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Climate Change, California Wine, and Wildlife Habitat*

Published online by Cambridge University Press:  10 December 2014

Patrick R. Roehrdanz  and
Lee Hannah
Patrick R. Roehrdanz
Affiliation:
Bren School of Environmental Science and Management, and Earth Research Institute, UC Santa Barbara, 2400 Bren Hall, UC Santa Barbara, Santa Barbara, CA 93106; e-mail: [email protected].
Lee Hannah
Affiliation:
Bren School of Environmental Science and Management, UC Santa Barbara, 2400 Bren Hall, UC Santa Barbara, Santa Barbara, CA 93106, and The Betty and Gordon Moore Center for Science and Oceans, Conservation International, 2011 Crystal Drive #500, Arlington, VA, 22202; e-mail: [email protected].
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Abstract

Climate change may drive shifts in global agriculture that will affect remaining natural lands, with important consequences for the conservation of species and ecosystems. Wine production is an excellent model for examining this type of impact, because suitable climate is central to product quality and production is centered in Mediterranean climate regions that are all global biodiversity hotspots. Adaptation to climate change in existing vineyards may involve water use to ameliorate heat stress or drought, resulting in additional conservation issues. Global studies of wine, climate, and conservation have highlighted the need for more detailed regional analyses to better understand these complex multiple issues. Here we examine impacts of climate change on winegrape suitability in California and its possible implications for nature conservation and water use. Under two global climate models and two emissions scenarios, winegrape suitability in California is projected to decline overall and to move into undeveloped areas that provide important habitats for native species. Coastal and upslope areas retain and improve in suitability, respectively, while inland areas see the largest losses in suitability. Areas of declining suitability are regions in which heightened water use for vineyard adaptation may lead to declines in stream flow or conflicts with other water uses. Continued growth in global demand for wine and reduced production in areas of declining suitability will drive expansion into newly suitable areas, potentially impacting important species native to California. Existing vineyards in areas of declining suitability will likely need to adapt to remain viable. Advance planning for a changing climate and adaptation options that are not water intensive (e.g. vine orientation, trellising, or varietal switch) will help reduce potential water conservation issues in those areas. (JEL Classifications: Q15, Q54, Q57)

Keywords

Californiaclimate changeconservationvinecologyviticulturewildlife
Type
Articles
Information
Journal of Wine Economics , Volume 11 , Issue 1 , May 2016 , pp. 69 - 87
Copyright
Copyright © American Association of Wine Economists 2014 

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Footnotes

*

We are grateful to Dr. Makihiko Ikegami, Dr. Paulo A.L.D. Nunes, and an anonymous referee for their valuable feedback. Part of this work was supported by a grant from the Public Interest Energy Research program of the California Energy Commission.

