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Published August 15, 2018 | Version v1
Conference paper Open

Wind Turbine Noise: Regulations, Siting, Perceptions and Noise Reduction Technologies

  • 1. Baylor University USA

Description

Wind turbines are supplying a n increasingly larger portion of the world’s energy production. Current wind contributions are at 48 7 GW and this will only grow with time. With the emerging demand for energy comes the necessity to consider the environmental impact of wind energy. Preliminary studies for new sites should consider topics ranging from local State and Federal regulations to biological impacts such as hazards to birds, bats, other wildlife, vegetation, water resources, visual aesthetics, cultural and historic re sources, public health and safety, impact on communications, air quality and climate impacts, and sound generation.

Particularly for land based wind turbines, noise generation is a necessary topic of study. As wind turbines become widespread and encroach on populated areas, the noise becomes more noticeable and annoying. In the United States, a large number of wind farms are located in unpopulated regions where noise is not a significant issue. In Europe and other locations with a high population density, the generation of noise from using wind turbines is more noticeable and problematic.

This paper will examine noise issues related to wind turbines. It will begin by describing how noise is generated. Next, perception of noise is discussed. This becomes important when people and dwellings are located near wind turbines. Background noise has an effect on how people perceive noise or, rather, how noise changes. The site setting/topography is an important part of the installation process and fact or in the noise perception of the area surrounding the turbine.

Noise regulations worldwide are not standardized and usually depend on the local ordinances. A preliminary discussion of international regulations and how they vary between location and country will be undertaken. Regulations are important impacting possible site locations and, therefore, the growth of wind energy. Solving the issues associated with wind turbine noise generation will go a long way in promoting wind as one of the alternative energy generation technologies.

Noise should be considered when designing any wind turbine, specifically low frequency noise related to RPM and airfoil selection. Technologies are being studied for their contributions to noise reduction. The paper will examine some of the technologies intended to reduce noise on wind turbines .

