Exoskeletons, therapy robots and technology helping patients recover and move independently.
35 article(s) from the past 14 days
A robotic exoskeleton developed by Northwestern University could transform the way stroke survivors relearn to walk. The device supports the patient's movements and adapts to progressively restore walking function. Researchers hope this technology will significantly improve rehabilitation outcomes for stroke patients.
Hyundai Motor Group has donated a wearable rehabilitation robot to the National Fire Hospital in South Korea. The donation is intended to support firefighters and other public service heroes in their recovery from injuries. The wearable robot assists patients in the rehabilitation process by supporting their movements.
An article published on Cureus discusses the latest advancements in AI-driven rehabilitation robotics and their impact on patient recovery. The study examines how artificial intelligence enhances the effectiveness of rehabilitation robots by enabling personalized therapies and real-time adjustments. These technologies offer promising possibilities for patients recovering from conditions such as stroke or other neurological disorders.
New York Methodist Hospital, part of NewYork-Presbyterian, offers robot-assisted rehabilitation to patients. This technology is used to support and enhance the recovery process. Robotic systems help patients regain mobility and function after illness or injury.
A new study published on Nature.com analyzes the costs of rehabilitation robotics compared to usual care therapy across diverse healthcare models. The research provides insight into the financial aspects of deploying robotics in rehabilitation settings, which is relevant for healthcare decision-making. The findings may contribute to a better understanding of the cost-effectiveness of rehabilitation robots.
This study, published in Nature, investigates the effects of robot-assisted mirror therapy on motor function and cortical activation in patients with right hemisphere brain damage. The research examines how the combination of robotics and mirror therapy can promote the rehabilitation of motor skills in this patient group. The findings provide insights into both the functional and neurological recovery processes that occur during this form of robot-assisted therapy.
This study compares two types of rehabilitation robots — end-effector and exoskeleton — in chronic stroke patients with moderate-to-severe upper limb impairments. The research evaluates the effectiveness of both robot types on upper extremity motor function. The findings provide insight into which type of rehabilitation robot is most suitable for this specific patient population.
This article presents interim results of a study examining the use of an exoskeletal wearable robot in patients during the subacute phase following a stroke. The research focuses on the effectiveness of this robotic system in supporting gait recovery. The findings provide insights into the potential benefits of exoskeletons as a rehabilitation tool after stroke.
HIWIN has developed a robot specifically designed to aid in the rehabilitation of stroke patients. The robot is intended to support patients in recovering motor functions following a stroke. This initiative aligns with the growing application of robotics in medical rehabilitation care.
Students from Brussels have developed a rehabilitation robot aimed at improving physiotherapy treatments. The robot is designed to support patients during their recovery process and assist physiotherapists in their work. This project highlights the growing role of robotics in rehabilitation care.
The ICone project has developed a rehabilitation robot that can be used not only in hospitals but also outside clinical settings. The robot supports patients in their recovery process and offers possibilities for rehabilitation at home or in other care environments. This increases the accessibility of robot-assisted rehabilitation therapy for a broader group of patients.
A new rehabilitation robot claims to be the world's first to offer three-dimensional physical rehabilitation of the upper limbs. The robot is designed to assist patients in recovering arm and shoulder functions by supporting movements in three dimensions. This innovative device represents a step forward in robot-assisted rehabilitation care.
Exoskeletons are transitioning from science fiction into practical medical rehabilitation and therapy applications. These wearable robotic devices assist patients in regaining mobility after conditions such as stroke or spinal cord injury. The article discusses how exoskeletons are increasingly being integrated into clinical rehabilitation programs.
This article, published in the New England Journal of Medicine, examines the effectiveness of robot-assisted therapy for patients with long-term upper-limb impairment following a stroke. The study investigates whether rehabilitation robotics offers added value compared to conventional therapy in upper-limb recovery. The findings are relevant to the broader application of robotics in rehabilitation care.
This 2011 article provides a literature review of robotic systems designed for lower-limb rehabilitation, covering legs and feet. It discusses the state of the technology, existing systems, and the challenges faced by researchers and developers in this field. Published in the Journal of Robotics, it serves as a scientific reference for robot-assisted rehabilitation.
A robotic tool is being used to assist patients in their recovery and rehabilitation process. The device helps patients with lifting and movement, contributing to a faster and more effective recovery. This type of rehabilitation robot is gaining increasing traction in healthcare settings.
Russian researchers have developed an adaptive algorithm that reduces jerky movements in rehabilitation robots, better protecting patients' joints during therapy. The algorithm adjusts the robot's movements in real-time to minimize sudden, unwanted forces. This development could significantly improve the safety and effectiveness of robot-assisted rehabilitation.
Medisby has secured backing from the city of Seoul and the Seoul Business Agency (SBA) to commercialize its Roboarm rehabilitation robot. The Roboarm is designed to assist patients during physical rehabilitation. This support aims to advance the development and market introduction of the rehabilitation technology.
MEDISBY CEO Joonryul Lim has launched an AI-powered rehabilitation robot aimed at standardizing rehabilitation care across South Korea. The robot is designed to provide consistent and standardized rehabilitation treatments to patients throughout the country. This initiative focuses on improving the quality and accessibility of rehabilitation care through robotics.
This article discusses rehabilitation robots designed to aid patients in recovering from shoulder and hand injuries. These robots support physiotherapeutic treatment by facilitating controlled movement exercises. It is part of a preview series on medical robots and their applications in healthcare.
Seoul Children's Hospital is providing customized treatment for children with gait disorders using state-of-the-art rehabilitation robots. These advanced robots are specifically deployed to improve the walking patterns of children through targeted rehabilitation therapy. The hospital aims to enhance the quality of life for young patients with motor impairments.
A robotic exoskeleton is being used to help patients relearn how to walk. This high-tech technology supports the rehabilitation process by guiding patients through their movements. The use of such robots in healthcare offers new possibilities for the recovery of motor functions.
This 2011 article provides a literature review of robotic systems for lower-limb rehabilitation, including exoskeletons and gait training robots. It discusses the state of the art at the time and identifies challenges for further development of rehabilitation robots. The article focuses specifically on the application of robotics in restoring walking function in patients with neurological conditions.
Researchers at MIT have developed a robot that shows promising results in the rehabilitation of stroke patients. The robot supports and guides patients' movements during exercises, aiming to promote the recovery of motor functions. This system could offer an effective complement to traditional rehabilitation therapies.
The MIT-Manus robot is used to support the physical therapy of stroke victims. Developed by MIT, this robotic system helps patients recover motor functions by facilitating targeted and repetitive movement exercises. It represents a notable application of robotics in rehabilitation care.
Korean company Medisby has received backing from the city of Seoul and the Seoul Business Agency (SBA) to commercialize their rehabilitation robot called 'Roboarm'. The Roboarm is a robotic arm designed to assist patients during their rehabilitation process. With this financial and institutional support, Medisby aims to further develop and bring the robot to market.
A rehabilitation robot is being developed to help stroke patients relearn how to walk. The system supports walking movements and adapts based on the patient's progress. This type of technology has the potential to accelerate recovery and improve patient independence.
Researchers at the University of Alberta have received funding to develop SCI-Robot, a rehabilitation robot aimed at patients with spinal cord injuries. The project seeks to improve rehabilitation training for these patients through the use of robotics. The researchers hope that the robot will contribute to better recovery outcomes for people with spinal cord injuries.
A new rehabilitation robot has been introduced as the world's first 3D upper limb physical rehabilitation robot. The device is designed to assist patients in recovering arm and shoulder functions through three-dimensional movements. This innovation marks a significant step forward in robot-assisted physiotherapy.
A first-of-its-kind exoskeleton therapy integrates robotic precision with therapist expertise to help stroke survivors relearn how to walk. This novel approach could redefine rehabilitation standards for stroke patients. The research focuses on optimizing human-robot collaboration during gait therapy.
The Atalante X, Wandercraft's self-balancing rehabilitation exoskeleton, has received regulatory clearance from Ecuador's ARCSA authority. This milestone marks a significant step in the company's expansion into Latin America. The exoskeleton is designed to assist patients with mobility impairments in their rehabilitation process.
Robots are playing an increasingly important role in rehabilitation care, assisting patients in recovering motor functions and mobility. Rehabilitation robots provide intensive and repetitive therapy that complements or supports traditional physiotherapy. The International Federation of Robotics highlights how this technology improves the quality and effectiveness of rehabilitation treatments.
The article from the International Federation of Robotics discusses the implementation of intelligent robotics in geriatric rehabilitation. Smart robots are being deployed to support elderly patients in recovery processes and physiotherapy. These technologies offer opportunities to improve the independence and mobility of older adults.
ARTICARES, a spin-off from Nanyang Technological University (NTU) in Singapore, has launched a portable arm rehabilitation device. The device is designed to assist patients in recovering arm movement following conditions such as stroke or injury. The wearable robot enables rehabilitation outside clinical settings, allowing patients to practice at home.
Researchers at MIT have developed a robot designed to assist in the rehabilitation of stroke victims. The robot supports therapeutic exercises and can enhance patient recovery by providing targeted physical guidance. This initiative demonstrates how robotics can serve as a valuable complement to traditional rehabilitation therapy.