Torkil Veyhe, Hans Georg Beyer, Barður Niclasen

Slides:



Advertisements
Similar presentations
Bridging the Gap Between Statistics and Engineering Statistical calibration of CFD simulations in Urban street canyons with Experimental data Liora Malki-Epshtein.
Advertisements

Wind Resource Assessment
A numerical simulation of urban and regional meteorology and assessment of its impact on pollution transport A. Starchenko Tomsk State University.
A thermodynamic model for estimating sea and lake ice thickness with optical satellite data Student presentation for GGS656 Sanmei Li April 17, 2012.
Case Study: Impact of Above Ground Spent Fuel Storage on Nearby Meteorological Systems Jim Holian SAIC NUMUG Meeting Charlotte, NC June 2008.
Session 11: Modeling Dispersion of Chemical Hazards, using ALOHA 1 Modeling Dispersion of Chemical Hazards, using ALOHA Prepared by Dr. Erno Sajo, Associate.
OpenFOAM for Air Quality Ernst Meijer and Ivo Kalkman First Dutch OpenFOAM Seminar Delft, 4 november 2010.
Assessing the impact of soil moisture on the diurnal evolution of the PBL and on orographic cumulus development over the Santa Catalina Mountains during.
Will Pendergrass NOAA/ARL/ATDD OAR Senior Research Council Meeting Oak Ridge, TN August 18-19, 2010 Boundary–Layer Dispersion Urban Meteorology 5/20/2015Air.
Wind Atlas for Egypt: measurements, micro- and mesoscale modelling Niels G. Mortensen, Jake Badger & J. Carsten Hansen Wind Energy Department Risø National.
Issues in Very High Resolution Numerical Weather Prediction Over Complex Terrain in Juneau, Alaska Don Morton 1,2, Delia Arnold 3,4, Irene Schicker 3,
Data mining and statistical learning, lecture 2 Outline  An example of data mining  SAS Enterprise miner.
Presented by : Maryline Mallet Other members involved in this project : Yves Gagnon, Gérard Poitras, René Thibault Development of the Wind Atlas for the.
Oklahoma Wind Power Initiative (OWPI) Tim Hughes (OU) Mark Shafer (OU) Troy Simonsen (OU) Jeremy Traurig (OU) Nick Mirskey (OU) Steve Stadler (OSU) Pete.
1 Modelled Meteorology - Applicability to Well-test Flaring Assessments Environment and Energy Division Alex Schutte Science & Community Environmental.
Weather Model Background ● The WRF (Weather Research and Forecasting) model had been developed by various research and governmental agencies became the.
Hydrologic/Watershed Modeling Glenn Tootle, P.E. Department of Civil and Environmental Engineering University of Nevada, Las Vegas
Small Wind Site Assessment Produced by the Institute for Sustainable Futures; UTS in partnership with the Alternative Technology Association and TAFE NSW.
fluidyn – PANAIR Fluidyn-PANAIR
WMO / COST 718 Expert Meeting on Weather, Climate and Farmers November 2004 Geneva, Switzerland.
Uncertainty in Wind Energy
Presentation of Wind Data  The wind energy that is available at a specific site is usually presented on an annual basis.  There are several methods by.
WIND ENERGY Wind are produced by disproportionate solar heating of the earth’s land and sea surfaces. –It forms about 2% of the solar energy –Small % of.
Generating electricity – Applying knowledge lesson Learning objectives; To know and understand the different energy resources available to us. (level 4/5)To.
Totara Bank project 2008 Energy Postgraduate Conference Léa Sigot - Sylvain Lamige Supervisor: Attilio Pigneri.
Southern Taiwan University Department of Electrical engineering
Earth System Sciences, LLC Suggested Analyses of WRAP Drilling Rig Databases Doug Blewitt, CCM 1.
Improving WAsP predictions in (too) complex terrain
Drivers of Global Wildfires — Statistical analyses Master Thesis Seminar, 2010 Hongxiao Jin Supervisor: Dr. Veiko Lehsten Division of Physical Geography.
