
Cardiac sensing from knitted dry electrodes — no gel, no adhesive.

Today, people connect to digital and health systems in fragments — a screen, a separate device, an occasional measurement. Textile Computing™ makes that connection continuous, by building sensing and response into what someone already wears.
Myant calls this the Internet of Human™: a persistent, physical interface between a person and the systems around them — with every implementation defining its own purpose, permissions, security, and the person’s control.

Six textile capabilities, each proven on the body. Maturity and evidence vary by capability — every one has its own page.

Cardiac sensing from knitted dry electrodes — no gel, no adhesive.

Muscle activation, read straight from apparel.

Brain-signal sensing in soft, wearable textile.

Targeted stimulation through dry textile electrodes — NMES and TENS.

Load, posture, and contact mapped across a whole surface.

Zoned heating, knitted into the garment.
The computing lives in the material — no wires, no separate hardware.

SKIIN™ is the flagship of Textile Computing™ — clinical-grade connected garments that move continuous health monitoring off the clinic and onto the body, worn through everyday life. Built by Myant across human and animal health and spanning many product forms and biosignals, it’s the clearest proof of what the technology becomes.
A Textile Computing™ product combines several technical layers. Which ones, and how they come together, depends on the product — its function, form factor, user, and the systems it integrates with.
The physical structure designed around contact, fit, stretch, placement, comfort, and function.
Supported functional zones for measurement, stimulation, thermal response, haptics, or other product-specific behaviours.
Conductive pathways connecting distributed functions with the relevant electronics.
Signal acquisition, conditioning, control, stimulation, power, and communications hardware.
Embedded control, device communication, timing, and connected-system integration.
Product-specific processing, visualization, analytics, interfaces, and workflow logic.
The final workflow, user experience, application, software environment, or enterprise system.
The physical structure designed around contact, fit, stretch, placement, comfort, and function.
Supported functional zones for measurement, stimulation, thermal response, haptics, or other product-specific behaviours.
Conductive pathways connecting distributed functions with the relevant electronics.
Signal acquisition, conditioning, control, stimulation, power, and communications hardware.
Embedded control, device communication, timing, and connected-system integration.
Product-specific processing, visualization, analytics, interfaces, and workflow logic.
The final workflow, user experience, application, software environment, or enterprise system.
Textile Computing™ works alongside Advanced Materials — the two often form one connected system, though each also runs on its own program.

Sensing, actuation, conductive pathways, electronics, connectivity, and product architecture, integrated into textiles and soft surfaces — garments, bands, insoles, seating, interior surfaces, and therapeutic systems.

Conductive systems, engineered particles, and functional yarns and coatings — plus responsive materials in development. Each has its own composition, maturity, and pathway, detailed in the Materials hub.
Bring sensing, actuation, interconnects, electronics, validation, and manufacturing preparation into one coordinated Textile Computing™ program.
Build a connected productCreate a new formulation, modify an existing material, or adapt an existing material foundation to a specific technical objective.
Advanced Materials R&DCharacterize a material, compare candidates, investigate variability, or develop the method required for a technical decision.
Analytical TestingEngineer the process, conduct pilot work, establish repeatability, and prepare for manufacturing or transfer.
Scale-Up & ManufacturingBring sensing, actuation, interconnects, electronics, validation, and manufacturing preparation into one coordinated Textile Computing™ program.
Create a new formulation, modify an existing material, or adapt an existing material foundation to a specific technical objective.
Characterize a material, compare candidates, investigate variability, or develop the method required for a technical decision.
Engineer the process, conduct pilot work, establish repeatability, and prepare for manufacturing or transfer.
Bring us a connected product to build, a material to develop, or a process ready to scale — and we'll map the path from concept to production.