Corentin Dumery

Corentin Dumery

PhD student at   EPFL / Intern at Meta Redmond
CVLab

Contact:
first name dot last name at epfl dot ch

I graduated from NUS and Télécom Paris in 2020. After graduation, I worked at CEA Paris-Saclay on polycube mapping, and later joined Prof. Olga Sorkine-Hornung's lab at ETH Zürich as a visiting researcher on garment fabrication. Since 2023, I am supervised by Prof. Pascal Fua at EPFL's CVLab, where I am working on 3D Computer Vision.

For those who are unsure, here's how my name is pronounced in French.

profile photo

Research

My research interests lie at the intersection of computer vision and computer graphics. I am dedicated to advancing machine perception through 3D scene reconstruction and understanding, enabling machines to not only see their environment but also comprehend and interact with it. My work also emphasizes 3D content creation for digital AR/VR environments, leveraging both real-world reconstruction and AI-assisted 3D generation.

Students interested in a semester project or master thesis, please consult our lab's project page.
Master/Bachelor summer interns, please apply to the Summer@EPFL program.
PhD applicants, please refer to the doctoral program page or our student-wiki.
Feel free to contact me! Please make it clear you have had a look at these resourses and avoid sending a generic email.

Counting Stacked Objects Corentin Dumery, Noa Etté, Aoxiang Fan, Ren Li, Jingyi Xu, Hieu Le, Pascal Fua
arXiv 2025
| Project page | Paper | We predict the total count of stacked objects, including hidden instances, by estimating the volume through 3D reconstruction and the packing density with a transformer network.
Single View Garment Reconstruction Using Diffusion Mapping Via Pattern Coordinates Ren Li, Cong Cao, Corentin Dumery, Yingxuan You, Hao Li, Pascal Fua
SIGGRAPH 2025
| Project page | Paper | Code | Given an image, we first compute a mapping between garment pixels, 3D points, and pattern space. Then, we use a diffusion model as a prior on the space of deformed garments in this pattern space to fill the partial observation into a complete garment.
Enforcing View-Consistency in Class-Agnostic 3D Segmentation Fields Corentin Dumery, Aoxiang Fan, Ren Li, Nicolas Talabot, Pascal Fua
CVPRW 2025, 4th Workshop on Open-World 3D Scene Understanding with Foundation Models
| Project page | Paper | Poster | Workshop website | Ground-Truth Mip-NeRF360 Segmentations | We train a 3D object field along with a radiance field, and show how spatial regularization can help obtain a consistent segmentation from inconsistent 2D signal.
Reconstruction of Manipulated Garment with Guided Deformation Prior Ren Li, Corentin Dumery, Zhantao Deng, Pascal Fua
NeurIPS 2024
| Project page | Paper | Code | From a partial point cloud of a garment being folded or manipulated, we map points to 2D and recover complete patterns, allowing us to retrieve a full garment.
Garment Recovery with Shape and Deformation Priors Ren Li, Corentin Dumery, Benoit Guillard, Pascal Fua
CVPR 2024
| Project page | Paper | Code | We train a model to learn the space of deformed garments, and fit this prior to single view images to recover a complete garment mesh even though only half of it is invisible.
Evocube: a Genetic Labeling Framework for Polycube-Maps Corentin Dumery, François Protais, Sébastien Mestrallet, Christophe Bourcier, Franck Ledoux
Computer Graphics Forum (Eurographics) 2023
| Project page | Paper | Code | Video | To morph an arbitrary 3D shape into a polycube, i.e. an aggregate of axis-aligned cubes, we design a genetic algorithm to produce valid polycube labelings after multiple generations of crossovers and mutations. These polycubes are then used to produce hexahedral meshes for finite-element simulation.
Computational Pattern Making from 3D Garment Models Nico Pietroni, Corentin Dumery, Raphael Falque, Teresa Vidal-Calleja, Olga Sorkine-Hornung
SIGGRAPH 2022
| Project page | Paper (38 Mb) | Paper (2 Mb) | Code (Garment Flattening) | Code (Patch Segmentation) | Supplemental Video | bibtex | Given a 3D garment, we compute 2D patterns that can be directly manufactured. To this end, we optimize a cross field that generates good cutting lines, and propose a mesh flattening method tailored to woven materials.

