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Part I - Grassland dynamics and climate change

Published online by Cambridge University Press:  22 March 2019

David J. Gibson
Affiliation:
Southern Illinois University, Carbondale
Jonathan A. Newman
Affiliation:
University of Guelph, Ontario
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Print publication year: 2019

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References

4.7 References

Dixon, A, Faber‐Langendoen, D, Josse, C, Morrison, J, Loucks, C. Distribution mapping of world grassland types. Journal of Biogeography. 2014;41(11):2003–19.Google Scholar
Woodward, F, Lomas, M. Vegetation dynamics – simulating responses to climatic change. Biological Reviews. 2004;79(3):643–70.Google Scholar
Beerling, D, Woodward, FI. Vegetation and the terrestrial carbon cycle: the first 400 million years. Cambridge: Cambridge University Press; 2001.Google Scholar
Cerling, TE, Harris, JM, MacFadden, BJ, Leakey, MG, Quade, J, Eisenmann, V, et al. Global vegetation change through the Miocene/Pliocene boundary. Nature. 1997;389(6647):153.Google Scholar
Strömberg, CA. Evolution of grasses and grassland ecosystems. Annual Review of Earth and Planetary Sciences. 2011;39:517–44.Google Scholar
Beerling, DJ, Osborne, CP. The origin of the savanna biome. Global Change Biology. 2006;12(11):2023–31.Google Scholar
Bond, WJ, Parr, CL. Beyond the forest edge: ecology, diversity and conservation of the grassy biomes. Biological Conservation. 2010;143(10):2395–404.CrossRefGoogle Scholar
Mouillot, F, Field, CB. Fire history and the global carbon budget: a 1° × 1° Fire history reconstruction for the 20th century. Global Change Biology. 2005;11(3):398420.Google Scholar
Sage, RF, Kubien, DS. Quo vadis C4? An ecophysiological perspective on global change and the future of C4 plants. Photosynthesis Research. 2003;77(2–3):209–25.CrossRefGoogle Scholar
Bond, W, Midgley, G, Woodward, F. The importance of low atmospheric CO2 and fire in promoting the spread of grasslands and savannas. Global Change Biology. 2003;9(7):973–82.Google Scholar
Holdridge, LR. Life zone ecology. San Jose, Costa Rica: Tropical Science Center; 1967 (rev. ed.).Google Scholar
Woodward, FI. Climate and plant distribution. Cambridge: Cambridge University Press; 1987.Google Scholar
IPCC. Climate Change 2013: The Physical Science Basis. Contribution of Working Group I to the Fifth Assessment Report of the Intergovernmental Panel on Climate Change. Cambridge: Cambridge University Press; 2013. 1535 pp.Google Scholar
Houghton, JT. Global warming: the complete briefing. 3rd ed. Cambridge: Cambridge University Press; 2004.CrossRefGoogle Scholar
Schoof, JT. Statistical downscaling in climatology. Geography Compass. 2013;7(4):249–65.Google Scholar
Cox, PM, Betts, RA, Jones, CD, Spall, SA, Totterdell, IJ. Acceleration of global warming due to carbon-cycle feedbacks in a coupled climate model. Nature. 2000;408(6809):184.Google Scholar
White, SR, Carlyle, CN, Fraser, LH, Cahill, JF. Climate change experiments in temperate grasslands: synthesis and future directions. Biology Letters. 2012;8(4):484–7.CrossRefGoogle ScholarPubMed
Mueller, KE, Blumenthal, DM, Pendall, E, Carrillo, Y, Dijkstra, FA, Williams, DG, et al. Impacts of warming and elevated CO2 on a semi-arid grassland are non-additive, shift with precipitation, and reverse over time. Ecology Letters. 2016;19:956–66.CrossRefGoogle ScholarPubMed
Leuzinger, S, Luo, Y, Beier, C, Dieleman, W, Vicca, S, Körner, C. Do global change experiments overestimate impacts on terrestrial ecosystems? Trends in Ecology & Evolution. 2011;26(5):236–41.Google Scholar
Christensen, JH, Hewitson, B, Busuioc, A, Chen, A, Gao, X, Held, I, et al. Regional climate projections. In: Solomon, S, Qin, D, Manning, M, Chen, Z, Marquis, M, Avery, KB, et al., editors. Climate change 2007: the physical science basis contribution of Working Group I to the Fourth Assessment Report of the Intergovernmental Panel on Climate Change. Cambridge: Cambridge University Press; 2007.Google Scholar
Smith, MD. The ecological role of climate extremes: current understanding and future prospects. Journal of Ecology. 2011;99(3):651–5.Google Scholar
Hoover, DL, Knapp, AK, Smith, MD. Resistance and resilience of a grassland ecosystem to climate extremes. Ecology. 2014;95(9):2646–56.Google Scholar
Elith, J, Leathwick, JR. Species distribution models: ecological explanation and prediction across space and time. Annual Review of Ecology, Evolution, and Systematics. 2009;40:677–97.Google Scholar
Woodward, FI, Lomas, MR, Kelly, CK. Global climate and the distribution of plant biomes. Philosophical Transactions of the Royal Society B: Biological Sciences. 2004;359(1450):1465–76.Google Scholar
Hutchinson, GE. Concluding remarks. Cold Spring Harbor Symposium on Quantitative Biology. 1957;22:415–27.Google Scholar
Chen, J, Luo, Y, Xia, J, Wilcox, KR, Cao, J, Zhou, X, et al. Warming effects on ecosystem carbon fluxes are modulated by plant functional types. Ecosystems. 2017;20(3):515–26.CrossRefGoogle Scholar
Corlett, RT, Westcott, DA. Will plant movements keep up with climate change? Trends in Ecology & Evolution. 2013;28(8):482–8.Google Scholar
Pearson, RG, Dawson, TP. Predicting the impacts of climate change on the distribution of species: are bioclimate envelope models useful? Global Ecology and Biogeography. 2003;12(5):361–71.Google Scholar
Woodward, FI, Beerling, DJ. The dynamics of vegetation change: health warnings for equilibrium ‘dodo’ models. Global Ecology and Biogeography Letters. 1997;6(6):413–8.CrossRefGoogle Scholar
Kearney, M, Porter, W. Mechanistic niche modelling: combining physiological and spatial data to predict species’ ranges. Ecology Letters. 2009;12(4):334–50.Google Scholar
Ito, A, Nishina, K, Reyer, CP, François, L, Henrot, A-J, Munhoven, G, et al. Photosynthetic productivity and its efficiencies in ISIMIP2a biome models: benchmarking for impact assessment studies. Environmental Research Letters. 2017;12(8):085001.Google Scholar
Sitch, S, Huntingford, C, Gedney, N, Levy, P, Lomas, M, Piao, S, et al. Evaluation of the terrestrial carbon cycle, future plant geography and climate‐carbon cycle feedbacks using five Dynamic Global Vegetation Models (DGVMs). Global Change Biology. 2008;14(9):2015–39.Google Scholar
Warszawski, L, Friend, A, Ostberg, S, Frieler, K, Lucht, W, Schaphoff, S, et al. A multi-model analysis of risk of ecosystem shifts under climate change. Environmental Research Letters. 2013;8(4):044018.CrossRefGoogle Scholar
Kattge, J, Diaz, S, Lavorel, S, Prentice, IC, Leadley, P, Bönisch, G, et al. TRY – a global database of plant traits. Global Change Biology. 2011;17(9):2905–35.Google Scholar
Kipling, RP, Virkajärvi, P, Breitsameter, L, Curnel, Y, De Swaef, T, Gustavsson, A-M, et al. Key challenges and priorities for modelling European grasslands under climate change. Science of the Total Environment. 2016;566:851–64.Google Scholar
McMahon, SM, Harrison, SP, Armbruster, WS, Bartlein, PJ, Beale, CM, Edwards, ME, et al. Improving assessment and modelling of climate change impacts on global terrestrial biodiversity. Trends in Ecology & Evolution. 2011;26(5):249–59.Google Scholar
Scheiter, S, Langan, L, Higgins, SI. Next‐generation dynamic global vegetation models: learning from community ecology. New Phytologist. 2013;198(3):957–69.Google Scholar
Yu, M, Wang, G, Parr, D, Ahmed, KF. Future changes of the terrestrial ecosystem based on a dynamic vegetation model driven with RCP8. 5 climate projections from 19 GCMs. Climatic Change. 2014;127(2):257–71.CrossRefGoogle Scholar
Taylor, KE, Stouffer, RJ, Meehl, GA. An overview of CMIP5 and the experiment design. Bulletin of the American Meteorological Society. 2012;93(4):485–98.Google Scholar
Craine, JM, Ocheltree, TW, Nippert, JB, Towne, EG, Skibbe, AM, Kembel, SW, et al. Global diversity of drought tolerance and grassland climate-change resilience. Nature Climate Change. 2013;3(1):63.Google Scholar
De Kauwe, MG, Medlyn, BE, Walker, AP, Zaehle, S, Asao, S, Guenet, B, et al. Challenging terrestrial biosphere models with data from the long‐term multifactor Prairie Heating and CO2 Enrichment experiment. Global Change Biology. 2017;23(9):3623–45.CrossRefGoogle Scholar
Munson, SM, Long, AL. Climate drives shifts in grass reproductive phenology across the western USA. New Phytologist. 2017;213(4):1945–55.Google Scholar
Staver, AC, Archibald, S, Levin, SA. The global extent and determinants of savanna and forest as alternative biome states. Science. 2011;334(6053):230–2.Google Scholar
Bond, WJ, Midgley, GF. Carbon dioxide and the uneasy interactions of trees and savannah grasses. Philosophical Transactions of the Royal Society B: Biological Sciences. 2012;367(1588):601–12.Google Scholar
Brook, BW, Ellis, EC, Perring, MP, Mackay, AW, Blomqvist, L. Does the terrestrial biosphere have planetary tipping points? Trends in Ecology & Evolution. 2013;28(7):396401.Google Scholar
Hirota, M, Holmgren, M, Van Nes, EH, Scheffer, M. Global resilience of tropical forest and savanna to critical transitions. Science. 2011;334(6053):232–5.Google Scholar
Anadon, JD, Sala, OE, Maestre, FT. Climate change will increase savannas at the expense of forests and treeless vegetation in tropical and subtropical Americas. Journal of Ecology. 2014;102(6):1363–73.Google Scholar
Higgins, SI, Scheiter, S. Atmospheric CO2 forces abrupt vegetation shifts locally, but not globally. Nature. 2012;488(7410):209.Google Scholar
Scheiter, S, Higgins, SI. Impacts of climate change on the vegetation of Africa: an adaptive dynamic vegetation modelling approach. Global Change Biology. 2009;15(9):2224–46.Google Scholar
Piao, S, Tan, K, Nan, H, Ciais, P, Fang, J, Wang, T, et al. Impacts of climate and CO2 changes on the vegetation growth and carbon balance of Qinghai–Tibetan grasslands over the past five decades. Global and Planetary Change. 2012;98:7380.CrossRefGoogle Scholar
Le Houérou, HN. Climate change, drought and desertification. Journal of Arid Environments. 1996;34(2):133–85.CrossRefGoogle Scholar
Thébault, A, Mariotte, P, Lortie, CJ, MacDougall, AS. Land management trumps the effects of climate change and elevated CO2 on grassland functioning. Journal of Ecology. 2014;102(4):896904.CrossRefGoogle Scholar
Osborne, CP, Beerling, DJ. Nature’s green revolution: the remarkable evolutionary rise of C4 plants. Philosophical Transactions of the Royal Society B: Biological Sciences. 2006;361 (1465):173–94.Google Scholar

Reference

Wulf, A. The invention of nature: Alexander von Humboldt’s New World. London: John Murray; 2015. 496 pp.Google Scholar

