​​​​Dr Pablo Ouro

[25] Performance and wake characteristics of tidal turbines in an infinitely large array.

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Ouro P, Nishino T.

Journal of Fluid Mechanics. Accepted. 

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[24] Leaky barriers: impact of physical design on movement of rainbow trout (Oncorhynchus mykiss).

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Mueller S, Wilson CAME, Ouro P, Cable J.

Water Resource Research. Accepted. 

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[23] On the performance of a highly-scalable Computational Fluid Dynamics code on AMD, ARM and Intel processors.

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Ouro P, Lopez-Novoa U, Guest M.

Computational Physics Communications. Accepted. 

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[22] Theoretical modelling of the three-dimensional wake of vertical axis turbines.

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Ouro P, Lazennec M.

Flow. 1: E3. 

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[21] Free surface flow over square bars at different Reynolds numbers.

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Jalalabadi R, Stoesser T, Ouro P, Luo Q, Xie Z.

Journal of Hydro-environmental Research. 36: 67-76. 

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[20] Leaky barriers: leaky enough for fish to pass?.

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Mueller S, Wilson CAME, Ouro P, Cable J.

Royal Society Open Science. 8: 201843. 

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[19] Propagation of a solitary wave over a finite submerged thin plate.

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Christou A, Stoesser T, Xie Z, Ouro P. 

Applied Ocean Research. 106: 102435. 

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[18] Drivers for mass and momentum exchange between the main channel and river bank lateral cavities

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Ouro P, Juez C, Franca M. 

Advances in Water Resources. 137:103511. 2020. [URL] [PDF]

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[17] Performance assessment of a tidal turbine using two flow references.

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Harrold M, Ouro P, O'Doherty T. 

Renewable Energy. 153:624-633. 2020. [URL]

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[16] An Actuator Surface Model to simulate vertical axis turbines.

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Massie L, Ouro P, Stoesser T. 

Energies. 12(24):4741. 2019. [URL]

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[15] Spanwise cylinder wake hydrodynamics and fish behaviour.

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Muhawenimana V, Wilson CAME, Ouro P, Cable J. 

Water Resources Research. 55(11):8569-8582. 2019. [URL]

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[14] Asymmetric wake of a horizontal cylinder in close proximity to a solid boundary for Reynolds numbers in the subcritical turbulence regime.

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Ouro P, Muhawenimana V, Wilson CAME.

Physical Review Fluids. 4: 104604. 2019. [URL] [PDF]

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[13] Analysis of array spacing on tidal stream turbine farm performance using Large-Eddy Simulation.

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Ouro P, Ramirez L, Harrold M. 

Journal of Fluids and Structures. 91: 102732. 2019. [PDF]

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[12] Friction factor decomposition for rough-wall flows: theoretical background and application to open-channel flows.

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Nikora V, Stoesser T, Cameron S, Stewart M, Papadopoulos K, Ouro P, McSherry R, Zampiron A, Marusic I, Falconer R.  

Journal of Fluid Mechanics. 872: 626-664. 2019. [URL]

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[11] Rotor Loading Characteristics of a Full-Scale Tidal Turbine.

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Harrold M, Ouro P.  

Energies. 12(6): 1035. 2019. [PDF] Invited feature article and Cover of its issue.

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[10] Three-dimensionality of the wake recovery behind a vertical axis turbine.

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Ouro P, Runge S, Luo Q, Stoesser T.  

Renewable Energy. 133: 1066-1077. 2019. [PDF]

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[9] Speedup of an Eulerian-Lagrangian large-eddy simulation solver by hybrid MPI-OpenMP parallelisation.

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Ouro P, Fraga B, Lopez-Novoa U, Stoesser T.  

Computers and Fluids. 179: 123:136. 2019. [PDF]

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[8] Impact of Environmental Turbulence on the Performance and Loadings of a Tidal Current Turbine.

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Ouro P, Stoesser T.  

Flow, Turbulence and Combustion. 102 (3), 613-639. 2019. [PDF]

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[7] Effect of blade cambering on dynamic stall in view of designing vertical axis turbines.

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Ouro P, Stoesser T, Ramirez L.  

ASME Journal of Fluids Engineering. 140(6): 061104. 2018. [PDF]

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[6] A higher order Chimera method for finite volumes schemes.

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Ramirez L, Nogueira X, Ouro P, Navarrina F, Khedalli S, Colominas I.

Archives of Computational Methods in Engineering. 25(3): 691-706. 2018. [URL]

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[5] Dispersion of a Passive Scalar in a Turbulent Separated Flow. 

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Ouro P, Fraga B, Viti N, Angeloudis A, Stoesser T, Gualtieri C.

Environmental Fluid Mechanics. 18(2): 487-513. 2018. [PDF]

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[4] Large-eddy simulation of shallow turbulent wakes behind a conical island. 

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Ouro P, Wilson CAME, Evans P, Angeloudis A.

Physics of Fluids. 29 (12): 126601. 2017. [PDF]

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[3] An immersed boundary-based large-eddy simulation approach to predict the performance of vertical axis tidal turbines.

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Ouro P, Stoesser T.

Computers and Fluids.  152: 74-87. 2017. [PDF]

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[2] Hydrodynamic loadings on a horizontal axis tidal turbine prototype.

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Ouro P, Harrold M, Stoesser T, Bromley P.

Journal of Fluids and Structures.  71: 78-95. 2017. [URL]

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[1] An immersed boundary method for unstructured meshes in depth averaged shallow water models.

.5

Ouro P, Cea L, Ramirez L, Nogueira X. 

International Journal of Numerical Methods in Fluids. 81: 672-688. 2016. [URL]