Textile Association (ITTA). Together, these additions will enable participants to explore advanced applications of technical textiles across various sectors, including sports, automotive, defence, healthcare, construction, and sustainability.

India’s textile industry is undergoing a transformative shift driven by government reforms and industry-led innovation. Acknowledging the sector’s pivotal role in the national economy, the Ministry of Textiles has recently introduced significant amendments to the Production Linked Incentive (PLI) Scheme for Textiles, with a focus on revitalising the man-made fiber (MMF) and technical textiles segments. The revision aims to enhance ease of doing business, attract new investments and generate employment, while aligning with the government’s broader vision of ‘Make in India’ and ‘Atmanirbhar Bharat’.

These progressive measures underline the government’s commitment to fostering innovation, investment and employment generation within the sector — setting the stage for India to emerge as a global leader in high-performance textile manufacturing.

Commenting on the upcoming edition, Mr Raj Manek, Executive Director and Board Member, Messe Frankfurt Asia Holdings Ltd, stated: “The Indian textile industry is witnessing a remarkable transformation driven by government support, technological innovation and global demand for sustainable materials. Techtextil India 2025 will not only showcase the latest in technical textiles and nonwovens but also serve as a knowledge-driven hub connecting policy with practice. Our new initiatives – the Dornbirn Global Fiber Conference Asia, Sporttech Pavilion, German Pavilion and ITTA Technical Textiles Seminar – align perfectly with the nation’s textile growth mission, enabling participants to explore next-generation materials, solutions and business collaborations. We are proud to support India’s vision of becoming a global textile powerhouse.”

The Dornbirn Global Fiber Conference Asia, which is known for its focus on research-driven fiber innovation, will make its India debut, just a day before the expo on 18th November 2025, at Bombay Exhibition Centre, Mumbai, marking a perfect prelude for Techtextil India 2025. On 19th November 2025, the Techtextil Symposium will feature various knowledge sessions under themes like ‘Smart Solutions for Key Segments of Technical Textiles,’ organised by the Indian Technical Textile Association (ITTA). Focusing on innovations and practical applications in geotextiles, agrotextiles and industrial textiles, this will provide a platform to interact with leading experts. On Day 3, the conference organised by the Society of Plastics Engineers (SPE) India will explore ‘Creating Tomorrow’s Circular Supply Chains: Technology, Collaboration & Capital for Tech Textiles and Plastics.’

The show will present credible developments in the fabrics for sports and activewear (Sporttech) category, leading to a dedicated Sporttech Pavilion organised in partnership with Concept N Strategies. A dedicated conference titled – ‘India’s activewear revolution scaling without compromise: Building a 360-degree ecosystem for premium, high-quality active wear that competes globally’ will spotlight high-performance fabrics and materials revolutionising sportswear and outdoor applications. The show will also house a conference on recycling, ‘Creating tomorrow’s circular supply chains: Technology, collaboration and capital for textiles and plastics.'

Besides these key features, the expo has seen an expansion into Mobiltech, Buildtech and Oekotech segments. Through these categories, the exhibition aims to connect manufacturers, technology providers, investors and policymakers under one unified platform to share insights, explore business opportunities and discuss the future of advanced textile materials. The event’s focus on innovation, sustainability and collaboration complements the national agenda of achieving self-reliance and global competitiveness in textiles.

The show will have the presence of key domestic industry leaders, including Aditya Birla Yarns, Khosla Profil, Park Nonwoven, Pidilite, Reliance, Welspun, Sanathan Textiles, Sarex Chemicals, and Suntech Geo. Meanwhile, the international exhibitors include ACM, Inc., Autefa Solution Germany GmbH, Bettarini & Serafini SRL, Brückner Textile Technologies GmbH & Co. KG, Georg Sahm GmbH & Co. KG, Innovatec Microfiber Technology GmbH & Co. KG, Procotex, Pulcra Chemicals GmbH, R&M International Sales Corporation, Reifenhäuser Enka Tecnica GmbH, Ring Maschinenbau GmbH, STC Spinnzwirn GmbH, Textechno Herbert Stein, VEIT Hong Kong Limited and Zoltek.

As high-value, sustainable and globally competitive textile production is receiving renewed focus, the synergy between government initiatives and industry platforms such as Techtextil India 2025 will continue to strengthen India’s leadership in the global textile landscape. The show has become synonymous with India’s textile ambition — weaving together innovation, collaboration and opportunity to create a more resilient, future-ready industry.

The expo has garnered support from key industry bodies, including the Manmade & Technical Textiles Export Promotion Council (MATEXIL), Indian Technical Textile Association (ITTA), Department of Textiles (Government of Maharashtra), while the Dornbirn Global Fiber Conference has garnered support from the Government of Tamil Nadu as the Partner State.

Graphene nanotube synthesis unit (c) OCSiAl
Graphene nanotube synthesis unit
12.11.2025

OCSiAl: World’s Largest Graphene Nanotube Manufacturing Hub in Luxembourg

  • A flagship graphene nanotube facility in Luxembourg, a $300 million deep-tech investment, is set to put Europe at the forefront of advanced materials innovation.
  • The Luxembourg facility will bring more than 300 new jobs and serve as a scalable energy-efficient manufacturing center.
  • The launch follows a recent investment round from Luxembourg investors and the signing of a long-term land lease with the State of Luxembourg.

