From the Sector

ERWO Holding AG (“ERWO Holding”), holding company of the Südwolle Group, a leading manufacturer of worsted yarns, as well as main shareholder of Hoftex Group AG (“Hoftex Group”), a group of medium-sized companies in the textile industry, have announced the appointment of a new member to their Management Board: With effect from 1 April 2026, Dr David Meyer will become CFO on the Management Board of both companies. This position has recently been vacant, with the finance division being managed on an interim basis by CEO Manuela Spörl.

Dr David Meyer brings many years of industry experience to his role as CFO, having worked in both capital markets and a family-run SME environment. As a proven finance expert, David has a comprehensive knowledge across the entire spectrum of the finance department, ranging from accounting and controlling through the structuring of financing and M&A to IT transformation projects and investor relations. He comes from Hamberger Industriewerke (Stephanskirchen near Rosenheim), where, in addition to his role as CFO, he most recently also served as Head of Human Resources. Prior to that, he worked for over 12 years as CFO at Steico SE (Feldkirchen near Munich), a producer of timber building materials and wood fibre insulation listed on the OTC market. Dr Meyer holds a PhD in Industrial Engineering (University of Kaiserslautern).

With the official kick-off event of the Textilfabrik 7.0 (T7), a major transformation project for the German textile and apparel industry has been launched in the Monforts Quarter in Mönchengladbach. At the “Textile Roundtable,” an event format organized by the Zukunftsagentur Rheinisches Revier, representatives from industry, research, politics, and the regional economy came together to jointly lay the foundation for CO₂-neutral, circular, and economically viable textile production in Germany.

The textile and fashion industry worldwide faces major challenges: around ten percent of global CO₂ emissions are attributed to it. At the same time, companies in Germany are under considerable competitive pressure. Textilfabrik 7.0 addresses precisely this intersection by bringing together research institutions, industry, and regional stakeholders to accelerate the transfer of innovative technologies and production processes into industrial application.

Silke Krebs, State Secretary at the Ministry of Economic Affairs, Industry, Climate Protection and Energy of the State of North Rhine-Westphalia emphasizes that the T7 project actively drives the transformation of the Rhenish mining region into a modern industrial hub. It combines innovative, sustainable textile production with research, development, and the use of AI and robotics. At the same time, it strengthens the region’s competitiveness and creates new jobs across all qualification levels. T7 demonstrates that structural change offers concrete opportunities for a future-proof industry.

For Felix Heinrichs, Mayor of the City of Mönchengladbach, it is evident that when thinking of textiles, you cannot overlook Mönchengladbach. Textile production is deeply embedded in the industrial DNA of Mönchengladbach. But it also has the potential to play a key role in the future of the city as a business location. Textilfabrik 7.0 brings industry and academia together for innovation and research. In doing so, it lays the foundation for sustainable and economically viable textile production - and thus for future-proof jobs in Mönchengladbach. Today’s launch of the T7 project marks a major milestone in the city’s structural transformation.

The kick-off event was aimed in particular at companies along the entire textile value chain. In several keynote presentations, participants gained insights into current developments and potential applications of future production models. Brother Internationale Industriemaschinen GmbH and Hch. Kettelhack GmbH & Co. KG demonstrated how on-demand production can be integrated into microfactory concepts, enabling flexible, demand-driven manufacturing processes.

In addition, 3E Smart Solutions presented how intelligent production for smart textiles could look in the future. The industry cluster Cluster Industrial Biotechnology (CLIB) showcased approaches for using biotechnological processes, such as microorganisms, in textile production to improve resource efficiency and close material loops.

At the heart of Textilfabrik 7.0 are four core modules: On-Demand Manufacturing, MicroFactory Engineering, Digital Textiles, and Biosphere. These topics also formed the basis for four workshops in which participants discussed with module leaders what requirements industry has for future production solutions. The goal was to identify concrete needs and incorporate them directly into further project planning.

Through its real-world lab approach, T7 aims to test and optimize new technologies along the entire textile value chain. These include robotics, digital process chains, and biotechnological methods that can help establish a functioning circular economy in practice.

