Projects

ProbeFly figure

ProbeFly | Principal Investigator

Jun. 2025 - Present

ProbeFly: Minimal-Sensor Micro-UAVs for Adaptive Nuclear Confined Space Exploration. The project develops micro-UAV autonomy for confined and degraded nuclear environments with minimal sensing, focusing on in-situ learning-based adaptation under uncertainty and partial observability.

Funding Source: RAICo; UK Atomic Energy Authority (UKAEA)

Amount: GBP £10,000

RAICo figure

RAICo | Co-Investigator

Apr. 2024 - Jun. 2025

Suppressing Task-Space Vibrations in Robotic Manipulators on a Flexible Platform. The project targets vibration-aware planning and control for long-reach robot manipulation on flexible bases, enabling safer, faster task execution and improved stability in nuclear decommissioning scenarios.

Funding Source: RAICo; UK Atomic Energy Authority (UKAEA); Sellafield Ltd.; Nuclear Decommissioning Authority (NDA)

Amount: GBP £150,000

AMPI figure

AMPI | Key Researcher

Mar. 2024 - Feb. 2025

Development of safe learning for manipulator with soft-rigid end-effector. The work investigates safe learning-based control and compliant manipulation using soft-rigid end-effectors, combining data-efficient adaptation with safety constraints for real-world deployment.

Funding Source: UKRI; National Physical Laboratory (NPL); Advanced Machinery and Productivity Initiative (AMPI)

Amount: GBP £22,600,000

LongOps figure

LongOps | Key Researcher

Jul. 2022 - Sep. 2023

Challenge 3: Modelling and control of a long flexible manipulator; Challenge 4: Teleoperation with Digital Twins. Under the SBRI digital technologies program for robotic nuclear decommissioning, this work advanced modeling, trajectory planning, vibration suppression, and digital-twin-enabled teleoperation for safer remote operations.

Funding Source: UK Atomic Energy Authority (UKAEA); SBRI - Digital technologies for robotic nuclear decommissioning

Amount: GBP £300,000

RAIN figure

RAIN and RAIN+ | Key Researcher

Jan. 2022 - Jun. 2022

Robotics and Artificial Intelligence for Nuclear (RAIN) and RAIN+. Proposed a reinforcement-learning-based control approach for two classes of optimal pure state transition problems for closed quantum systems: i) when the target state is an eigenstate, and ii) when the target state is a superposition pure state.

Funding Source: EPSRC

Amount: GBP £12,800,000 (RAIN); GBP £1,980,000 (RAIN+)

ADAPT-IT figure

ADAPT-IT | Key Researcher

Sep. 2017 - Dec. 2021

Reducing vehicle carbon emissions through development of a compact, efficient, and intelligent powertrain. The project developed adaptive estimation and learning-based optimal control methods for engine and powertrain systems, improving performance and emissions robustness under uncertainty and transient operating conditions.

Funding Source: Advanced Propulsion Centre (APC) UK

Amount: GBP £3,900,000

AECE figure

AECE | Key Researcher

Sep. 2015 - Dec. 2017

Adaptive optimal estimation and control for automotive engine systems with approximate dynamic programming. Investigated adaptive optimal control and reinforcement learning for engine systems, combining estimation, stability analysis, and real-time learning toward practical implementation.

Funding Source: EU FP7 Marie-Curie Fellowship

Amount: EUR €231,000

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