care & love
Modern hospitals and rehabilitation centers often run a lower limb exoskeleton robot that is shared between the rehabilitation department, neurology, neurosurgery, and the intensive care unit. Moving the device between departments is routine work — but it is also where small mistakes can shorten its service life or create avoidable safety risks. Knowing the correct transport and storage requirements keeps the equipment predictable, safe, and reliably ready for every patient session.
This guide covers what you need to prepare before a move, how to carry the exoskeleton safely between wards, how to store it when idle, and how to verify it after each relocation.
Every transfer starts before the device is actually moved. Begin by switching the exoskeleton off and disconnecting the battery. This prevents the joystick, motor drivers and sensors from drawing power while the frame is being handled, and it protects the electronics if the unit is jostled.
Secure every detachable component. Loosen the calf, thigh and foot straps, then re-secure loose cables so nothing trails or snags during the move. A quick wipe of the frame with a soft, dry cloth removes dust and moisture that could otherwise rub against the shell and clog the joints while it is folded.
The compact, foldable design of most clinical exoskeletons makes transport far easier than older fixed-frame machines. Fold the exoskeleton fully so the joints collapse into a neutral position, then place it in the manufacturer-supplied carrying case or on a dedicated transport cart. Folding removes stress from the hinges and keeps the frame stable while it rolls down a corridor or rides an elevator.
When lifting by hand, support the main frame near the back and thigh sections rather than lifting by the knee joint or ankle cuffs. Over a longer distance, or when moving between floors, use two people so the weight is distributed and the device never tilts against a door frame. Avoid dragging the exoskeleton across the floor, even for a few meters, because repeated scraping puts unnecessary strain on the foot components and lower joints.
Storage is just as important as transport. Keep the exoskeleton in a dry, well-ventilated, dust-free space at normal room temperature, away from direct sunlight, radiators and corrosive chemicals. Position it upright or hanging so no static pressure rests on the joints or frame, and confirm it is completely clean and dry before putting it away — residual moisture is the most common cause of corrosion and sensor drift.
For longer idle periods, take the battery to a partial charge rather than leaving it fully drained or fully charged, and keep it disconnected. Loosen the straps and place the leg and knee joints in a relaxed, neutral position so elastic materials are not permanently stretched. These small habits prevent alignment problems that would otherwise show up at the start of the next shift.
Because a shared unit moves between neurology and intensive care, infection control is part of the routine. Wipe the contact surfaces with a soft cloth and a mild disinfectant after each patient and before the device crosses departments, following your facility's policy. Avoid harsh solvents or abrasive pads, which can damage the finish and interfere with the motion sensors.
Between departments, run a short check rather than skipping straight to the next patient. Confirm the joints hinge freely, the top screws are tight, the straps latch correctly, and the sensors respond when the unit is briefly powered on. A five-minute inspection catches minor issues early and keeps robotic gait training sessions safe and consistent across every department that relies on the machine.
Transport and storage rules also shape which exoskeleton fits a facility. Mona Care's clinical range — the Bear Adult for adult stroke rehabilitation, the Rabbit Kid for pediatric motor rehabilitation, and the Gait Assist for personalized gait training — is designed for use in rehabilitation departments, neurology, neurosurgery and ICUs, and carries IEC 60601 certification for safety and reliability. All three share a compact structure that is practical to fold, move and store between wards while keeping certified performance intact.
Paying attention to how an exoskeleton is prepared, carried, stored and checked between departments is the difference between years of dependable service and premature repairs. Build these steps into the daily shift routine, and the machine stays ready for every patient who needs it.