Professor Dr. Susanne Meyer, President of Niederrhein University of Applied Sciences states that the Textilfabrik 7.0 exemplifies what applied research must achieve today: bringing together science, industry, and society to develop concrete solutions to the major challenges of our time. Niederrhein University of Applied Sciences contributes their textile expertise specifically to this future-oriented project, from digital production processes and sustainable materials to circular value creation models. In doing so, there is a contribution not only to the transformation of the textile industry but also to the innovative capacity and future viability of the entire region.

At the same time, the project makes an important contribution to structural change in the Rhenish mining region. Under the guiding principle “From Coal to AI,” new perspectives for industrial value creation and skilled employment are emerging in the region. Textilfabrik 7.0 is one of 19 anchor projects in the Rhenish mining region and is considered by the state to be central to the successful, rapid, and visible implementation of structural transformation.

Textilfabrik 7.0 is a joint project of the Research Institute for Textile and Clothing (FTB) at Niederrhein University of Applied Sciences (HSNR), the Institute for Textile Technology (ITA) at RWTH Aachen University, the Association of the North-West German Textile and Clothing Industry, the Association of the Rhenish Textile and Clothing Industry, the Textile Academy NRW, and WFMG – Mönchengladbach Economic Development Corporation.

In einer zweiten Entwicklungsphase soll über die Textilfabrik 7.0 hinausgehend ein Industriepark der Zukunft entstehen. Hier entwickelt und produziert die Textil- und Bekleidungsindustrie unter Zero-Emission-Bedingungen und mit CO₂-neutralen Prozessen. Der Industriepark soll Raum bieten für innovative Produktionsstätten, Unternehmensniederlassungen der Textilbranche sowie nachhaltige Textil-Start-ups. So entsteht ein moderner Industriestandort, der Forschung, Entwicklung und industrielle Produktion miteinander verbindet.

In a second development phase, a future industrial park is planned to be created beyond Textilfabrik 7.0. Here, the textile and apparel industry will develop and produce under zero-emission conditions and with CO₂-neutral processes. The industrial park will provide space for innovative production facilities, company branches in the textile sector, and sustainable textile start-ups. This will create a modern industrial hub that combines research, development, and industrial production.

The project Textilfabrik 7.0 is funded by the Federal Ministry for Economic Affairs and Energy (BMWE) under the “STARK” funding guideline to strengthen transformation dynamics and promote new beginnings in coal regions and coal-fired power plant locations, by the State of North Rhine-Westphalia through the Ministry of Economic Affairs, Industry, Climate Protection and Energy (MWIKE) in accordance with the framework guideline for implementing the Investment Act for Coal Regions (InvKG) NRW, and by the Federal Ministry for Research, Technology and Space (BMFTR).

At this year's Techtextil in Frankfurt on the Main, the CHT Group will be presenting its comprehensive portfolio of tailor-made specialty chemicals and process solutions for technical textiles. As a reliable partner to the global textile industry, CHT offers innovative products and in-depth technical expertise across all areas of the textile value chain – from pretreatment, dyeing, and printing to finishing, coating, and fiber auxiliaries.

The focus of the trade fair presentation will be on solutions that meet the highest standards of functionality, sustainability, and quality. CHT's specialty chemicals are used in a wide range of industrial applications – from high-performance coating systems and pure, recyclable product solutions to innovative composite materials.

Expertise along the entire value chain
With decades of experience in the development and application of specialty chemicals, CHT supports its customers from the initial idea to successful industrial implementation. The goal is to work together to design the products of tomorrow and enable sustainable textile innovations.

