Introduction Participated to a project called Ebiose during a 2 days hackathon with a team of 4 people. It focuses on a multi-language-based-agent system to solve tasks. In this system, agents are composed of LLM (e.g. GPT-3.5) coupled with a specific prompt. The structure of the multi-agent system followes a predetermined sequence, where one agent answers a question, another verifies the answer, and a final agent synthesizes both responses. This collaboration is inspired by the Autogen Framework, emphasizing coordinated efforts among agents.

Created an open source turorial for hyper parameter search using Optuna for the ReservoirPy machine learning library. First, it explains how to search hyper parameters on your machine sequentially, but also in a parallelized manner using the joblib library. Then, it demonsrates how to perform the same search at a larger scale, by using slurm files to parallelize it on a remote cluster of CPUs.

To try to beat friends on the combat phases of the “Rising Sun” board game, I created this simplified gymnasium implementation of the game. The project also incorporates a python script to train a single RL agent on the environment. This agent can currently only be trained against hard-coded players (either random of with heuristics). The next step will be to add multi-agents training to the project. Then, it will be interesting to explore the path of self play to see how complex the behaviors of the agent can become !

As a volleyball player who frequently travels to play against teams in distant cities, I became curious about how sports pools are optimized to ensure fair and reasonable travel times for teams in the same category. To explore this further and delve into evolutionary algorithms, I embarked on a project to create a custom genetic algorithm using NumPy. The custom genetic algorithm is designed to improve the current distribution of cities in sports pools.

Modeling complex problems is a real issue in Reinforcement learning. The goal of this projet is to use a RL model, such as Q-learning, on symbolic data, where the knowledge of the problem would be stored, in the form of qualitative or numerical data (in JSON for example). Instead of only working with numerical data, we could link the data with a certain ’edition distance’ which permits to evaluate the proximity of 2 elements.

This project focuses on medical imaging and computer vision. The goal is to develop a machine learning model able to detect the state of development of the Alzheimer disease, using 3D MRI data from real patients. In order to do so, we tried different approaches, including the ‘2D epsilon’ method, which is the use of 2D Convolutionnal neural networks on 2D slices of the MRI, and also the use of 3D CNN.