Muscle activation
sEMG captures activation intensity, timing, fatigue trends and asymmetry.
SPATCH brings electrical activation, mechanical response and motion context into one synchronized neuromuscular wearable—revealing how neural activation becomes physical movement.

SPATCH Research-stage multimodal wearable
The missing interpretation layer
Today's point solutions measure electrical activation, external force or motion in isolation. SPATCH is designed to capture the neuromuscular chain—from electrical activation to tissue response and movement.
sEMG captures activation intensity, timing, fatigue trends and asymmetry.
Nanomembrane sensing captures pressure, stretch and dynamic muscle deformation.
IMU data identifies movement phase, speed, impact and posture in real time.
Synchronized signals reveal whether activation produces an effective response.
Built for the moments that matter
Objective neuromuscular data for rehabilitation, individual performance and elite training environments.
01RehabilitationTrack activation, mechanical response and movement quality across guided sessions.
02RunningObserve fatigue, muscle-specific loading and left-right asymmetry through real-world runs.
03GolfConnect muscle timing and mechanical response across the phases of the swing.
04TennisStudy activation, rotational loading and fatigue during serves and repeated movement.
05SkiingCapture fatigue, asymmetry and response through dynamic turns in real-world conditions.
06Elite trainingEstablish baselines, monitor training load and surface compensation patterns across teams.
Research foundation
Early research demonstrates a self-powered, flexible mechanical sensing approach that can be synchronized with established sEMG and IMU signals in a compact wearable architecture.
Discuss the technical platform ↗SPATCH is not another activity tracker.
The SPATCH technology platform
SPATCH connects signals that are usually measured apart, creating a synchronized view of muscle recruitment, mechanical output and the movement that follows.
Measures when and how strongly a muscle is recruited.
Shows how muscle tissue responds after activation.
Connects neuromuscular behavior to real-world movement.
SPATCH partnerships
Research collaborations·Clinical pilots·Performance partnerships