Surgical Equipment for Hands-On Training
Modern surgical systems and clinical-grade instrumentation support hands-on training, translational research and technology evaluation under realistic operating room conditions. Our equipment portfolio enables open, minimally invasive, endoscopic, computer-assisted and robotic procedures across a wide range of applications in the OR-X.
Our portfolio of surgical instrument sets enables hands-on training and procedural work across different surgical specialties. From orthopedic and spine procedures to soft tissue and microsurgical applications, the available sets create realistic workflows under clinical-grade conditions.
Modern surgical power tools enable drilling, sawing and high-speed preparation across orthopedic, spine and trauma-related applications. The systems are used for both training activities and translational research requiring realistic procedural workflows.
Clinical-grade arthroscopic systems enable minimally invasive training and procedural practice using advanced visualization and instrumentation. Different camera optics, shavers and arthroscopy towers cover a wide range of endoscopic and joint-related applications.
Mobile imaging systems provide real-time intraoperative visualization for training, navigation and experimental workflows. The available technologies enable 2D and 3D imaging applications across orthopedic, trauma and spine-related procedures under realistic operating room conditions.
Research Equipment for Translational Projects
Cutting-edge technologies in robotics, haptic devices, optical tracking and diagnostic imaging are available for translational surgical research and experimental development. Through access to these systems, we enable research groups and industry partners to develop, integrate and evaluate new technologies under clinical conditions in the OR-X.
Our robotic systems create a flexible environment for research in surgical automation, navigation and robotic-assisted procedures. They support experimental workflows ranging from early-stage prototyping to the integration and evaluation of robotic technologies underclinical conditions.
Realistic force feedback plays an important role in surgical simulation and human–machine interaction. The available haptic devices enable developers to simulate tactile sensations and investigate precision, movement and interaction within virtual and robotic environments.
High-precision tracking technologies enable accurate spatial registration and motion analysis within the surgical environment. These systems support applications such as navigation, motion capture, robotic control and multimodal data collection for data-driven surgical research.
Clinical and research ultrasound systems provide high-resolution imaging for experimental and translational applications. They support real-time visualization, imaging research and the development of data-driven workflows in surgery and medical technology.
Safety & Support
Dedicated technical expertise and tailored safety measures support the reliable execution of experiments, training activities and technology integration throughout the entire project workflow in our infrastructure, with the following on-site support available: