Wearable robotics is gradually moving from the realm of futuristic concepts into practical tools that enhance human capabilities in specific use cases.One of these areas is optimizing load during movement, training, and prolonged physical activity, where endurance, heart rate control, and energy efficiency are crucial.
As part of a practical test in Ukraine, the Hypershell exoskeleton was tested under challenging weather and physical conditions: in temperatures around -10°C, at speeds faster than 3:00/km, and in scenarios simulating running and trail running loads. The goal of the test was not only to assess comfort but also to evaluate how the technology affects pace, load intensity, and overall movement biomechanics.
In this case, we see an experienced runner who covers about 50–70 km each week and has a deep understanding of how his body responds to different levels of physical effort. This background helped us gain insights not only into subjective impressions but also into the practical differences between the runner's usual experience and movement with the exoskeleton.
During the test, Hypershell operated at about 45% of its maximum amplification potential. Even at this level, the system demonstrated a noticeable impact on effort management: with a pace faster than 3:00/km, the runner's heart rate was around 130 bpm — a figure that typically corresponds to a much slower pace of around 6:00/km without the exoskeleton. This indicates a significant shift in the relationship between speed and the body’s physiological response.
Energy consumption was also assessed. Over 2 km in Hyper mode, the exoskeleton lost only 16% of its charge, demonstrating sufficient system efficiency even under intense load and low temperatures.
The user experience also revealed one of the key effects of Hypershell: it changes the usual perception of movement. As the test participant shared, his main impression wasn’t physical discomfort, which he had expected at the start, but rather the unusually low physical effort required at a higher speed:
"At first, I was concerned about discomfort from squatting, stretching, or side movements — I thought there might be chafing. But the only issue was with perception: my internal ‘speedometer’ didn’t give a clear picture of what was happening with my body. I usually run 59–70 km per week and know exactly how I feel under that load. But here, the effort was lower, and the speed was higher," shared case participant Ivan Hryhorovych.
The testing also included the training mode, where the exoskeleton creates controlled resistance and effectively functions as an additional trainer. This opens up another practical use case for the technology — not just for reducing load, but for building a training process with adjustable resistance.
The testing results show that exoskeletons can be useful not only for compensating physical load but also as a tool for more precise control over movement intensity, endurance, and training mechanics. Even at a moderate level of amplification, the technology provides a noticeable functional effect, making it promising for sports, physical conditioning, active recovery, and other fields where speed, endurance, and controlled load are essential.
The full video case can be viewed here:
https://www.youtube.com/watch?v=LxYbVxDPxtU
By integrating advanced technologies in Ukraine, DroneUA is unlocking new opportunities for the development of the wearable robotics market and expanding the practical understanding of how exoskeletons can be applied in sports and physical training. In this context, Hypershell is not a concept for the future, but a real tool for improving movement efficiency today
