His current research focuses on the spatial optimisation of offshore renewable energy systems, with particular emphasis on floating offshore wind. His work develops a geospatial methodology that integrates geographic information systems (GIS), environmental datasets, and spatial constraints to identify technically feasible, environmentally responsible, and policy-aligned locations for offshore wind deployment.
The research combines large-scale marine datasets, including wind resources, bathymetry, seabed conditions, marine protected areas, shipping routes, fisheries, and existing offshore infrastructure, to support evidence-based marine spatial planning. By integrating metocean, geological, anthropogenic, and ecological data within a harmonised GIS framework, the research enables transparent comparison and trade-off analysis across competing marine uses.
A key objective of the work is to improve how spatial data are integrated across scales, sectors, and jurisdictions, supporting strategic planning for offshore wind expansion in increasingly congested marine environments. The research contributes to sustainability, renewable energy planning, and offshore engineering, with relevance to policymakers, industry stakeholders, and researchers involved in the global energy transition.