The CHT Group's solutions are used in numerous application segments:

Mobiltech

• Flame-retardant finishes and coatings for interior textiles, carpets, seat covers, and technical composites
• Special adhesives for flocking

Medtech

• Coatings and finishes for mattress protection and surgical textiles
• Special fiber auxiliaries for hygiene and medical products

Protech

• Flame-retardant, chemical-resistant, and weatherproof finishes and coatings
• Solutions for industrial and protective clothing for public authorities

Hometech / Interior

• Coatings and finishes for advertising and event textiles, banner fabrics, trade fair coverings
• Solutions for furniture covers, carpets, and cleaning textiles

Indutech

• High-performance coatings and finishes for filter media, conveyor belts, and technical fabrics

Buildtech

• Coatings for architectural membranes, facades, and functional light protection systems
• Applications for textile-reinforced concrete, insulation materials, and sewer rehabilitation

Sporttech & Outdoor 

• Finishing and coating systems for awnings, tents, and protective Covers

Innovative product ranges for modern textile applications
The portfolio includes both water-based and silicone-based printing and coating systems, in particular from the well-known ALPATEC range, which opens up new functional possibilities for technical textiles – and all this reliably from a single source.

There is a particular focus on sustainable solutions:
Circular economy as a strategic guiding principle
The CHT Group consistently integrates the principles of the circular economy into its research and development. A single-type end product – such as carpets, filters, or technical nets – is much easier to recycle and return to the recycling cycle. With our TUBICOAT PET range, CHT offers a coating line specially developed for single-type polyester materials.

PFC-free hydrophobic agents
The ECOPERL product range offers high-performance, PFC-free DWR solutions, some with a high share of bio-based components, suitable for a wide range of technical applications.
Numerous products naturally comply with leading international standards such as ZDHC, bluesign®, GOTS, Oeko-Tex® Standard 100, Cradle to Cradle® Material Health Certificate, GRS – a clear commitment to quality, transparency, and sustainability.

Textile technology solutions provider SHIMA SEIKI MFG., LTD. of Wakayama, Japan, along with its Italian subsidiary SHIMA SEIKI ITALIA S.p.A., will be participating in the Techtextil 2026 exhibition in Frankfurt, Germany next month. On display will be WHOLEGARMENT® and other advanced threedimensional knitting applications across a wide range of industries besides fashion apparel that are not typically associated with knitting, such as technical textiles using industrial materials and advanced threedimensional knitting. 
 
The SWG®-XR WHOLEGARMENT® knitting machine features 4 needle beds and SHIMA SEIKI's original SlideNeedle™, capable of producing high-quality fine gauge WHOLEGARMENT® products in all needles with higher productivity and wider range of patterning. There is great potential for WHOLEGARMENT® knitting in the field of technical textiles, where most items are produced by woven or circular- and warp-knitted textiles using specialized industrial materials that are in many instances very costly. Textile production usually involves knitting or weaving a square sheet from which 2D shaped patterns are cut and sewn together to make the final product, during which precious material is wasted. In sharp contrast, the WHOLEGARMENT® knitting process can produce a complete item in 3D without the need for sewing or linking, and no material wasted. Through WHOLEGARMENT® knitting technology, SHIMA SEIKI therefore offers a sustainable, economical and smarter alternative to current manufacturing processes for technical textiles. In addition, WHOLEGARMENT® knitting can create partial compression and special shaping, and since it produces one product at a time, on-demand production for customized items such as for patient care in the medical field is possible. Furthermore, WHOLEGARMENT® has no seams, providing excellent fit, comfort and stretch characteristics that support a wide range of medical applications. 
 
SHIMA SEIKI's SES®-R next-generation shaping machine features an all-new spring-type moveable sinker system which expands its product range even further with unprecedented three-dimensional shaping capability. Combined with loop pressers and auto yarn carriers, it enhances performance in both inverse plating and inlay knitting for efficient knitting of diverse patterns that support various industries besides apparel, such as sports, automotive, and industrial materials. SES®-R will be shown at Techtextil in 14 gauge with a 52-inch (132 cm) knitting width to support production of larger items. Also on display will be examples of technical textiles using industrial materials produced with SWG®-XR, SES®-R and other SHIMA SEIKI technology. 
 