5.9 References

White, RP, Murray, S, Rohweder, M. Pilot analysis of global ecosystems: grassland ecosystems. Washington, DC: FAO; 2000.Google Scholar
Borer, ET, Grace, JB, Harpole, WS, MacDougall, AS, Seabloom, EW. A decade of insights into grassland ecosystem responses to global environmental change. Nature Ecology & Evolution. 2017;1(5):0118.Google Scholar
Jones, DL, Hodge, A, Kuzyakov, Y. Plant and mycorrhizal regulation of rhizodeposition. New Phytologist. 2004;163(3):459–80.Google Scholar
Parton, WJ, Scurlock, JMO, Ojima, DS, Gilmanov, TG, Scholes, RJ, Schimel, DS, et al. Observations and modeling of biomass and soil organic matter dynamics for the grassland biome worldwide. Global Biogeochemical Cycles. 1993;7(4):785809.Google Scholar
Parton, WJ, Scurlock, JMO, Ojima, DS, Schimel, DS, Hall, DO. Impact of climate change on grassland production and soil carbon worldwide. Global Change Biology. 1995;1(1):1322.Google Scholar
Fraser, LH, Harrower, WL, Garris, HW, Davidson, S, Hebert, PDN, Howie, R, et al. A call for applying trophic structure in ecological restoration. Restoration Ecology. 2015;23(5):503–7.Google Scholar
Fraser, LH, Pither, J, Jentsch, A, Sternberg, M, Zobel, M, Askarizadeh, D, et al. Worldwide evidence of a unimodal relationship between productivity and plant species richness. Science. 2015;349(6245):302–5.CrossRefGoogle ScholarPubMed
Haddad, NM, Haarstad, J, Tilman, D. The effects of long-term nitrogen loading on grassland insect communities. Oecologia. 2000;124(1):7384.CrossRefGoogle ScholarPubMed
Beier, C, Beierkuhnlein, C, Wohlgemuth, T, Penuelas, J, Emmett, B, Körner, C, et al. Precipitation manipulation experiments – challenges and recommendations for the future. Ecology Letters. 2012;15(8):899911.Google Scholar
Huxman, TE, Smith, MD, Fay, PA, Knapp, AK, Shaw, MR, Loik, ME, et al. Convergence across biomes to a common rain-use efficiency. Nature. 2004;429(6992):651.CrossRefGoogle ScholarPubMed
IPCC. Synthesis report. In: Pachauri, RK, Meyer, LA, editors. Contribution of Working Groups I, II and III to the Fifth Assessment Report of the Intergovernmental Panel on Climate Change Core Writing Team. Geneva: Cambridge University Press; 2014.Google Scholar
Smith, SD, Huxman, TE, Zitzer, SF, Charlet, TN, Housman, DC, Coleman, JS, et al. Elevated CO2 increases productivity and invasive species success in an arid ecosystem. Nature. 2000;408(6808):79.Google Scholar
Vitousek, PM, Mooney, HA, Lubchenco, J, Melillo, JM. Human domination of Earth’s ecosystems. Science. 1997;277(5325):494–9.Google Scholar
Carpenter, SR, Mooney, HA, Agard, J, Capistrano, D, DeFries, RS, Díaz, S, et al. Science for managing ecosystem services: beyond the Millennium Ecosystem Assessment. Proceedings of the National Academy of Sciences of the USA. 2009;106(5):1305–12.Google Scholar
Knapp, AK, Beier, C, Briske, DD, Classen, AT, Luo, Y, Reichstein, M, et al. Consequences of more extreme precipitation regimes for terrestrial ecosystems. Bioscience. 2008;58(9):811–21.CrossRefGoogle Scholar
Shaver, GR, Canadell, J, Chapin, FS, Gurevitch, J, Harte, J, Henry, G, et al. Global warming and terrestrial ecosystems: a conceptual framework for analysis. Bioscience. 2000;50(10):871–82.Google Scholar
Smith, MD, Knapp, AK, Collins, SL. A framework for assessing ecosystem dynamics in response to chronic resource alterations induced by global change. Ecology. 2009;90(12):3279–89.Google Scholar
Pan, S, Tian, H, Dangal, SRS, Ouyang, Z, Tao, B, Ren, W, et al. Modeling and monitoring terrestrial primary production in a changing global environment: toward a multiscale synthesis of observation and simulation. Advances in Meteorology. 2014;2014:965936.Google Scholar
Carlyle, CN, Fraser, LH, Turkington, R. Response of grassland biomass production to simulated climate change and clipping along an elevation gradient. Oecologia. 2014;174(3):1065–73.CrossRefGoogle ScholarPubMed
Henry, GHR, Molau, U. Tundra plants and climate change: the International Tundra Experiment (ITEX). Global Change Biology. 1997;3(S1):19.Google Scholar
Dijkstra, FA, Augustine, DJ, Brewer, P, von Fischer, JC. Nitrogen cycling and water pulses in semiarid grasslands: are microbial and plant processes temporally asynchronous? Oecologia. 2012;170(3):799808.Google Scholar
Heisler-White, JL, Knapp, AK, Kelly, EF. Increasing precipitation event size increases aboveground net primary productivity in a semi-arid grassland. Oecologia. 2008;158(1):129–40.Google Scholar
Heisler‐White, JL, Blair, JM, Kelly, EF, Harmoney, K, Knapp, AK. Contingent productivity responses to more extreme rainfall regimes across a grassland biome. Global Change Biology. 2009;15(12):2894–904.Google Scholar
Yahdjian, L, Sala, OE. A rainout shelter design for intercepting different amounts of rainfall. Oecologia. 2002;133(2):95101.Google Scholar
Esser, G. Implications of climate change for production and decomposition in grasslands and coniferous forests. Ecological Applications. 1992;2(1):4754.Google Scholar
Gao, Q, Li, Y, Wan, Y, Qin, X, Jiangcun, W, Liu, Y. Dynamics of alpine grassland NPP and its response to climate change in Northern Tibet. Climatic Change. 2009;97(3–4):515.CrossRefGoogle Scholar
Gao, Q, Zhu, W, Schwartz, MW, Ganjurjav, H, Wan, Y, Qin, X, et al. Climatic change controls productivity variation in global grasslands. Scientific Reports. 2016;6:26958.Google Scholar
Hall, DO, Scurlock, JMO. Climate change and productivity of natural grasslands. Annals of Botany. 1991;67(Suppl 1):4955.Google Scholar
Thornley, JHM, Cannell, MGR. Temperate grassland responses to climate change: an analysis using the Hurley pasture model. Annals of Botany. 1997;80(2):205–21.Google Scholar
Hufkens, K, Keenan, TF, Flanagan, LB, Scott, RL, Bernacchi, CJ, Joo, E, et al. Productivity of North American grasslands is increased under future climate scenarios despite rising aridity. Nature Climate Change. 2016;6(7):710.Google Scholar
Moore, AD, Ghahramani, A. Climate change and broadacre livestock production across southern Australia. 1. Impacts of climate change on pasture and livestock productivity, and on sustainable levels of profitability.Global Change Biology. 2013;19(5):1440–55.Google Scholar
Fay, PA. Precipitation variability and primary productivity in water‐limited ecosystems: how plants ‘leverage’ precipitation to ‘finance’ growth. New Phytologist. 2009;181(1):58.Google Scholar
Knapp, AK, Avolio, ML, Beier, C, Carroll, CJW, Collins, SL, Dukes, JS, et al. Pushing precipitation to the extremes in distributed experiments: recommendations for simulating wet and dry years. Global Change Biology. 2017;23(5):1774–82.Google Scholar
Densmore-McCulloch, JA, Thompson, DL, Fraser, LH. Short-term effects of changing precipitation patterns on shrub–steppe grasslands: seasonal watering is more important than frequency of watering events. PLoS ONE. 2016;11(12):e0168663.Google Scholar
Knapp, AK, Fay, PA, Blair, JM, Collins, SL, Smith, MD, Carlisle, JD, et al. Rainfall variability, carbon cycling, and plant species diversity in a mesic grassland. Science. 2002;298(5601):2202–5.Google Scholar
Brookshire, ENJ, Weaver, T. Long-term decline in grassland productivity driven by increasing dryness. Nature Communications. 2015;6:7148.Google Scholar
Chen, G, Tian, H, Zhang, C, Liu, M, Ren, W, Zhu, W, et al. Drought in the southern United States over the 20th century: variability and its impacts on terrestrial ecosystem productivity and carbon storage. Climatic Change. 2012;114(2):379–97.Google Scholar
Cherwin, K, Knapp, A. Unexpected patterns of sensitivity to drought in three semi-arid grasslands. Oecologia. 2012;169(3):845–52.Google Scholar
Zeppel, MJ, Wilks, JV, Lewis, JD. Impacts of extreme precipitation and seasonal changes in precipitation on plants. Biogeosciences. 2014;11:3083–93.Google Scholar
Fay, PA, Carlisle, JD, Knapp, AK, Blair, JM, Collins, SL. Productivity responses to altered rainfall patterns in a C4-dominated grassland. Oecologia. 2003;137(2):245–51.Google Scholar
Guo, Q, Li, S, Hu, Z, Zhao, W, Yu, G, Sun, X, et al. Responses of gross primary productivity to different sizes of precipitation events in a temperate grassland ecosystem in Inner Mongolia, China. Journal of Arid Land. 2016;8(1):3646.Google Scholar
Craine, JM. The importance of precipitation timing for grassland productivity. Plant Ecology. 2013;214(8):1085–9.Google Scholar
Craine, JM, Nippert, JB, Elmore, AJ, Skibbe, AM, Hutchinson, SL, Brunsell, NA. Timing of climate variability and grassland productivity. Proceedings of the National Academy of Sciences of the USA. 2012;109(9):3401–5.CrossRefGoogle ScholarPubMed
Copeland, SM, Harrison, SP, Latimer, AM, Damschen, EI, Eskelinen, AM, Fernandez‐Going, B, et al. Ecological effects of extreme drought on Californian herbaceous plant communities. Ecological Monographs. 2016;86(3):295311.Google Scholar
Frank, DA. Drought effects on above- and belowground production of a grazed temperate grassland ecosystem. Oecologia. 2007;152(1):131–9.CrossRefGoogle ScholarPubMed
Nippert, JB, Knapp, AK, Briggs, JM. Intra-annual rainfall variability and grassland productivity: can the past predict the future? Plant Ecology. 2006;184(1):6574.Google Scholar
Holub, P, Fabšičová, M, Tůma, I, Záhora, J, Fiala, K. Effects of artificially varying amounts of rainfall on two semi‐natural grassland types. Journal of Vegetation Science. 2013;24(3):518–29.Google Scholar