Wolf-Gerrit Früh Christina Skittides With support from SgurrEnergy Preliminary assessment of wind climate fluctuations and use of Dynamical Systems Theory.
Renewable Energy Research Laboratory University of Massachusetts Prediction Uncertainties in Measure- Correlate-Predict Analyses Anthony L. Rogers, Ph.D.
Assimilation of HF Radar Data into Coastal Wave Models NERC-funded PhD work also supervised by Clive W Anderson (University of Sheffield) Judith Wolf (Proudman.
1 The Wind. 2 3 The origin of wind The earth is unevenly heated by the sun resulting in the poles receiving less energy from the sun than the equator.
ECE 7800: Renewable Energy Systems
1 Using Hemispheric-CMAQ to Provide Initial and Boundary Conditions for Regional Modeling Joshua S. Fu 1, Xinyi Dong 1, Kan Huang 1, and Carey Jang 2 1.
AWS Truewind Methodology Timeline of AWS Truewind participation Key points Wind resource modeling Estimation of plant output Validation and adjustment.
Use of Dynamical Adaptation in Research Impact Studies Second Workshop on Statistical and Dynamical Adaptation May 2003, Vienna, Austria Martina.
| Folie 1 Assessment of Representativeness of Air Quality Monitoring Stations Geneva, Wolfgang Spangl.
Technical Specifications for Monitoring Ground Displacements at a National Highway Project K. Lakakis, P. Savvaidis and I. Ifadis Laboratory of Geodesy.
Experience of Modelling Forested Complex Terrain Peter Stuart, Ian Hunter & Nicola Atkinson 30 th October 2009.
Regional Enhancement of the Mean Dynamic Topography using GOCE Gravity Gradients Matija Herceg 1 and Per Knudsen 1 1 DTU Space, National Space Institute,
Parameter estimation of forest carbon dynamics using Kalman Filter methods –Preliminary results Chao Gao, 1 Han Wang, 2 S Lakshmivarahan, 3 Ensheng Weng,
Modelling the impact of wakes on power output at Nysted and Horns Rev R.J. Barthelmie, Indiana University USA/Risoe DTU DK K. Hansen, DTU Denmark S.T.
DIRECT RUNOFF HYDROGRAPH FOR UNGAUGED BASINS USING A CELL BASED MODEL P. B. Hunukumbura & S. B. Weerakoon Department of Civil Engineering, University of.
Model calculationsMeasurements An extreme precipitation event during STOPEX I J.Reuder and I. Barstad Geophysical Institute, University of Bergen, Norway.
Implementation of Terrain Resolving Capability for The Variational Doppler Radar Analysis System (VDRAS) Tai, Sheng-Lun 1, Yu-Chieng Liou 1,3, Juanzhen.
Evaluation of pollution levels in urban areas of selected EMEP countries Alexey Gusev, Victor Shatalov Meteorological Synthesizing Centre - East.
Anatomy of Modern Wind Turbine & Wind farms -II
Torkil Veyhe, Hans Georg Beyer, Barður Niclasen
1Weidinger, T., 2Costa, A. A., 3Lajos, T., 4Kiss, Á.,
Simulation of stream flow using WetSpa Model
Optimization of Windfarm Layout
Evaluation of the Cuban Wind Atlas
General Information and data needed for topographic survey A
From: Nuclear Power as a Basis for Future Electricity Generation
Thirty-year Time Series of Merged Raingauge-Satellite Rainfall Data over Ethiopia Tufa Dinku1, Stephen Connor1, David Grimes2, Kinfe Hailemariam3, Ross.
Assessment of wind power resource in Belgrade region
Estimates of hydrogen production potential from renewable resources in Algeria Soumia Rahmounia*, Noureddine Settoua, Belkhir Negroua, Abderrahmane Gouarehb.
European Wind Energy Conference and Exhibition 2009, Marseille, France
Copenhagen 31 January 2008 Wind energy potential in Europe Methodology Hans Eerens MNP Netherlands.
