The research focus is on developing state-of-the-art machine learning algorithms (including Deep learning, Reinforcement learning, and Unsupervised learning) for intelligent robot behaviour. We aim to advance the decisional autonomy of robots, improve their perception, their understanding of the world, and their prediction capabilities. The ultimate goal is to create algorithms that allow robots to autonomously learn from their environment in an open-ended and continuous way (i.e. lifelong learning).

We have several robots that we use to study cognition:

Robot DE NIRO - Design Engineering's Natural Interaction Robot.

SLIDER - a novel bipedal walking robot without knees.

ResQbot - an autonomous casualty extraction robot.

Lab members researching robot cognition: Fabio Pardo, Nemanja Rakicevic, Arash Tavakoli, Vitaly Levdik, Digby Chappell, Francesco Cursi.

Robot learns the skill of archery

After being instructed how to hold the bow and release the arrow, the robot learns by itself to aim and shoot arrows at the target. The learning algorithm is called ARCHER (Augmented Reward Chained Regression).Play video
After being instructed how to hold the bow and release the arrow, the robot learns by itself to aim and shoot arrows at the target. The learning algorithm is called ARCHER (Augmented Reward Chained Regression).

Learning Symbolic Representations of Actions from Human Demonstrations

Imitation learning enables a robot to acquire new trajectory-based skills from demonstrations. This novel machine learning approach integrates imitation learning, Visuospatial Skill Learning, and a symbolic planner.Play video
Imitation learning enables a robot to acquire new trajectory-based skills from demonstrations. This novel machine learning approach integrates imitation learning, Visuospatial Skill Learning, and a symbolic planner.

Interactive robot learning of visuospatial skills

Interactive robot learning of visuospatial skills. The so-called Play video
Interactive robot learning of visuospatial skills. The so-called "visuospatial skills" allow people to visually perceive objects and the spatial relationships among them.

Thruster Failure Recovery on Autonomous Underwater Vehicle

Thruster Failure Recovery on Autonomous Underwater Vehicle. The learning approach is able to discover new control policies to overcome thruster failures as they happen, using a model-based direct policy search algorithm.Play video
Thruster Failure Recovery on Autonomous Underwater Vehicle. The learning approach is able to discover new control policies to overcome thruster failures as they happen, using a model-based direct policy search algorithm.

Publications

  1. Fabian Falck, Sagar Doshi, Marion Tormento, Gor Nersisyan, Nico Smuts, John Lingi, Kim Rants, Roni Permana Saputra, Ke Wang, Petar Kormushev, "", In Frontiers in Robotics and AI, 2020.
  2. Roni Permana Saputra, Nemanja Rakicevic, Petar Kormushev, "", In Proc. IEEE/RSJ Intl Conf. on Intelligent Robots and Systems (IROS 2019), Macau, China, 2019.
  3. Nemanja Rakicevic, Petar Kormushev, "", In Autonomous Robots, Springer, 2019.
  4. Roni Permana Saputra, Petar Kormushev, "", In Proc. 2018 IEEE International Symposium on Safety, Security, and Rescue Robotics (SSRR 2018), Philadelphia, USA, 2018.
  5. Roni Permana Saputra, Petar Kormushev, "", In Proc. 19th International Conference Towards Autonomous Robotic Systems (TAROS 2018), Bristol, UK, 2018.
  6. Nemanja Rakicevic, Petar Kormushev, "", In NIPS 2017 Workshop on Acting and Interacting in the Real World: Challenges in Robot Learning, 31st Conference on Neural Information Processing Systems (NIPS), California, USA, 2017.
  • Robot
  • DE NIRO

Meet our robots!

Our research is at the intersection of Robotics and Machine Learning

Contact us

Senior Lecturer (Associate Professor)
Dyson School of Design Engineering
Address: 25 Exhibition Road, South Kensington, London, SW7 2DB
What can our robots do?
Dyson

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