Carlyle, CN, Fraser, LH, Turkington, R. Tracking soil temperature and moisture in a multi-factor climate experiment in temperate grassland: do climate manipulation methods produce their intended effects? Ecosystems. 2011;14(3):489502.Google Scholar
Dengler, J, Janišová, M, Török, P, Wellstein, C. Biodiversity of Palaearctic grasslands: a synthesis. Agriculture, Ecosystems & Environment. 2014;182:114.CrossRefGoogle Scholar
Grime, JP, Fridley, JD, Askew, AP, Thompson, K, Hodgson, JG, Bennett, CR. Long-term resistance to simulated climate change in an infertile grassland. Proceedings of the National Academy of Sciences of the USA. 2008;105(29):10,028–32.CrossRefGoogle Scholar
Jentsch, A, Kreyling, J, Elmer, M, Gellesch, E, Glaser, B, Grant, K, et al. Climate extremes initiate ecosystem‐regulating functions while maintaining productivity. Journal of Ecology. 2011;99(3):689702.Google Scholar
Goldberg, D, Novoplansky, A. On the relative importance of competition in unproductive environments. Journal of Ecology. 1997;85(4):409–18.Google Scholar
Novoplansky, A, Goldberg, DE. Effects of water pulsing on individual performance and competitive hierarchies in plants. Journal of Vegetation Science. 2001;12(2):199208.Google Scholar
Robertson, TR, Bell, CW, Zak, JC, Tissue, DT. Precipitation timing and magnitude differentially affect aboveground annual net primary productivity in three perennial species in a Chihuahuan Desert grassland. New Phytologist. 2009;181(1):230–42.Google Scholar
Gherardi, LA, Sala, OE. Enhanced precipitation variability decreases grass – and increases shrub – productivity. Proceedings of the National Academy of Sciences of the USA. 2015;112(41):12,735–40.Google Scholar
Chelli, S, Canullo, R, Campetella, G, Schmitt, AO, Bartha, S, Cervellini, M, et al. The response of sub‐Mediterranean grasslands to rainfall variation is influenced by early season precipitation. Applied Vegetation Science. 2016;19(4):611–9.CrossRefGoogle Scholar
Golodets, C, Sternberg, M, Kigel, J, Boeken, B, Henkin, Z, No’am, GS, et al. Climate change scenarios of herbaceous production along an aridity gradient: vulnerability increases with aridity. Oecologia. 2015;177(4):971–9.Google Scholar
Fay, PA, Kaufman, DM, Nippert, JB, Carlisle, JD, Harper, CW. Changes in grassland ecosystem function due to extreme rainfall events: implications for responses to climate change. Global Change Biology. 2008;14(7):1600–8.CrossRefGoogle Scholar
Beierkuhnlein, C, Thiel, D, Jentsch, A, Willner, E, Kreyling, J. Ecotypes of European grass species respond differently to warming and extreme drought. Journal of Ecology. 2011;99(3):703–13.Google Scholar
Jentsch, A, Kreyling, J, Boettcher‐Treschkow, J, Beierkuhnlein, C. Beyond gradual warming: extreme weather events alter flower phenology of European grassland and heath species. Global Change Biology. 2009;15(4):837–49.Google Scholar
Kreyling, J, Wenigmann, M, Beierkuhnlein, C, Jentsch, A. Effects of extreme weather events on plant productivity and tissue die-back are modified by community composition. Ecosystems. 2008;11(5):752–63.Google Scholar
Meehl, GA, Washington, WM, Santer, BD, Collins, WD, Arblaster, JM, Hu, A, et al. Climate change projections for the twenty-first century and climate change commitment in the CCSM3. Journal of Climate. 2006;19(11):2597–616.Google Scholar
Schoof, JT, Pryor, SC, Surprenant, J. Development of daily precipitation projections for the United States based on probabilistic downscaling. Journal of Geophysical Research: Atmospheres. 2010;115(D13).Google Scholar
Collins, SL, Koerner, SE, Plaut, JA, Okie, JG, Brese, D, Calabrese, LB, et al. Stability of tallgrass prairie during a 19‐year increase in growing season precipitation. Functional Ecology. 2012;26(6):1450–9.Google Scholar
Epstein, HE, Lauenroth, WK, Burke, IC. Effects of temperature and soil texture on ANPP in the US Great Plains. Ecology. 1997;78(8):2628–31.Google Scholar
Epstein, HE, Lauenroth, WK, Burke, IC, Coffin, DP. Ecological responses of dominant grasses along two climatic gradients in the Great Plains of the United States. Journal of Vegetation Science. 1996;7(6):777–88.Google Scholar
Ma, W, Liu, Z, Wang, Z, Wang, W, Liang, C, Tang, Y, et al. Climate change alters interannual variation of grassland aboveground productivity: evidence from a 22-year measurement series in the Inner Mongolian grassland. Journal of Plant Research. 2010;123(4):509–17.Google Scholar
Fay, PA, Blair, JM, Smith, MD, Nippert, JB, Carlisle, JD, Knapp, AK. Relative effects of precipitation variability and warming on tallgrass prairie ecosystem function. Biogeosciences. 2011;8(10):3053–68.Google Scholar
Luo, Y, Wan, S, Hui, D, Wallace, LL. Acclimatization of soil respiration to warming in a tall grass prairie. Nature. 2001;413(6856):622.Google Scholar
Hudson, JMG, Henry, GHR. Increased plant biomass in a High Arctic heath community from 1981 to 2008. Ecology. 2009;90(10):2657–63.Google Scholar
Wu, Z, Dijkstra, P, Koch, GW, Hungate, BA. Biogeochemical and ecological feedbacks in grassland responses to warming. Nature Climate Change. 2012;2(6):458.CrossRefGoogle Scholar
De Boeck, HJ, Lemmens, CMHM, Zavalloni, C, Gielen, B, Malchair, S, Carnol, M, et al. Biomass production in experimental grasslands of different species richness during three years of climate warming. Biogeosciences. 2008;5(2):585–94.Google Scholar
Bazzaz, FA. The response of natural ecosystems to the rising global CO2 levels. Annual Review of Ecology and Systematics. 1990;21(1):167–96.Google Scholar
Koch, GW, Mooney, HA. Response of terrestrial ecosystems to elevated CO2: a synthesis and summary. San Diego, CA: Academic Press; 1996.Google Scholar
Roy, J, Picon-Cochard, C, Augusti, A, Benot, M-L, Thiery, L, Darsonville, O, et al. Elevated CO2 maintains grassland net carbon uptake under a future heat and drought extreme. Proceedings of the National Academy of Sciences of the USA. 2016;113(22):6224–9.Google Scholar
Morgan, JA, LeCain, DR, Pendall, E, Blumenthal, DM, Kimball, BA, Carrillo, Y, et al. C4 grasses prosper as carbon dioxide eliminates desiccation in warmed semi-arid grassland. Nature. 2011;476(7359):202.Google Scholar
Brown, PJ, DeGaetano, AT. A paradox of cooling winter soil surface temperatures in a warming northeastern United States. Agricultural and Forest Meteorology. 2011;151(7):947–56.Google Scholar
Ernakovich, JG, Hopping, KA, Berdanier, AB, Simpson, RT, Kachergis, EJ, Steltzer, H, et al. Predicted responses of arctic and alpine ecosystems to altered seasonality under climate change. Global Change Biology. 2014;20(10):3256–69.Google Scholar
Jørgensen, M, Østrem, L, Höglind, M. De‐hardening in contrasting cultivars of timothy and perennial ryegrass during winter and spring. Grass and Forage Science. 2010;65(1):3848.Google Scholar
Ögren, E. Premature dehardening in Vaccinium myrtillus during a mild winter: a cause for winter dieback? Functional Ecology. 1996;10(6):724–32.CrossRefGoogle Scholar
Sakai, A, Larcher, W. Frost survival of plants: responses and adaptation to freezing stress. Berlin: Springer; 1987.Google Scholar
Bjerke, JW, Tømmervik, H, Zielke, M, Jørgensen, M. Impacts of snow season on ground-ice accumulation, soil frost and primary productivity in a grassland of sub-Arctic Norway. Environmental Research Letters. 2015;10(9):095007.Google Scholar
Bokhorst, SF, Bjerke, JW, Tømmervik, H, Callaghan, TV, Phoenix, GK. Winter warming events damage sub‐Arctic vegetation: consistent evidence from an experimental manipulation and a natural event. Journal of Ecology. 2009;97(6):1408–15.Google Scholar
Choler, P. Growth response of temperate mountain grasslands to inter-annual variations in snow cover duration. Biogeosciences. 2015;12(12):3885–97.Google Scholar
Preece, C, Callaghan, TV, Phoenix, GK. Impacts of winter icing events on the growth, phenology and physiology of sub‐arctic dwarf shrubs. Physiologia Plantarum. 2012;146(4):460–72.Google Scholar
Liston, GE, Hiemstra, CA. The changing cryosphere: pan-Arctic snow trends (1979–2009). Journal of Climate. 2011;24(21):5691–712.Google Scholar
Henry, HAL. Climate change and soil freezing dynamics: historical trends and projected changes. Climatic Change. 2008;87(3–4):421–34.Google Scholar
Kreyling, J, Henry, HAL. Vanishing winters in Germany: soil frost dynamics and snow cover trends, and ecological implications. Climate Research. 2011;46(3):269–76.Google Scholar
Zhao, L, Ping, C-L, Yang, D, Cheng, G, Ding, Y, Liu, S. Changes of climate and seasonally frozen ground over the past 30 years in Qinghai–Xizang (Tibetan) Plateau, China. Global and Planetary Change. 2004;43(1–2):1931.Google Scholar
Zhao, X, Tan, K, Zhao, S, Fang, J. Changing climate affects vegetation growth in the arid region of the northwestern China. Journal of Arid Environments. 2011;75(10):946–52.Google Scholar
Fraser, LH, Henry, HAL, Carlyle, CN, White, SR, Beierkuhnlein, C, Cahill, JF, et al. Coordinated distributed experiments: an emerging tool for testing global hypotheses in ecology and environmental science. Frontiers in Ecology and the Environment. 2013;11(3):147–55.Google Scholar
Sala, OE, Austin, AT. Methods of estimating aboveground net primary productivity. In: Sala, OE, Jackson, RB, Mooney, HA, Howarth, R, editors. Methods in ecosystem science. Berlin: Springer; 2000. pp. 3143.Google Scholar
Gill, RA, Kelly, RH, Parton, WJ, Day, KA, Jackson, RB, Morgan, JA, et al. Using simple environmental variables to estimate below‐ground productivity in grasslands. Global Ecology and Biogeography. 2002;11(1):7986.Google Scholar

