In Vietnam, a research team at SHTP Labs has developed an innovative robot skeleton that can assist in physical therapy for individuals recovering from strokes and leg injuries. Over the course of three years, five scientists from the precision mechanical and automation laboratory collaborated with various universities to create the exoskeleton.
The main purpose of the robot skeleton is to help individuals stand up, sit down, and maintain balance while moving on the ground. It is particularly beneficial for people with leg injuries, stroke patients, and those undergoing rehabilitation exercises. The product can also provide assistance with carrying heavy objects and support soldiers during long marches.
Unlike existing products in the market that primarily focus on training specific leg joints without offering a comprehensive solution for the entire leg, this robot skeleton provides a more holistic approach to rehabilitation. Patients can experience walking on their feet and engage leg muscles more effectively through its use.
Made primarily of aluminum material, the robot skeleton weighs approximately 20 kg and features electric motors at the joints to adjust speed and intensity of exercises. It is equipped with a sit-up support system using an armrest frame with electric cylinders, ensuring balance and safety during use. The system is powered by two lithium batteries and includes emergency stop functionality for user safety.
The research team plans to collaborate with a rehabilitation hospital to test the system on patients for evaluation and optimization. They aim to integrate sensors for measuring exercise force and apply artificial intelligence for analyzing patient data to improve exercise effectiveness. This interdisciplinary research direction requires the involvement of various experts to bring the product to life.
While this technology has been mainly focused on scientific topics in Vietnam, its ultimate goal is commercialization to make it accessible to those in need of rehabilitation. By testing the system on patients, gathering feedback, and optimizing its design and cost, the team hopes to perfect it for widespread use.
Collaboration with healthcare professionals will be crucial in tailoring exercise regimes to individual patient needs as they navigate their recovery journey towards full mobility once again.