References

Ashenfelter, O., and Storchmann, K. (2010). Measuring the economic effect of global warming on viticulture using auction, retail and wholesale prices. Review of Industrial Organization, 37, 51–64.Google Scholar
Cayan, D.R., Maurer, E.P., Dettinger, M.D., Tyree, M., and Hayhoe, K. (2008). Climate change scenarios for the California region. Climatic Change, 87, S21–S42.Google Scholar
CBI (Conservation Biology Institute). (2010). Protected Areas—California. May. Corvallis, Oregon.Google Scholar
CPAD. (2011). California Protected Areas Database Version 1.7 © September 2011 GreenInfo Network, www.calands.org.Google Scholar
Deitch, M.J., Kondolf, G.M., and Merenlender, A.M. (2009). Hydrologic impacts of small-scale instream diversions for frost and heat protection in the California wine country. River Research and Applications, 25, 118–134.CrossRefGoogle Scholar
Diffenbaugh, N.S., and Scherer, M. (2013). Using climate impacts indicators to evaluate climate model ensembles: Temperature suitability of premium winegrape cultivation in the United States. Climate Dynamics, 40(3–4), 709–729.Google Scholar
Diffenbaugh, N.S., Hertel, T.W., Scherer, M., and Verma, M. (2012). Response of corn markets to climate volatility under alternative energy futures. Nature Climate Change, 2(7), 514–518.CrossRefGoogle ScholarPubMed
Diffenbaugh, N.S., White, M.A., Jones, G.V., and Ashfaq, M. (2011). Climate adaptation wedges: A case study of premium wine in the western United States. Environmental Research Letters, 6, 024024, 11p.CrossRefGoogle Scholar
Flint, L.E., and Flint, A.L. (2012). Downscaling future climate scenarios to fine scales for hydrologic and ecological modeling and analysis. Ecological Processes, 1(2), 15p.CrossRefGoogle Scholar
Gladstones, J. (1992). Viticulture and Environment. Adelaide: WineTitles.Google Scholar
Gladstones, J. (2011). Wine, Terroir and Climate Change. Kent Town, South Australia, Australia: Wakefield Press.Google Scholar
Haeger, J.W., and Storchmann, K. (2006). Prices of American Pinot Noir wines: climate, craftsmanship, critics. Agricultural Economics, 35(1), 67–78.Google Scholar
Hall, A., and Jones, G.V. (2010). Spatial analysis of climate in winegrape-growing regions in Australia. Australian Journal of Grape and Wine Research, 16(3), 389–404.Google Scholar
Hannah, L., Costello, C., Guo, C., Ries, L., Kolstad, C., Panitz, D., and Snider, N. (2011). The impact of climate change on California timberlands. Climatic Change, 109, 429–443.Google Scholar
Hannah, L., Roehrdanz, P.R., Shepard, A., Ikegami, M., Shaw, M.R., Tabor, G., Zhui, L., Marquet, P., and Hijmans, R. (2013a). Climate change, wine and conservation. PNAS, 110(17), 6907–6912.Google Scholar
Hannah, L., Roehrdanz, P.R., Shepard, A., Ikegami, M., Shaw, M.R., Tabor, G., Zhui, L., Marquet, P., and Hijmans, R. (2013b). Reply to van Leeuwen et al.,: Planning for agricultural adaptation to climate change and its consequences for conservation. PNAS, 110(33), E3053.Google Scholar
Hayhoe, K., Cayan, D., Field, C.B., Frumhoff, P.C., Maurer, E.P., Miller, N.L., Moser, S.C., Schneider, S.H., Cahill, K.N., Cleland, E.E., Dale, L., Drapek, R., Hanemann, R.M., Kalkstein, L.S., Lenihan, J., Lunch, C.K., Neilson, R.P., Sheridan, S.C., and Verville, J.H. (2004). Emissions pathways, climate change, and impacts on California. PNAS, 101, 12422–12427.Google Scholar
Heller, N.E., and Zavaleta, E.S. (2009). Biodiversity management in the face of climate change: A review of 22 years of recommendations. Biological Conservation, 142, 14–32.Google Scholar
Hilty, J.A., and Merenlender, A.M. (2004). Use of riparian corridors and vineyards by mammalian predators in northern California. Conservation Biology, 18, 126–135.CrossRefGoogle Scholar
