Biography
Dr Ioannis Havoutis holds a PhD (2011) and an MSc (2007) from the University of Edinburgh, where he worked on machine learning for motion planning and control of articulated robotic systems.
Ioannis moved to Oxford in March 2017. Previously, he was a postdoctoral researcher at the Robot Learning and Interaction Group of the Idiap Research Institute, Switzerland, where he worked on online learning of complex skills from demonstration. Before this, Ioannis held a senior postdoctoral position in the Dynamic Legged Systems Lab, at the Advanced Robotics Department of the Italian Institute of Technology. There he led the Locomotion Group within the HyQ team, focusing on dynamic motion planning and control for legged locomotion.
Research Interests
Dr Havoutis’ research focuses the combination of machine learning with dynamic whole-body motion planning and control, targeting robots with arms and legs. Building on his previous work, Ioannis is interested both in the locomotion and manipulation aspects of autonomous robots.
He is a co-lead of the Dynamic Robotic Systems (DRS) group -- an integrated research lab within the Oxford Robotics Institute. He lead the research direction of robotic legged locomotion, designing and implementing of algorithms that enable autonomous legged mobility. His focus is on approaches for dynamic whole-body motion planning and control that allow robots with legs to robustly operate in a variety of challenging domains.
His work aims to answer questions such as: which path should the robot choose to reach its goal? how should the body and the individual joints of the robot move? which footholds and potential handholds maximize the robustness of the locomotion behaviour?
Research Groups
Current Projects
EPSRC-UKRI, Robotics and AI in Nuclear (RAIN) research hub
Field inspection of walking robots in sites such as Sellafield and Fukishima with radiation sensors.
EPSRC-UKRI, Off-Shore Robotics for Certification of assets (ORCA) research hub
Mobile robot mapping for inspection of industrial facilities with a variety of platforms.
EU H2020, MEMMO: Memory of Motion
Learning motion representations to enable fast dynamic trajectory optimization and re-planning.
EU H2020, THING: subTerranean Haptic INvestiGator
Haptic sensing, control and estimation for ANYmal.
EPSRC, New Investigator Award
Robust legged locomotion for autonomous mobility in challenging environments.
DPhil Opportunities
I am open to supervising DPhil students with an interest in legged locomotion, motion planning, trajectory optimization, skill representation and learning by demonstration.
Recent Publications
DistAL: Distance-based Advantage Learning for VLA Fine-Tuning
O'Mahoney R & Havoutis I (2026)
BibTeX
@misc{distaldistanceb-2026/9,
title={DistAL: Distance-based Advantage Learning for VLA Fine-Tuning},
author={O'Mahoney R & Havoutis I},
year = "2026"
}
DetAug: Obstacle-Blind Trajectory Augmentation for Zero-shot Obstacle Avoidance
O'Mahoney R, Zoellner M & Havoutis I (2026)
BibTeX
@misc{detaugobstacleb-2026/9,
title={DetAug: Obstacle-Blind Trajectory Augmentation for Zero-shot Obstacle Avoidance},
author={O'Mahoney R, Zoellner M & Havoutis I},
year = "2026"
}
Learning Highly Dynamic Skills Transition for Quadruped Jumping Through Constrained Space
Luo Z, Zhang J, Han Y, Ma J, Lu M et al. (2026)
BibTeX
@misc{learninghighlyd-2026/8,
title={Learning Highly Dynamic Skills Transition for Quadruped Jumping Through Constrained Space},
author={Luo Z, Zhang J, Han Y, Ma J, Lu M et al.},
year = "2026"
}
CaLiSym: Learning Symplectic Dynamics of Real-World Systems through Structured Canonical Lifts
Papatheodorou A, Vaidhyanathan P, Ares N, Havoutis I & Milburn GJ (2026)
BibTeX
@misc{calisymlearning-2026/7,
title={CaLiSym: Learning Symplectic Dynamics of Real-World Systems through Structured Canonical Lifts},
author={Papatheodorou A, Vaidhyanathan P, Ares N, Havoutis I & Milburn GJ},
year = "2026"
}
Elastic ODYN: Differentiable Optimization for Infeasible Control and Learning in Robotics
Papatheodorou A, Rojas J, Havoutis I & Mastalli C (2026)
Learning Perceptive Platform Adaptive Locomotion Controllers for Quadrupedal Robots
Rytz D, Ly KT & Havoutis I (2026)
Artificial neural networks for HD-sEMG-based hand position estimation: addressing inter- and intra-subject variability
Rolandino G, Lion L, Vieira T, Havoutis I, Andrews B et al. (2026), Journal of NeuroEngineering and Rehabilitation, 23(1)
BibTeX
@article{artificialneura-2026/2,
title={Artificial neural networks for HD-sEMG-based hand position estimation: addressing inter- and intra-subject variability},
author={Rolandino G, Lion L, Vieira T, Havoutis I, Andrews B et al.},
journal={Journal of NeuroEngineering and Rehabilitation},
volume={23},
number={93},
publisher={BioMed Central},
year = "2026"
}
Discovery of skill-switching criteria for learning agile quadruped locomotion
Yu W, Acero F, Atanassov V, Yang C, Havoutis I et al. (2026), Frontiers in Robotics and AI, 13
BibTeX
@article{discoveryofskil-2026/2,
title={Discovery of skill-switching criteria for learning agile quadruped locomotion},
author={Yu W, Acero F, Atanassov V, Yang C, Havoutis I et al.},
journal={Frontiers in Robotics and AI},
volume={13},
number={1697159},
publisher={Frontiers Media},
year = "2026"
}
ODYN: An All-Shifted Non-Interior-Point Method for Quadratic Programming in Robotics and AI
Rojas J, Papatheodorou A, Martinez S, Havoutis I & Mastalli C (2026)
PlatoLTL: Learning to Generalize Across Symbols in LTL Instructions for Multi-Task RL
Cloete J, Jackermeier M, Havoutis I & Abate A (2026)
BibTeX
@misc{platoltllearnin-2026/1,
title={PlatoLTL: Learning to Generalize Across Symbols in LTL Instructions for Multi-Task RL},
author={Cloete J, Jackermeier M, Havoutis I & Abate A},
year = "2026"
}