OCSiAl, a Luxembourg-based deep-tech company and the global leader in graphene nanotube technologies, has announced the signing of a land lease, launching the development of its flagship graphene nanotube production center in Differdange, Luxembourg, that will become the world’s largest graphene nanotube production facility.

This official announcement is a culmination of a years-long effort by the company and the Luxembourg Government, including most recently an investment round raised from a “club” of Luxembourg-based investors and the signing with the State of Luxembourg of a long-term land lease for a 3.63-hectare site in Differdange.

  • A flagship graphene nanotube facility in Luxembourg, a $300 million deep-tech investment, is set to put Europe at the forefront of advanced materials innovation.
  • The Luxembourg facility will bring more than 300 new jobs and serve as a scalable energy-efficient manufacturing center.
  • The launch follows a recent investment round from Luxembourg investors and the signing of a long-term land lease with the State of Luxembourg.

OCSiAl, a Luxembourg-based deep-tech company and the global leader in graphene nanotube technologies, has announced the signing of a land lease, launching the development of its flagship graphene nanotube production center in Differdange, Luxembourg, that will become the world’s largest graphene nanotube production facility.

This official announcement is a culmination of a years-long effort by the company and the Luxembourg Government, including most recently an investment round raised from a “club” of Luxembourg-based investors and the signing with the State of Luxembourg of a long-term land lease for a 3.63-hectare site in Differdange.

“The launch of this future production center in Differdange perfectly illustrates our ambition to position Luxembourg as a key player in industrial innovation in Europe. This major investment in graphene nanotubes demonstrates investors’ confidence in our ecosystem and highlights the potential of our business parks to host high-tech industrial projects. We are proud to support OCSiAl in this strategic step, which will contribute to the creation of skilled jobs, the reputation of Luxembourg in deep-tech, and the transition to a more sustainable and competitive industry,” said Lex Delles, Minister of the Economy, SME, Energy & Tourism.

“OCSiAl’s investment highlights Luxembourg’s role as a platform for long-term innovation and smart industrial development,” added Gilles Roth, Minister of Finance. “This project reflects the value of combining private sector vision with public infrastructure support.”

Founded in Luxembourg in 2010, OCSiAl has become the world’s largest producer of graphene nanotubes, a next-generation material that offers exceptional performance to a multitude of products used in everyday life. OCSiAl’s nanotubes, currently produced only in Serbia, where the company is increasing production capacity fourfold, are already used in more than 10% of smartphones sold today and in over one million electric vehicles worldwide.

“Graphene nanotubes can improve over half of the materials we use every day, from safer batteries to longer-lasting tires and ultralight protective equipment,” said Alain Kinsch, a member of the OCSiAl Board of Directors. “We thank the Luxembourg Government for enabling this project through the land lease and for fostering an environment where innovation and industrial ambition can thrive.”

Claude Huniade Image Swedish School of Textiles
Claude Huniade
10.11.2025

Textile nerves – a new thread in the future of wearable electronics

What if your clothes could sense, respond, and even help you move? That’s the vision behind the doctoral project on “textile nerves” – conductive fibres designed for electronic and ionotronic textiles. Claude Huniade, who is behind an innovative project, has woven together chemistry, mechanics, and sustainability to rethink how textiles and electronics can merge. 

The project had two main aims: first, to replace metals with alternative conductive materials like electronically conductive carbons, doped conducting polymers, and ionically conductive mediums; second, to lay the cornerstone for scalable production and realistic characterisation of textile nerves – especially for use in textile muscles. All of this was approached from a textile manufacturing standpoint, ensuring compatibility with weaving looms and knitting machines.

What if your clothes could sense, respond, and even help you move? That’s the vision behind the doctoral project on “textile nerves” – conductive fibres designed for electronic and ionotronic textiles. Claude Huniade, who is behind an innovative project, has woven together chemistry, mechanics, and sustainability to rethink how textiles and electronics can merge. 

The project had two main aims: first, to replace metals with alternative conductive materials like electronically conductive carbons, doped conducting polymers, and ionically conductive mediums; second, to lay the cornerstone for scalable production and realistic characterisation of textile nerves – especially for use in textile muscles. All of this was approached from a textile manufacturing standpoint, ensuring compatibility with weaving looms and knitting machines.

Improved properties to textile fibres
Among the most striking findings was the use of ionic liquids – liquids that are comprised entirely of ions – as electrical conductors in textiles. When applied to commercial fibres, they improved flexibility and stretchability, resulting in fabrics that were not just soft, but “conformal”, meaning they adapt closely to the body’s shape and movement.

“Our modern society has been shaped by textiles and electronics. When we think of the greatest example of an electronic device, a computer, it had at a point in time helped to bring the first men to the Moon in Apollo 11. Now, ionotronics – where electric currents are controlled by ions – open new doors for interfacing with biological systems like the human nervous system”, explained Claude Huniade.

Though these materials may not match metals in conductivity, their softness makes them ideal for wearable devices. The result? Electronics that feel more like clothing – and less like hardware.

