Dr Ignazio Maria Viola




+44(0)131 6505622


3.093 Faraday Building

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Engineering Discipline: 

  • Mechanical Engineering

Research Institute: 

  • Energy Systems

Research Theme: 

  • Naval Architecture
  • Offshore Renewable Energy
Dr Ignazio Maria Viola
Dr Ignazio Maria Viola


Dr Ignazio Maria Viola is Reader at the School of Engineering, University of Edinburgh, and Fellow of the Royal Institution of Naval Architects. His research in applied fluid dynamics focuses on those conditions where the forces on immersed bodies are governed by vortex flow. He has been awarded two Medals of Distinction and one Medal of Exceptional Merit by the Royal Institution of Naval Architects. He is Editor-in-Chief of the Journal of Sailing Technology of the Society of Naval Architects and Marine Engineers, a society of which he is member of the Council (governing body). He is also Editorial Board Member of 4 other journals: Ocean Engineering, J Marit Eng, Int J Small Craft Tech, and J Mar Sc and Eng. He is the Edinburgh co-Director of the Centre for Doctoral Training (CDT) in Wind & Marine Energy Systems and co-investigator and Deputy Director of the new CDT in Wind & Marine Energy Systems & Structures.

You can also watch this video on Media Hopper.

Curriculum Vitae

Interested in a PhD with us?

VOILAb: Vortex Interaction Collaboratory

Lab members

  • Kristin Luttik (PhD)
  • Weidong Dai (PhD)
  • Jean-Babtiste Souppez (PhD)
  • Daniele Certini (PhD)
  • Shūji Ōtomo (PhD)
  • Gabriele Pisetta (PhD)
  • Geethanjali Pavar (PhD)
  • Callum Bruce (PhD)


  • Dr Abel Arredondo-Galeana (Post-Doctoral Research Assistant, 2019-2020)
  • Dr Cathal Cummins (Alumnus: Post-Doctoral Research Assistant, 2016-2019)
  • Dr Gabriel Thomas Scarlett (Alumnus: PhD, 2019)
  • Dr Abel Arredondo-Galeana (Alumnus: PhD, 2019)
  • Dr Tamás István Józsa (Alumnus: PhD, 2018)
  • Rowan Evelin Muir (Alumna: MScR, 2018)
  • Dr Francesca Tagliaferri (Alumna: PhD, 2015)

Academic Qualifications: 

  • 2008, Doctor of Philosophy (PhD), Experimental and Numerical Aerodynamics of Sailing Yachts, Politecnico di Milano
  • 2001, Master of Engineering, Naval Architecture, Università degli studi di Genova

Professional Qualifications and Memberships: 


Editor-in-Chief, Journal of Sailing Technology, SNAME (2016-date)
Editorial Board Member, Ocean Engineering, ELSEVIER (2015-date)
Editorial Board Member, International Journal of Maritime Engineering, RINA (2020-date)
Editorial Board Member, International Journal of Small Craft Technology, RINA (2012-2021)
Editorial Board Member, Journal of Marine Science and Engineering, Ocean Engineering Sec., MDPI (2018-date)


FRINA, Fellow of the Royal Institution of Naval Architects, no. 00300035 (2015)
CEng, Chartered Engineer Registered by the Engineering Council (UK), no. 584133 (2010)
EUR ING, European Federation of National Engineering Associations, no. 31153 (2010)

AIAA, Member of the American Institute of Aeronautics and Astronautics, no. 488312 (2020)
APS, Member of the American Physical Society, Division of Fluid Dynamics, no. 61177987 (2014)
ASME, Member of the American Society of Mechanical Engineering (2013)
SNAME, Member of the Society of Naval Architects and Marine Engineers, no. 2003765 (2010)
PIANC, Member of the Permanent International Association of Navigation Congresses (2002)
‘Albo degli Ingegneri di Milano’, Member of the Engineer Board of Milan, no. A22092 (2001)


SNAME Council (governing body of SNAME, 6500+ members) (2019-date)
SNAME SC-2 Sailing Craft Panel, Chair (delivers industrial guidelines and advises classification soc.) (2016-date)
SNAME Featured Papers Committee (selects outstanding publications between 200+ articles /y) (2016-date)
ITTC, CFD Specialist Committee (delivered CFD guidelines for industry) (2011-2014)
NATO Applied Vehicle Technology (AVT) Panel on Gust Encounter, AVT-282 (2018-2019)
NATO AVT-347 Panel on Large-Amplitude Gust Mitigation Strategies for Rigid Wings (2019-2023)


