Scientific Portfolio

Publications & Research Contributions

Deciphering the physics of massive stars through advanced modeling

My research sits at the intersection of observational astrophysics and computational stellar modeling. I focus on the most extreme stars of our Universe: massive O- and B-type stars. These objects are the cosmic engines of galactic evolution, yet their rapid rotation and complex geometries challenge our traditional one-dimensional understanding of stellar physics.

The core of my scientific output is built around three fundamental pillars:

Stellar Rotation

Investigating how rotational distortion and gravity darkening affect the observable properties of fast rotators, correcting long-standing biases in spectral classification and physical parameters.

Binary Interactions

Modeling overcontact and detached binaries to extract precise physical parameters (e.g., masses and radii), essential for constraining the latest stellar evolution tracks.


A significant portion of my contributions involves the development and application of 3D spectroscopic synthesis. By using the SPAMMS framework, my work enables the community to move beyond spherical symmetry, accounting for non-LTE effects and surface asymmetries in both isolated stars and interacting systems.

Below is a curated list of my peer-reviewed publications, ongoing projects, and collaborative efforts within the international astrophysics community.

Scientific Output

Primary Research (1st Author)

In preparation

The Rotation of O-type stars. I.
Physical properties via Roche geometry

A quantitative assessment of how rotation alters the structure and surface properties of O-type stars through equatorial bulging and gravity darkening.

Expected: Q3 2026
Under Review

SPAMMS. II. Implementation of Kurucz and TLUSTY model atmospheres from O to K-types

New intensity grids for SPAMMS. Derived from Kurucz (LTE) and TLUSTY (non-LTE) stellar atmosphere models, covering O to K-type stars.

Expected: Q2 2026
Published (2026)

The lack of fast rotators
in Cygnus OB2. I. Insights from spectral reclassification
of its B0 population

Confirmation of the apparent lack of fast rotators in the Cygnus OB2 association, together with a discussion of its possible physical origins.

Co-Authored & Collaborations

Under Review

Photospheric parameters of the
fast rotating star γ Cassiopeiae

Computation of the physical parameters of γ Cassiopeiae, using spectroscopy and intensity interferometry.

Expected: Q3 2026