Active Bones, Joints & Muscles Computing & AI

CT to VE: An automated approach to mesh generation and processing from medical datasets for interactive use in immersive simulations for surgical plan

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AI plain-English summary

CT scans and MRI images cannot be directly loaded into virtual reality headsets or surgical simulators. This project builds software that automatically converts medical scans into the 3D surface meshes needed for immersive environments, without requiring a technician to manually process each dataset. Currently, surgeons and medical students who want to view a patient’s anatomy in VR must rely on time-consuming, labour-intensive steps to extract usable geometry from standard medical image formats. This bottleneck limits the adoption of mixed-reality tools for surgical planning and education. The researchers aim to automate mesh generation and optimisation so that the process works reliably on both high-end workstations and low-cost consumer hardware. If successful, the framework could make VR-based surgical rehearsal a routine part of preoperative planning, rather than a specialised demonstration. Medical trainees could explore complex anatomical cases interactively, and surgeons could rehearse procedures on patient-specific models without dedicated technical support. The work is primarily a software engineering and computational geometry challenge—it does not develop new imaging techniques or clinical treatments—but it removes a practical barrier that currently keeps immersive simulation out of everyday surgical practice.

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To investigate a framework for automated mesh generation and optimisation for biomedical images aimed at deployment on high- and low-end hardware. Across surgical planning and medical education platforms, the prospects of virtualisation hardware and mixed reality applications continue to revolutionise interaction paradigms, mirroring real-world physics and visuals closer to anything we've witnessed prior (Matovu, et al., 2023), allowing students and physicians alike to visualise complex cases in a fully bespoke 3D environment untethered by the restrictions of nonimmersive paradigms (Bright, et al., 2012; Bird, et al., 2020). Medical dataset formats, however, are not natively usable within virtualisation hardware. Circumvention methods of compatibility limitations currently utilise the generation of 3dimensional surface geometry from medical imaging, permitting the representation of radiographic datasets in a native 3D visual for examination.

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