A biobased material system for circular, high-performance textiles.
Sense-Tex is not just a textile, it is a patented bio-based material system designed for the next generation of circular, high-performance products. Built from a carefully engineered combination of bio-based and functional fibers, Sense-Tex integrates durability, moisture regulation, antibacterial performance, UV protection, and electrical conductivity directly into the material structure.
Instead of relying on chemical coatings or post-processing treatments, functionality is embedded at the fiber level. This ensures long-lasting performance while also enabling integration of embedded or external sensor systems. The textile becomes more than a passive material, it becomes part of a functional system.
At its core, Sense-Tex is designed for mechanical reversibility. This means the fibers are not locked into permanent mixed waste, but can be separated and recovered. Through the Re:Weave system, this allows true fiber-to-fiber recycling, connecting material design directly to circular infrastructure.
Most textiles today are designed to perform during use, but not to retain value after use. Functionality is typically added through coatings and chemical treatments that degrade over time, increase production complexity, and make materials difficult to recover at the fiber level.
At the same time, the regulatory landscape is changing rapidly. Frameworks such as the Ecodesign for Sustainable Products Regulation, Digital Product Passports, Extended Producer Responsibility, the Waste Framework Directive, and broader initiatives like CSRD, CSDDD, Green Claims regulation, and Product Environmental Footprint are reshaping expectations around how textiles are designed, documented, and recovered.
These frameworks are no longer future considerations. They are becoming baseline requirements. Materials must be traceable, durable, verifiable, and circular by design. Sense-Tex was developed to meet this shift at the material level.
Sense-Tex is built as a biobased system architecture, where multiple fibers are engineered to function together within one integrated yarn. Each fiber contributes a specific role within the system, from skin interaction and comfort to structural strength, antibacterial function, conductivity, and electrostatic behavior.
What makes Sense-Tex different is not a single fiber, but the way the system works as a whole. Performance is embedded into the structure rather than added afterward. This reduces dependency on external treatments while improving stability and durability over time.
Because conductivity is built into the fiber system, Sense-Tex can support embedded sensors or external sensing systems without requiring additional layers or complex assemblies. This allows textiles to monitor temperature, moisture, pressure, or biological signals, transforming them into active system interfaces.
At the same time, the architecture is designed for mechanical reversibility. This allows the material to be taken apart and its fibers recovered, creating the conditions needed for true circularity through Re:Weave.
The technical foundation of Sense-Tex lies in its ability to combine multiple functions within a single biobased material structure. Instead of layering performance onto a finished textile, functionality is physically integrated into the yarn architecture itself. This approach changes how performance behaves over time. It does not wash out, wear off, or degrade in the same way as surface treatments.
The integration of conductive elements allows the textile to carry electrical pathways, making it possible to connect sensors directly to the material without adding separate systems. This reduces complexity while enabling new forms of interaction between textiles, users, and environments.
At the same time, the material is engineered for disassembly. Mechanical reversibility ensures that fibers can be separated rather than permanently fused, preserving material value beyond a single lifecycle. This is a key condition for circular recovery.
The system has been validated through laboratory testing, including antibacterial performance, UV protection, electrostatic behavior according to European standards, and microscopic verification of embedded functional elements through SEM and EDS analysis. Together, these results confirm that the material performs not only conceptually, but technically.
Sense-Tex is designed to integrate into real product development processes, not just research environments. It can be used as a standalone material system for products that require a strong combination of performance, hygiene, durability, and circular readiness.
It can also be introduced into existing textile constructions, allowing brands and manufacturers to gradually integrate functionality and bio-based content without redesigning entire product lines.
As a general guideline, incorporating around ten percent Sense-Tex into a textile can contribute to alignment with emerging EU bio-based and circularity targets. This depends on the final composition, product category, and the verification requirements associated with frameworks such as Digital Product Passports and lifecycle analysis.
Because the system includes embedded conductivity, Sense-Tex also enables the development of smart textiles. Products can be designed where the material itself acts as both structure and interface, reducing the need for additional sensor layers or external components.
The integration process typically involves prototyping and testing to ensure performance aligns with the intended application. TTAB supports this through technical consultancy, helping partners optimize composition, manufacturability, and functionality.
To maintain consistency and credibility, Sense-Tex branding is applied only to validated products developed in collaboration with TTAB. Independent use remains possible, but responsibility for performance and claims rests with the client.
Sense-Tex matters because it addresses multiple challenges simultaneously. It improves material performance while reducing reliance on chemical treatments. It supports longer product lifecycles and more stable functionality. It enables sensor-integrated textile systems without increasing complexity. And it provides a clearer path toward compliance with emerging regulatory frameworks.
More importantly, it changes the role of textiles. Instead of being consumable surfaces, they become recoverable system components. This creates new opportunities for both product design and business models, where value is not lost after use but retained within the material system.
Sense-Tex is therefore not only a better textile. It is a biobased performance, compliance, and system strategy combined into one material platform.
