📍 Ithaca, United States
agricultural roboticssmart farmingAI systems
The Ag Robotics Lab at Cornell University develops novel smart farming solutions enabled by AI and robotic technologies. The lab collaborates extensively with research institutions, industry partners, government agencies, and farmers worldwide to develop practically applicable and economically viable solutions.
Smart farming automationAI-enabled precision agriculture systems
📍 Tsukuba, Japan
agricultural roboticssmart agriculturesystem integration
The Research Center for Agricultural Robotics (RCAR) at the National Agriculture and Food Research Organization (NARO) aims to contribute to Society 5.0 in agriculture and food industry by applying state-of-the-art robotics and system integration technologies. The center develops data-driven smart agricultural systems based on crop growth and environmental information.
Smart agricultural systemsCrop monitoring roboticsPrecision farming automation
📍 Orlando, United States
surgicalmedicalmanipulation
The Medical Robotics Laboratory at UCF brings together faculty and local hospital partners to research surgical robotics, teleoperation, and virtual reality technologies. The lab conducts multidisciplinary research in medical robotic surgery, surgical simulation, and virtual mentoring.
Tele-surgery systemsSurgical simulation and rehearsalVirtual mentoring platforms
📍 Worcester, United States
surgicalmedicalmanipulation
The AIM Robotics Laboratory at WPI focuses on medical robotics and computer-integrated surgery to provide real-time feedback guidance during surgical procedures. Research emphasizes closed-loop medicine using robot-assisted systems for improved surgical outcomes.
MRI-compatible surgical robotsClosed-loop surgical guidance systemsInterventional medical devices
📍 Washington, United States
surgicalmedicalrehabilitation
The Medical Robotics laboratory at Children's National develops novel biomedical devices and mobile applications to improve pediatric healthcare. Research areas include MRI-compatible robotics, rehabilitation robotics, and clinical device prototyping.
MRI-compatible roboticsPediatric rehabilitation systemsClinical biomedical devices
📍 Atlanta, United States
surgicalmedicalmanipulation
RoboMed Lab at Georgia Tech's Coulter Department of Biomedical Engineering conducts research on medical robotics across micro to macro scales. Focus areas include image-guided surgical robotics, haptic interfaces, soft-tissue modeling, and cell manipulation.
Image-guided surgical systemsHaptic interfaces for surgeryReality-based soft-tissue modeling
📍 Baltimore, United States
surgicalmedicalrehabilitation
The HAMR Laboratory at Johns Hopkins studies human perception of touch and its applications in medical robotics and human-robot interaction. Research focuses on minimally invasive surgical robots, prosthetic devices, and rehabilitation systems.
Minimally invasive surgical robotsUpper-limb prostheticsRehabilitation robotics systems
📍 West Orange, United States
exoskeletonmedical roboticswearable robotics
The Rehabilitation Robotics and Research Laboratory at Kessler Foundation investigates the effectiveness of novel wearable orthotics, robotics, and electromagnetic stimulation for individuals with mobility impairments. The lab uses engineering principles to improve quality of life and enhance independence for people with disabilities through innovative robotic solutions.
Wearable orthotic devicesRehabilitation robotics systems
📍 Salt Lake City, United States
wearable roboticsexoskeletonmechanism design
The Utah Wearable Robotics Laboratory at the University of Utah specializes in wearable robotic solutions through mechanism design and computational methods. The lab develops innovative exoskeletons for rehabilitation and assistive applications, focusing on understanding the sensorimotor system through experimental wearable robotic platforms.
Utah powered neck exoskeletonCable-driven neck exoskeleton for head-neck rehabilitationCable-driven exosuit
📍 Cambridge, United States
soft roboticsexoskeletonwearable robotics
The Harvard Biodesign Lab's Soft Exosuits group develops next-generation soft wearable robots using innovative textiles to provide conformal, unobtrusive interfaces with the human body. These systems augment capabilities of healthy individuals and assist those with muscle weakness or neurological disorders, offering advantages over rigid exoskeletons by leaving joints unconstrained.
Soft exosuitsTextile-based wearable robots
📍 Cincinnati, United States
manipulationrobot kinematics and dynamicsvision and navigation
The Center for Robotics Research at the University of Cincinnati focuses on robot design, kinematics, dynamics, vision, navigation, and control structures. Research objectives include new robot designs and advanced control methodologies.
