Daniele De Martini is Associate Professor in Mobile Robotics at the Oxford Robotics Institute and the Oxford e-Research Centre, University of Oxford, and Tutorial Fellow in Engineering Science at Keble College. He co-leads the Mobile Robotics Group alongside Professor Paul Newman. His research combines robotics and artificial intelligence to design autonomous systems capable of perception, mapping, localisation, and adaptive decision-making. By exploiting multiple sensing modalities—from vision to lidar to radar—his group explores how robots can reliably navigate and interpret the world, even in challenging or extreme conditions. Daniele has deployed robots in environments ranging from urban Oxford to the Scottish Highlands. Another key aspect of his work examines robotics–infrastructure interaction, enabling dynamic sharing of sensing and computing resources between robots and smart environments to support safe and scalable autonomy.
Recent Publications
Robot-relay: building-wide, calibration-less visual servoing with learned sensor handover networks
Robinson L, Gadd M, Newman P & Martini D (2026), Autonomous Robots, 50(1)
Biodiversity research requires more motors in air, water and on land
Qi M, Gadd M, De Martini D, Davis KJ, Xiong B et al. (2025), Methods in Ecology and Evolution
LikePhys: Evaluating Intuitive Physics Understanding in Video Diffusion Models via Likelihood Preference
Yuan J, Pizzati F, Pinto F, Kunze L, Laptev I et al. (2025)
BibTeX
@misc{likephysevaluat-2025/10,
title={LikePhys: Evaluating Intuitive Physics Understanding in Video Diffusion Models via Likelihood Preference},
author={Yuan J, Pizzati F, Pinto F, Kunze L, Laptev I et al.},
year = "2025"
}
Ensemble of Pre-Trained Models for Long-Tailed Trajectory Prediction
Thuremella D, Yang Y, Wanna S, Kunze L & De Martini D (2025)
AutoInspect: towards long-term autonomous inspection and monitoring
Staniaszek M, Flatscher T, Rowell J, Niu H, Liu W et al. (2025), IEEE Transactions on Field Robotics
The Oxford RobotCycle Project: A Multimodal Urban Cycling Dataset for Assessing the Safety of Vulnerable Road Users
Panagiotaki E, Thuremella D, Baghabrah J, Sze S, Fu LFT et al. (2025), IEEE Transactions on Field Robotics, PP(99), 1-1
BibTeX
@article{theoxfordrobotc-2025/5,
title={The Oxford RobotCycle Project: A Multimodal Urban Cycling Dataset for Assessing the Safety of Vulnerable Road Users},
author={Panagiotaki E, Thuremella D, Baghabrah J, Sze S, Fu LFT et al.},
journal={IEEE Transactions on Field Robotics},
volume={PP},
pages={1-1},
publisher={Institute of Electrical and Electronics Engineers (IEEE)},
year = "2025"
}
Bayesian Radar Cosplace: Directly estimating location uncertainty in radar place recognition
Agarwal S, Yuan J, Newman P, De Martini D & Gadd M (2025), IET Radar Sonar & Navigation, 19(1)
BibTeX
@article{bayesianradarco-2025/3,
title={Bayesian Radar Cosplace: Directly estimating location uncertainty in radar place recognition},
author={Agarwal S, Yuan J, Newman P, De Martini D & Gadd M},
journal={IET Radar Sonar & Navigation},
volume={19},
publisher={Institution of Engineering and Technology (IET)},
year = "2025"
}
Tiny Lidars for Manipulator Self-Awareness: Sensor Characterization and Initial Localization Experiments
Caroleo G, Albini A, De Martini D, Barfoot TD & Maiolino P (2025)
BibTeX
@inproceedings{tinylidarsforma-2025/3,
title={Tiny Lidars for Manipulator Self-Awareness: Sensor Characterization and Initial Localization Experiments},
author={Caroleo G, Albini A, De Martini D, Barfoot TD & Maiolino P},
booktitle={IEEE/RSJ International Conference on Intelligent Robots and Systems},
year = "2025"
}
Select2Plan: Training-Free ICL-Based Planning Through VQA and Memory Retrieval
Buoso D, Robinson L, Averta G, Torr P, Franzmeyer T et al. (2025), IEEE Robotics and Automation Letters, 10(11), 11267-11274