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References

  • Acoustic Ecology Institute (20090. AEI Special Report: Wind Energy Noise Impacts. http://acousticecology.org/docs/AEI%20Wind%20Turbine%2 0Noise%20report%202009.pdf accessed on January 28, 2018.
  • American Wind Energy Association (AEWA) (20080. Wind Energy Siting Handbook. http://awea.files.cms - plus.com/AWEA_Siting_Handbook_Feb2008.pdf accessed on January 28, 2018.
  • Asheim, M. (20140. Measurement of Aeroacoustic Noise Generated on Wind Turbine Blades Modified by Trailing Edge Brushes. PhD Thesis, Colorado School of Mines.
  • Bae, Y., and Moon, Y. (20110. Effect of Passive Porous Surface on the Trailing Edge Noise. Physics of Fluids, 23, 126101, pp.14.
  • Barone, M. (20110. Survey of Techniques for Reduction of Wind Turbine Blade Trailing Edge Noise. S andia Report SAND2011 - 5252. Bastasch, M. (20110. Summary of International Wind Turbine Noise Regulations. Technical Memorandum, Renewable Northwest Project.
  • Braun, K, Gordner, A., and Huurdeman, B., (19950. Investigation of blade tip modifications for acoustic noise reduction and rotor performance improvement. Final Report, JOUR - CT90 - 0111 and JOU2 - CT92 - 0205, Institut fur Computer Anwendungen (ICA), University of Stuttgart, 1995.
  • Bronzaft, A. (20110. The Noise from Wind Turbines: Potential Adverse Impacts on Children's Well - Being. Bulletin of Science, Technology, & Society, 31(4), pp. 291 - 295.
  • Brooks, T., Pope, D., and Marcolini, M. (1989). Airfoil Self - Noise and Prediction. NASA Reference Publication 1218, National Aeronautics and Space Administration, 1989.
  • Clifton - Smith, M. (20100. Aerodynamic Noise Reduction for Small Wind Turbine Rotors. Wind Engineering, 34(4), pp. 403 - 420.
  • Dodman, D. (20090. Blaming Cities for Climate Change? An Analysis of Urban Greenhouse Gas Emissions Inventories. Environmental & Urbanization, Vol 21(1), pp. 185 - 201. DOI: 0.1177/0956247809103016 Energy
  • Doolan, C. (20130. A Review of Wind Turbine Noise Perception, Annoyance and Low Frequency Emission. Wind Engineering, 37 (1), pp. 97 - 104.
  • Ehyaei, M., and Bahadori, M. (20060. Internalizing the Social Cost of Noise Pollution in the Cost Analysis of Electricity Generated by Wind Turbines. Wind Engineering, 30(6), pp. 521 - 529.
  • Energy Information Administration (20160. International Energy Outlook 2016. DOE/EIA - 0484, U.S. Department of Energy, Washington DC.
  • Finez, A., Jondeau, E., Roger, M., and Jacob, M. (2 0 100. Broadband Noise Reduction with trailing edge Brushes," AIAA Paper 2010 - 3980, 16th AIAA/CE AS Aeroacoustics Conference.
  • Fischer, A., Bertangnolio, F., Shen, W., Madsen, J., Madsen, H., Bak, C., Devenport, W., and Intaratep, N. (20140. Wind Tunnel Test of Trailing Edge Serrations for the Reduction of Wind Turbine Noise. Internoise 2014, Melbourne Australia, 16 - 19 November 2014.
  • Fowler, K., Koppen, E., and Matthis, K. (2 0130. International Legislation and Regulation of Wind Turbine Noise. 5 th International C onference on Wind Turbine Noise, Denver, CO, 28 - 30 August 2013.
  • Geyer, T., Sarradj, E., and Fritzsche, C. (20100. Measurements of the Noise Generation at the Trailing Edge of Porous Airfoils. Experimental Fluids, 48, pp291 - 308.
  • Gitano - Briggs, (2012), Low Speed Wind Turbine Design, In Advances in Wind Powered. Carriveau, R., Intech online, DOI : 10.5772/5314,
  • Global Status of Wind Power (20170. Global Wind Energy Council, http://gwec.net/global - figures/wind - energy - global - status/ accessed on January 20, 2018.
  • Global Wind Report: Annual Market Update (20150. Global Wind Energy Council, http://www.gwec.net/publications/global - wind - report - 2/global - wind - report - 2015 - annual - market - update/ accessed on September 6, 2016.
  • Goҫmen, T., and Özerdem, B. (20120. Airfoil Optimization for Noise Emission Problem and Aerodynamic Performance Criterion on Small Scale Wind Turbines. Energy and Exergy Modelling of Advanced Energy Systems. 46 (1), pp. 62 - 71.
  • Hays, A., and Van Treuren, K. (20170. A Study of Power Production and Noise Generation of a Small Wind Turbine for an Urban Environment. ASME IGTI GT - 2017 - 6438. ASME Turbo Expo 2017. Charlotte, NC, June 26 - 30, 2017.
  • Harrison, J. (20090. In Adequacy of Wind Turbine Noise Regulations and Their Application. Canadian Acoustics, 37(3), pp. 156 - 157.
  • Harrison, J. (20110. Wind Turbine Noise. Bulleting of Science, Technology & Society, 31(4), pp. 256 - 261.
  • Heibe, J. (20160. State Legislative Approaches to Wind Energy Facility Siting. National Conference of State Legislatures, http://www.ncsl.org/research/energy/state - wind - energy - siting.aspx accessed on January 28, 2018.
  • Herr, M., and Dobrzynski, W. (20050. Experimental Investigations in Low - Noise Trailing - Edge Design. AIAA Journal, 43(6), pp. 1167 - 1175.
