Surgical procedures involve the use of thermal ablation techniques through the use of electrosurgical units, which can lead to an uncontrolled diffusion of energy towards tissues adjacent to the target area. In fact, temperatures above 60 °C lead to cell death and, consequently, irreversible tissue damage that can extend, for example, to the surrounding nervous structures with consequent partial or total functional losses. Currently, the ability to monitor the actual extent of thermal damage in real time does not exist in the operating room and, therefore, the surgeon is left without any feedback that would allow him to take preventive actions.
A minimally invasive laparoscopic endoscope that uses advanced optical technologies to extract 3D and stereoscopic thermographic information. The use of the endoscope developed by ThermalX can lead to
A reduction in post-operative complications by allowing real-time analysis of the impact of thermal ablation tools on organic tissues.
Avoid irreversible damage
Real time quantitative temperature monitoring
The innovation brought by ThermalX concerns the patented thermo-visible sterioscopic endoscopy, which combines at the hardware level a thermal sensor with a pair of stereoscopic cameras, and the software necessary to superimpose the visible and thermal 3D images in a single time-variant vision that allows real-time analysis of thermal diffusion to organic tissues during laparascopic surgery. ThermalX is a project of the University of Verona co-financed by RoboIt.
The innovative software for advanced thermal-vision 3D vision system for surgical applications, designed and developed by ThermalX
Project manager and Technology Expert
PhD, Project specialist and Technology Expert
Developer and Technology Expert
Prof. of Physics and Scientific Advisor
Prof. of Robotics and Scientific Advisor
M.D. Surgeon and Scientific Advisor
ThermalX is a project of the University of Verona co-financed by RoboIt.