Remote-Controlled, Muscle-Driven, Battery-Free Robots
A team studied remote-controlled biohybrid robots using mouse-cell-based optogenetic muscle actuators and wireless optoelectronics. The aim was to bring together optoelectronics, biological muscle tissue actuators, and 3D-printed hydrogel scaffolds.
More From SAE Media Group
Robotics & Automation INSIDER
Living, Swimming, Self-Training Robots
Tech Briefs
Swimming Living Robots Can Self-Train
Medical Design Briefs INSIDER
Smaller, Smarter, Softer Robotic Arm for Endoscopic Surgery
More
Medical Design Briefs INSIDER
Better, Cheaper Bio-Ink Could Be Used to Create Artificial Organs
Medical Manufacturing and Machining INSIDER
3D Systems Makes Breakthrough in Bioprinting Technology
Medical Design Briefs INSIDER
3D-Printed Heart-on-a-Chip Paves Way for Customizable Devices
Tech Briefs
How Well Do You Know Medical Robots?
Medical Design Briefs
Handheld 3D Printers Treat Musculoskeletal Injuries
Tech Briefs
Videos of the Month
Medical Design Briefs
Bioink Enhances 3D Bioprinted Skeletal Muscle Constructs
Medical Design Briefs
Researchers Bioengineer 3D Implants for Tissue
Medical Design Briefs INSIDER
Smart Gel Could Lead to Development of Living Structures in Organs
Medical Design Briefs INSIDER
Remote-Controlled Device Controls Fluid in Human Tissue
Tech Briefs
Soft, Air-Powered Robots Mimic Human Muscles
Medical Design Briefs
SHOW PREVIEW: BIOMEDevice Boston
Medical Design Briefs
Plug Prevents Total Knee Replacement
Medical Robotics INSIDER
Flexible Endoscopic Robot Offers Precision Control
Medical Design Briefs
Robotic Finger Moves Like Natural One
Tech Briefs
3D Printer Creates Complex Biological Tissues
Medical Design Briefs
4D Bioengineering Materials Bend, Curve Like Natural Tissue
Tech Briefs
First You Gotta Have (a 3D-Printed) Heart
Medical Design Briefs
Medical Podcasts
Robotics & Automation INSIDER
Robot Performs Soft Tissue Surgery with Minimal Human Help