6.6 References

Reynolds, JF, Smith, DMS, Lambin, EF, Turner, BL, Mortimore, M, Batterbury, SPJ, et al. Global desertification: building a science for dryland development. Science. 2007;316(5826):847–51.Google Scholar
Scholes, RJ, Archer, SR. Tree–grass interactions in savannas. Annual Review of Ecology and Systematics. 1997;28(1):517–44.Google Scholar
Ladwig, LM, Ratajczak, ZR, Ocheltree, TW, Hafich, KA, Churchill, AC, Frey, SJK, et al. Beyond arctic and alpine: the influence of winter climate on temperate ecosystems. Ecology. 2016;97(2):372–82.Google Scholar
Tilman, D, Isbell, F, Cowles, JM. Biodiversity and ecosystem functioning. Annual Review of Ecology, Evolution & Systematics. 2014;45:471–93.Google Scholar
Jones, MB. Projected climate change and the global distribution of grasslands. In: Gibson, DJ, Newman, JA, editors. Grasslands and climate change. Ecological reviews. Cambridge: Cambridge University Press; 2019. pp. 67–81.Google Scholar
Kirtman, B, Power, SB, Adedoyin, AJ, Boer, GJ, Bojariu, R, Camilloni, I, et al. Near-term climate change: projections and predictability. In: Stocker, TF, Qin, D, Plattner, G-K, Tignor, M, Allen, SK, Boschung, J, et al., editors. Climate change 2013: the physical science basis contribution of Working Group I to the Fifth Assessment Report of the Intergovernmental Panel on Climate Change. Cambridge: Cambridge University Press; 2013.Google Scholar
Collins, SL, Carpenter, SR, Swinton, SM, Orenstein, DE, Childers, DL, Gragson, TL, et al. An integrated conceptual framework for long‐term social–ecological research. Frontiers in Ecology and the Environment. 2011;9(6):351–7.Google Scholar
Jentsch, A, Kreyling, J, Beierkuhnlein, C. A new generation of climate‐change experiments: events, not trends. Frontiers in Ecology and the Environment. 2007;5(7):365–74.Google Scholar
Smith, MD. An ecological perspective on extreme climatic events: a synthetic definition and framework to guide future research. Journal of Ecology. 2011;99(3):656–63.Google Scholar
Holling, CS. Resilience and stability of ecological systems. Annual Review of Ecology and Systematics. 1973;4(1):123.Google Scholar
Scheffer, M. Critical transitions in nature and society. Princeton, NJ: Princeton University Press; 2009.Google Scholar
van Nes, EH, Arani, BMS, Staal, A, van der Bolt, B, Flores, BM, Bathiany, S, et al. What do you mean,‘tipping point’? Trends in Ecology & Evolution. 2016;31(12):902–4.Google Scholar
Briske, DD, Bestelmeyer, BT, Stringham, TK, Shaver, PL. Recommendations for development of resilience-based state-and-transition models. Rangeland Ecology & Management. 2008;61(4):359–67.Google Scholar
Folke, C, Carpenter, S, Walker, B, Scheffer, M, Elmqvist, T, Gunderson, L, et al. Regime shifts, resilience, and biodiversity in ecosystem management. Annual Review of Ecology, Evolution & Systematics. 2004;35:557–81.Google Scholar
Elmendorf, SC, Henry, GHR, Hollister, RD, Björk, RG, Boulanger-Lapointe, N, Cooper, EJ, et al. Plot-scale evidence of tundra vegetation change and links to recent summer warming. Nature Climate Change. 2012;2(6):453.Google Scholar
Walker, B, Holling, CS, Carpenter, SR, Kinzig, A. Resilience, adaptability and transformability in social–ecological systems. Ecology and Society. 2004;9(2):5.Google Scholar
Kayler, ZE, De Boeck, HJ, Fatichi, S, Grünzweig, JM, Merbold, L, Beier, C, et al. Experiments to confront the environmental extremes of climate change. Frontiers in Ecology and the Environment. 2015;13(4):219–25.Google Scholar
Smith, MD, Knapp, AK, Collins, SL. A framework for assessing ecosystem dynamics in response to chronic resource alterations induced by global change. Ecology. 2009;90(12):3279–89.Google Scholar
Westoby, M, Walker, B, Noy-Meir, I. Opportunistic management for rangelands not at equilibrium. Journal of Range Management. 1989;42(4):266–74.Google Scholar
D’Odorico, P, Bhattachan, A, Davis, KF, Ravi, S, Runyan, CW. Global desertification: drivers and feedbacks. Advances in Water Resources. 2013;51:326–44.Google Scholar
Peters, DPC, Yao, J, Sala, OE, Anderson, JP. Directional climate change and potential reversal of desertification in arid and semiarid ecosystems. Global Change Biology. 2012;18(1):151–63.Google Scholar
Ratajczak, Z, Churchill, A, Ladwig, L, Collins, SL. Effects of an extreme climate event and wildfire on tallgrass prairie vegetation. 2018 (unpublished).Google Scholar
Rondeau, RJ, Pearson, KT, Kelso, S. Vegetation response in a Colorado grassland–shrub community to extreme drought: 1999–2010. American Midlands Naturalist. 2013;170(1):1425.Google Scholar
Abatzoglou, JT, Kolden, CA. Climate change in western US deserts: potential for increased wildfire and invasive annual grasses. Rangeland Ecology & Management. 2011;64(5):471–8.Google Scholar
Brooks, ML, D’Antonio, CM, Richardson, DM, Grace, JB, Keeley, JE, DiTomaso, JM, et al. Effects of invasive alien plants on fire regimes. Bioscience. 2004;54(7):677–88.Google Scholar
D’Odorico, P, He, Y, Collins, S, De Wekker, SFJ, Engel, V, Fuentes, JD. Vegetation–microclimate feedbacks in woodland–grassland ecotones. Global Ecology and Biogeography. 2013;22(4):364–79.Google Scholar
Gherardi, LA, Sala, OE. Enhanced precipitation variability decreases grass- and increases shrub-productivity. Proceedings of the National Academy of Sciences of the USA. 2015;112(41):12,735–40.Google Scholar
Holmgren, M, Lin, CY, Murillo, JE, Nieuwenhuis, A, Penninkhof, J, Sanders, N, et al. Positive shrub–tree interactions facilitate woody encroachment in boreal peatlands. Journal of Ecology. 2015;103(1):5866.Google Scholar
Walker, BH, Ludwig, D, Holling, CS, Peterman, RM. Stability of semi-arid savanna grazing systems. Journal of Ecology. 1981:473–98.Google Scholar
Bonachela, JA, Pringle, RM, Sheffer, E, Coverdale, TC, Guyton, JA, Caylor, KK, et al. Termite mounds can increase the robustness of dryland ecosystems to climatic change. Science. 2015;347(6222):651–5.Google Scholar
Borer, ET, Seabloom, EW, Gruner, DS, Harpole, WS, Hillebrand, H, Lind, EM, et al. Herbivores and nutrients control grassland plant diversity via light limitation. Nature. 2014;508(7497):517.Google Scholar
Dekker, SC, Rietkerk, M, Bierkens, MFP. Coupling microscale vegetation–soil water and macroscale vegetation–precipitation feedbacks in semiarid ecosystems. Global Change Biology. 2007;13(3):671–8.Google Scholar
Van Langevelde, F, Van De Vijver, CADM, Kumar, L, Van De Koppel, J, De Ridder, N, Van Andel J, et al. Effects of fire and herbivory on the stability of savanna ecosystems. Ecology. 2003;84(2):337–50.Google Scholar
Tilman, D. Resource competition and community structure. Princeton, NJ: Princeton University Press; 1982.Google Scholar
Ratajczak, Z, D’odorico, P, Collins, SL, Bestelmeyer, BT, Isbell, FI, Nippert, JB. The interactive effects of press/pulse intensity and duration on regime shifts at multiple scales. Ecological Monographs. 2017;87(2):198218.Google Scholar
Nippert, JB, Wieme, RA, Ocheltree, TW, Craine, JM. Root characteristics of C4 grasses limit reliance on deep soil water in tallgrass prairie. Plant and Soil. 2012;355(1–2):385–94.Google Scholar
Dalgleish, HJ, Hartnett, DC. Below‐ground bud banks increase along a precipitation gradient of the North American Great Plains: a test of the meristem limitation hypothesis. New Phytologist. 2006;171(1):81–9.Google Scholar
Gibson, DJ. Grasses and grassland ecology. Oxford: Oxford University Press; 2009.Google Scholar
Chesson, P. Mechanisms of maintenance of species diversity. Annual Review of Ecology and Systematics. 2000;31(1):343–66.Google Scholar
February, EC, Higgins, SI, Bond, WJ, Swemmer, L. Influence of competition and rainfall manipulation on the growth responses of savanna trees and grasses. Ecology. 2013;94(5):1155–64.Google Scholar
Holmgren, M, Hirota, M, Van Nes, EH, Scheffer, M. Effects of interannual climate variability on tropical tree cover. Nature Climate Change. 2013;3(8):755.Google Scholar
Collins, SL, Belnap, J, Grimm, NB, Rudgers, J, Dahm, CN, D’Odorico, P, et al. A multiscale, hierarchical model of pulse dynamics in arid-land ecosystems. Annual Review of Ecology, Evolution & Systematics. 2014;45:397419.Google Scholar
Grime, JP. Plant strategies, vegetation processes, and ecosystem properties. New York, NY: John Wiley & Sons; 2006.Google Scholar
Petraitis, P. Multiple stable states in natural ecosystems. Oxford: Oxford University Press; 2013.Google Scholar
Ratajczak, Z, D’Odorico, P, Nippert, JB, Collins, SL, Brunsell, NA, Ravi, S. Changes in spatial variance during a grassland to shrubland state transition. Journal of Ecology. 2017;105(3):750–60.Google Scholar
Bond, WJ. What limits trees in C4 grasslands and savannas? Annual Review of Ecology, Evolution & Systematics. 2008;39:641–59.Google Scholar
