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Niels FAUCHER

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About Niels FAUCHER

Personal Introduction

Hello! I am Niels FAUCHER, a computational physicist and AI enthusiast with a strong passion for non-linear systems and condensed matter physics, with a specific focus on the emergent behavior of magnetic skyrmions. As a computational physicist, I specialize in predictive modeling using Reservoir Computing (RC). My work is focused on applying these models to highly complex non-linear systems, pushing the boundaries of their predictive capabilities while continuously advancing their architecture. I am fluent in English (C1+) and French (native), with basic knowledge of Italian.

Professional Introduction

I hold a Master's degree in Computational Physics and am applying this expertise at Adularia, a company dedicated to developing next-generation immunotherapies. My role is to pioneer an AI strategy using generative models, architecting systems with techniques like Flow Matching that excel at constructing complex, structured data from simple noise.
Alongside this focus on generative AI, I have a distinct specialization in an alternative computational paradigm: Reservoir Computing. This expertise is not just theoretical; it was the core of my research internship at the University of Tokyo, where I was tasked with designing and building a numerical Physical Reservoir Computer (PRC) from the ground up, using the dynamics of magnetic skyrmions.

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Featured Projects

MCMC

Markov Chain Monte Carlo (MCMC) simulations to estimate internal structure parameters of a planetary model.

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Rate-equations-for-modeling-growth

Simulation of the aggregation and diffusion of particles on a surface. A Monte Carlo approach was used to ensure our findings were statistically robust and validate the predictions of theoretical Rate Equation models.

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Kuramoto Model

The Kuramoto model can be used to study synchronization dynamics in coupled systems — specifically, in vertical-cavity surface-emitting lasers (VCSELs), which are key components in photonic neural networks.

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N-Body using Fortran OpenMP and OpenACC

A high-performance Fortan N-Body simulation. The project contains a single threaded, a multi-threaded CPU OpenMP, and an OpenACC GPU approaches. Results can be verified using the conservation of energy and momentum.

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Contact Niels FAUCHER

To discuss a potential project or to learn more, please get in touch.

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