Because Sense-Tex is a system rather than a single-use material, it can be adapted across multiple sectors. In fashion and lifestyle, it supports comfort, durability, and reduced chemical dependency. In workwear and defense, it provides hygiene, electrostatic control, and robust performance. In healthcare, it enables antibacterial functionality and skin compatibility. In space and advanced environments, it offers lightweight, multi-functional, and conductive material systems that reduce overall system complexity.
This adaptability is one of its core strengths. The same underlying architecture can be translated into different performance environments without losing its fundamental properties. And when combined with embedded or external sensors more smart textile products and solutions can easily be made.
Sense-Tex is designed for disassembly, but recovery only becomes possible within the right system. That system is Re:Weave.
Sense-Tex enables circularity at the material level by making fibers recoverable. Re:Weave enables circularity at the system level by making recovery operational. Together, they form a complete loop where materials can be separated, processed, and reintegrated into new products.
Without Sense-Tex, recovery is limited. Without Re:Weave, recovery cannot scale. Together, they make circular textiles possible in practice.
Sense-Tex is built for a new generation of products that need to perform, comply, and evolve within a circular system. It offers a way to combine material innovation, system functionality, and regulatory alignment in one integrated platform. For companies developing textiles across fashion, industry, healthcare, defense, or advanced environments, Sense-Tex provides a foundation that is both technically advanced and commercially relevant. Explore Re:Weave or contact TTAB to begin integration, prototyping, and development.
Transforming Textiles
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To fulfill this, we aim to adhere as strictly as possible to the World Wide Web Consortium’s (W3C) Web Content Accessibility Guidelines 2.1 (WCAG 2.1) at the AA level. These guidelines explain how to make web content accessible to people with a wide array of disabilities. Complying with those guidelines helps us ensure that the website is accessible to all people: blind people, people with motor impairments, visual impairment, cognitive disabilities, and more.
This website utilizes various technologies that are meant to make it as accessible as possible at all times. We utilize an accessibility interface that allows persons with specific disabilities to adjust the website’s UI (user interface) and design it to their personal needs.
Additionally, the website utilizes an AI-based application that runs in the background and optimizes its accessibility level constantly. This application remediates the website’s HTML, adapts Its functionality and behavior for screen-readers used by the blind users, and for keyboard functions used by individuals with motor impairments.
If you’ve found a malfunction or have ideas for improvement, we’ll be happy to hear from you. You can reach out to the website’s operators by using the following email
Our website implements the ARIA attributes (Accessible Rich Internet Applications) technique, alongside various different behavioral changes, to ensure blind users visiting with screen-readers are able to read, comprehend, and enjoy the website’s functions. As soon as a user with a screen-reader enters your site, they immediately receive a prompt to enter the Screen-Reader Profile so they can browse and operate your site effectively. Here’s how our website covers some of the most important screen-reader requirements, alongside console screenshots of code examples:
Screen-reader optimization: we run a background process that learns the website’s components from top to bottom, to ensure ongoing compliance even when updating the website. In this process, we provide screen-readers with meaningful data using the ARIA set of attributes. For example, we provide accurate form labels; descriptions for actionable icons (social media icons, search icons, cart icons, etc.); validation guidance for form inputs; element roles such as buttons, menus, modal dialogues (popups), and others. Additionally, the background process scans all the website’s images and provides an accurate and meaningful image-object-recognition-based description as an ALT (alternate text) tag for images that are not described. It will also extract texts that are embedded within the image, using an OCR (optical character recognition) technology. To turn on screen-reader adjustments at any time, users need only to press the Alt+1 keyboard combination. Screen-reader users also get automatic announcements to turn the Screen-reader mode on as soon as they enter the website.
These adjustments are compatible with all popular screen readers, including JAWS and NVDA.
Keyboard navigation optimization: The background process also adjusts the website’s HTML, and adds various behaviors using JavaScript code to make the website operable by the keyboard. This includes the ability to navigate the website using the Tab and Shift+Tab keys, operate dropdowns with the arrow keys, close them with Esc, trigger buttons and links using the Enter key, navigate between radio and checkbox elements using the arrow keys, and fill them in with the Spacebar or Enter key.Additionally, keyboard users will find quick-navigation and content-skip menus, available at any time by clicking Alt+1, or as the first elements of the site while navigating with the keyboard. The background process also handles triggered popups by moving the keyboard focus towards them as soon as they appear, and not allow the focus drift outside it.
Users can also use shortcuts such as “M” (menus), “H” (headings), “F” (forms), “B” (buttons), and “G” (graphics) to jump to specific elements.
We aim to support the widest array of browsers and assistive technologies as possible, so our users can choose the best fitting tools for them, with as few limitations as possible. Therefore, we have worked very hard to be able to support all major systems that comprise over 95% of the user market share including Google Chrome, Mozilla Firefox, Apple Safari, Opera and Microsoft Edge, JAWS and NVDA (screen readers).
Despite our very best efforts to allow anybody to adjust the website to their needs. There may still be pages or sections that are not fully accessible, are in the process of becoming accessible, or are lacking an adequate technological solution to make them accessible. Still, we are continually improving our accessibility, adding, updating and improving its options and features, and developing and adopting new technologies. All this is meant to reach the optimal level of accessibility, following technological advancements. For any assistance, please reach out to