“The potential uses are vast: bioelectrodes, sensors, heaters, lights, even textile-based batteries. But the most transformative application may be in rehabilitation – textile muscles could enable more accessible exoskeletons and prosthetics, giving people greater autonomy and mobility”, he said.

Sustainability at the core
This research aligns with the UN’s Sustainable Development Goal 12: Responsible Consumption and Production. By avoiding metals and embracing green chemistry principles, the project offers a more sustainable path forward for two of the world’s most waste-intensive industries combined – textiles and electronics.

What will be your next step after the dissertation?
“I will take a well-deserved break! I have a new project already in the works; all I will say is that it involves textile muscle fibres innervated by ionofibres.”

Link to dissertation

Source:

Swedish School of Textiles, University of Borås

Textile touch that relieves long-term pain Photo Swedish School of Textiles
Textile touch that relieves long-term pain
10.11.2025

New research project: Textile touch that relieves long-term pain

Can textiles that touch the skin relieve long-term pain? This is the core question of the large interdisciplinary research project Touch away the pain, where the University of Borås is one of the central actors. The project, which will run for six years, is part of the Swedish Research Council's investment in interdisciplinary research environments. 

Nils-Krister Persson, Associate Professor and Senior Lecturer at the Swedish School of Textiles, University of Borås, who is responsible for the textile development in the project, said, “We want to find out what actually happens in the body when you activate the sense of touch. Is it possible to create artificial touch that people actually want to experience, to reduce long-term pain? Is it possible to replicate touch from another person?”

Textile technology meets neurophysiology
The project brings together researchers from the University of Borås, Linköping University, and Region Östergötland. Together, they investigate how artificial touch, created with the help of textile actuators, can affect the body's pain signals.

Can textiles that touch the skin relieve long-term pain? This is the core question of the large interdisciplinary research project Touch away the pain, where the University of Borås is one of the central actors. The project, which will run for six years, is part of the Swedish Research Council's investment in interdisciplinary research environments. 

Nils-Krister Persson, Associate Professor and Senior Lecturer at the Swedish School of Textiles, University of Borås, who is responsible for the textile development in the project, said, “We want to find out what actually happens in the body when you activate the sense of touch. Is it possible to create artificial touch that people actually want to experience, to reduce long-term pain? Is it possible to replicate touch from another person?”

Textile technology meets neurophysiology
The project brings together researchers from the University of Borås, Linköping University, and Region Östergötland. Together, they investigate how artificial touch, created with the help of textile actuators, can affect the body's pain signals.

“We have a long history of developing textiles that actuate, what we sometimes call textile muscles. They can thus exert force on their surroundings or change their shape. Now we are looking at how this technology can be applied in pain treatment,” said Nils-Krister Persson.

Håkan Olausson, Professor of Clinical Neurophysiology at Linköping University Hospital, who is participating in the project, commented, “We have discovered special receptors in the skin that convey pleasure when touched. They can lower stress levels in the nervous system, perhaps through mechanisms involving oxytocin. These are the ones we are trying to activate using textiles.

What happens in the body when touched?
His research colleague Sarah McIntyre, Associate Senior Lecturer and touch researcher at Linköping University Hospital, explains that touch and pain are not separate systems in the body; rather, they interact.

“The nervous system processes signals from both pain and touch at the same time, and they affect each other. We're trying to understand how it works, and how we can use that knowledge to design wearable aids that relieve long-term pain,” said Sarah McIntyre. “We will start by understanding the patient’s needs. What do they want help with? What feels good? This is a good starting point for the whole project.” 

The technology behind the textiles
Edwin Jager, Professor of Sensor and Actuator Systems at Linköping University, is working on the technical development of the project.

“We are developing two technologies in parallel, pneumatic actuators and textile actuators. Textiles are particularly promising because they can be integrated into clothes and used discreetly in everyday life,” said Edwin Jager.

“Imagine sitting in a meeting, and at the touch of a button or via an app you activate a textile that gives you pain relief, without anyone noticing. That's where we want to go,” he explained.

Clinical application in focus
Nazdar Ghafouri, Senior Consultant and pain researcher at Linköping University Hospital, is responsible for the clinical part of the project.

“We will start by testing on people without pain and then move on to patients. There is already a lot of research that shows that touch can relieve pain, but we want to find out what kind of touch, for how long, and where it works best,” she said.

She continued, “This is really interdisciplinary and we are constantly learning from each other. This is my first time at the Swedish School of Textiles, and I find it to be a fantastic environment characterised by creativity, humanism, and concern for sustainability. I believe that we in healthcare have a lot to learn from the creative approach in design and technology, especially when it comes to problem solving and daring to think outside the traditional framework.”  

Next steps, from lab to patients
The project is still in its start-up phase, but the researchers plan to start testing prototypes soon. First, tests are carried out in a lab environment, then in clinical studies.

“We've been working for about six months and are still in the start-up phase. But there are already about fifteen people involved, and more are coming. It is a large and exciting project,” concluded Nils-Krister Persson.