Hilty, J.A., Brooks, C., Heaton, E., and Merenlender, A.M. (2006). Forecasting the effect of land-use change on native and non-native mammalian predator distributions. Biodiversity and Conservation, 15, 2853–2871.Google Scholar
Homer, C., Huang, C., Yang, L., Wylie, B., and Coan, M. (2004). Development of a 2001 National Landcover Database for the United States. Photogrammetric Engineering and Remote Sensing, 70(7), 829–840.CrossRefGoogle Scholar
Johnson, H., and Robinson, J. (2007). The World Atlas of Wine, 6th ed.London: Mitchell Beazley.Google Scholar
Jones, G.V., White, M.A., Cooper, O.R., and Storchmann, K. (2005). Climate change and global wine quality. Climatic Change, 73, 319–343, doi:10.1007/s10584–005–4704–2Google Scholar
Kelly, A.E., and Goulden, M.L. (2008). Rapid shifts in plant distribution with recent climate change. PNAS, 105, 11823–11826.Google Scholar
Le Roy-Ladurie, E. (1967). Histoire du climat depuis l'an mil. Paris: Flammarion.Google Scholar
Leemans, R., and Solomon, A.M. (1993). Modeling the potential change in yield and distribution of the earth's crops under a warmed climate. Climate Research, 3, 79–96.Google Scholar
Lobell, D.B., Cahill, K.N., and Field, C.B. (2007). Historical effects of temperature and precipitation on California crop yields. Climatic Change, 81, 187–203.Google Scholar
Lobell, D.B., Schlenker, W., and Costa-Roberts, J. (2011). Climate trends and global crop production since 1980. Science, 333(6042), 616–620.Google Scholar
Lohse, K.A., Newburn, D.A., Opperman, J.J., and Merenlender, A.M. (2008). Forecasting relative impacts of land use on anadromous fish habitat to guide conservation planning. Ecological Applications, 18, 467–482.Google Scholar
Mancino, M.A. (2012). Estimating the effect of climate change on Argentine viticulture. American Association of Wine Economists (AAWE). AAWE Working Paper No. 111. http://www.wine-economics.org/aawe/wp-content/uploads/2012/10/AAWE_WP111.pdf.Google Scholar
Mawdsley, J.R., O'Malley, R., and Ojima, D.S. (2009). A review of climate-change adaptation strategies for wildlife management and biodiversity conservation. Conservation Biology, 23, 1080–1089.Google Scholar
Merenlender, A.M. (2000). Mapping vineyard expansion provides information on agriculture and the environment. California Agriculture, 54(3), 7–12.Google Scholar
Moriondo, M., Jones, G.V., Bois, B., Dibari, C., Ferrise, R., Trombi, G., and Bindi, M. (2013). Projected shifts of wine regions in response to climate change. Climatic Change. DOI: 10.1007/s10584-013-0739-yGoogle Scholar
NASS (National Agricultural Statistics Service). (2010). California Grape Crush Report 2010. California Department of Food and Agriculture and NASS California Field Office, Sacramento, California. http://www.nass.usda.gov/Statistics_by_State/California/Publications/Grape_Crush/Final/2010/201003gcbtb00.pdf.Google Scholar
Natural Resources Conservation Service, United States Department of Agriculture, Soil Survey Staff. U.S. General Soil Map (STATSGO2). Available online at http://soildatamart.nrcs.usda.gov, accessed January 10, 2011.Google Scholar
Nemani, R.R., White, M.A., Cayan, D.R., Jones, G.V., Running, S.W., Coughlan, J.C., and Peterson, D.L. (2001). Asymmetric warming over coastal California and its impact on the premium wine industry. Climate Research, 19, 25–34.Google Scholar
Nicholas, K.A., and Durham, W.H. (2012). Farm-scale adaptation and vulnerability to environmental stresses: Insights from winegrowing in Northern California. Global Environmental Change, 22, 483–494.Google Scholar
Parmesan, C. (2006). Ecological and evolutionary responses to recent climate change. Annual Review of Ecology, Evolution, and Systematics, 37, 637–669.Google Scholar
