Monitoring, sensing and heating technology integrated in fabrics
What are smart textiles?
Smart textiles use screen‑printed conductive, resistive and dielectric inks on fabric to create flexible circuits and sensing areas. The result is a textile panel that can route signals and power to modules, detect contact or pressure, and integrate with snaps or stitching points, all while keeping the garment soft and breathable.
Why use printed electronics in smart textiles?
Printed electronics open possibilities that older wired approaches struggle to match. Their flexibility, stretch and low weight help garments feel like a second skin. Designs can be engineered for wash cycles, creasing and sweat exposure, and the process supports cost-efficient scale. As connected products spread across sport, workwear and care, printed electronics enable comfortable, garment-integrated functions without bulky wiring.
Practical benefits
Compared to competing technologies used for smart textiles, printed electronics technology has many advantages.
- Straightforward integration: sensors and conductors are printed on TPU and hot-press laminated to the fabric. Both steps are established, repeatable processes.
- Scalable and cost-efficient: printing and converting steps map well to volume manufacturing.
- Comfortable and durable: thin, soft layers can be designed for wash, crease and abrasion performance.
- Clean module interfacing: small PCBs can sit at a seam or off-body location, with snap pads, sew tabs or short flex tails to connect.
What we build
Rapid advances in flexible screen-printed electronics make it practical to integrate functionality directly into textiles. Quad develops manufacturable textile-electronics solutions, combining printed conductors, heating elements and reliable interconnects into scalable textile platforms.
Materials and process
- Textiles: knits and technical fabrics chosen for stretch, breathability and feel; liners where needed near skin.
- Inks & layers: silver/carbon conductors; resistive and dielectric layers; protective topcoats where needed.
- Connectivity: snaps, pogo‑pins, FPC/flex tails or crimp; strain relief designed into the textile.
- Process: screen-printing with silver and resistive inks on stretch TPU, drying/thermal cure, local encapsulation where needed, laser cutting, hot-press lamination to the garment panel, and die-cutting/patterning for sewing lines.
Integration and assembly
We align the fabric, print and module interface with your garment pattern and sewing sequence. That includes snap locations, stitch‑friendly pads, seam allowances, and packaging formats for the sewing line.
For mixed stacks (fabric + film parts) we define bonding and keep‑outs so stretch and drape are preserved. Where electronics must be removed for cleaning, we specify detachable snaps or short flex connectors to simplify laundering.
Validation and reliability
We plan wash and cleaning protocols, flex/crease cycling and connector-durability checks. For heater panels we characterise thermal uniformity and then verify performance after wash and crease cycles. Documentation covers materials, care labels and traceability for production.
Looking for thermal solutions? Explore our film heaters.
Standards & Quality
We operate under ISO 9001, ISO 13485 and ISO 14001 with full lot traceability. For regulated programmes we align technical documentation to your device and market without implying regulatory approval. Manufacturing: European base, with production lines in Slovakia and India to support cost‑efficient volume and resilient lead times.
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