I'm Lorenzo Magnino, a PhD Candidate at the University of Cambridge, supervised by Amanda Prorok.

My work now explores the intersection of Multi-Agent Robotics and Collective Intelligence. During my time at NYUShanghai I worked on Mean Field Games and Reinforcement Learning supervised by Mathieu Lauriere. I also interned at InstaDeep, working on GNNs for Multi-Agent Reinforcement Learning.

I love science, building things, playing music, and sports.

Research direction: Enabling physical agents to safely and continuously adapt to new situations in the world.

Feel free to write me on LinkedIn or connect directly by email.

Collaborative session Brainstorming in Cambridge

Snapshots from recent Symposium on "Future of Intelligent Robotics" in Cambridge.

News

  • Oct 2026: Officially started my PhD at the University of Cambridge in the Department of Computer Science and Technology
  • Jan 2026: Starting as TA for Robot Mobile Systems, course taught by Amanda Prorok, Cambridge University
  • Jan 2026: ProbAI Winter School. Diffusion Models and Optimal Transport
  • Dec 2025: Poster presentation at NeurIPS 2025 in San Diego
  • Nov 2025: Talk at Symposium "Future of Intelligent Robotics" in Cambridge
  • Oct 2025: Starting as a Research Assistant at the University of Cambridge, ProrokLab
  • Jul 2025: Poster presentation at ICML 2025 in Vancouver
  • Mar 2025: Intern at InstaDeep (MARL and GNN for routing and scheduling in a real world challenge)
  • Sep 2024: Continue as Research Assistant at NYU Shanghai w. Mathieu Lauriere
  • Mar 2024: Head to NYU Shanghai as a visiting student

Collaborations: University of Cambridge, NYU, UCLA, Earth Science Projects, KTH Royal Institute of Technology, Georgia Institute of Technology, TU Berlin, George Mason University.

Featured Publications

A robot path with adaptive planning intervals around obstacles

Learning Robot Metareasoning: Adaptive Computation Budgets for Real-Time Control

Lorenzo Magnino, Antonio Marino, Michael Amir, Daigo Shishika, Amanda Prorok

Preprint · 2026

Main Discovery

Robots can learn how long to plan before acting again. A state-dependent policy chooses both the action commitment and computation budget, balancing deeper planning with faster feedback as the task demands change.

Coordinated robot trajectories weaving around obstacles

GAMBIT: Learning to Plan Continuous Multi-Robot Trajectories

Rishabh Jain, Akmaral Moldagalieva, Lorenzo Magnino, Michael Amir, Keisuke Okumura, Ajay Shankar, Wolfgang Hönig, Amanda Prorok

Preprint · 2026

Main Discovery

Robots learn coordinated choices over motion primitives, including when to give way for the benefit of the team. Imitation learning followed by reinforcement learning produces scalable coordination, while backup trajectories safeguard collision-free execution.

Bench-MFG

Bench-MFG: A Benchmark Suite for Learning in Stationary Mean Field Games

Lorenzo Magnino, Jiacheng Shen, Matthieu Geist, Olivier Pietquin, Mathieu Laurière

NeurIPS 2026

Main Discovery

A shared benchmark makes learning algorithms for stationary mean field games easier to compare. Structured problem classes and randomly generated games reveal how methods behave across different forms of interaction, rather than on a few hand-picked examples.

Solving Continuous Mean Field Games

Solving Continuous Mean Field Games: Deep Reinforcement Learning for Non-Stationary Dynamics

Lorenzo Magnino, Kai Shao, Zida Wu, Jiacheng Shen, Mathieu Laurière

NeurIPS 2025

Main Discovery

Combining fictitious play, deep reinforcement learning, and conditional normalizing flows makes it possible to learn equilibria in continuous mean field games while representing how the population distribution changes over time.

ICML 2025 Paper

Learning to Stop: Deep Learning for Mean Field Optimal Stopping

Lorenzo Magnino, Yuchen Zhu, Mathieu Laurière

ICML 2025

Main Discovery

A large group of agents can learn when to stop by solving a mean-field approximation of their cooperative problem. A dynamic programming principle leads to two neural-network approaches that scale to high-dimensional settings.

Talks

Projects

RoboML Research Template

RoboML Research Template

A lightweight, opinionated template for running machine learning and robotics research projects. It provides a standardized structure for experiments, data handling, logging, and evaluation, with ready-to-use configs and scripts for reproducible workflows.

ML/Robotics Community

GitHub

★ Star and clone the repo!

...some interesing readings

  • The Creative Act: A Way of being by Rick Rubin
  • The art of doing Science and Engineering by R. Hamming
  • What the Tortoise Said to Achilles by L. Carroll
  • Why Greatness cannot be Planned by K. Stanley and J. Lehman