In addition to machine technology, presentations will be made on SDS® KnitPaint-Online knit software, the proven software used by knitting companies across the globe to create knitting data for programming SHIMA SEIKI computerized flat knitting machines. Also demonstrated will be APEXFiz® subscription design software that supports the creative side from planning and design to realistic textile simulation and 3D virtual sampling of products. Virtual samples are a digitized version of sample making that are accurate enough to be used effectively as prototypes, replacing physical sampling and consequently reducing time, cost and material that otherwise go to waste. When a design is approved for production, knitting data which is automatically generated can be easily transferred to SDS® KnitPaint-Online for converting into machine data, digitally bridging the gap between design and production. APEXFiz® and SDS® KnitPaint-Online therefore help to realize sustainability while digitally transforming the supply chain.

Outlast Technologies has expanded its fresh2SKIN® cooling technology to cellulose-based fibers such as cotton and viscose, enabling brands to combine natural materials with a re-freshing cooling effect and long-lasting thermal comfort.

The latest development allows fresh2SKIN® to be applied while maintaining an exceptionally natural and soft handfeel. The finish is virtually imperceptible on the textile, preserving the smooth, flexible character that consumers expect from cotton and viscose fabrics.

What consumers experience instead is the benefit: an immediate, pleasantly cool sensation when the fabric touches the skin. Unlike many textile technologies that remain invisible to the con-sumer, fresh2SKIN® provides a cooling experience that can be felt immediately, for example when trying on a T-shirt equipped with the technology.

fresh2SKIN® combines instant freshness with lasting comfort. While the textile delivers an im-mediate cooling sensation upon skin contact, integrated microcapsules containing natural wax help absorb excess body heat and release it again when temperatures drop. This supports a more balanced microclimate and can help reduce sweating during the day or night.

“Achieving this exceptionally natural handfeel on cellulose-based fibers such as cotton or viscose was a key objective for our development team,” says Volker Schuster, Head of Research & De-velopment at Outlast Technologies. “Our goal was to integrate the fresh2SKIN® functionality without compromising the authentic character of these materials. The result are textiles that feel completely natural while delivering an immediately noticeable cooling effect.”

The development opens new opportunities for next-to-skin applications, including T-shirts, un-derwear, activewear, sleepwear, and bedding textiles.

Most materials have an inherent capacity to handle heat. Plastic, for instance, is typically a poor thermal conductor, whereas materials like marble move heat more efficiently. If you were to place one hand on a marble countertop and the other on a plastic cutting board, the marble would conduct more heat away from your hand, creating a colder sensation compared to the plastic.

Typically, a material’s thermal conductivity cannot be changed without re-manufacturing it. But MIT engineers have now found that a relatively common material can switch its thermal conductivity. Simply stretching the material quickly dials up its heat conductance, from a baseline similar to that of plastic to a higher capacity closer to that of marble. When the material springs back to its unstretched form, it returns to its plastic-like properties.

The thermally reversible material is an olefin block copolymer — a soft and flexible polymer that is used in a wide range of commercial products. The team found that when the material is quickly stretched, its ability to conduct heat more than doubles. This transition occurs within just 0.22 seconds, which is the fastest thermal switching that has been observed in any material.

This material could be used to engineer systems that adapt to changing temperatures in real time. For instance, switchable fibers could be woven into apparel that normally retains heat. When stretched, the fabric would instantly conduct heat away from a person’s body to cool them down. Similar fibers can be built into laptops and infrastructure to keep devices and buildings from overheating. The researchers are working on further optimizing the polymer and on engineering new materials with similar properties.

“We need cheap and abundant materials that can quickly adapt to environmental temperature changes,” says Svetlana Boriskina, principal research scientist in MIT’s Department of Mechanical Engineering. “Now that we’ve seen this thermal switching, this changes the direction where we can look for and build new adaptive materials.”

Boriskina and her colleagues have published their results in a study appearing today in the journal Advanced Materials. The study’s co-authors include Duo Xu, Buxuan Li, You Lyu, and Vivian Santamaria-Garcia of MIT, and Yuan Zhu of Southern University of Science and Technology in Shenzhen, China.

