Jon Goikoetxea
Pronunciation: [ yon goh-ee-koh-eh-CHEH-ah ]
I'm an Artificial Intelligence MSc student at Ensimag - INP Grenoble.
I'm broadly interested in optimal and learning-based control, with special emphasis on robot learning. My research aims to make autonomous agents more generally capable and efficient by leveraging optimization and machine learning methods.
As an MSc student in Ensimag, I worked on multi-objective reinforcement learning with formal specifications with Prof. Alexandre Donzé in the Verimag laboratory. Before coming to Grenoble, I obtained my BSc at the Public University of Navarre, where I worked with Prof. Jesús Palacián on learning for control in robotics and astrodynamics. I also worked with the UpnaLab research team led by Prof. Asier Marzo, mostly on simulations for acoustic holography.
Check out my projects on GitHub, visit my LinkedIn profile, or email me here.

Publications:
For an up-to-date list, visit my Google Scholar.

GCImOpt: Learning efficient goal-conditioned policies by imitating optimal trajectories
Jon Goikoetxea, Jesús F. Palacián
Learning for Dynamics and Control (L4DC) 2026
Webpage - PDF
Projects:
See more on my GitHub page.

Trajectory optimizer using direct collocation
Trajectory optimizer based on direct collocation, using Jax for automatic differentiation and the IPOPT nonlinear programming solver. Supports trapezoidal / Hermite-Simpson collocation and iterative mesh refinement.

Learning latent plans from play
Implementation of the Play-GCBC and Play-LMP self-supervised policy learning methods by Lynch et al. (2019). Trained multi-task robot manipulation policies on dataset from the CALVIN benchmark (Mees et al., 2022).

Mini-GPT
Implementation of a small GPT-like Transformer language model from scratch, from tokenization to model architecture, training and inference. Trained models on the SimpleStories text dataset (Finke et al., 2025).

gb-nn: Neural network inference on a Game Boy
Implementation of quantized neural network inference on the Game Boy, written by hand in assembly language. The trained NN running on an emulated Game Boy obtains 93.86% accuracy on the MNIST test set.

Adaptive guidance and control for spacecraft orbit transfers using deep reinforcement learning
Neural satellite controller for low-thrust orbit transfers using deep reinforcement learning. Presented as an oral presentation at the XXII Workshop on Celestial Mechanics in Girona, Spain.