Murphy, BP, Bowman, DMJS. What controls the distribution of tropical forest and savanna? Ecology Letters. 2012;15(7):748–58.Google Scholar
Staver, AC, Archibald, S, Levin, SA. The global extent and determinants of savanna and forest as alternative biome states. Science. 2011;334(6053):230–2.Google Scholar
Ehleringer, JR, Cerling, TE, Helliker, BR. C4 photosynthesis, atmospheric CO2, and climate. Oecologia. 1997;112(3):285–99.Google Scholar
Westerling, AL. Increasing western US forest wildfire activity: sensitivity to changes in the timing of spring. Philosophical Transactions of the Royal Society of London Series B: Biological Sciences. 2016;371(1696):20150178.Google Scholar
Higgins, SI, Scheiter, S. Atmospheric CO2 forces abrupt vegetation shifts locally, but not globally. Nature. 2012;488(7410):209.Google Scholar
Kulmatiski, A, Beard, KH. Woody plant encroachment facilitated by increased precipitation intensity. Nature Climate Change. 2013;3(9):833.Google Scholar
Ilga, C, Dziock, F, Foeckler, F, Follner, K, Gerisch, M, Glaeser, J, et al. Long‐term reactions of plants and macroinvertebrates to extreme floods in floodplain grasslands. Ecology. 2008;89(9):2392–8.Google Scholar
Noy-Meir, I. Stability of grazing systems: an application of predator–prey graphs. Journal of Ecology. 1975;63(2):459–81.Google Scholar
Peters, DPC, Lugo, AE, Chapin, FS, Pickett, STA, Duniway, M, Rocha, AV, et al. Cross‐system comparisons elucidate disturbance complexities and generalities. Ecosphere. 2011;2(7):126.Google Scholar
Wookey, PA, Aerts, R, Bardgett, RD, Baptist, F, Bråthen, KA, Cornelissen, JHC, et al. Ecosystem feedbacks and cascade processes: understanding their role in the responses of Arctic and alpine ecosystems to environmental change. Global Change Biology. 2009;15(5):1153–72.Google Scholar
Villa Martín, P, Bonachela, JA, Levin, SA, Muñoz, MA. Eluding catastrophic shifts. Proceedings of the National Academy of Sciences of the USA. 2015;112(15):E1828–36.Google Scholar
Bestelmeyer, BT, Ellison, AM, Fraser, WR, Gorman, KB, Holbrook, SJ, Laney, CM, et al. Analysis of abrupt transitions in ecological systems. Ecosphere. 2011;2(12):126.Google Scholar
Brandt, JS, Haynes, MA, Kuemmerle, T, Waller, DM, Radeloff, VC. Regime shift on the roof of the world: Alpine meadows converting to shrublands in the southern Himalayas. Biological Conservation. 2013;158:116–27.Google Scholar
Arnone, JA, Jasoni, RL, Lucchesi, AJ, Larsen, JD, Leger, EA, Sherry, RA, et al. A climatically extreme year has large impacts on C4 species in tallgrass prairie ecosystems but only minor effects on species richness and other plant functional groups. Journal of Ecology. 2011;99(3):678–88.Google Scholar
Bagchi, S, Briske, DD, Bestelmeyer, BT, Wu, BX. Assessing resilience and state‐transition models with historical records of cheatgrass Bromus tectorum invasion in North American sagebrush–steppe. Journal of Applied Ecology. 2013;50(5):1131–41.Google Scholar
Bagchi, S, Briske, DD, Wu, XB, McClaran, MP, Bestelmeyer, BT, Fernández-Giménez, ME. Empirical assessment of state‐and‐transition models with a long‐term vegetation record from the Sonoran Desert. Ecological Applications. 2012;22(2):400–11.Google Scholar
Buitenwerf, R, Swemmer, AM, Peel, MJS. Long‐term dynamics of herbaceous vegetation structure and composition in two African savanna reserves. Journal of Applied Ecology. 2011;48(1):238–46.Google Scholar
Fuhlendorf, SD, Briske, DD, Smeins, FE. Herbaceous vegetation change in variable rangeland environments: the relative contribution of grazing and climatic variability. Applied Vegetation Science. 2001;4(2):177–88.Google Scholar
Grime, JP, Brown, VK, Thompson, K, Masters, GJ, Hillier, SH, Clarke, IP, et al. The response of two contrasting limestone grasslands to simulated climate change. Science. 2000;289(5480):762–5.Google Scholar
Grime, JP, Fridley, JD, Askew, AP, Thompson, K, Hodgson, JG, Bennett, CR. Long-term resistance to simulated climate change in an infertile grassland. Proceedings of the National Academy of Sciences of the USA. 2008;105(29):10,028–32.Google Scholar
Hobbs, RJ, Yates, S, Mooney, HA. Long‐term data reveal complex dynamics in grassland in relation to climate and disturbance. Ecological Monographs. 2007;77(4):545–68.Google Scholar
Kreyling, J, Jurasinski, G, Grant, K, Retzer, V, Jentsch, A, Beierkuhnlein, C. Winter warming pulses affect the development of planted temperate grassland and dwarf-shrub heath communities. Plant Ecology & Diversity. 2011;4(1):1321.Google Scholar
Jägerbrand, AK, Alatalo, JM, Chrimes, D, Molau, U. Plant community responses to 5 years of simulated climate change in meadow and heath ecosystems at a subarctic–alpine site. Oecologia. 2009;161(3):601–10.Google Scholar
Porensky, LM, Derner, JD, Augustine, DJ, Milchunas, DG. Plant community composition after 75 yr of sustained grazing intensity treatments in shortgrass steppe. Rangeland Ecology & Management. 2017;70(4):456–64.Google Scholar
Tilman, D. Biodiversity: population versus ecosystem stability. Ecology. 1996;77(2):350–63.Google Scholar
Stampfli, A, Zeiter, M. Plant regeneration directs changes in grassland composition after extreme drought: a 13‐year study in southern Switzerland. Journal of Ecology. 2004;92(4):568–76.Google Scholar
Hoover, DL, Knapp, AK, Smith, MD. Resistance and resilience of a grassland ecosystem to climate extremes. Ecology. 2014;95(9):2646–56.Google Scholar
Jentsch, A, Kreyling, J, Elmer, M, Gellesch, E, Glaser, B, Grant, K, et al. Climate extremes initiate ecosystem‐regulating functions while maintaining productivity. Journal of Ecology. 2011;99(3):689702.Google Scholar
Koerner, SE, Collins, SL. Interactive effects of grazing, drought, and fire on grassland plant communities in North America and South Africa. Ecology. 2014;95(1):98109.CrossRefGoogle ScholarPubMed
Larios, L, Aicher, RJ, Suding, KN. Effect of propagule pressure on recovery of a California grassland after an extreme disturbance. Journal of Vegetation Science. 2013;24(6):1043–52.Google Scholar
Milchunas, DG, Lauenroth, WK. Inertia in plant community structure: state changes after cessation of nutrient‐enrichment stress. Ecological Applications. 1995;5(2):452–8.Google Scholar
Polyakov, VO, Nearing, MA, Stone, JJ, Hamerlynck, EP, Nichols, MH, Holifield, Collins, CD, et al. Runoff and erosional responses to a drought‐induced shift in a desert grassland community composition. Journal of Geophysical Research – Biogeoscience. 2010;115(G4).Google Scholar
Sternberg, M, Golodets, C, Gutman, M, Perevolotsky, A, Kigel, J, Henkin, Z. No precipitation legacy effects on above‐ground net primary production and species diversity in grazed Mediterranean grassland: a 21‐year experiment. Journal of Vegetation Science. 2017;28(2):260–9.Google Scholar
Sternberg, M, Golodets, C, Gutman, M, Perevolotsky, A, Ungar, ED, Kigel, J, et al. Testing the limits of resistance: a 19‐year study of Mediterranean grassland response to grazing regimes. Global Change Biology. 2015;21(5):1939–50.Google Scholar
Gibbens, RP, McNeely, RP, Havstad, KM, Beck, RF, Nolen, B. Vegetation changes in the Jornada Basin from 1858 to 1998. Journal of Arid Environments. 2005;61(4):651–68.Google Scholar
Kennedy, AD, Biggs, H, Zambatis, N. Relationship between grass species richness and ecosystem stability in Kruger National Park, South Africa. African Journal of Ecology. 2003;41(2):131–40.Google Scholar
Yao, J, Peters, DPC, Havstad, KM, Gibbens, RP, Herrick, JE. Multi-scale factors and long-term responses of Chihuahuan Desert grasses to drought. Landscape Ecology. 2006;21(8):1217–31.Google Scholar
Isbell, F, Tilman, D, Polasky, S, Binder, S, Hawthorne, P. Low biodiversity state persists two decades after cessation of nutrient enrichment. Ecology Letters. 2013;16(4):454–60.Google Scholar
Park, HS, Sohn, BJ. Recent trends in changes of vegetation over East Asia coupled with temperature and rainfall variations. Journal of Geophysical Research – Atmosphere. 2010;115(D14).CrossRefGoogle Scholar
Harsch, MA, Hulme, PE, McGlone, MS, Duncan, RP. Are treelines advancing? A global meta‐analysis of treeline response to climate warming. Ecology Letters. 2009;12(10):1040–9.Google Scholar
Dove, MR. Climate change and the politics and science of traditional grassland management. In: Gibson, DJ, Newman, JA, editors. Grasslands and climate change. Ecological reviews. Cambridge: Cambridge University Press; 2019. pp. 274–90.Google Scholar
Dougill, AJ, Fraser, EDG, Reed, MS. Anticipating vulnerability to climate change in dryland pastoral systems: using dynamic systems models for the Kalahari. Ecology and Society. 2010;15(2):17.Google Scholar