Source:

Swedish School of Textiles, University of Borås

François Guimbretière, professor of information science, and Victor Guimbretière '29 developed a knitting machine that functions like a 3D printer – building up horizontal layers of stitches to create solid objects. Image: Luke Stewart/Provided
François Guimbretière, professor of information science, and Victor Guimbretière '29 developed a knitting machine that functions like a 3D printer – building up horizontal layers of stitches to create solid objects.
05.11.2025

Knitting machine makes solid 3D objects

A new prototype of a knitting machine creates solid, knitted shapes, adding stitches in any direction – forward, backward and diagonal – so users can construct a wide variety of shapes and add stiffness to different parts of the object.

Unlike traditional knitting, which yields a 2D sheet of stitches, this proof-of-concept machine – developed by researchers at Cornell and Carnegie Mellon University – functions more like a 3D printer, building up solid shapes with horizontal layers of stitches.

“We establish that not only can it be done, but because of the way we attach the stitch, it will give us access to a lot of flexibility about how we control the material,” said François Guimbretière, professor of information science in the Cornell Ann S. Bowers College of Computing and information science and the multicollege Department of Design Tech. “The expressiveness is very similar to a 3D printer.” 

Guimbretière and co-author, Victor Guimbretière ’29, who is in Cornell Engineering, presented the work, “Using an Array of Needles to Create Solid Knitted Shapes,” at the ACM Symposium on User Interface Software and Technology in Busan, Korea on Sept. 30.

A new prototype of a knitting machine creates solid, knitted shapes, adding stitches in any direction – forward, backward and diagonal – so users can construct a wide variety of shapes and add stiffness to different parts of the object.

Unlike traditional knitting, which yields a 2D sheet of stitches, this proof-of-concept machine – developed by researchers at Cornell and Carnegie Mellon University – functions more like a 3D printer, building up solid shapes with horizontal layers of stitches.

“We establish that not only can it be done, but because of the way we attach the stitch, it will give us access to a lot of flexibility about how we control the material,” said François Guimbretière, professor of information science in the Cornell Ann S. Bowers College of Computing and information science and the multicollege Department of Design Tech. “The expressiveness is very similar to a 3D printer.” 

Guimbretière and co-author, Victor Guimbretière ’29, who is in Cornell Engineering, presented the work, “Using an Array of Needles to Create Solid Knitted Shapes,” at the ACM Symposium on User Interface Software and Technology in Busan, Korea on Sept. 30.

Guimbretière first became interested in solid knitting while tinkering with a knitting machine in the lab of co-author Scott Hudson, professor of human-computer interaction in the School of Computer Science at Carnegie Mellon University, in 2016. A few years later, Guimbretière built the prototype from scratch in his basement during the COVID-19 pandemic, using primarily 3D-printed components.

The machine has a bed of knitting needles arranged in a 6x6 block, with each composed of a 3D-printed symmetrical double hook attached to a brass support tube. The front and back parts of the double hook move independently, which allows the machine to knit or purl, depending on which half picks up the first loop. To control the machine, the researchers developed a library of code for each type of stitch, which can generate a program for each product.

Because the knitting head that dispenses the yarn can move directly over the array of needles to any location, the design offers excellent flexibility to create complex knitted structures. Previous solid knitting machines lacked this flexibility, which greatly limits the shapes they can produce, researchers said.

So far, the team has successfully knitted objects shaped like a C and a pyramid, which demonstrates the machine’s ability to create complex shapes and overhangs.

Currently, the prototype is still slow, prone to dropping loops and sometimes catches the yarn on the wrong needles, but Guimbretière has plans to make the machine more robust. Additionally, it should be easy to scale up the design, he said, simply by adding a larger bed of needles. 

With further improvements, this type of approach may be useful for medical applications, such as knitting structures that support the growth of artificial ligaments or veins, Guimbretière said. Solid knitting allows the user to create different levels of thickness and stiffness in the final product, so it may be useful for accurately mimicking biological structures.

Amritansh Kwatra ’19, now a Ph.D. student in the field of information science at Cornell Tech, also contributed to the study.
Partial funding for this work came from the National Science Foundation.

Source:

Patricia Waldron Cornell Ann S. Bowers College of Computing and Information Science

getzspace® Photo Getzner Textil
getzspace®
05.11.2025

Getzner Textil Launches Three-Dimensional Weaving at Functional Fabric Fair

Getzner Textil AG, specialists in technical textiles made for a wide range of applications, announced the launch of their new getzspace® three-dimensional weaving technology. 

getzspace® will allow brands to create next generation technical clothing - performance and protective apparel - by reducing the need for seams in pockets and reinforcements. New garments made with the getzspace® technique aim to be more comfortable and more durable, all while reducing waste from the cut-and-sew process. 

Getzner Textil AG, specialists in technical textiles made for a wide range of applications, announced the launch of their new getzspace® three-dimensional weaving technology. 

getzspace® will allow brands to create next generation technical clothing - performance and protective apparel - by reducing the need for seams in pockets and reinforcements. New garments made with the getzspace® technique aim to be more comfortable and more durable, all while reducing waste from the cut-and-sew process. 

getzspace® works by enabling three-dimensional structures such as pockets and reinforcements to be integrated directly into the textile surface, without the need for seams and stitching. The result is high-performance textiles with low weight and high resilience, opening up new possibilities for the design and functionality of modern performance and protective workwear.
 
