5 months research project on Tubular Structures Enhancements
I am a Ph.D. candidate in AI and computer vision, specializing in medical imaging. I hold a Master's in Data Science and Artificial Intelligence and a Bachelor's in Software Engineering. My expertise spans deep learning, domain adaptation, loss function regularization, few-shot learning, and 3D model analysis.
Current research focuses include domain adaptation, developing novel methods for bifurcation detection, designing topology-preserving loss functions tailored for analyzing tubular structures in medical images.
On-going Projects and Publications: LINK
Nov 2024: My master’s student, Maxime Jacovella (co-supervised with Prof. Angelini) graduated with distinction from Imperial College London and received the prestigious Winton Capital Prize.
Nov 2024: Excited to share our new paper on incremental domain adaptation in airway segmentation, now available on arXiv: LINK .
Nov 2024: I Received (again!) BME Conference Fellowship from Engineering for Health Interdisciplinary Center (E4H) of IP-Paris.
May 2024: I received a Travel Grant to attend the 2024 IEEE International Symposium on Biomedical Imaging (ISBI 2024).
March 2024: I got accepted to CIFAR Deep Learning + Reinforcement Learning (DLRL) Summer School, Co-hosted by CIFAR and the Vector Institute in Toronto, Ontario, Canada.
Feb 2024: My work on few-shot airway-tree modeling got accepted to 21st IEEE International Symposium on Biomedical Imaging (ISBI 2024), Athens, Greece.
July 2023: I Received BME Conference Fellowship from Engineering for Health Interdisciplinary Center (E4H) of IP-Paris.
July 2023: I received Best Poster Award from Engineering for Health Annual Forum.
5 months research project on Tubular Structures Enhancements
5 months research internship on strategic machine learning model maintenance in CEDAR (Inria Saclay) team.
Member of the mobile development team for developing, deploying, and maintaining new Android Applications.
I worked on the complete software development pipeline from defining requirements to testing and deployment.
Since April 2023
I am developing novel methods for detecting and analyzing bifurcations in both airways and arteries within thoracic CT scans, aiming to improve disease understanding and treatment planning. This project includes creating and releasing BifDet, the first public dataset for 3D airway bifurcation detection.
Since Nov. 2022
I am focusing on incorporating prior knowledge and loss function regularization techniques into deep learning models to achieve topologically correct predictions for tubular structures like airways and arteries in lung CT scans. This research aims to improve the accuracy and reliability of segmentation results for these critical anatomical structures.
Since May. 2024
Building upon the BifDet dataset, I am developing comprehensive airway and arterial tree models to advance our understanding of respiratory and cardiovascular health. This research aims to provide detailed insights into the morphology and bifurcation parameters of both systems, potentially informing personalized treatment strategies.