📍 Boston, United States
collaborative roboticsHRIhumanitarian robotics
The Institute for Experiential Robotics at Northeastern University focuses on developing collaborative, adaptive, ethical, and humanitarian robots to solve problems of global social relevance. Research emphasizes practical experiential learning and ethical considerations in robotics.
📍 Santa Cruz, United States
autonomous vehiclesguidance and navigationcontrol theory
Founded in 2003 by Professor Gabriel Elkaim at UC Santa Cruz, the Autonomous Systems Lab specializes in guidance, navigation, and control for autonomous systems. The lab focuses on reducing costs through open-source development of complete autonomous systems and onboard sensors with publicly available code repositories.
Autonomous system cost reductionOpen-source sensor development
📍 Riverside, United States
autonomous systemsroboticsmachine learning
The Trustworthy Autonomous Systems Laboratory at UC Riverside develops fundamental theories and practical algorithms for trustworthy, interactive, and human-centered autonomous embodied agents. The lab pursues interdisciplinary research in robotics, machine learning, reinforcement learning, and computer vision.
Trustworthy embodied agentsInteractive autonomous systems
📍 Minneapolis, United States
surgical roboticsmedical devicescomputational surgery
The Medical Robotics and Devices Lab at University of Minnesota advances computational surgery through signal processing, controls, and cyber-physical systems. The lab focuses on next-generation surgical robotics, medical device simulation, and healthcare management applications.
📍 Boston, United States
surgical roboticscomputer-assisted surgerysurgical data science
Harvard's MRCAS Lab conducts research in medical robotics and computer-assisted surgery with focus on surgical data science and human-machine interaction in the operating room. The lab participates actively in international medical robotics symposia and develops AI applications for surgical contexts.
Acoustic Patterns of Interprofessional Communication in Cardiac ORExplainable AI in robotic surgery
📍 Tokyo, Japan
surgical roboticsendoscopic imagingminimally invasive surgery
Keio University Hospital operates Japan's first surgical robot, the Hinotori, and leads in surgical robotics development with advanced high-definition imaging and camera technology for endoscopes. The hospital contributes world-leading innovations in robotic surgery equipment and 3D surgical visualization.
Hinotori surgical robotAdvanced endoscopic imaging systems
📍 Istanbul, Turkey
field roboticsautonomous vehiclesautonomous surface vehicles
Field robotics laboratory at Istanbul Medeniyet University focusing on autonomous surface vehicles. The lab participates in international simulation competitions for autonomous vehicle research.
Autonomous surface vehicle development
📍 Newark, United States
roboticsartificial intelligenceautonomous systems
CARS at University of Delaware facilitates research and development in robotics, artificial intelligence, and systems engineering. The center fosters innovation in autonomous systems and robotic applications.
Autonomous systems development
📍 Ann Arbor, United States
field roboticscomputer visionmachine learning
The Field Robotics Group at University of Michigan combines robotics, computer vision, and machine learning to enable autonomy in dynamic, unstructured, and remote environments. Research focuses on practical autonomous systems for challenging field conditions.
Dynamic environment autonomyfield robotics systems
📍 College Park, United States
autonomous vehiclesfield roboticsaerospace systems
The Autonomous Vehicle Laboratory is a facility in the Department of Aerospace Engineering at University of Maryland. Research focuses on autonomous vehicle systems and robotics applications.
Autonomous vehicle systems
📍 Lincoln, United States
autonomous vehiclesfield roboticscivil infrastructure
Located at University of Nebraska-Lincoln, the AVRL aims to improve safety, efficiency, and sustainability of civil infrastructure through autonomous vehicle and robotics research. The laboratory develops technologies for field applications in infrastructure management.
Civil infrastructure roboticsautonomous vehicle safety
📍 Beijing, China
computer visionreinforcement learningembodied AI
The Vision and Robotics Lab at Tsinghua University's Institute for Interdisciplinary Information Sciences focuses on building universal embodied intelligent agents. Research integrates computer vision and reinforcement learning for robotic perception and autonomous decision-making.
Universal embodied intelligent agents research
📍 Beijing, China
embodied intelligencehumanoid roboticsintelligent robotics
Beihang University is a pioneer in intelligent robotics and embodied intelligence research in China, offering specialized undergraduate and graduate programs. The dedicated embodied intelligence laboratory is equipped with advanced robotic platforms, multimodal sensors, and high-performance computing resources for hands-on student training.
Embodied Intelligence Undergraduate ProgramIntelligent Robotics Research Track