Exoskeletons Are Stepping Out of the Clinic — and Into Everyday Life

Posted on 19 August, 2026 by Mehrdad Fathi

In 2009, biomechanical engineer Daniel Ferris predicted that by 2024, people would be strolling through malls and city streets wearing robotic exoskeletons. He now admits he was “jumping the gun” — but a recent feature in Nature shows just how close his vision has come to reality.

From replacing function to augmenting it

For years, exoskeletons lived almost exclusively in clinics, helping people recover from stroke or spinal-cord injury. The design philosophy was replacement: function is lost, and the machine restores it. Today, the field is pivoting toward augmentation — supplying only a fraction of the force a movement requires. A powered brace can offload an arthritic knee; robotic shorts can make an older adult’s daily walk less exhausting; and Nike’s Project Amplify prototype, developed with robotics firm Dephy, targets everyday athletes who simply want to go farther with less effort.

The engineering shift: less Iron Man, more e-bike

The newest systems rely on what researchers call task-agnostic control. Instead of replaying preset movement patterns, they estimate the wearer’s joint effort in real time and contribute a proportion of it. AI-driven control frameworks from the Georgia Institute of Technology can track hip motion across walking speeds, inclines, and stairs, while Robert Gregg’s team at the University of Michigan is adapting motorized knee braces that deliver roughly 25–30% of a biological joint’s force — enough to compensate for deficits linked to ageing, osteoarthritis, and repetitive work.

Hardware is catching up too. Slower motors with lower gear ratios reduce friction, and soft, clothing-like designs are replacing bulky frames. The WalkON system from the University of Heidelberg weighs under 3 kilograms and cut the metabolic cost of level walking by 10% in older adults — and by 18% for younger users walking uphill. Compare that with the 23-kilogram clinical units of the previous generation, and the trajectory is clear.

The open questions

Two challenges stand between exoskeletons and the mass market. The first is practical: devices must become cheaper, lighter, and fittable in minutes rather than the 20-minute setup some clinical systems still require. The second is physiological: if a motor supplies 20% of every step, will muscles atrophy? No long-term study has settled the question, though two decades of research have so far failed to find such an effect — and evidence suggests that when movement becomes cheaper, people simply move more.

A market already in motion

Consumer adoption is furthest along in China, where Shanghai-based Hypershell has sold 30,000 hip-mounted units for hiking and travel, and tourist sites — including a hilly stretch of the Great Wall — now rent exoskeletons to visitors. With the global population aged 60 and over projected to reach 2.1 billion by 2050, the demand signal is hard to ignore. In the United States, Medicare’s classification of certain exoskeleton-type devices as braces is beginning to open reimbursement pathways.

Ferris, undeterred by his earlier miss, has a fresh forecast: within five years, an exoskeleton on a New York street will no longer turn heads. This time, the engineering — and the market — may finally be on his side.

Source:

Nature 656, 552–553 (2026). doi: https://doi.org/10.1038/d41586-026-02527-z

References:

1. Ferris, D. P. J. Neuroeng. Rehabil. 6, 17 (2009).

2. Molinaro, D. D., Kang, I. & Young, A. J. Sci. Robot. 9, eadi8852 (2024).

3. Molinaro, D. D. et al. Nature 635, 337–344 (2024).

4. Tricomi, E. et al. Nature Mach. Intell. 6, 1145–1155 (2024).