Getzner Textil will introduce the new getzspace® technology at the Functional Fabric Fair in Portland this fall. Getzner will also present a wide selection of other fabrics during Functional Fabric Fair, underscoring the diversity of their product line and high standard of functionality, comfort, and safety, all developed through decades of textile manufacturing resource-efficient production processes in Europe.

“With over 200 years of experience creating textiles for everything from African fashion and workwear to soundproofing and materials for hot air ballooning, Getzner is set to help revolutionize how technical woven textiles are produced,” said Lukas Berthold, Getzner Sales Manager for North America. “By reducing the need for seams and stitching on pockets and reinforcements, apparel using the getzspace® process will be even more durable and comfortable, all while allowing for new design possibilities.”

30.10.2025

Coats Completes Acquisition of OrthoLite, Strengthening Footwear Business

Coats Group plc, a world-leading Tier 2 supplier of critical components to the apparel and footwear industries, announced has completed its acquisition of OrthoLite, a global market leader in footwear materials and the number one brand in premium insoles.

The acquisition marks a major milestone in the company’s long-term growth plans and strengthens its existing footwear division through expansion into the attractive, high-growth premium insole segment. Both companies already have a similar customer base, a complementary global footprint and a commitment to industry-leading innovation and sustainability practices.

Coats first announced its intention to purchase OrthoLite, and its sustainable materials brand, Cirql, on July 16, 2025, for an initial enterprise value of $770 million. Following previous footwear acquisitions, this is the latest step in the Company’s ambition to shape the future of the global apparel and footwear supply chain through innovation, sustainability, and digital technologies that improve quality, efficiency and performance.

Coats Group plc, a world-leading Tier 2 supplier of critical components to the apparel and footwear industries, announced has completed its acquisition of OrthoLite, a global market leader in footwear materials and the number one brand in premium insoles.

The acquisition marks a major milestone in the company’s long-term growth plans and strengthens its existing footwear division through expansion into the attractive, high-growth premium insole segment. Both companies already have a similar customer base, a complementary global footprint and a commitment to industry-leading innovation and sustainability practices.

Coats first announced its intention to purchase OrthoLite, and its sustainable materials brand, Cirql, on July 16, 2025, for an initial enterprise value of $770 million. Following previous footwear acquisitions, this is the latest step in the Company’s ambition to shape the future of the global apparel and footwear supply chain through innovation, sustainability, and digital technologies that improve quality, efficiency and performance.

To better reflect its increased scale and expanded footwear capabilities, Coats will also move from a three-division organisational structure, previously Apparel, Footwear and Performance Materials, toward a simplified two division structure focused on Apparel and Footwear. Existing Performance Materials businesses will be folded into the two new divisions.

The divisions will be led by Pasquale Abruzzese, Footwear CEO and Group Chief Operating Officer, and Adrian Elliott, Apparel CEO and Group Chief Commercial Officer. Glenn Barrett will continue to lead the OrthoLite business. External reporting will transition to this structure for the financial year ending December 2026.

Source:

Coats 

Filc is the market leader in condensation control for non-insulated metal roofs. Source: ©Freudenberg Performance Materials
Filc is the market leader in condensation control for non-insulated metal roofs.
29.10.2025

Filc renamed Freudenberg Performance Materials

With effect from January 1, 2026, the Freudenberg Performance Materials brand will replace the Filc brand, and the name of the company will also change from the same date. The new brand presence concludes the successful integration of Filc in Freudenberg Performance Materials. 

Filc joined Freudenberg Performance Materials in 2020 and this shared identity will now also be reflected in the joint brand presence: the Freudenberg Performance Materials brand will replace the Filc brand. “The joint brand presence is the final step in the successful integration of Filc. It not only underscores our shared identity, but also brings a decisive advantage, in that Filc will be able to benefit even more from the strength of the Freudenberg brand. Our unchanged goal is to reinforce the sustainable success of our customers through innovative products,” Anže Manfreda, SVP at Filc, explained.

With effect from January 1, 2026, the Freudenberg Performance Materials brand will replace the Filc brand, and the name of the company will also change from the same date. The new brand presence concludes the successful integration of Filc in Freudenberg Performance Materials. 

Filc joined Freudenberg Performance Materials in 2020 and this shared identity will now also be reflected in the joint brand presence: the Freudenberg Performance Materials brand will replace the Filc brand. “The joint brand presence is the final step in the successful integration of Filc. It not only underscores our shared identity, but also brings a decisive advantage, in that Filc will be able to benefit even more from the strength of the Freudenberg brand. Our unchanged goal is to reinforce the sustainable success of our customers through innovative products,” Anže Manfreda, SVP at Filc, explained.

Change in the company’s name 
The name of the company will also change effective January 1, 2026: “Filc d.o.o.” will in the future operate under the name of “Freudenberg Performance Materials Filc d.o.o.” For customers and suppliers, the only changes relate to the company’s address and the name of the bank account holder. 

