Introduction:
In breast cancer diagnosis and treatment, the accuracy of tissue sampling during biopsy procedures is paramount. Robot-assisted biopsy systems have shown promise in enhancing precision and control, particularly in minimally invasive approaches. However, achieving fully autonomous and accurate biopsy planning and execution in MRI-guided procedures remains a significant challenge. This master's thesis proposal aims to address this challenge by developing a fully autonomous 3D path planning algorithm integrated with a robot for MRI-safe breast cancer biopsy. By leveraging advanced computational techniques and robotic systems, this research seeks to revolutionize biopsy procedures, improving diagnostic accuracy and patient outcomes.
Objectives:
- Develop a comprehensive 3D image segmentation and reconstruction algorithms to automatically detect the lesion and anatomical structures.
- Fully automatic bootstrap algorithm to recalibrate MR-safe robot and patient anatomy.
- Design and implement a fully autonomous 3D Path planning algorithm integrated with a robotic system to be able to address the influences of deformations and dynamic movements.
- Evaluate the performance and feasibility of the developed algorithm through simulated biopsy procedures and experimental validation in MRI environments at TechMed center.
Expected Outcomes:
- Automatic 3D image segmentation workflow which is embedded with current robot execution.
- Automatic bootstrap algorithm for fast robot-patient-MRI calibration.
- Development of a fully autonomous 3D Path planning algorithm integrated with a robotic system for MRI-safe breast cancer biopsy.
- Demonstration of improved accuracy, efficiency, and safety in MRI-guided robotic breast biopsy procedures through experimental validation.
- Publish research findings through conference presentations/posters and journal publications.
Conclusion:
This master's thesis proposal outlines a research endeavor aimed at developing a fully autonomous 3D planning algorithm integrated with a robot for MRI-safe breast cancer biopsy. By leveraging advanced computational techniques and robotic systems, this research seeks to revolutionize biopsy procedures, improving diagnostic accuracy and patient outcomes.