Projects per year
I am a Reader in Offshore Renewable Energy Systems, and I joined the NAOME Department of the University of Strathclyde in August 2018. My area of expertise is applied mechanics, focusing in particular on multidisciplinary, coupled model of dynamics for offshore renewable energy systems. I apply this expertise to develop conceptual and preliminary design methodologies for offshore renewable energy systems.
I am currently the Principal Investigator of one of the five EPSRC Joint UK-China Offshore Renewable Energy flagship projects, the 3 years, £ 0.8m project INNO-MPP (http://gow.epsrc.ac.uk/NGBOViewGrant.aspx?GrantRef=EP/R007497/1). With my research group, we are focusing on the development of multi-purpose offshore platforms for the sustainable development of small/isolated communities, exploiting the synergies among offshore renewable energy and aquaculture industries.
I am also Work Package leader in the 3.5 years, € 10m EU H2020 project “The Blue Growth Farm” (http://www.thebluegrowthfarm.eu/) (https://cordis.europa.eu/project/rcn/216067_en.html), focusing on the development and demonstration of an automated, modular and environmentally friendly multi-functional platform for open sea farm installations of the Blue Growth Industry. In this project, I am in charge of the development of a multidisciplinary, coupled model of dynamics of this multi-purpose platform.
Furthermore, I am a Co-Investigator and Work Package leader in a prestigious 3 years, 3 m£ EPSRC project HOME-Offshore (http://homeoffshore.org/), which focuses on merging Artificial Intelligence, Robotic inspection and Advanced Physics Modelling to lower the cost of offshore wind farm maintenance.
I sit on several international committees, including the ITTC Specialist Committee on Hydrodynamic Modelling of Marine Renewable Energy Devices and the OMAE Ocean Renewable Energy technical committee.
In the past, I had been the Principal Investigator on an Innovate UK project, focusing on the conceptual and preliminary design of a novel floating support structure for tidal turbines (http://gow.epsrc.ac.uk/NGBOViewGrant.aspx?GrantRef=EP/P510348/1). I also led the conceptual design of the floating support structure in the £2.8m ETI funded project NOVA (https://www.eti.co.uk/programmes/offshore-wind/nova), and as work package leader I led the development of a coupled model of dynamics for a hybrid wind-wave offshore floating system in the EU FP7 project H2Ocean (http://www.h2ocean-project.eu/).
I am also leading the conceptual and preliminary design of aerodynamically alleviated marine vehicles (AAMV), an area of research initiated with my PhD, and for which I have been awarded the prestigious RINA “Calder Prize”. The work has been published in the Royal Society Proc A journal (doi:10.1098/rspa.2009.0459), and it also led to a patented novel trim control mechanism for high speed marine vehicles (Patent GB2472266).
External examiner for the BEng and MEng in Ship Science, University of SouthamptonOct 2017 → Sep 2021
Mamber of Specialist Committee on Hydrodynamic Modelling of Marine Renewable Energy Devices, International Towing Tank Conference23 Sep 2017 → 20 Sep 2020
Member of the Maritime Innovation Committee, The Royal Institution of Naval Architecture2017 → 2018
External examiner for the MSc in Offshore Floating Systems and Msc in Ship & Offshore Structures, University of StrathclydeOct 2015 → Jul 2018
Member of the Ocean Engineering Committee, International Towing Tank Conference5 Sep 2014 → 22 Sep 2017
- Offshore Renewables
- Offshore Engineering
- Offshore Floating Wind Turbines
- Multi-purpose platform
- Multi-use platform
- System Modelling and Simulation
- Offshore Wind
1/10/20 → 1/10/24
Project: Research Studentship Case - Internally allocated
1/02/20 → 1/02/23
Project: Research Studentship - Internally Allocated
Analysis of the coupled dynamic response of an offshore floating multi-purpose platform for the blue economyLi, L., Ruzzo, C., Collu, M., Gao, Y., Failla, G. & Arena, F., 6 Sep 2020, In : Ocean Engineering. 217, 107943.
Research output: Contribution to journal › Article
Analysis of the effect of a series of back twist blade configurations for an active pitch-to-stall floating offshore wind turbineWard, D., Collu, M. & Sumner, J., 8 Apr 2020, In : Journal of Offshore Mechanics and Arctic Engineering. 142, 6, 9 p., 062001.
Research output: Contribution to journal › ArticleOpen AccessFile5 Downloads (Pure)