Source:

Freudenberg Performance Materials Holding GmbH

Teijin Carbon and A&P Technology Launch High-Performance BIMAX TPUD Braided Fabric for Scalable Composite Manufacturing Photo: Teijin Carbon and A&P Technology
Teijin Carbon and A&P Technology Launch High-Performance BIMAX TPUD Braided Fabric for Scalable Composite Manufacturing
08.10.2025

New Braided Fabric for Scalable Composite Manufacturing

Teijin Carbon, in collaboration with A&P Technology, announced a joint innovation in advanced composite materials. IMS65 PAEK Bimax® biaxial fabric is a rate enabling solution using Teijin Carbon’s Tenax™ TPUD IMS65 PAEK product, a thermoplastic unidirectional (UD) tape. It is designed to meet growing demand for scalable, high-speed production of composites in aerospace, space, defense and other evolving markets.

Teijin’s Tenax™ TPUD IMS65 PAEK – a high-quality UD tape based on polyaryletherketone (PAEK) resin is slit into narrow widths and braided by A&P Technology into a 65” wide +/-45° fabric. The +/-45° braid architecture has minimal crimp- offering a high translation of tape properties while providing excellent drapability for complex geometries. With a fiber areal weight of just 184 gsm and 34 percent PAEK content, IMS65 PAEK Bimax® enables out of autoclave (OoA) processing and vacuum bag only (VBO) consolidation, significantly reducing manufacturing time while enhancing mechanical performance and impact resistance.

Features and benefits of IMS65 PAEK Bimax® fabric:

Teijin Carbon, in collaboration with A&P Technology, announced a joint innovation in advanced composite materials. IMS65 PAEK Bimax® biaxial fabric is a rate enabling solution using Teijin Carbon’s Tenax™ TPUD IMS65 PAEK product, a thermoplastic unidirectional (UD) tape. It is designed to meet growing demand for scalable, high-speed production of composites in aerospace, space, defense and other evolving markets.

Teijin’s Tenax™ TPUD IMS65 PAEK – a high-quality UD tape based on polyaryletherketone (PAEK) resin is slit into narrow widths and braided by A&P Technology into a 65” wide +/-45° fabric. The +/-45° braid architecture has minimal crimp- offering a high translation of tape properties while providing excellent drapability for complex geometries. With a fiber areal weight of just 184 gsm and 34 percent PAEK content, IMS65 PAEK Bimax® enables out of autoclave (OoA) processing and vacuum bag only (VBO) consolidation, significantly reducing manufacturing time while enhancing mechanical performance and impact resistance.

Features and benefits of IMS65 PAEK Bimax® fabric:

  • High fiber volume and low crimp for superior mechanical performance
  • Extreme drapability for deep-draw parts
  • Reduced lay-up time per layer – 65” wide fabric enables quick laydown of biaxial reinforcement
  • Native air evacuation pathways for optimal consolidation of thick components
  • Room temperature preform placement with spot tacking to simplify production workflows

This innovative braided fabric meets or exceeds the properties of existing National Center for Advanced Materials Performance (NCAMP)-qualified PAEK prepregs, offering a robust and scalable solution for next-generation composite structures. The combination of Teijin Carbon’s advanced thermoplastic UD tape technology and A&P Technology’s expertise in braided fabric manufacturing delivers a truly high-performance solution for modern composite applications.

FET-500 Series of gel spinning systems Photo FET Ltd
FET-500 Series of gel spinning systems
06.10.2025

UHMWPE fibres: New gel spinning systems for biomedical market

FET is launching the FET-500 Series of gel spinning systems in a move that could revolutionise the research and development of UHMWPE fibres.

Fibre Extrusion Technology Ltd (FET) of Leeds, UK, has built a reputation in medical fibre extrusion technology and innovations, designing and delivering high-performance equipment for a range of precursor medical products, including bespoke extrusion systems for the production of both resorbable and non-absorbable sutures. FET’s equipment supports small-scale, adaptable production and rapid new product development.       

In recent years, there has been a growing demand for R&D of UHMWPE fibres. These fibres are prized in many industries due to their extraordinary properties. However, current production processes are complex and focused on the large-scale output of existing fibre grades. This rigid supply chain has stifled innovation in this untapped product market.

FET is launching the FET-500 Series of gel spinning systems in a move that could revolutionise the research and development of UHMWPE fibres.

Fibre Extrusion Technology Ltd (FET) of Leeds, UK, has built a reputation in medical fibre extrusion technology and innovations, designing and delivering high-performance equipment for a range of precursor medical products, including bespoke extrusion systems for the production of both resorbable and non-absorbable sutures. FET’s equipment supports small-scale, adaptable production and rapid new product development.       

In recent years, there has been a growing demand for R&D of UHMWPE fibres. These fibres are prized in many industries due to their extraordinary properties. However, current production processes are complex and focused on the large-scale output of existing fibre grades. This rigid supply chain has stifled innovation in this untapped product market.

The FET-500 gel spinning systems will address this gap in the market. The FET-500 enables a flexible and consistent process, able to produce quality fibres with less than 100 grams of polymer, while avoiding the harsh processing chemicals that were historically associated with gel spinning. The key to unlocking this lab and pilot scale flexibility is the use of supercritical carbon dioxide as a green solvent in a patent-pending process.