  • Horner, B., Jeffery, R., and Krogh, M. (2011). Literature Reviews on Wind Turbines and Health: Are They Enough? Bulletin of Science, Technology & Society, 3(15), pp. 399 - 4 13.
  • International Electrotechnical Commission (IEC) (20170. I EC 61400 series of documents for wind turbines, Geneva, Switzerland
  • International Organization for Standardization (ISO) (19960. ISO 9612 - 2:1996 document for Acoustics measurement outdoors, Geneva, Switzerland.
  • International Energy Agency (2017a0. World Energy Outlook 201 7 Executive Summary. https://www.iea.org/Textbase/npsum/weo2017SUM.pdf accessed on Jan 20, 2018.
  • International Energy Agency (2017b0. Key World Energy Statistics 2017. pp.24, https://www.iea.org/publications/freepublications/publication /KeyWorld2017.pdf accessed on January 20, 2018.
  • Jakobsen, J., Anderson, B. (19930. Aerodynamic Noise from Wind Turbine Generators: Experiments with Modification of Full Scale R otors. Danish Acoustical Institute, EFP j.nr. 1364/89 - 5 JOUR - CT 90 - 0107, pp. 1 - 97, June 1993.
  • Lee, S., Lee, S., Ryi, J., and Choi, J. (20130. Design Optimization of Wind Turbine Blades for Reduction of Airfoil Self - Noise. Journal of Mechanical Science and Technology, 27(2), pp. 413 - 420.
  • Lutz, T., Arnold, B., Bekiropoulos, D., Illg, J., Kramer, E., Wolf, A., Hann, R., and Kamruzzaman, K. (20150. Prediction of Flow - Induced Noise Sources of Wind Turbine and Application Examples. Aeroacoustics, 14(5 - 6), pp. 675 - 714.
  • Lutz, T., Herrig, A., Wurz, W. Kamruzzaman, M., and Kramer, E. (20070. Design and Wind - Tunnel Verification of
  • Low - Noise Airfoils for Wind Turbines. AIAA Journal, 45(4), pp 779 - 785.
  • Oerlemans, S., Fisher, M., Maeder, T., and Kogler, K. (20090. Reduction of Wind Turbine Noise Using Optimized Airfoils and Trailing Edge Serrations. AIAA Journal, 47(6), pp 1470 - 1481
  • Peters, G. (20160. Silent Flight: Suppressing Noise From Wind Turbine Blades with Owl - Inspired Coating. Power Technology, http://www.power - technology/features/featuresilent - flight - supressing - noise - from - wind - turbine - blades - with - owl - inspired - co ating - 46643523/ accessed on Jan 28, 2018.
  • Pettijean, B., Drobietz, R., and Kinzie, K. (20110. Wind Turbine Blade Noise Mitigation Technologies. Fourth International Meeting on Wind Turbine Noise, Rome, Italy.
  • Raman, G., Ramachandran, R., and Aldemen, M. (20160. A Review of Wind Turbine Noise Measurements and Regulations. Wind Engineering, 40(4), pp. 319 - 342.
  • Rodrigues, S., and Marta, A. (20140. Design of After - Market Wind Turbine Blade Add - Ons for Noise Reduction. Engineering Optimization IV, Proceedings of the 4 th International conference on Engineering Optimization (ENGOPT 2014), pp 245 - 250.
  • Romero - Sanz, I., and Matesanz, A. (20080. Noise Management on Modern Wind Turbines. Wind Engineering, 32(1), pp. 27 - 44.
  • Schubel, P., and Crossley, R. (20120. Wind Turbine Blade Design Review. Wind Engineering, 36(4), pp365 - 388.
  • Storm, M. (20090. Apparent Trends in Wind Turbine Generator Noise criteria and Regulation Guidance. Inter*noise 2009, Ottawa, Canada, August 23 - 26, 2009.
  • Thangarajan, R., and Vivek, V. (2 01 50. Improvement in Design of Small Scale Wind Turbines by Incorporation of Tubercles. Journal of Chemical and Pharmaceutical Sciences. 7, pp. 285 - 288.
  • Thorne, B. (20110 The Problems with "Noise Numbers" for Wind Farm Noise Assessment. Bulletin of Science, Technology & Society, 31(4), pp. 262 - 290.
  • U.S. Energy Information Administration (20130. Future world energy demand driven by trends in developing countries, https://www.eia.gov/todayinenergy/detail.php?id=14011#, accessed on January 20, 2018.
  • Van Treuren, K. W. (20160. Small Horizontal Axis Wind Turbines: Current Status and Future Challenges. GT 2016 - 57701, ASME IGTI Turbo Expo 2016, Seoul, Kore, June 13 - 17, 2016. Van Treuren, K., and Hays, A. (20170. A Study of Noise Generation on the E387, S823, NACA 0012, and NACA 4412 Airfoils for Use on Small - Scale Wind Turbines in an Urban Environment. ASME Journal of Energy Resources Technology, 139, 051217, September 2017.
  • Wagner, S., Barei, B. R., and Guidati, G. (19960. Wind Turbine Noise. Springer, Berlin, Germany, Chap. 4, ISBN: 978 - 3 - 642 - 88712 - 3.
  • Weaver, J.F. (20180. More than 94% of net new electricity capacity in the USA from renewables in 2017 – emissions down 1%. electrek online, hhtps://electrek.co/2018/01/12/ 94 - percent - net - new - electricity - capacity - usa - from - renewables / accessed on January 24, 2018.
  • Wolf, A., Lutz, T., Wurz, W., Kramer, E., Stanlov, O., and Seifert, A. (20150. Trailing Edge Noise Reduction of Wind Turbine Blades by Active Flow Control. Wind Energy, 18, pp. 909 - 923.
  • World Population Prospects : The 2017 Revision, United Nations (2017). https://esa.un.org/unpd/wpp/Publications/Files/WPP2017_KeyFindings, Key Findings and Advanced Tables, accessed on January 20, 2018.