Project progress report WP2
Reinhold Steinacker Department of Meteorology and Geophysics
Data management: 10 minute data, 8760 hours Data Q/C, error checking
Maps.
Journal of Geophysical Research
Journal of Geophysical Research
Suggested Analyses of WRAP Drilling Rig Databases
MS-Micro 4: Improved treatment of roughness variations.
Ebba Dellwik, Duncan Heathfield, Barry Gardiner
Wind Energy Potential in Europe: 2020 – 2030
Presentation transcript:

Analysis of wind conditions on the Faroe islands based on roadside wind measurements and WASP Torkil Veyhe, Hans Georg Beyer, Barður Niclasen University of the Faroe Islands, Tórshavn, Faroe Islands On the Faroe Islands it is intended to increase the share of wind energy to the electricity supply. To improve an enhance the mapping of the wind potential, data given by a set of meteorological stations with wind measurements at 5 - 10m above ground intended to monitor road conditions (see fig.2) can be exploited. These stations are, however due to the complex topography of the islands, mostly positioned at locations not optimal for wind energy studies. We will describe the assessment of the possible to use these data for a scanning of the wind energy relevant information for a complex topography applying WASP in both, its conventional and CFD configuration (see e.g. [1,2, 3]). Für Fi.1: The Faroe Islands are located at 62̊ N in the North Atlantic Land Surface area is 1399 km2, population amounts to 50.000. Fig.2: Locations of the meteorological stations. A first analysis of the capability of WASP for this situation is done by applying its standard configuration. Wind atlas files are generated for some of the stations and used to derive the wind statistics for all stations. Fig. 3a,b give the resulting wind roses based on two atlas files – Sandoy(a) and Glyvurnes(b). The comparison with the empirical roses shows – as expectable - the mixed performance of WASP in this configuration. Fig. 4 gives the result of the test of the CFD configuration for a pair of sites. The match of the wind rose for the test location shows some improvements. In depth studies are ongoing. Atlas Glyvurnes CFD Atlas Sandoy Fig. 4: Comparison of empirical and modelled (WASP CFD setting) wind roses for site Sund based on atlas files derived from data for Glyvursnes. a Atlas Glyvursnes b Fig. 3: Comparison of empirical and modelled (basic WASP setting) wind roses based on atlas files derived from data for Sandoy and Glyvursnes. Tab.1 gives the comparison of empirical and modelled Weibull form (k) and shape (a) shape parameters for the wind distribution at selected sites. The conventional WASP model uses atlas files derived for the sites Sandoy and Glyvursnes. Tab.2 shows the respective result from the CTD setting applied for the site Sund with Atlas file from Glyvursnes. Small improvements compared to the basic scheme can be observed. site emp. k emp. a [m/s] mod. k Sandoy mod. a [m/s] Sandoy mod. k Glyvursnes mod. a [m/s] Gly.vursnes Klaksvik 1.59 5.2 1.53 7.9 1.42 6.2 Norðradalsskarð 10.0 1.49 13.4 1.37 10.8 Sund 1.46 4.3 1.45 3.5 1.33 3.0 Glyvursnes 1.79 8.2 1.93 8.1 Sandoy 1.94 8.5 8.3 1.61 6.9 Tab. 1: Results basic WASP. References [1] Bechmann, A. (n.d.). WAsP CFD A new beginning in wind resource assessment. [2] Troen, I., Hansen, B. O. Wind Resource Estimation in Complex Terrain: Prediction Skill of Linear and nonlinear Micro-Scale Models. København: Technical University of Denmark (2015) [3] Torkil Eyðfinnsson Veyhe, Prediction of Peak Wind Speed on the Faroe Islands With CFD Analysis, Master thesis, Aarhus University Department of Engineering (2016) site emp. k emp. a [m/s] mod. k Glyvursnes mod. a [m/s] Gly.vursnes Sund 1.46 4.3 1.42 3.2 Glyvursnes 1.79 8.2 8.1 Tab.2: Result WASP CFD.