Elastic chains
The key to the new phenomenon is that when the material is stretched, its microscopic structures align in ways that suddenly allow heat to travel through easily, increasing the material’s thermal conductivity. In its unstretched state, the same microstructures are tangled and bunched, effectively blocking heat’s path.

As it happens, Boriskina and her colleagues didn’t set out to find a heat-switching material. They were initially looking for more sustainable alternatives to spandex, which is a synthetic fabric made from petroleum-based plastics that is traditionally difficult to recycle. As a potential replacement, the team was investigating fibers made from a different polymer known as polyethylene.

“Once we started working with the material, we realized it had other properties that were more interesting than the fact that it was elastic,” Boriskina says. “What makes polyethylene unique is it has this backbone of carbon atoms arranged along a simple chain. And carbon is a very good conductor of heat.”

The microstructure of most polymer materials, including polyethylene, contains many carbon chains. However, these chains exist in a messy, spaghetti-like tangle known as an amorphous phase. Despite the fact that carbon is a good heat conductor, the disordered arrangement of chains typically impedes heat flow. Polyethylene and most other polymers, therefore, generally have low thermal conductivity.

In previous work, MIT Professor Gang Chen and his collaborators found ways to untangle the mess of carbon chains and push polyethylene to shift from a disordered amorphous state to a more aligned, crystalline phase. This transition effectively straightened the carbon chains, providing clear highways for heat to flow through and increasing the material’s thermal conductivity. In those experiments however, the switch was permanent; once the material’s phase changed, it could not be reversed.

As Boriskina’s team explored polyethylene, they also considered other closely related materials, including olefin block copolymer (OBC). OBC is predominantly an amorphous material, made from highly tangled chains of carbon and hydrogen atoms. Scientists had therefore assumed that OBC would exhibit low thermal conductivity. If its conductance could be increased, it would likely be permanent, similar to polyethylene.

But when the team carried out experiments to test the elasticity of OBC, they found something quite different.

“As we stretched and released the material, we realized that its thermal conductivity was really high when it was stretched and lower when it was relaxed, over thousands of cycles,” says study co-author and MIT graduate student Duo Xu. “This switch was reversible, while the material stayed mostly amorphous. That was unexpected.”

A stretchy mess
The team then took a closer look at OBC, and how it might be changing as it was stretched. The researchers used a combination of X-ray and Raman spectroscopy to observe the material’s microscopic structure as they stretched and relaxed it repeatedly. They observed that, in its unstretched state, the material consists mainly of amorphous tangles of carbon chains, with just a few islands of ordered, crystalline domains scattered here and there. When stretched, the crystalline domains seemed to align and the amorphous tangles straightened out, similar to what Gang Chen observed in polyethylene.

However, rather than transitioning entirely into a crystalline phase, the straightened tangles stayed in their amorphous state. In this way, the team found that the tangles were able to switch back and forth, from straightened to bunched and back again, as the material was stretched and relaxed repeatedly.

“Our material is always in a mostly amorphous state; it never crystallizes under strain,” Xu notes. “So it leaves you this opportunity to go back and forth in thermal conductivity a thousand times. It’s very reversible.”

The team also found that this thermal switching happens extremely fast: The material’s thermal conductivity more than doubled within just 0.22 seconds of being stretched.

“The resulting difference in heat dissipation through this material is comparable to a tactile difference between touching a plastic cutting board versus a marble countertop,” Boriskina says.

She and her colleagues are now taking the results of their experiments and working them into models to see how they can tweak a material’s amorphous structure, to trigger an even bigger change when stretched.

“Our fibers can quickly react to dissipate heat, for electronics, fabrics, and building infrastructure.” Boriskina says. “If we could make further improvements to switch their thermal conductivity from that of plastic to that closer to diamond, it would have a huge industrial and societal impact.”

This research was supported, in part, by the U.S. Department of Energy, the Office of Naval Research Global via Tec de Monterrey, MIT Evergreen Graduate Innovation Fellowship, MathWorks MechE Graduate Fellowship, and the MIT-SUSTech Centers for Mechanical Engineering Research and Education, and carried out, in part, with the use of MIT.nano and ISN facilities.