Gel spinning starts with extrusion, but the additional washing and drawing technology to produce finished yarn is critical to the overall performance characteristics. An example of the wide range of features and benefits can be shown in the Washing process, with Patent Pending technology using Supercritical Carbon Dioxide:

Extract carrier oil without using toxic, environmentally harmful chemicals such as Hexane and DCM.

  • CO2 is green, cheap, abundant, and significantly safer to work with
  • CO2 efficiently dissolves carrier oils without affecting the polymer yarn

Reduced operational costs

  • 9-Vast reduction in solvent use (CO2 vs Hexane/DCM)
  • Comprehensive oil recovery and recycling
  • Zero solvent waste is generated, unlike the hexane route

Compact and efficient batch washing system

  • Recipe controlled plug and play technology
  • Scalable and adjustable to customer needs
  • Carrier oil is recovered and fed back to the extrusion process
  • 80% reduction in factory footprint vs hexane route

FET’s Fibre Development Centre is critical to the inception and success of the FET-500. Having this facility located in Leeds where the manufacturing takes place allows FET to offer a gateway to de-risk, develop and demonstrate the system’s capabilities. FET houses a full demonstration line of the FET-500 to allow customers, existing and new, to visit and experience the system operating from start to finish. They can also aid in developing new products and operating parameters through R&D trials, giving customers the confidence and knowledge to transfer a new product offering onto a production line.

Source:

FET Ltd

Oritain: Origin Verification to Leather for EUDR Readiness Photo Oritain Global
Oritain: Origin Verification to Leather for EUDR Readiness
01.10.2025

Oritain: Origin Verification to Leather for EUDR Readiness

Oritain announced the expansion of its services into leather. This development will enable the fashion, luxury fashion and automotive industries to meet the rising demand for traceability, sustainability, and regulatory compliance.

Oritain’s proprietary methodology already trusted across apparel, food and agriculture, can now verify the geographic origin of leather from key producing countries across Europe, Africa and South America.1 This capability is increasingly vital as regulations like the EU Deforestation Regulation (EUDR) are enforced and the Ecodesign for Sustainable Products Regulation (ESPR) mandates a Digital Product Passport. Such regulations require companies to disclose traceability information that proves their supply chains are transparent and ethically sourced.

Oritain announced the expansion of its services into leather. This development will enable the fashion, luxury fashion and automotive industries to meet the rising demand for traceability, sustainability, and regulatory compliance.

Oritain’s proprietary methodology already trusted across apparel, food and agriculture, can now verify the geographic origin of leather from key producing countries across Europe, Africa and South America.1 This capability is increasingly vital as regulations like the EU Deforestation Regulation (EUDR) are enforced and the Ecodesign for Sustainable Products Regulation (ESPR) mandates a Digital Product Passport. Such regulations require companies to disclose traceability information that proves their supply chains are transparent and ethically sourced.

The global leather goods market is projected to grow from $493 billion in 2025 to $904 billion in 2035, according to Future Market Insights (FMI, 2025). Meanwhile, the luxury leather goods segment alone is expected to generate over $66 billion in revenue in 2025, as reported by Statista (2025). These growth figures underscore the growing pressure on brands to demonstrate responsible sourcing.

“Leather sourcing is facing heightened scrutiny for its environmental and human rights impacts” said Alyn Franklin, CEO of Oritain. “Our origin verification programs give brands and tanneries the insights they need to make meaningful changes in their supply chain, meet regulatory obligations and build lasting trust with their customers.”

Traceability is no longer a nice-to-have; it’s a strategic imperative. Regulatory frameworks are tightening, and consumer expectations are shifting towards transparency, sustainability, and ethical practices. Brands that fail to meet these standards risk reputational damage, legal consequences, and loss of consumer trust.

Oritain’s extensive origin database and forensic expertise provide a unique solution for brands navigating increasingly complex supply chains. The service is designed to verify sourcing claims made by intermediaries and tanneries, enabling brands to identify deforestation and labour risks, supporting end-to-end supply chain mapping. Whether it’s bespoke handbags, premium footwear, or high-end automotive interiors, Oritain’s product origin verification is tailored to meet the unique needs of the fashion and automotive sectors, offering both precision and adaptability.

This launch follows Oritain’s recent expansion into the timber industry, another commodity highly relevant to concerns surrounding deforestation and subject to scrutiny by regulators. This broader business expansion into new sectors reflects Oritain’s commitment to innovation, and its role in helping clients set new standards for transparency and accountability.

“Our customers are looking for ways to get visibility into their supply chains. Extending our service to leather means we can stand alongside them and have a positive impact on the wider industry, delivering on our vision of being the source of truth in global supply chains” said Paul Bentham, Chief Product and Technology Officer at Oritain.
 
