Kornel Rozsavolgyi kornel.rozsavolgyi@ttu.edu National Wind Institute Content of presentation Necessity of special software applications Software applications for wind farm project development Training (Software) via NWI Levels Learning outcomes and gained skills Cooperation and possibilities with NWI Why special software applications are needed Due to wind farm project development complexity special software applications are necessary to help: Increase efficiency and revenue of project Ensure feasible and constructible design (setbacks) Lower uncertainty in data and design and project risk Optimize layout design, project execution and O&M to lower costs Support better decision making Software applications for wind farm project development Some of the popular wind flow models WAsP: Denmark – linear model MS‐Micro: Canada – linear model WindSim: Norway – non‐linear CFD model, solves the (RANS) equations MeteoDyn: France – non‐linear CFD model, solves the (RANS) equations. NWP and/or mesoscale models: 3TIER, Windlogics, AWS TruePower, etc Training via NWI (Online or face to face) Training level hierarchy Gaining more and more skills and knowledge Deeper and more detailed understanding Level 1 (Windographer & WAsP) Get detailed knowledge about wind data processing, quality control and data collection systems via state of the art data analysis and modeling software package Get useful overview about different wind flow modeling, resource analysis and site assessment software Develop ability to compare and evaluate wind data and select wind turbines for wind farm projects and gain useful experience in wind farm layout design using WAsP Learn principles of boundary layer meteorology, wind flow modeling, resource assessment and wake effect Level 2 (QGIS/ArcMAP) Gain well rounded understanding about GIS principles, applications, file structures, coordinate and projection systems, GIS products and solutions applicable in numerous fields such as wind power industry Learn how to use geoprocessing tools to consider complex spatial setbacks during wind farm site assessment and project design Get experience in calculating GIS results and composing complex maps that help decision making Successfully build and use of attribute database table and SQL operations as well as get deeper understanding about vector and raster data in GIS Level 3 (WindPro & Adv.WAsP) Get detailed and advanced knowledge in wind farm project design and development using WindPro, GIS and flow modeling applications Learn how to optimize a wind farm project design based on cost of energy and wind turbine site suitability in order to ensure safety and maximize revenue or production, while reduce risk and cost Work on comprehensive wind farm project and layout design focusing on numerous setbacks, micro siting, engineering and financial factors Acquire advanced skills in data processing, analysis and integrated modeling using WindPro with embedded flow models Cooperation and possibilities with NWI Workforce training Engineers, scientists, financial experts and decision makers Research cooperation Software development, testing and validation Methodology and workflow optimization Support wind turbine validation and testing (REESE) NWI ‐ REESE Contracting for projects Grands and proposals R&D Internship development NWI ‐ REESE Center 200 m Met tower Boundary Layer wind tunnel Low level boundary layer profiler West TX Mesonet (~80 met stations) NWI Radar truck Wind turbine test an validation site SWIFT project Scaled Wind Farm Technology Facility to address possible wind farm underperformance and wake effect issues Questions? Thank you for your time and attention!