UK Fluids Network, Steering Committee (2020-date)
Special Interest Group in Marine Hydrodynamics, EPSRC UK Fluids Network (2016-date)
Special Interest Group in Boundary Layers and Complex Rotating Flows, EPSRC UK Fluids Network (2018-date)
EPSRC Engineering Early Career Forum (2016-2019) – informal advisory board of the EPSRC
EPSRC Centre for Doctoral Training (CDT) in Wind & Marine Energy Systems, Co-Director (2016-date)
EPSRC CDT in Wind & Marine Energy Systems and Structures, Director of Responsible Research and Innovation (2019-date)
EPSRC Supergen Offshore Renewable Energy Hub, Research Advisory Board (2018-date)
EPSRC Supergen Wind, Advisory Board (2016-2019)
Offshore Wind Innovation Hub, Roadmap Element Coordinator (2018-2019)


  • Fluid Mechanics
  • Marine Energy

Research Interests: 

VOILAb: Vortex Interaction Collaboratory

Our research is in applied fluid dynamics and focuses on those conditions where the forces on a body immersed in a fluid are due to the formation of vortical flow structures. This often occurs in Nature, where natural evolution has led to optimal solutions for complex problems. Hence, we seek inspiration from the fluid mechanics of plants and animals to develop new technology. Vortices, for instance, are exploited by natural flyers to fly stably and efficiently in the turbulent wind. Similarly, the forces on very thin surfaces, such as the wings of small drones and the sails of a yacht, are dominated by vortex flow. Our research aims to understand and, when possible control, the formation, stability and interaction of these vortices in order to improve performance, efficiency and survivability of different engineering systems.


Yacht Engineering Research

Our research in yacht engineering aims to develop new fundamental knowledge on the aerodynamics of sails to improve the performance of competitive yachts. Sails are very thin wings. Differently from conventional wings, such as the wings of an airplane, the flow separates at the leading edge forming complex tridimensional vortical flow structures. Hence, while wings are typically designed to prevent flow separation and enable the air to  flow smoothly along the wing, the flow around the sails is separated and the aerodynamic force is mostly provided by the vortices in the flow.

Read more here


The fluid mechanics principles that allow a passenger jet to lift off the ground are not applicable to the flight of small flyers. The reason for this is scaling: human flight requires very large Reynolds numbers, while small plants have comparatively small Reynolds numbers. At this small scale, there are a variety of modes of flight available to plants: from parachuting to gilding and autorotation.

dandelion aerodynamics

Our group studies the aerodynamics of small plumed fruit that utilise a new mode of flight. If a dandelion fruit, for example, is picked up by the breeze, it can be carried over hundreds of miles.  Incredibly, the filament structures of these seeds are mostly empty space, making this an extremely efficient mode of transport. Moreover, the fruit can become more or less streamlined depending on the environmental conditions; in this way, they behave as a smart technology. We are uncovering the novel engineering principles of these fruit, using a combination of numerical, analytical, and physical modelling. Our group has built a specialised wind tunnel, which we use alongside particle image velocimetry and high-speed imaging to visualise and measure the flow around these fruit.


Tidal energy research

Very strong currents flow in some parts of the ocean, thousands of time more powerful than a strong wind. The power in these currents is completely renewable and virtually unlimited. In Europe, for example, highly energetic tidal sites include the north of Scotland, the straights of Messina, the Dardanelles Strait, the coasts of Brittany and Normandy. The first MW-scale arrays of tidal turbines is currently being installed in Scotland - yet our understanding of the tidal flow remains marginal. More importantly, it is still unclear which is the most efficient technology for energy harvesting. Our research aims to understand the unsteady hydrodynamics of tidal energy harvesters and to design more durable and efficient technology. Inspired by the extraordinary abilities of natural swimmers, we study morphing technology that can mitigate load fluctuations and new-concept array design inspired by the synergetic fluid dynamics interactions in fish shoals.

(photo of a model-scale tidal turbine developed at the Institute for Energy System, courtesy of Dr G. Payne)



  • Yacht engineering (sail aerodynamics)
  • Biomechanics and bio-inspired flight (flight of seeds and drones)
  • Offshore renewable energy (tidal and offshore wind energy)

Further Information: