Humans are still doing backbreaking hard work on a daily basis, everywhere: over 40% (!) of all employees in Europe suffer from work-related musculoskeletal disorders, such as back, neck, or shoulder pain. The impact is big, both for employees as the employers: lost productivity, reduced employee happiness and attractiveness…but also high absenteeism.
We need a way to combine the flexibility and dexterity of humans, with the endurance and durability of robots. The best solution? Merging both through wearable robots or exoskeletons: mobile devices that can be worn on the body and physically support or augment its wearer.
They can be a powered wearable robot or a simpler passive suit.
BruBotic's research on these occupational exoskeletons covers 3 distinct aspects.
Our movement scientists and sociologists performed and are performing several studies to objectively measure the impact and acceptance of occupational exoskeletons. They are doing this both on commercially available devices as on our own BruBotics prototypes.
Upon request, our interdisciplinary team can conduct these studies on-site at your company as to give a more objective advice on whether the current occupational exoskeletons can be of value for a particular workplace or company. This sort of study has been performed already for DEME, Daikin and Carglass.
See for instance this blogpost, in Dutch: https://www.wtnschp.be/wetenschap/technologie/exoskeletons-kunnen-jouw-werk-verlichten/
BruBotics is also in the process of creating a new lab, Flanders Make AugmentX, to perform even more precise measurements on the biomechanical impact of the exoskeletons.
As part of the Horizon2020 Spexor and FWO SBO Exo4Work projects, BruBotics has developed a series of novel next-generation exoskeletons. These include a passive, smart and active back exoskeleton and passive and active shoulder exoskeletons.
The EU H2020 Spexor project: Preventing low-back pain with a novel and effective spinal exoskeleton
INTERREG EXSKALLERATE: Boosting SME adoption of exoskeletons in construction and manufacturing industries
The AidWear project aims to develop the artificial intelligence frameworks that are necessary to enable Robotic Assistive Devices (active prosthetics and lower-limb exoskeletons) that give Parkinson’s patients and individuals with an amputation a better quality of life. Building on the results of the AI4exo project and taking advantage of existing hardware, AidWear will advance three areas of interest: intention detection, mid-level optimization, and dynamic simulation.
The project will generate international exposure for Belgian AI and robotics through participation in the 2024 CYBATHLON competition. Furthermore, there are concrete paths to provide a return to society, such as technology transfer to existing Belgian start-ups, reduced healthcare costs for two large patient groups, and dissemination activities to showcase the potential of AI and robotics in healthcare.
This project is made possible by the Federal Public Service for Policy and Support.