7.9 References

Jobbagy, EG, Jackson, RB. The vertical distribution of soil organic carbon and its relation to climate and vegetation. Ecological Applications. 2000;10(2):423–36.Google Scholar
Schlesinger, WH, Andrews, JA. Soil respiration and the global carbon cycle. Biogeochemistry. 2000;48(1):720.Google Scholar
Rustad, LE, Campbell, JL, Marion, GM, Norby, RJ, Mitchell, MJ, Hartley, AE, et al. A meta-analysis of the response of soil respiration, net nitrogen mineralization, and aboveground plant growth to experimental ecosystem warming. Oecologia. 2001;126(4):543–62.Google Scholar
Luo, Y, Su, B, Currie, WS, Dukes, JS, Finzi, AC, Hartwig, U, et al. Progressive nitrogen limitation of ecosystem responses to rising atmospheric carbon dioxide. Bioscience. 2004;54(8):731–9.Google Scholar
Vitousek, PM, Aber, JD, Howarth, RW, Likens, GE, Matson, PA, Schindler, DW, et al. Human alteration of the global nitrogen cycle: Sources and consequences. Ecological Applications. 1997;7(3):737–50.Google Scholar
Novick, KA, Stoy, PC, Katul, GG, Ellsworth, DS, Siqueira, MBS, Juang, J, et al. Carbon dioxide and water vapor exchange in a warm temperate grassland. Oecologia. 2004;138(2):259–74.Google Scholar
Soussana, JF, Luscher, A. Temperate grasslands and global atmospheric change: a review. Grass and Forage Science. 2007;62(2):127–34.Google Scholar
Diemer, M, Korner, C. Transient enhancement of carbon uptake in an alpine grassland ecosystem under elevated CO2. Arctic, Antarctic and Alpine Research. 1998;30(4):381–7.Google Scholar
de Graaff, MA, Six, J, Harris, D, Blum, H, van Kessel, C. Decomposition of soil and plant carbon from pasture systems after 9 years of exposure to elevated CO2: impact on C cycling and modeling. Global Change Biology. 2004;10(11):1922–35.Google Scholar
Blagodatskaya, E, Kuzyakov, Y. Mechanisms of real and apparent priming effects and their dependence on soil microbial biomass and community structure: critical review. Biology and Fertility of Soils. 2008;45(2):115–31.Google Scholar
Ross, DJ, Tate, KR, Newton, PCD, Wilde, RH, Clark, H. Carbon and nitrogen pools and mineralization in a grassland gley soil under elevated carbon dioxide at a natural CO2 spring. Global Change Biology. 2000;6(7):779–90.Google Scholar
Williams, MA, Rice, CW, Owensby, CE. Carbon dynamics and microbial activity in tallgrass prairie exposed to elevated CO2 for 8 years. Plant and Soil. 2000;227(1–2):127–37.Google Scholar
Navas, ML, Guillerm, JL, Fabreguettes, J, Roy, J. The influence of elevated CO2 on community structure, biomass and carbon balance of mediterranean old-field microcosms. Global Change Biology. 1995;1(5):325–35.Google Scholar
Fitter, AH, Graves, JD, Wolfenden, J, Self, GK, Brown, TK, Bogie, D, et al. Root production and turnover and carbon budgets of two contrasting grasslands under ambient and elevated atmospheric carbon dioxide concentrations. New Phytologist. 1997;137(2):247–55.Google Scholar
Niklaus, PA, Glockler, E, Siegwolf, R, Korner, C. Carbon allocation in calcareous grassland under elevated CO2: a combined 13C pulse-labelling/soil physical fractionation study. Functional Ecology. 2001;15(1):4350.Google Scholar
Ross, DJ, Newton, PCD, Tate, KR. Elevated CO2 effects on herbage production and soil carbon and nitrogen pools and mineralization in a species-rich, grazed pasture on a seasonally dry sand. Plant and Soil. 2004;260(1–2):183–96.Google Scholar
Van Kessel, C, Nitschelm, J, Horwath, WR, Harris, D, Walley, F, Luscher, A, et al. Carbon-13 input and turn-over in a pasture soil exposed to long-term elevated atmospheric CO2. Global Change Biology. 2000;6(1):123–35.Google Scholar
Xie, ZB, Cadisch, G, Edwards, G, Baggs, EM, Blum, H. Carbon dynamics in a temperate grassland soil after 9 years exposure to elevated CO2 (Swiss FACE). Soil Biology and Biochemistry. 2005;37(7):1387–95.Google Scholar
Sindhoj, E, Andren, O, Katterer, T, Gunnarsson, S, Pettersson, R. Projections of 30-year soil carbon balances for a semi-natural grassland under elevated CO2 based on measured root decomposability. Agriculture, Ecosystems & Environment. 2006;114(2–4):360–8.Google Scholar
Jastrow, JD, Miller, RM, Matamala, R, Norby, RJ, Boutton, TW, Rice, CW, et al. Elevated atmospheric carbon dioxide increases soil carbon. Global Change Biology. 2005;11(12):2057–64.Google Scholar
Luo, YQ, Hui, DF, Zhang, DQ. Elevated CO2 stimulates net accumulations of carbon and nitrogen in land ecosystems: a meta-analysis. Ecology. 2006;87(1):5363.Google Scholar
de Graaff, MA, van Groenigen, KJ, Six, J, Hungate, B, van Kessel, C. Interactions between plant growth and soil nutrient cycling under elevated CO2: a meta-analysis. Global Change Biology. 2006;12(11):2077–91.Google Scholar
van Groenigen, KJ, Six, J, Hungate, BA, de Graaff, MA, van Breemen, N, van Kessel, C. Element interactions limit soil carbon storage. Proceedings of the National Academy of Sciences of the USA. 2006;103(17):6571–4.Google Scholar
Hungate, BA, van Groenigen, KJ, Six, J, Jastrow, JD, Luo, YQ, de Graaff, MA, et al. Assessing the effect of elevated carbon dioxide on soil carbon: a comparison of four meta-analyses. Global Change Biology. 2009;15(8):2020–34.Google Scholar
Dukes, JS, Hungate, BA. Elevated carbon dioxide and litter decomposition in California annual grasslands: which mechanisms matter? Ecosystems. 2002;5(2):171–83.Google Scholar
Kemp, PR, Waldecker, DG, Owensby, CE, Reynolds, JF, Virginia, RA. Effects of elevated CO2 and nitrogen-fertilization pretreatments on decomposition on tallgrass prairie leaf-litter. Plant and Soil. 1994;165(1):115–27.Google Scholar
Sage, RF. Atmospheric modification and vegetation responses to environmental stress. Global Change Biology. 1996;2(2):7983.Google Scholar
Fay, PA, Kaufman, DM, Nippert, JB, Carlisle, JD, Harper, CW. Changes in grassland ecosystem function due to extreme rainfall events: implications for responses to climate change. Global Change Biology. 2008;14(7):1600–8.Google Scholar
Kreyling, J, Khan, M, Sultana, F, Babel, W, Beierkuhnlein, C, Foken, T, et al. Drought effects in climate change manipulation experiments: quantifying the influence of ambient weather conditions and rain-out shelter artifacts. Ecosystems. 2017;20(2):301–15.Google Scholar
Derner, JD, Schuman, GE. Carbon sequestration and rangelands: a synthesis of land management and precipitation effects. Journal of Soil and Water Conservation. 2007;62(2):7785.Google Scholar
Hunt, JE, Kelliher, FM, McSeveny, TM, Byers, JN. Evaporation and carbon dioxide exchange between the atmosphere and a tussock grassland during a summer drought. Agricultural and Forest Meteorology. 2002;111(1):6582.Google Scholar
Pereira, JS, Mateus, JA, Aires, LM, Pita, G, Pio, C, David, JS, et al. Net ecosystem carbon exchange in three contrasting Mediterranean ecosystems – the effect of drought. Biogeosciences. 2007;4(5):791802.Google Scholar
Zhang, L, Wylie, BK, Ji, L, Gilmanov, TG, Tieszen, LL. Climate-driven interannual variability in net ecosystem exchange in the northern great plains grasslands. Rangeland Ecology & Management. 2010;63(1):4050.Google Scholar
Dong, G, Guo, JX, Chen, JQ, Sun, G, Gao, S, Hu, LJ, et al. Effects of spring drought on carbon sequestration, evapotranspiration and water use efficiency in the Songnen meadow steppe in northeast China. Ecohydrology. 2011;4(2):211–24.Google Scholar
Rajan, N, Maas, SJ, Cui, S. Extreme drought effects on carbon dynamics of a semiarid pasture. Agronomy Journal. 2013;105(6):1749–60.Google Scholar
Yang, FL, Zhou, GS. Sensitivity of temperate desert steppe carbon exchange to seasonal droughts and precipitation variations in inner Mongolia, China. PLoS ONE. 2013;8(2).Google Scholar
Fischer, ML, Torn, MS, Billesbach, DP, Doyle, G, Northup, B, Biraud, SC. Carbon, water, and heat flux responses to experimental burning and drought in a tallgrass prairie. Agricultural and Forest Meteorology. 2012;166:169–74.Google Scholar
Jaksic, V, Kiely, G, Albertson, J, Oren, R, Katul, G, Leahy, P, et al. Net ecosystem exchange of grassland in contrasting wet and dry years. Agricultural and Forest Meteorology. 2006;139(3–4):323–34.Google Scholar
St Clair, SB, Sudderth, EA, Fischer, ML, Torn, MS, Stuart, SA, Salve, R, et al. Soil drying and nitrogen availability modulate carbon and water exchange over a range of annual precipitation totals and grassland vegetation types. Global Change Biology. 2009;15(12):3018–30.Google Scholar
Mirzaei, H, Kreyling, J, Hussain, MZ, Li, YL, Tenhunen, J, Beierkuhnlein, C, et al. A single drought event of 100-year recurrence enhances subsequent carbon uptake and changes carbon allocation in experimental grassland communities. Journal of Plant Nutrition and Soil Science. 2008;171(5):681–9.Google Scholar
Fuchslueger, L, Bahn, M, Hasibeder, R, Kienzl, S, Fritz, K, Schmitt, M, et al. Drought history affects grassland plant and microbial carbon turnover during and after a subsequent drought event. Journal of Ecology. 2016;104(5):1453–65.Google Scholar
Wu, ZT, Dijkstra, P, Koch, GW, Penuelas, J, Hungate, BA. Responses of terrestrial ecosystems to temperature and precipitation change: a meta-analysis of experimental manipulation. Global Change Biology. 2011;17(2):927–42.Google Scholar
Liu, LL, Wang, X, Lajeunesse, MJ, Miao, GF, Piao, SL, Wan, SQ, et al. A cross-biome synthesis of soil respiration and its determinants under simulated precipitation changes. Global Change Biology. 2016;22(4):1394–405.Google Scholar
Scott, RL, Hamerlynck, EP, Jenerette, GD, Moran, MS, Barron-Gafford, GA. Carbon dioxide exchange in a semidesert grassland through drought-induced vegetation change. Journal of Geophysical Research: Biogeoscience. 2010;115:G03026.Google Scholar
van der Molen, MK, Dolman, AJ, Ciais, P, Eglin, T, Gobron, N, Law, BE, et al. Drought and ecosystem carbon cycling. Agricultural and Forest Meteorology. 2011;151(7):765–73.Google Scholar
Craine, JM, Ocheltree, TW, Nippert, JB, Towne, EG, Skibbe, AM, Kembel, SW, et al. Global diversity of drought tolerance and grassland climate-change resilience. Nature Climate Change. 2013;3(1):63–7.Google Scholar
Kwon, H, Pendall, E, Ewers, BE, Cleary, M, Naithani, K. Spring drought regulates summer net ecosystem CO2 exchange in a sagebrush-steppe ecosystem. Agricultural and Forest Meteorology. 2008;148(3):381–91.Google Scholar
Wang, CH, Chen, Z, Unteregelsbacher, S, Lu, HY, Gschwendtner, S, Gasche, R, et al. Climate change amplifies gross nitrogen turnover in montane grasslands of Central Europe in both summer and winter seasons. Global Change Biology. 2016;22(9):2963–78.Google Scholar
Peng, SS, Piao, SL, Shen, ZH, Ciais, P, Sun, ZZ, Chen, SP, et al. Precipitation amount, seasonality and frequency regulate carbon cycling of a semi-arid grassland ecosystem in Inner Mongolia, China: a modeling analysis. Agricultural and Forest Meteorology. 2013;178:4655.Google Scholar
Chimner, RA, Welker, JM. Ecosystem respiration responses to experimental manipulations of winter and summer precipitation in a Mixedgrass Prairie, WY, USA. Biogeochemistry. 2005;73(1):257–70.Google Scholar
Scott, RL, Jenerette, GD, Potts, DL, Huxman, TE. Effects of seasonal drought on net carbon dioxide exchange from a woody-plant-encroached semiarid grassland. Journal of Geophysical Research: Biogeoscience. 2009;114.Google Scholar
Bowling, DR, Bethers-Marchetti, S, Lunch, CK, Grote, EE, Belnap, J. Carbon, water, and energy fluxes in a semiarid cold desert grassland during and following multiyear drought. Journal of Geophysical Research: Biogeoscience. 2010;115.Google Scholar
Hamerlynck, EP, Scott, RL, Barron-Gafford, GA. Consequences of cool-season drought-induced plant mortality to Chihuahuan Desert grassland ecosystem and soil respiration dynamics. Ecosystems. 2013;16(7):1178–91.Google Scholar
Sloat, LL, Henderson, AN, Lamanna, C, Enquist, BJ. The effect of the foresummer drought on carbon exchange in subalpine meadows. Ecosystems. 2015;18(3):533–45.Google Scholar
Arnold, C, Ghezzehei, TA, Berhe, AA. Early spring, severe frost events, and drought induce rapid carbon loss in high elevation meadows. PLoS ONE. 2014;9(9).Google Scholar
Craine, JM, Wedin, DA, Reich, PB. Grassland species effects on soil CO2 flux track the effects of elevated CO2 and nitrogen. New Phytologist. 2001;150(2):425–34.Google Scholar
Lu, M, Zhou, XH, Yang, Q, Li, H, Luo, YQ, Fang, CM, et al. Responses of ecosystem carbon cycle to experimental warming: a meta-analysis. Ecology. 2013;94(3):726–38.Google Scholar
Belay-Tedla, A, Zhou, XH, Su, B, Wan, SQ, Luo, YQ. Labile, recalcitrant, and microbial carbon and nitrogen pools of a tallgrass prairie soil in the US Great Plains subjected to experimental warming and clipping. Soil Biology and Biochemistry. 2009;41(1):110–6.Google Scholar