1 Argentina, Nigeria, Spain, Belgium, Italy, Turkey, Albania, France, Netherlands, UK, Germany.

 

Source:

Oritain Global

Photo: Messe Frankfurt / Jean-Luc Valentin
01.10.2025

Techtextil and Texprocess Innovation Awards: Submit ideas now

The countdown for submissions has begun. Until 15 December 2025, companies can enter their developments for the Techtextil Innovation Award and the Texprocess Innovation Award. Those selected by the distinguished juries benefit from international visibility as well as from the reputation and reach of the two leading trade fairs. From 21 to 24 April 2026, Techtextil and Texprocess bring together the global industries in Frankfurt. The presentation of the Innovation Awards and the showcasing of the winning ideas is among the most prominent highlights.

The industry is evolving at a rapid pace – from new advances in technical textiles and nonwovens to forward-looking manufacturing and processing technologies. Current developments such as the use of AI, sustainable approaches and new production methods are creating additional opportunities for innovation. Especially in times of recession, tariffs and restrained investment, these impulses take on particular significance. They open up new opportunities in numerous fields, ranging from mobility and medicine to apparel. The Techtextil and Texprocess Innovation Awards provide international visibility for the best ideas.

The countdown for submissions has begun. Until 15 December 2025, companies can enter their developments for the Techtextil Innovation Award and the Texprocess Innovation Award. Those selected by the distinguished juries benefit from international visibility as well as from the reputation and reach of the two leading trade fairs. From 21 to 24 April 2026, Techtextil and Texprocess bring together the global industries in Frankfurt. The presentation of the Innovation Awards and the showcasing of the winning ideas is among the most prominent highlights.

The industry is evolving at a rapid pace – from new advances in technical textiles and nonwovens to forward-looking manufacturing and processing technologies. Current developments such as the use of AI, sustainable approaches and new production methods are creating additional opportunities for innovation. Especially in times of recession, tariffs and restrained investment, these impulses take on particular significance. They open up new opportunities in numerous fields, ranging from mobility and medicine to apparel. The Techtextil and Texprocess Innovation Awards provide international visibility for the best ideas.

The innovations are driving progress in numerous industries. In 2024, the award winners presented recyclable fibre composites for aviation, self-cooling textiles for façades and measurement methods for body scans based on 4D scanning. Whether in mobility, construction, medicine or apparel – textile and technological innovations are creating new opportunities for progress.

Categories Techtextil Innovation Award 2026

  • New Concept
  • New Material
  • New Application
  • New Product
  • New Chemicals & Dyes
  • New Recycled Materials & Recycling Technologies
  • New Production Technology, Digitalisation & AI Solutions

Submit application: https://solutions.techtextil.com/

Categories Texprocess Innovation Award 2026

  • Economic quality (cost minimisation, time and process optimisation, automation)
  • Ecological quality (climate protection, energy efficiency, sustainability, recycling, circularity)
  • Digitalisation + AI
  • Innovation for quality improvement

Submit application: https://solutions.texprocess.com/

Information on participation
The submission deadline for all applications for the Techtextil and Texprocess Innovation Awards 2026 is 15 December 2025. All companies, institutes, universities, polytechnics and individuals are eligible to apply. Participation is free of charge. Submitted developments must have been on the market for less than two years or be shortly before the market launch. From mid-December 2025, two experienced international expert juries examine all submitted products in detail and evaluate them according to criteria such as degree of innovation, market potential, sustainability, choice of materials and technical quality. The winning companies are formally and prominently presented on the first day of the trade fair, 21 April 2026, in Frankfurt am Main.

Takaya Miyano Photo Teijin Carbon Europe GmbH
Takaya Miyano
01.10.2025

Leadership Change at Teijin Carbon Europe

Teijin Carbon Europe GmbH announces an important change in its executive leadership. Effective October 1, 2025, Dr. Bernd Wohlmann will step down from his role as CEO after seven successful years leading the company.

Dr. Wohlmann has played a key role in shaping the development of Teijin Carbon Europe. Under his leadership, the company has achieved significant milestones and navigated through challenging times with resilience and strategic foresight. Discussions regarding his future role within the Teijin Group are currently ongoing.

Moving forward, Takaya Miyano and Jörg Friedrich will continue to lead Teijin Carbon Europe as Managing Directors. 

Teijin Carbon, a subsidiary of the Teijin Group, specializes in the development and production of carbon fibers and carbon fiber-based materials. Under the brands Tenax™ and Tenax Next™, Teijin Carbon offers high-performance material solutions for industries such as aerospace, automotive, energy, electronics, civil engineering and sporting goods.

Teijin Carbon Europe GmbH announces an important change in its executive leadership. Effective October 1, 2025, Dr. Bernd Wohlmann will step down from his role as CEO after seven successful years leading the company.

Dr. Wohlmann has played a key role in shaping the development of Teijin Carbon Europe. Under his leadership, the company has achieved significant milestones and navigated through challenging times with resilience and strategic foresight. Discussions regarding his future role within the Teijin Group are currently ongoing.

Moving forward, Takaya Miyano and Jörg Friedrich will continue to lead Teijin Carbon Europe as Managing Directors. 

Teijin Carbon, a subsidiary of the Teijin Group, specializes in the development and production of carbon fibers and carbon fiber-based materials. Under the brands Tenax™ and Tenax Next™, Teijin Carbon offers high-performance material solutions for industries such as aerospace, automotive, energy, electronics, civil engineering and sporting goods.

Source:

Teijin Carbon Europe GmbH