waLBerla‐wind: A lattice‐Boltzmann‐based high‐performance flow solver for wind energy applications

Author:

Schottenhamml Helen12ORCID,Anciaux Sedrakian Ani3,Blondel Frédéric1,Köstler Harald2,Rüde Ulrich24

Affiliation:

1. Direction Physico‐chimie et Mécanique appliquées IFP Energies Nouvelles Rueil‐Malmaison France

2. Chair for System Simulation Friedrich‐Alexander University Erlangen Germany

3. Direction Sciences et Technologies du Numérique IFP Energies Nouvelles Rueil‐Malmaison France

4. Parallel Algorithm Team CERFACS Toulouse France

Abstract

SummaryThis article presents the development of a new wind turbine simulation software to study wake flow physics. To this end, the design and development of waLBerla‐wind, a new simulator based on the lattice‐Boltzmann method that is known for its excellent performance and scaling properties, will be presented. Here it will be used for large eddy simulations (LES) coupled with actuator wind turbine models. Due to its modular software design, waLBerla‐wind is flexible and extensible with regard to turbine configurations. Additionally it is performance portable across different hardware architectures, another critical design goal. The new solver is validated by presenting force distributions and velocity profiles and comparing them with experimental data and a vortex solver. Furthermore, waLBerla‐wind's performance is compared to a theoretical peak performance, and analyzed with weak and strong scaling benchmarks on CPU and GPU systems. This analysis demonstrates the suitability for large‐scale applications and future cost‐effective full wind farm simulations.

Funder

Horizon 2020 Framework Programme

Deutsche Forschungsgemeinschaft

Publisher

Wiley

Reference41 articles.

1. IRENA.Future of wind: Deployment investment technology grid integration and socio‐economic aspects: a Global Energy Transformation paper.2019.

2. Data-driven RANS closures for wind turbine wakes under neutral conditions

3. MichelsenJ.Basis3D ‐ a platform for development of multiblock PDE solvers:β$$ \upbeta $$‐ release. AFM 92‐05. Technical University of Denmark.1992.

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