Evaluation of an onsite integrated hybrid PV-Wind power plant

David Ludwig; Christian Breyer; A.A. Solomon; Robert Seguin; David Ludwig; Christian Breyer; A.A. Solomon; Robert Seguin

doi:10.3934/energy.2020.5.988

AIMS Energy

2020, Volume 8, Issue 5: 988-1006. doi: 10.3934/energy.2020.5.988

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Research article

Evaluation of an onsite integrated hybrid PV-Wind power plant

1.
Reiner Lemoine Institut gGmbH, Rudower Chaussee 12, 12489 Berlin, Germany
2.
Solarpraxis AG, Zinnowitzer Str. 1, 10115 Berlin, Germany
3.
Now with ib vogt GmbH, Helmholtzstr. 2-9, 10587 Berlin, Germany
4.
LUT University, Yliopistonkatu 34, 53850 Lappeenranta, Finland

Received: 13 July 2020 Accepted: 29 September 2020 Published: 13 October 2020

This paper examines technical opportunities and challenges of the combination of a wind and solar photovoltaic (PV) power plant to an integrated hybrid plant on the same site. The PV yield loss caused by the wind turbine shading effect is quantified, and the possibility of reducing local grid capacity via the use of a single transmission grid connection. The PV yield loss caused by the shading of wind turbines is quantified for a number of onsite integrated hybrid PV-wind layouts. The corresponding grid connection capacity reduction was also estimated by allowing curtailment when grid connection capacity, which should be lower than the nominal power capacity of the sum of each generator, is exceeded. This finding shows that the PV yield loss due to wind turbine shading was negligible. Even the PV yield loss at the worst case was significantly lower than the regular inter-array shading loss of the specific condition. Hybrid power plants can bring significant advantage over any of the independent PV and wind plants of the same capacity in reducing the grid connection requirement. For a hybrid system, composed of 50% PV and 50% wind capacity, the connecting power line capacity can be as low as 70% of the nominal capacity of the hybrid power plant by allowing a curtailment of approximately 0.07% of the total yield. By comparison, an independent equally sized PV and wind plant could have required a curtailment loss of about 6.2% and 3.6% of the total output, respectively. This is a direct consequence of the effect of both technologies reaching a high electricity generation simultaneously only on few incidences throughout the year. These advantages call for considerations of the effect of complementarity not only during new system design but also to upgrade existing wind plants due to its ability to economically optimise the use of resources.
- hybrid plant,
- solar photovoltaic,
- wind energy,
- curtailment,
- area efficiency,
- grid connection capacity
Citation: David Ludwig, Christian Breyer, A.A. Solomon, Robert Seguin. Evaluation of an onsite integrated hybrid PV-Wind power plant[J]. AIMS Energy, 2020, 8(5): 988-1006. doi: 10.3934/energy.2020.5.988

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Abstract

This paper examines technical opportunities and challenges of the combination of a wind and solar photovoltaic (PV) power plant to an integrated hybrid plant on the same site. The PV yield loss caused by the wind turbine shading effect is quantified, and the possibility of reducing local grid capacity via the use of a single transmission grid connection. The PV yield loss caused by the shading of wind turbines is quantified for a number of onsite integrated hybrid PV-wind layouts. The corresponding grid connection capacity reduction was also estimated by allowing curtailment when grid connection capacity, which should be lower than the nominal power capacity of the sum of each generator, is exceeded. This finding shows that the PV yield loss due to wind turbine shading was negligible. Even the PV yield loss at the worst case was significantly lower than the regular inter-array shading loss of the specific condition. Hybrid power plants can bring significant advantage over any of the independent PV and wind plants of the same capacity in reducing the grid connection requirement. For a hybrid system, composed of 50% PV and 50% wind capacity, the connecting power line capacity can be as low as 70% of the nominal capacity of the hybrid power plant by allowing a curtailment of approximately 0.07% of the total yield. By comparison, an independent equally sized PV and wind plant could have required a curtailment loss of about 6.2% and 3.6% of the total output, respectively. This is a direct consequence of the effect of both technologies reaching a high electricity generation simultaneously only on few incidences throughout the year. These advantages call for considerations of the effect of complementarity not only during new system design but also to upgrade existing wind plants due to its ability to economically optimise the use of resources.

