Human Movement Comes First.
We start with the science of human movement, then engineer the intelligence and power to support it.
We start with the science of human movement, then engineer the intelligence and power to support it.
A DIFFERENT APPROACH TO EXOSKELETONS
Early exoskeletons showed that machines could help carry heavy loads.
But there was a fundamental challenge: supporting weight didn't always make walking easier.
True assistance required something more—technology that could work with the body's natural movement, rather than interfere with it.
From load support to human-centered assistance.
Early leg-exoskeleton research at MIT (2007), by Walsh, Endo & Herr.
HARVARD BIODESIGN LAB · FOUNDATIONAL RESEARCH
At Harvard's Biodesign Lab, researchers explored a different way of designing wearable robotics—one guided by human biomechanics.
Our founder, Dr. Ye Ding, contributed to research on assistance timing, joint biomechanics, and personalized control.
The goal was not simply to add more force, but to understand how assistance could make human movement more efficient and natural.
At Harvard Biodesign Lab, Dr. Ye Ding and colleagues researched human-in-the-loop optimization of personalized assistance with a soft exosuit.
Harvard SEAS / Wyss Institute · 2018
THREE QUESTIONS THAT SHAPED OUR RESEARCH
2016
Assistance Timing
2017
Human Biomechanics
2018
Personalized Control
— Dr. Ye Ding · Harvard Gazette, February 2018
Human movement is constantly changing. SymbioNet brings together motion sensing, intelligent assistance planning, and responsive control to help wearable robotics work naturally with the body.
Technology should adapt to people, not the other way around.
01
Sensors capture movement and device signals.
02
The system identifies movement state and walking rhythm.
03
Assistance is timed to the wearer’s movement.
04
The motors deliver controlled output.
Human Motion →
Coordinated Assistance
Yrobot SuperDrive™ combines motor engineering, drive electronics, and precision transmission in one compact actuation system.
Designed for wearable robotics, it balances power, weight, and responsiveness to deliver controlled assistance.
A high-power-density motor delivers strong output in a compact form.
Motor, electronics, and transmission work together in one compact drive system.
Controlled power delivery responds as movement demands change.
INTELLIGENCE × POWER
A powerful motor is only part of the equation.
The real challenge is turning that power into assistance that responds naturally to human movement.
By bringing intelligent motion control and high-density actuation together, we engineer wearable systems where sensing, decision-making, and power delivery work in coordination.
THE RESEARCH BEHIND THE ENGINEERING
Our work is rooted in peer-reviewed research and shaped by years of engineering development.
From understanding human biomechanics to refining intelligent control and high-density actuation, we believe meaningful progress comes from designing, measuring, and improving—again and again.
2018 · SCIENCE ROBOTICS
Research soft exosuit, optimized hip assistance, eight healthy male participants, comparison against walking without the device.
2019 · SCIENCE ROBOTICS
Soft Exosuit Wearable Robot was selected among ten notable robotics technologies, with emphasis on lightweight design and personalized human-robot interaction.
2016
Ding et al. · Journal of NeuroEngineering and Rehabilitation
2017
Ding et al. · IEEE Transactions on Neural Systems and Rehabilitation Engineering
2018
Ding, Kim, Kuindersma & Walsh · Science Robotics
Human movement will always come first.