Physics Practical Magic

An AI trained on atom-smasher data can now look inside a human ear with 10 times more detail than a standard hospital scan.

March 26, 2026

Original Paper

Robust synchrotron-based deep learning algorithm for intracochlear segmentation in clinical scans: development and international validation

Ashley Micuda, Daniel Newsted, Nastaran Shakourifar, Sachin Pandey, Asma Alahmadi, Kevin D. Brown, Abdulrahman Hagr, Jacob B. Hunter, Joachim Müller, Kristen Rak, Hanif M. Ladak, Sumit K. Agrawal

arXiv · 2603.24476

The Takeaway

Doctors usually can't see the fine, microscopic structures of the inner ear during surgery planning. By training an AI using a synchrotron—a massive circular particle accelerator—researchers have given routine clinical scans 'super-vision' to help surgeons place cochlear implants with much higher precision.

From the abstract

Clinical imaging is routinely used for cochlear implant surgical planning yet lacks the resolution and contrast necessary to visualize the fine intracochlear structures critical for individualized intervention. To address this limitation, an ensemble deep learning model was developed to automatically segment cochlear micro-anatomy from standard clinical scans. The model was trained and validated using an independent internal dataset comprised of paired synchrotron and clinical scans of the same