References

[1]	Agora Energiewende, 2018. Die Energiewende im Stromsektor: Stand der Dinge 2017, Berlin. Available from: www.agora-energiewende.de.
[2]	Teske S (Ed.) (2019) Achieving the Paris Climate Agreement Goals—Global and Regional 100% Renewable Energy Scenarios with Non-energy GHG Pathways for +1.5 ℃ and +2 ℃. Springer Open, Cham.
[3]	[IEA]—International Energy Agency, 2011. Solar Energy Perspectives, IEA, Paris. Available from: https://www.iea.org/reports/solar-energy-perspectives.
[4]	Breyer C, Bogdanov D, Aghahosseini A, et al. (2018) Solar photovoltaics demand for the global energy transition in the power sector. Photovoltaics: Res Appl 26: 505-523.
[5]	Bogdanov D, Farfan J, Sadovskaia K, et al. (2019) Radical transformation pathway towards sustainable electricity via evolutionary steps. Nat Commun 10: 1077.
[6]	Hansen K, Breyer C, Lund H (2019) Status and perspectives on 100% renewable energy systems. Energy 175: 471-480.
[7]	Vartiainen E, Masson G, Breyer C, et al. (2020) Impact of weighted average cost of capital, capital expenditure, and other parameters on future utility-scale PV levelized cost of electricity. Photovoltaics: Res Appl 28: 439-453.
[8]	[IEA-PVPS]—International Energy Agency Photovoltaic Power Systems Programme, 2019. Trends 2019 in Photovoltaic Applications, St. Ursen. Available from: www.iea-pvps.org.
[9]	Murray J, King D (2012) Oil's tipping point has passed. Nature 481: 433-435.
[10]	[EWG]—Energy Watch Group, 2013. Fossil and Nuclear Fuels—the Supply Outlook, Berlin. Available from: www.energywatchgroup.org.
[11]	Brown TW, Bischof-Niemz T, Blok K, et al. (2018) Response to 'Burden of proof: A comprehensive review of the feasibility of 100% renewable-electricity systems'. Renewable Sustainable Energy Rev 92: 434-847.
[12]	Ram M, Child M, Aghahosseini A, et al. (2018) A comparative analysis of electricity generation costs from renewable, fossil fuel and nuclear sources in G20 countries for the period 2015-2030. J Cleaner Prod 199: 687-704.
[13]	Krewitt W, Schlomann B (2006) Externe Kosten der Stromerzeugung aus erneuerbaren Energien im Vergleich zur Stromerzeugung aus fossilen Energieträ gern, study on behalf of Bundesministerium für Umwelt Naturschutz und Reaktorsicherheit.
[14]	Epstein PR, Buonocore JJ, Eckerle K, et al. (2011) Full cost accounting for the life cycle of coal. Ann N Y Acad Sci 1219: 73-98.
[15]	Stern N (Ed.) (2006) Stern Review on the economics of climate change, HM Treasury, London.
[16]	Stern RJ (2010) United States cost of military force projection in the Persian Gulf 1976-2007. Energy Policy 38: 2816-2825.
[17]	Guenther B, Karau T, Kastner EM, et al. (2011) Berechnung einer risikoadaequaten Versicherungspraemie zur Deckung der Haftpflichtrisiken, die aus dem Betrieb von Kernkraftwerken resultieren, Versicherungsforen Leipzig, Leipzig.
[18]	Bundesnetzagentur and Bundeskartellamt, 2018. Monitoringbericht 2018, Bonn. Available from: www.bundeskartellamt.de.
[19]	Sandia National Labs, 2016. Electricity Storage Handbook, SAND2016-9180, Albuquerque. Available from: www.sandia.org.
[20]	Lund PD, Lindgren J, Mikkola J, et al. (2015) Review of energy system flexibility measures to enable high levels of variable renewable electricity. Renewable Sustainable Energy Rev 45: 785-807.
[21]	Sterner M (2009) Bioenergy and renewable power methane in integrated 100% renewable energy systems. PhD thesis, Faculty of Electrical Engineering and Computer Science, University of Kassel.
[22]	Gahleitner G (2013) Hydrogen from renewable electricity: An international review of power-to-gas pilot plants for stationary applications. Int J Hydrogen Energy 38: 2039-2061.
[23]	Deutsche Bank DB Research, 2012. State-of-the-art electricity storage systems—Indispensable elements of the energy revolution, Frankfurt a.M. Available from: www.dbresearch.com.
[24]	[EPRI]—Electric Power Research Institute, 2012. Electricity Energy Storage Technology Options—A White Paper Primer on Applications Costs and Benefits, Palo Alto. Available from: https://www.epri.com/.
[25]	Gerlach AK, Stetter D, Schmid J, et al. (2011) PV and Wind Power—Complementary Technologies. 30th ISES Biennial Solar World Congress, Kassel 2: 1972-1978.
[26]	Solomon AA, Faiman D, Meron G (2010) Grid matching of large-scale wind energy conversion systems, alone and in tandem with large-scale photovoltaic systems: An Israeli case study. Energy Policy 38: 7070-7081.
[27]	Solomon AA, Kammen DM, Callaway D (2016) Investigating the impact of wind-solar complementarities on energy storage requirement and the corresponding supply reliability criteria. Appl Energy 168: 130-145.
[28]	Slusarewicz JH, Cohan DS (2018) Assessing solar and wind complementarity in Texas, Renewables: Wind, Water, Sol 5: 7.