Chen, J, Luo, YQ, Xia, JY, Shi, Z, Jiang, LF, Niu, SL, et al. Differential responses of ecosystem respiration components to experimental warming in a meadow grassland on the Tibetan Plateau. Agricultural and Forest Meteorology. 2016;220:21–9.Google Scholar
Zeng, N, Qian, HF, Roedenbeck, C, Heimann, M. Impact of 1998–2002 midlatitude drought and warming on terrestrial ecosystem and the global carbon cycle. Geophysical Research Letters. 2005;32(22).Google Scholar
Zong, N, Shi, PL, Jiang, J, Song, MH, Xiong, DP, Ma, WL, et al. Responses of ecosystem CO2 fluxes to short-term experimental warming and nitrogen enrichment in an alpine meadow, northern Tibet plateau. Scientific World Journal. 2013;2013:415318.Google Scholar
Xu, MH, Peng, F, You, QG, Guo, J, Tian, XF, Xue, X, et al. Year-round warming and autumnal clipping lead to downward transport of root biomass, carbon and total nitrogen in soil of an alpine meadow. Environmental and Experimental Botany. 2015;109:5462.Google Scholar
Liu, WX, Zhang, Z, Wan, SQ. Predominant role of water in regulating soil and microbial respiration and their responses to climate change in a semiarid grassland. Global Change Biology. 2009;15(1):184–95.Google Scholar
Zhou, XQ, Chen, CR, Wang, YF, Xu, ZH, Hu, ZY, Cui, XY, et al. Effects of warming and increased precipitation on soil carbon mineralization in an Inner Mongolian grassland after 6 years of treatments. Biology and Fertility of Soils. 2012;48(7):859–66.Google Scholar
He, NP, Chen, QS, Han, XG, Yu, GR, Li, LH. Warming and increased precipitation individually influence soil carbon sequestration of Inner Mongolian grasslands, China. Agriculture, Ecosystems & Environment. 2012;158:184–91.Google Scholar
Xia, JY, Niu, SL, Wan, SQ. Response of ecosystem carbon exchange to warming and nitrogen addition during two hydrologically contrasting growing seasons in a temperate steppe. Global Change Biology. 2009;15(6):1544–56.Google Scholar
Sharkhuu, A, Plante, AF, Enkhmandal, O, Gonneau, C, Casper, BB, Boldgiv, B, et al. Soil and ecosystem respiration responses to grazing, watering and experimental warming chamber treatments across topographical gradients in northern Mongolia. Geoderma. 2016;269:91–8.Google Scholar
Garten, CT, Classen, AT, Norby, RJ. Soil moisture surpasses elevated CO2 and temperature as a control on soil carbon dynamics in a multi-factor climate change experiment. Plant and Soil. 2009;319(1–2):8594.Google Scholar
Zhu, JT, Zhang, YJ, Jiang, L. Experimental warming drives a seasonal shift of ecosystem carbon exchange in Tibetan alpine meadow. Agricultural and Forest Meteorology. 2017;233:242–9.Google Scholar
Xia, JZ, Liu, SG, Liang, SL, Chen, Y, Xu, WF, Yuan, WP. Spatio-temporal patterns and climate variables controlling of biomass carbon stock of global grassland ecosystems from 1982 to 2006. Remote Sensing. 2014;6(3):1783–802.Google Scholar
Rui, YC, Wang, SP, Xu, ZH, Wang, YF, Chen, CR, Zhou, XQ, et al. Warming and grazing affect soil labile carbon and nitrogen pools differently in an alpine meadow of the Qinghai-Tibet Plateau in China. Journal of Soils and Sediments. 2011;11(6):903–14.Google Scholar
Xue, X, Luo, YQ, Zhou, XH, Sherry, R, Jia, XH. Climate warming increases soil erosion, carbon and nitrogen loss with biofuel feedstock harvest in tallgrass prairie. GCB Bioenergy. 2011;3(3):198207.Google Scholar
Thakur, MP, Milcu, A, Manning, P, Niklaus, PA, Roscher, C, Power, S, et al. Plant diversity drives soil microbial biomass carbon in grasslands irrespective of global environmental change factors. Global Change Biology. 2015;21(11):4076–85.Google Scholar
Harte, J, Saleska, S, Shih, T. Shifts in plant dominance control carbon-cycle responses to experimental warming and widespread drought. Environmental Research Letters. 2006;1(1):014001.Google Scholar
Cheng, XL, Luo, YQ, Su, B, Zhou, XH, Niu, SL, Sherry, R, et al. Experimental warming and clipping altered litter carbon and nitrogen dynamics in a tallgrass prairie. Agriculture, Ecosystems & Environment. 2010;138(3–4):206–13.Google Scholar
Birgander, J, Rousk, J, Olsson, PA. Activity of temperate grassland plants and symbiotic fungi during the winter – implications for community structure and carbon cycling in a changing climate. Nordic Journal of Botany. 2012;30(5):513–21.Google Scholar
Owensby, CE, Coyne, PI, Auen, LM. Nitrogen and phosphorus dynamics of a tallgrass prairie ecosystem exposed to elevated carbon dioxide. Plant Cell and Environment. 1993;16(7):843–50.Google Scholar
Loiseau, P, Soussana, JF. Elevated CO2, temperature increase and N supply effects on the accumulation of below-ground carbon in a temperate grassland ecosystem. Plant and Soil. 1999;212(2):123–34.Google Scholar
Newton, PCD, Lieffering, M, Bowatte, W, Brock, SC, Hunt, CL, Theobald, PW, et al. The rate of progression and stability of progressive nitrogen limitation at elevated atmospheric CO2 in a grazed grassland over 11 years of free air CO2 enrichment. Plant and Soil. 2010;336(1–2):433–41.Google Scholar
Sillen, WMA, Dieleman, WIJ. Effects of elevated CO2 and N fertilization on plant and soil carbon pools of managed grasslands: a meta-analysis. Biogeosciences. 2012;9(6):2247–58.Google Scholar
Adair, CE, Reich, PB, Trost, JJ, Hobbie, SE. Elevated CO2 stimulates grassland soil respiration by increasing carbon inputs rather than by enhancing soil moisture. Global Change Biology. 2011;17(12):3546–63.Google Scholar
Mueller, KE, Hobbie, SE, Tilman, D, Reich, PB. Effects of plant diversity, N fertilization, and elevated carbon dioxide on grassland soil N cycling in a long-term experiment. Global Change Biology. 2013;19(4):1249–61.Google Scholar
Rutting, T, Clough, TJ, Muller, C, Lieffering, M, Newton, PCD. Ten years of elevated atmospheric carbon dioxide alters soil nitrogen transformations in a sheep-grazed pasture. Global Change Biology. 2010;16(9):2530–42.Google Scholar
Soussana, JF, Hartwig, UA. The effects of elevated CO2 on symbiotic N2 fixation: a link between the carbon and nitrogen cycles in grassland ecosystems. Plant and Soil. 1996;187(2):321–32.Google Scholar
Grünzweig, JM, Körner, C. Growth, water and nitrogen relations in grassland model ecosystems of the semi-arid Negev of Israel exposed to elevated CO2. Oecologia. 2001;128(2):251–62.Google Scholar
Lam, SK, Chen, DL, Norton, R, Armstrong, R, Mosier, AR. Nitrogen dynamics in grain crop and legume pasture systems under elevated atmospheric carbon dioxide concentration: a meta-analysis. Global Change Biology. 2012;18(9):2853–9.Google Scholar
Wedin, DA, Tilman, D. Influence of nitrogen loading and species composition on the carbon balance of grasslands. Science. 1996;274(5293):1720–3.Google Scholar
King, JY, Mosier, AR, Morgan, JA, LeCain, DR, Milchunas, DG, Parton, WJ. Plant nitrogen dynamics in shortgrass steppe under elevated atmospheric carbon dioxide. Ecosystems. 2004;7(2):147–60.Google Scholar
Giambiagi, N, Rimolo, M, Pirolo, T. Influence of drought on the production of mineral nitrogen in a typical argiudol of the Pampas. Soil Biology and Biochemistry. 1993;25(1):101–8.Google Scholar
Ma, L, Guo, C, Xin, X, Yuan, S, Wang, R. Effects of belowground litter addition, increased precipitation and clipping on soil carbon and nitrogen mineralization in a temperate steppe. Biogeosciences. 2013;10(11):7361–72.Google Scholar
Khalili, B, Ogunseitan, OA, Goulden, ML, Allison, SD. Interactive effects of precipitation manipulation and nitrogen addition on soil properties in California grassland and shrubland. Applied Soil Ecology. 2016;107:144–53.Google Scholar
Evans, SE, Burke, IC. Carbon and nitrogen decoupling under an 11-year drought in the shortgrass steppe. Ecosystems. 2013;16(1):2033.Google Scholar
Lin, L, Zhu, B, Chen, CR, Zhang, ZH, Wang, QB, He, JS. Precipitation overrides warming in mediating soil nitrogen pools in an alpine grassland ecosystem on the Tibetan Plateau. Scientific Reports. 2016;6:31438.Google Scholar
Bloor, JMG, Bardgett, RD. Stability of above-ground and below-ground processes to extreme drought in model grassland ecosystems: interactions with plant species diversity and soil nitrogen availability. Perspectives in Plant Ecology, Evolution and Systematics. 2012;14(3):193204.Google Scholar
Hopkins, A, Del Prado, A. Implications of climate change for grassland in Europe: impacts, adaptations and mitigation options: a review. Grass and Forage Science. 2007;62(2):118–26.Google Scholar
de Vries, FT, Brown, C, Stevens, CJ. Grassland species root response to drought: consequences for soil carbon and nitrogen availability. Plant and Soil. 2016;409(1–2):297312.Google Scholar
Bai, E, Li, SL, Xu, WH, Li, W, Dai, WW, Jiang, P. A meta-analysis of experimental warming effects on terrestrial nitrogen pools and dynamics. New Phytologist. 2013;199(2):441–51.Google Scholar
An, YA, Wan, SQ, Zhou, XH, Subedar, AA, Wallace, LL, Luo, YQ. Plant nitrogen concentration, use efficiency, and contents in a tallgrass prairie ecosystem under experimental warming. Global Change Biology. 2005;11(10):1733–44.Google Scholar
Wu, ZT, Dijkstra, P, Koch, GW, Hungate, BA. Biogeochemical and ecological feedbacks in grassland responses to warming. Nature Climate Change. 2012;2(6):458–61.Google Scholar
Whittington, HR, Tilman, D, Powers, JS. Consequences of elevated temperatures on legume biomass and nitrogen cycling in a field warming and biodiversity experiment in a North American prairie. Functional Plant Biology. 2013;40(11):1147–58.Google Scholar
Zhou, XQ, Chen, CR, Wang, YF, Smaill, S, Clinton, P. Warming rather than increased precipitation increases soil recalcitrant organic carbon in a semiarid grassland after 6 years of treatments. PLoS ONE. 2013;8(1).Google Scholar
Shaw, MR, Harte, J. Response of nitrogen cycling to simulated climate change: differential responses along a subalpine ecotone. Global Change Biology. 2001;7(2):193210.Google Scholar
Zhou, XQ, Chen, CR, Wang, YF, Xu, ZH, Duan, JC, Hao, YB, et al. Soil extractable carbon and nitrogen, microbial biomass and microbial metabolic activity in response to warming and increased precipitation in a semiarid Inner Mongolian grassland. Geoderma. 2013;206:2431.Google Scholar
Dijkstra, FA, Pendall, E, Morgan, JA, Blumenthal, DM, Carrillo, Y, LeCain, DR, et al. Climate change alters stoichiometry of phosphorus and nitrogen in a semiarid grassland. New Phytologist. 2012;196(3):807–15.Google Scholar
Zhang, GN, Chen, ZH, Zhang, AM, Chen, LJ, Wu, ZJ. Influence of climate warming and nitrogen deposition on soil phosphorus composition and phosphorus availability in a temperate grassland, China. Journal of Arid Land. 2014;6(2):156–63.Google Scholar
Jamieson, N, Barraclough, D, Unkovich, M, Monaghan, R. Soil N dynamics in a natural calcareous grassland under a changing climate. Biology and Fertility of Soils. 1998;27(3):267–73.Google Scholar
Turner, MM, Henry, HAL. Net nitrogen mineralization and leaching in response to warming and nitrogen deposition in a temperate old field: the importance of winter temperature. Oecologia. 2010;162(1):227–36.Google Scholar
Duran, J, Rodriguez, A, Morse, JL, Groffman, PM. Winter climate change effects on soil C and N cycles in urban grasslands. Global Change Biology. 2013;19(9):2826–37.Google Scholar
Vankoughnett, MR, Henry, HAL. Combined effects of soil freezing and N addition on losses and interception of N over winter and summer. Ecosystems. 2013;16(4):694703.Google Scholar
Vankoughnett, MR, Henry, HAL. Soil freezing and N deposition: transient vs. multi-year effects on extractable C and N, potential trace gas losses and microbial biomass. Soil Biology and Biochemistry. 2014;77:170–8.Google Scholar
Joseph, G, Henry, HAL. Soil nitrogen leaching losses in response to freeze–thaw cycles and pulsed warming in a temperate old field. Soil Biology and Biochemistry. 2008;40(7):1947–53.Google Scholar
Turner, MM, Henry, HAL. Interactive effects of warming and increased nitrogen deposition on 15 N tracer retention in a temperate old field: seasonal trends. Global Change Biology. 2009;15(12):2885–93.Google Scholar
Loiseau, P, Soussana, JF. Effects of elevated CO2, temperature and N fertilization on nitrogen fluxes in a temperate grassland ecosystem. Global Change Biology. 2000;6(8):953–65.Google Scholar
Dijkstra, FA, Blumenthal, D, Morgan, JA, Pendall, E, Carrillo, Y, Follett, RF. Contrasting effects of elevated CO2 and warming on nitrogen cycling in a semiarid grassland. New Phytologist. 2010;187(2):426–37.Google Scholar
Hovenden, MJ, Newton, PCD, Carran, RA, Theobald, P, Wills, KE, Schoor, JKV, et al. Warming prevents the elevated CO2-induced reduction in available soil nitrogen in a temperate, perennial grassland. Global Change Biology. 2008;14(5):1018–24.Google Scholar
Carrillo, Y, Dijkstra, FA, Pendall, E, Morgan, JA, Blumenthal, DM. Controls over soil nitrogen pools in a semiarid grassland under elevated CO2 and warming. Ecosystems. 2012;15(5):761–74.Google Scholar