Other


Academic Service:
  • Outstanding reviewer at CVPR25 (top 5.6%).
  • Reviewer for major Vision (CVPR, BMVC) and Graphics (SIGGRAPH, CGF, PG) conferences.

Head Teaching Assitant for:
  • CS433 Machine Learning (600 students, 30 teaching assistants) taught by Prof. M. Jaggi and N. Flammarion (2023, 2024)
  • CS442 Computer Vision (200 students, 9 teaching assistants) with Prof. Pascal Fua (2023, 2024)

Associations:
  • I am the VP/Treasurer of EPIC, the association of CS PhDs of EPFL. We are building a community of PhDs across the department, brought together by BBQs, board game nights, and more.
  • During my undergrad, I was an esteemed member of Téléfrom, the cheese association of Télécom Paris.

Additional workshop presentations without proceedings


View-Dependent Uncertainty Estimation of 3D Gaussian Splatting
Chenyu Han, Corentin Dumery
CVPR25 Workshop on Uncertainty Quantification for Computer Vision (UNCV), Extended Abstract & Spotlight Presentation

Additional projects


My favorite creations from back when I was a student, most of these projects are from before 2020.


B-Mesh Modeller With two friends from Télécom Paris, we created a 3D modelling software based on a novel approach described in a research paper.

The idea is to create an initial mesh in only a few minutes by placing spheres in 3D to represent the skeleton of the modelled object. The user can freely create and customize the mesh, and it can be modified in real-time. (link to the project)







Aesthetic functions This is a fun little project to explore the artistic side of two-dimensional functions. All you have to do is enter a math function and play with the sliders to generate some stunning artworks. Any function works, no matter how complex, but even on simpler ones the results are often surprising. (link to the project)

Black hole of odd dimension Sea floor
Color dance Miracle of Life

And some of them move, too! There's plenty more where these come from, some moving here, some surprising there, and they all have something that all the others don't have. I always love receiving creations from other people, so feel free to send me an email if you find inspiration!


Cow Texture generator Ever felt the need to have an infinite supply of cow pattern textures?

This project was inspired by The leopard never changes its spots, a SIGGRAPH 2020 paper by Malheiros, Marcelo de G. and Fensterseifer, Henrique and Walter, Marcelo. This paper uses a reaction-diffusion model to approximate tissue growth, and successfully generates a few 2D patterns matching real species. This project aims to adapt this model to generate cow patterns, which were not covered in the original article. (link to the project)





Evaluation of a Spectral Data Transformation Method for Meaningful Mesh Segmentation I wanted to see if I could transform a 3D mesh in a weaningful way to make 3D segmentation easier. To evaluate this transformation, I used this awesome dataset which includes human-generated ground truth segmentations, and used simple clustering algorithms to generate a segmentation. By comparing results with the ground truth, I was able to measure the efficiency of this approach and identify the circumstances under which it's useful. For more detail, here is a link to the complete study. You can also take a look at the project on github.




Potato Generator Simple project that generates a 3D potatoïd based on input parameters. Perturbations with a given frequency, amplitude and direction are applied to a sphere to create the illusion of a natural object. (link to the project) Design of Implants for Skull Reconstructive Surgery This project aims to make 3D skull implant generation as easy as possible. The idea is to input a mesh derived from a CT scan and use two edge loops to specify the part of the skull where an implant should be generated. The skull layer is then reconstructed to make a perfect-fit implant. Then, a flattening algorithm is used to flatten each layer of the implant to make it suitable for implant 3D printing. Cutting path are added to release some flattening constraints. This work was done for the National University of Singapore in collaboration with Osteopore, and uses a patented software from NUS to reconstruct the outer layer of the skull using symmetry constraints.




[FRENCH] Modélisation agricole et optimisation de la répartition des surfaces Here's a video I made when I was 19 showing the different steps in my research trying to optimize the area allocation of an agricultural exploitation. It's in French and quite simple since this was done very early during my studies, but if you have any questions I'd be more than willing to speak about it with you. It was a fun experience and I enjoyed the freedom that I was given on this project.