[29]	Monforti F, Huld T, Bódis K, et al. (2014) Assessing complementarity of wind and solar resources for energy production in Italy. A Monte Carlo approach. Renewable Energy 63: 576-586.
[30]	Fasihi M, Breyer C (2020) Baseload electricity and hydrogen supply based on hybrid PV-wind power plants. J Cleaner Prod 243: 118466.
[31]	Bozonnat C, Schlosser CA (2014) Characterization of Solar Power Resources in Europe and Assessing Benefits of Co-location with Wind Power Installations. MIT Join Program on the science and Policy of global change, Report No. 268, Cambridge.
[32]	[UNEP]—United Nations Environmental Programs, 2018. Global trends in Renewable Energy investment 2018, Frankfurt School of Finance and Management—UNEP centre, Frankfurt. Available from: https://bit.ly/2ZZqkiE.
[33]	[AECOM]—AECOM Australia Pty Ltd., 2016. Co-location investigation—A study into the potential for co-locating wind and solar farms in Australia, ABN 35 932 927 899, Sydney. Available from: https://bit.ly/3j1gt4T.
[34]	Faiman D (2014) Concerning the global-scale introduction of renewable energies: Technical and economic challenges. MRS Energy Sustainability: Rev J 1: 1-19.
[35]	Nikolakakis T, Fthenakis V (2011) The optimum mix of electricity from Wind- and Solar-Sources in conventional power systems: Evaluating the case for New York State. Energy Policy 39: 6972-6980.
[36]	Shaner MR, Davis SJ, Lewis NS, et al. (2018) Geophysical constraints on the reliability of solar and wind power in the United States. Energy Environ Sci 11: 914-925.
[37]	Fthenakis V, Adam A, Perez M, et al. (2014) Prospects for photovoltaics in sunny and arid regions: A solar grand plan for Chile. 40th IEEE Photovoltaic Specialists Conference, Denver, June 9-13.
[38]	Solomon AA, Child M, Caldera U, et al. (2020) Exploiting wind-solar resource complementarity to reduce energy storage need. AIMS Energy 8: 749-770.
[39]	Klonari V, Fraile D, Rossi R, et al. (2019) Exploring the Viability of hybrid wind-solar power plants. 4^th International Hybrid Power Systems Workshop, Crete, May 22-23.
[40]	[MNRE]—Ministry of New & Renewable Energy, 2018. National Wind-Solar Hybrid Policy, No. 238/78/2017-Wind, MNRE, New Delhi. Available from: https://bit.ly/2OpfRaQ.
[41]	PV Magazine (2017) Siemens Gamesa to build India's first hybrid wind-solar farm, Berlin, September 26. Available from: https://bit.ly/2ZpluMH.
[42]	PV Magazine (2018) Wind giant Vestas taps solar storage markets for hybridization drive, Berlin, February 8. Available from: https://bit.ly/32dWQjZ.
[43]	[ARENA]—Australian Renewable Energy Agency, 2016. Australian first project to harness sun, wind and batteries, ARENA, Canberra. Available from: https://bit.ly/2WdAc7G.
[44]	Piguet G, Maza JL, Incalza A, et al. (2013) Combining solar photovoltaic power plants and wind farms: An innovative approach to the synergetic design. Proceedings of the 28th EU PVSEC, Paris.
[45]	PVSyst, 2013. PVSyst Software, [online]. Available from: www.pvsyst.com.
[46]	Schuhmacher J (2012) INSEL 8 tutorial Integrated Simulation Environment Language, doppelintegral GmbH, Stuttgart.
[47]	Stetter D (2012) Enhancement of the REMix energy system model: Global renewable energy potentials, optimized power plant siting and scenario validation. PhD thesis, Faculty of Energy-, Process- and Bio-Engineering, University of Stuttgart.
[48]	Anemos, 2011. Windatlas, anemos Gesellschaft für Umweltmeteorologie mbH, Reppenstedt.
[49]	Gasch R, Twele J (2012) Wind Power Plants: Fundamentals Design Construction and Operation. 2nd ed., Springer, Heidelberg.
[50]	Machal U, 2012. Private correspondence, Berlin.
[51]	Ludwig D, 2013. Photovoltaik und Windkraft als integriertes Kraftwerk auf gleicher Flä che. Masters thesis, University of Applied Sciences Berlin.
[52]	Solomon AA, Faiman D, Meron G (2011) Appropriate storage for high-penetration grid-connected photovoltaic plants. Energy Policy 40: 335-344.
[53]	Solomon AA, Bogdanov D, Breyer C (2019) Curtailment-storage-penetration nexus in energy transition. Appl Energy 235: 1351-1368.
[54]	François B, Hingray B, Raynaud D, et al. (2016) Increasing climate-related-energy penetration by integrating run-of-the river hydropower to wind/solar mix. Renewable Energy 87: 686-696.
[55]	Jurasz J, Ciapala B (2018) Solar-hydro hybrid power station as a way to smooth power output and increase water retention. Sol Energy 173: 675-690.
[56]	Guangqian D, Bekhrad K, Azarikhan P, et al. (2018) A hybrid algorithm based optimization on modeling of grid independent biodiesel-based hybrid solar/wind systems. Renewable Energy 122: 551-560.
[57]	PV Magazine, 2020. South Korea's largest hybrid solar-wind project, Berlin, August 27. Available from: https://bit.ly/3hTldaS.

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