Parmesan, C., et al. (1999). Poleward shifts in geographical ranges of butterfly species associated with regional warming. Nature, 399(6736), 579–583.Google Scholar
Pfister, C. (1988). Variations in the spring-summer climate of central Europe from the High Middle Ages to 1850. In Long and Short Term Variability of Climate, Wanner, H. and Siegenthaler, U. (eds.). Berlin: Springer, 57–82.Google Scholar
Phillips, S.J., and Dudik, M. (2008). Modeling of species distributions with Maxent: New extensions and a comprehensive evaluation. Ecography, 31, 161–175.Google Scholar
Raven, P.H., and Axelrod, D.I. (1978). Origin and relationships of the California flora. California Native Plant Society, Sacramento, CA.Google Scholar
Root, T.L., Price, J.T., Hall, K.R., Schneider, S.H., Rosenzweig, C. and Pounds, J.A. (2003). Fingerprints of global warming on wild animals and plants. Nature, 421(6918), 57–60.Google Scholar
Rosenzweig, C., Karoly, D., Vicarelli, M., Neofotis, P., Wu, Q., Casassa, G., Menzel, A., Root, T.L., Estrella, N., Seguin, B., Tryjanowski, P., Liu, C., Rawlins, S. and Imeson, A.Attributing physical and biological impacts to anthropogenic climate change. Nature, 453(7193), 353–U320.CrossRefGoogle Scholar
Turner, W.L., Bradley, B.A., Estes, L.D., Hole, D.G., Oppenheimer, M., and Wilcove, D.S. (2010). Climate change: Helping nature survive the human response. Conservation Letters, 3, 304–312.CrossRefGoogle Scholar
Van Leeuwen, C., Schultz, H.R., de Cortazar-Atauri, I.G., Duchene, E., Ollat, N., Pieri, P., Bois, B., Goutouly, J., Qenol, H., Touzard, J., Malheiro, A.C., Bavaresco, L., and Delrot, S. (2013). Why climate change will not dramatically decrease viticultural suitability in main wine-producing areas by 2050. PNAS, 110, E3051–E3052.CrossRefGoogle Scholar
Vaudour, E. (2002). The quality of grapes and wine in relation to geography: Notions of terroir at various scales. Journal of Wine Research, 13, 117–141.CrossRefGoogle Scholar
Viers, J.H., Williams, J.N., Nicholas, K.A., Barbosa, B., Kotze, I., Spence, L., Webb, L.B., Merenlender, A., and Reynolds, M. (2013). Vinecology: pairing wine with nature. Conservation Letters, 6(5), 287–299. DOI: 10.1111/conl.12011Google Scholar
Vink, N., Deloire., A., Bonnardot, V., and Ewer, J. (2012). Climate change and the future of South Africa's wine industry. American Association of Wine Economists (AAWE). AAWE Working Paper No. 105. http://www.wine-economics.org/aawe/wp-content/uploads/2012/10/AAWE_WP105.pdf.Google Scholar
Webb, L.B., Whetton, P.H., and Barlow, E.W.R. (2007). Modelled impact of future climate change on the phenology of winegrapes in Australia. Australian Journal of Grape and Wine Research, 13(3), 165–175.Google Scholar
Webb, L.B., Whetton, P.H., and Barlow, E.W.R. (2011). Observed trends in winegrape maturity in Australia. Global Change Biology, 17(8), 2707–2719.Google Scholar
Wetzel, F.T., Kissling, D.W., Beissmann, H., and Penn, D.J. (2012). Future climate change driven sea-level rise: Secondary consequences from human displacement for island biodiversity. Glob Change Biology, 18, 2707–2719.Google Scholar
White, M.A., Diffenbaugh, N.S., Jones, G.V., Pal, J.S., and Giorgi, F. (2006). Extreme heat reduces and shifts United States premium wine production in the 21st century. PNAS, 103, 11217–11222.CrossRefGoogle Scholar
White, M.A., Whalen, P., and Jones, G.V. (2009). Land and wine. Nature Geoscience, 2, 82–84.CrossRefGoogle Scholar
Wine Institute with Data from U.S. Department of Commerce. (2010). World Wine Production by Country 2004–08.Google Scholar
Winkler, A.J., Cook, J.A., Kliwer, W.M., and Lider, L.A. 1974. General Viticulture. Berkeley: University of California Press.Google Scholar