8.6 References

Rodríguez-Ortega, T, Oteros-Rozas, E, Ripoll-Bosch, R, Tichit, M, Martín-López, B, Bernuès, A. Applying the ecosystem services framework to pasture-based livestock farming systems in Europe. Animal. 2014;8(8):1361–72.Google Scholar
Lemaire, G, Hodgson, J, Chabbi, A. Grassland productivity and ecosystem services. Wallingford: CABI; 2011.Google Scholar
Orford, KA, Murray, PJ, Vaughan, IP, Memmott, J. Modest enhancements to conventional grassland diversity improve the provision of pollination services. Journal of Applied Ecology. 2016;53(3):906–15.Google Scholar
Tscharntke, T, Klein, AM, Kruess, A, Steffan‐Dewenter, I, Thies, C. Landscape perspectives on agricultural intensification and biodiversity–ecosystem service management. Ecology Letters. 2005;8(8):857–74.Google Scholar
Dominati, E, Mackay, A, Green, S, Patterson, M. A soil change-based methodology for the quantification and valuation of ecosystem services from agro-ecosystems: a case study of pastoral agriculture in New Zealand. Ecological Economics. 2014;100:119–29.Google Scholar
Smith, P, Cotrufo, MF, Rumpel, C, Paustian, K, Kuikman, PJ, Elliott, JA, et al. Biogeochemical cycles and biodiversity as key drivers of ecosystem services provided by soils. Soil. 2015;1(2):665.Google Scholar
Plieninger, T, Dijks, S, Oteros-Rozas, E, Bieling, C. Assessing, mapping, and quantifying cultural ecosystem services at community level. Land Use Policy. 2013;33:118–29.Google Scholar
Reid, RS, Fernández-Giménez, ME, Galvin, KA. Dynamics and resilience of rangelands and pastoral peoples around the globe. Annual Review of Environment and Resources. 2014;39:217–42.Google Scholar
Runting, RK, Bryan, BA, Dee, LE, Maseyk, FJF, Mandle, L, Hamel, P, et al. Incorporating climate change into ecosystem service assessments and decisions: a review. Global Change Biology. 2017;23(1):2841.Google Scholar
Scholes, RJ. Climate change and ecosystem services. Wiley Interdisciplinary Reviews: Climate Change. 2016;7(4):537–50.Google Scholar
Cardinale, BJ, Duffy, JE, Gonzalez, A, Hooper, DU, Perrings, C, Venail, P, et al. Biodiversity loss and its impact on humanity. Nature. 2012;486(7401):59.Google Scholar
Grime, JP. Benefits of plant diversity to ecosystems: immediate, filter and founder effects. Journal of Ecology. 1998;86(6):902–10.Google Scholar
Mouillot, D, Bellwood, DR, Baraloto, C, Chave, J, Galzin, R, Harmelin-Vivien, M, et al. Rare species support vulnerable functions in high-diversity ecosystems. PLoS Biology. 2013;11(5):e1001569.Google Scholar
Power, ME, Tilman, D, Estes, JA, Menge, BA, Bond, WJ, Mills, LS, et al. Challenges in the quest for keystones. BioScience. 1996;46(8):609–20.Google Scholar
Díaz, S, Lavorel, S, de Bello, F, Quétier, F, Grigulis, K, Robson, TM. Incorporating plant functional diversity effects in ecosystem service assessments. Proceedings of the National Academy of Sciences of the USA. 2007;104(52):20,684–9.Google Scholar
Lavorel, S, Storkey, J, Bardgett, RD, Bello, F, Berg, MP, Roux, X, et al. A novel framework for linking functional diversity of plants with other trophic levels for the quantification of ecosystem services. Journal of Vegetation Science. 2013;24(5):942–8.Google Scholar
Garnier, E, Navas, M-L, Grigulis, K. Plant functional diversity: organism traits, community structure, and ecosystem properties. Oxford: Oxford University Press; 2016. 231 pp.Google Scholar
Lavorel, S. Plant functional effects on ecosystem services. Journal of Ecology. 2013;101(1):48.Google Scholar
Reich, PB. The world‐wide ‘fast–slow’plant economics spectrum: a traits manifesto. Journal of Ecology. 2014;102(2):275301.Google Scholar
Chollet, S, Rambal, S, Fayolle, A, Hubert, D, Foulquié, D, Garnier, E. Combined effects of climate, resource availability, and plant traits on biomass produced in a Mediterranean rangeland. Ecology. 2014;95(3):737–48.Google Scholar
Hautier, Y, Seabloom, EW, Borer, ET, Adler, PB, Harpole, WS, Hillebrand, H, et al. Eutrophication weakens stabilizing effects of diversity in natural grasslands. Nature. 2014;508(7497):521.Google Scholar
Deléglise, C, Meisser, M, Mosimann, E, Spiegelberger, T, Signarbieux, C, Jeangros, B, et al. Drought-induced shifts in plants traits, yields and nutritive value under realistic grazing and mowing managements in a mountain grassland. Agriculture, Ecosystems & Environment. 2015;213:94104.Google Scholar
Benot, M-L, Saccone, P, Pautrat, E, Vicente, R, Colace, M-P, Grigulis, K, et al. Stronger short-term effects of mowing than extreme summer weather on a subalpine grassland. Ecosystems. 2014;17(3):458–72.Google Scholar
Cantarel, AAM, Bloor, JMG, Soussana, JF. Four years of simulated climate change reduces above‐ground productivity and alters functional diversity in a grassland ecosystem. Journal of Vegetation Science. 2013;24(1):113–26.Google Scholar
de Vries, FT, Brown, C, Stevens, CJ. Grassland species root response to drought: consequences for soil carbon and nitrogen availability. Plant and Soil. 2016;409(1–2):297312.Google Scholar
Karlowsky, S, Augusti, A, Ingrisch, J, Hasibeder, R, Lavorel, S, Bahn, M, et al. Land use in mountain grasslands alters drought response and recovery of carbon allocation and plant‐microbial interactions. Journal of Ecology. 2018;106:1230–43.Google Scholar
Zwicke, M, Alessio, GA, Thiery, L, Falcimagne, R, Baumont, R, Rossignol, N, et al. Lasting effects of climate disturbance on perennial grassland above‐ground biomass production under two cutting frequencies. Global Change Biology. 2013;19(11):3435–48.Google Scholar
Hsu, JS, Powell, J, Adler, PB. Sensitivity of mean annual primary production to precipitation. Global Change Biology. 2012;18(7):2246–55.Google Scholar
IPCC. Climate Change 2014: Synthesis Report. Contribution of Working Groups I, II and III to the Fifth Assessment Report of the Intergovernmental Panel on Climate Change (Pachauri, RK, Meyer, LA, editors). Geneva: IPCC; 2014. 151 pp.Google Scholar
Moles, AT, Warton, DI, Warman, L, Swenson, NG, Laffan, SW, Zanne, AE, et al. Global patterns in plant height. Journal of Ecology. 2009;97(5):923–32.Google Scholar
Reich, PB, Oleksyn, J. Global patterns of plant leaf N and P in relation to temperature and latitude. Proceedings of the National Academy of Sciences of the USA. 2004;101(30):11,001–6.Google Scholar
Wookey, PA, Aerts, R, Bardgett, RD, Baptist, F, Bråthen, KA, Cornelissen, JHC, et al. Ecosystem feedbacks and cascade processes: understanding their role in the responses of Arctic and alpine ecosystems to environmental change. Global Change Biology. 2009;15(5):1153–72.Google Scholar
Yue, K, Fornara, DA, Yang, W, Peng, Y, Li, Z, Wu, F, et al. Effects of three global change drivers on terrestrial C:N:P stoichiometry: a global synthesis. Global Change Biology. 2017;23(6):2450–63.Google Scholar
Güsewell, S. N:P ratios in terrestrial plants: variation and functional significance. New Phytologist. 2004;164(2):243–66.Google Scholar
Smith, P, House, JI, Bustamante, M, Sobocká, J, Harper, R, Pan, G, et al. Global change pressures on soils from land use and management. Global Change Biology. 2016;22(3):1008–28.Google Scholar
Divito, GA, Sadras, VO. How do phosphorus, potassium and sulphur affect plant growth and biological nitrogen fixation in crop and pasture legumes? A meta-analysis. Field Crops Research. 2014;156:161–71.Google Scholar
Soussana, JF, Lüscher, A. Temperate grasslands and global atmospheric change: a review. Grass and Forage Science. 2007;62(2):127–34.Google Scholar
Lavorel, S, Colloff, MJ, Mcintyre, S, Doherty, MD, Murphy, HT, Metcalfe, DJ, et al. Ecological mechanisms underpinning climate adaptation services. Global Change Biology. 2015;21(1):1231.Google Scholar
Nettier, B, Dobremez, L, Lavorel, S, Brunschwig, G. Resilience as a framework for analyzing the adaptation of mountain summer pasture systems to climate change. Ecology and Society. 2017;22(4):Art. 25.Google Scholar
Vandandorj, S, Eldridge, DJ, Travers, SK, Delgado‐Baquerizo, M. Contrasting effects of aridity and grazing intensity on multiple ecosystem functions and services in Australian woodlands. Land Degradation & Development. 2017;28(7):2098–108.Google Scholar
Morgan, JW, Dwyer, JM, Price, JN, Prober, SM, Power, SA, Firn, J, et al. Species origin affects the rate of response to inter‐annual growing season precipitation and nutrient addition in four Australian native grasslands. Journal of Vegetation Science. 2016;27(6):1164–76.Google Scholar
Keesstra, SD, Bouma, J, Wallinga, J, Tittonell, P, Smith, P, Cerdà, A, et al. The significance of soils and soil science towards realization of the United Nations Sustainable Development Goals. Soil. 2016;2(2):111.Google Scholar
Orwin, KH, Stevenson, BA, Smaill, SJ, Kirschbaum, MUF, Dickie, IA, Clothier, BE, et al. Effects of climate change on the delivery of soil‐mediated ecosystem services within the primary sector in temperate ecosystems: a review and New Zealand case study. Global Change Biology. 2015;21(8):2844–60.Google Scholar
Bardgett, RD. Plant trait-based approaches for interrogating belowground function. Biology and Environment: Proceedings of the Royal Irish Academy. 2017;117(1):113.Google Scholar
De Deyn, GB, Cornelissen, JHC, Bardgett, RD. Plant functional traits and soil carbon sequestration in contrasting biomes. Ecology Letters. 2008;11(5):516–31.Google Scholar
de Vries, FT, Bloem, J, Quirk, H, Stevens, CJ, Bol, R, Bardgett, RD. Extensive management promotes plant and microbial nitrogen retention in temperate grassland. PLoS ONE. 2012;7(12):e51201.Google Scholar
Martinez‐Garcia, LB, De Deyn, GB, Pugnaire, FI, Kothamasi, D, van der Heijden, MG. Symbiotic soil fungi enhance ecosystem resilience to climate change. Global Change Biology. 2017;23:5228–36.Google Scholar
Wilson, GWT, Rice, CW, Rillig, MC, Springer, A, Hartnett, DC. Soil aggregation and carbon sequestration are tightly correlated with the abundance of arbuscular mycorrhizal fungi: results from long‐term field experiments. Ecology Letters. 2009;12(5):452–61.Google Scholar
Mariotte, P, Canarini, A, Dijkstra, FA. Stoichiometric N:P flexibility and mycorrhizal symbiosis favour plant resistance against drought. Journal of Ecology. 2017;105(4):958–67.Google Scholar
Potts, SG, Imperatriz-Fonseca, V, Ngo, HT, Aizen, MA, Biesmeijer, JC, Breeze, TD, et al. Safeguarding pollinators and their values to human well-being. Nature. 2016;540(7632):220–9.Google Scholar
García-Feced, C, Weissteiner, CJ, Baraldi, A, Paracchini, ML, Maes, J, Zulian, G, et al. Semi-natural vegetation in agricultural land: European map and links to ecosystem service supply. Agronomy for Sustainable Development. 2015;35(1):273–83.Google Scholar
Gossner, MM, Lewinsohn, TM, Kahl, T, Grassein, F, Boch, S, Prati, D, et al. Land-use intensification causes multitrophic homogenization of grassland communities. Nature. 2016;540(7632):266–9.Google Scholar
Schweiger, O, Biesmeijer, JC, Bommarco, R, Hickler, T, Hulme, PE, Klotz, S, et al. Multiple stressors on biotic interactions: how climate change and alien species interact to affect pollination. Biological Reviews. 2010;85(4):777–95.Google Scholar
CaraDonna, PJ, Iler, AM, Inouye, DW. Shifts in flowering phenology reshape a subalpine plant community. Proceedings of the National Academy of Sciences of the USA. 2014;111(13):4916–21.Google Scholar
Parmesan, C, Yohe, G. A globally coherent fingerprint of climate change impacts across natural systems. Nature. 2003;421(6918):3742.Google Scholar
Memmott, J, Craze, PG, Waser, NM, Price, MV. Global warming and the disruption of plant–pollinator interactions. Ecology Letters. 2007;10(8):710–7.Google Scholar
Kremen, C, Williams, NM, Aizen, MA, Gemmill‐Herren, B, LeBuhn, G, Minckley, R, et al. Pollination and other ecosystem services produced by mobile organisms: a conceptual framework for the effects of land‐use change. Ecology Letters. 2007;10(4):299314.Google Scholar
Lavorel, S, McIntyre, S, Landsberg, J, Forbes, TDA. Plant functional classifications: from general groups to specific groups based on response to disturbance. Trends in Ecology & Evolution. 1997;12(12):474–8.Google Scholar
Pakeman, RJ, Stockan, J. Using plant functional traits as a link between land use and bee foraging abundance. Acta Oecologica. 2013;50:32–9.Google Scholar
Fraser, LH, Pither, J, Jentsch, A, Sternberg, M, Zobel, M, Askarizadeh, D, et al. Worldwide evidence of a unimodal relationship between productivity and plant species richness. Science. 2015;349(6245):302–5.Google Scholar
Harrison, SP, Gornish, ES, Copeland, S. Climate-driven diversity loss in a grassland community. Proceedings of the National Academy of Sciences of the USA. 2015;112(28):8672–7.Google Scholar
Díaz, S, Lavorel, S, McIntyre, S, Falczuk, V, Casanoves, F, Milchunas, DG, et al. Plant trait responses to grazing – a global synthesis. Global Change Biology. 2007;13(2):313–41.Google Scholar
Humbert, JY, Dwyer, JM, Andrey, A, Arlettaz, R. Impacts of nitrogen addition on plant biodiversity in mountain grasslands depend on dose, application duration and climate: a systematic review. Global Change Biology. 2016;22(1):110–20.Google Scholar
Tscharntke, T, Tylianakis, JM, Rand, TA, Didham, RK, Fahrig, L, Batary, P, et al. Landscape moderation of biodiversity patterns and processes – eight hypotheses. Biological Reviews. 2012;87(3):661–85.Google Scholar
Palomo, I, Felipe-Lucia, MR, Bennett, EM, Martín-López, B, Pascual, U. Disentangling the pathways and effects of ecosystem service co-pprduction. In: Woodward, G, Bohan, BA, editors. Advances in ecological research. 54. Boston, MA: Elsevier; 2016. pp. 245–83.Google Scholar
Plieninger, T, Bieling, C, Fagerholm, N, Byg, A, Hartel, T, Hurley, P, et al. The role of cultural ecosystem services in landscape management and planning. Current Opinion in Environmental Sustainability. 2015;14:2833.Google Scholar
Daniel, TC, Muhar, A, Arnberger, A, Aznar, O, Boyd, JW, Chan, KMA, et al. Contributions of cultural services to the ecosystem services agenda. Proceedings of the National Academy of Sciences of the USA. 2012;109(23):8812–9.Google Scholar
Hernández-Morcillo, M, Plieninger, T, Bieling, C. An empirical review of cultural ecosystem service indicators. Ecological Indicators. 2013;29:434–44.Google Scholar
Lindemann-Matthies, P, Junge, X, Matthies, D. The influence of plant diversity on people’s perception and aesthetic appreciation of grassland vegetation. Biological Conservation. 2010;143(1):195202.Google Scholar
Davis, CL, Timm Hoffman, M, Roberts, W. Recent trends in the climate of Namaqualand, a megadiverse arid region of South Africa. South African Journal of Science. 2016;112(3–4):19.Google Scholar
Bowers, JE. El Niño and displays of spring-flowering annuals in the Mojave and Sonoran deserts. The Journal of the Torrey Botanical Society. 2005;132(1):3849.Google Scholar
Hadwen, WL, Arthington, AH, Boon, PI, Taylor, B, Fellows, CS. Do climatic or institutional factors drive seasonal patterns of tourism visitation to protected areas across diverse climate zones in eastern Australia? Tourism Geographies. 2011;13(2):187208.Google Scholar
Schirpke, U, Kohler, M, Leitinger, G, Fontana, V, Tasser, E, Tappeiner, U. Future impacts of changing land-use and climate on ecosystem services of mountain grassland and their resilience. Ecosystem Services. 2017;26:7994.Google Scholar
Lamarque, P, Lavorel, S, Mouchet, M, Quétier, F. Plant trait-based models identify direct and indirect effects of climate change on bundles of grassland ecosystem services. Proceedings of the National Academy of Sciences of the USA. 2014;111(38):13,751–6.Google Scholar
Landsberg, J, O’Connor, T, Freudenberger, D, editors. The impacts of livestock grazing on biodiversity in natural ecosystems. In: Nutritional ecology of herbivores. Proceedings of the Vth International Symposium on the Nutrition of Herbivores; 1999; Savoy, IL: American Society of Animal Science.Google Scholar
Schirpke, U, Timmermann, F, Tappeiner, U, Tasser, E. Cultural ecosystem services of mountain regions: modelling the aesthetic value. Ecological Indicators. 2016;69:7890.Google Scholar

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