Climatic Change

, Volume 105, Issue 1–2, pp 13–42 | Cite as

Invasive species and climate change: an agronomic perspective

  • Lewis H. ZiskaEmail author
  • Dana M. Blumenthal
  • G. Brett Runion
  • E. Raymond HuntJr
  • Hilda Diaz-Soltero


In the current review we wish to draw attention to an additional aspect of invasive species and climate change, that of agricultural productivity and food security. We recognize that at present, such a review remains, in part, speculative, and more illustrative than definitive. However, recent events on the global stage, particularly in regard to the number of food riots that occurred during 2008, even at a time of record harvests, have prompted additional interest in those factors, including invasive species, which could, through climatic uncertainty, alter food production. To that end, as agricultural scientists, we wish to begin an initial evaluation of key questions related to food production and climate change including: how vulnerable is agriculture to invasive species?; are current pest management strategies sufficient to control invasive outbreaks in the future?; what are the knowledge gaps?; can we provide initial recommendations for scientists, land managers and policy makers in regard to available resources? Our overall goals are to begin a synthesis of potential impacts on productivity, to identify seminal research areas that can be addressed in future research, and to provide the scientific basis to allow agronomists and land managers to formulate mitigation and adaptation options regarding invasive species and climate change as a means to maintain food security.


Invasive Species Glob Chang Biol Invasive Weed Leafy Spurge Soybean Aphid 
These keywords were added by machine and not by the authors. This process is experimental and the keywords may be updated as the learning algorithm improves.


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  1. Ainsworth EA, Davey PA, Bernacchi CJ, Dermody OC, Heaton EA, Moore DJ, Morgan PB, Naidu SL, Yoo Ra HH, Zhu XG, Curtis PS, Long SP (2002) A meta-analysis of elevated [CO2] effects on soybean (Glycine max) physiology, growth and yield. Glob Chang Biol 8:695–709Google Scholar
  2. Anderson GL, Carruthers RI, Ge S, Gong P (2004a) Monitoring of invasive tamarix distribution and effects of biological control with airborne hyperspectral remote sensing. Int J Remote Sens 26(12):2487–2489Google Scholar
  3. Anderson PK, Cunningham AA, Patel NG, Morales FJ, Epstein PR, Daszak P (2004b) Emerging infectious diseases of plants: pathogen pollution, climate change and agrotechnology drivers. TREE 19:535–544Google Scholar
  4. Archambault DJ (2007) Efficacy of herbicides under elevated temperature and CO2. In: Newton PCD, Carran A, Edwards GR, Niklaus PA (eds) Agroecosystems in a changing climate. CRC, Boston, MA, pp 262–279Google Scholar
  5. Awmack CS, Harrington R, Leather SR (1997) Host plant effects on the performance of the aphid Aulacorthum solani (Kalt.) (Homoptera: Aphididae) at ambient and elevated CO2. Glob Chang Biol 3:545–549Google Scholar
  6. Battisti DS, Naylor RL (2009) Historical warnings of future food insecurity with unprecedented seasonal heat. Science 323:240–244Google Scholar
  7. Bazzaz FA, Garbutt K, Reekie EG, Williams WE (1989) Using growth analysis to interpret competition between a C3 and a C4 annual under ambient and elevated CO2. Oecologia 79:223–235Google Scholar
  8. Beckendorf EA, Catangu MA, Riedell WE (2008) Soybean aphid feeding injury and soybean yield, yield components and seed composition. Agron J 100:237–246Google Scholar
  9. Belote RT, Weltzin JF, Norby RJ (2003) Response of an understory plant community to elevated [CO2] depends on differential responses of dominant invasive species and is mediated by soil water availability. New Phytol 161:827–835Google Scholar
  10. Bezemer TM, Jones TH, Knight KJ (1998) Long-term effects of elevated CO2 and temperature on populations of the peach potato aphid (Myzus persicae) and its parasitoid, Aphidius matricariae. Oecologia 116:128–135Google Scholar
  11. Blumenthal D (2005) Interrelated causes of plant invasion. Science 310:243–244Google Scholar
  12. Blumenthal D (2006) Interactions between resource availability and enemy release in plant invasion. Ecol Lett 9:887–895Google Scholar
  13. Blumenthal D, Chimner RA, Welker JM, Morgan JA (2008) Increased snow facilitates plant invasion in mixed grass prairie. New Phytol 179:440–448Google Scholar
  14. Bowes G (1996) Photosynthetic responses to changing atmospheric carbon dioxide concentration. In: Baker NR (ed) Photosynthesis and the environment. Kluwer, Dordrecht, Netherlands, pp 387–407Google Scholar
  15. Bradley BA, Mustard JF (2005) Identifying land cover variability distinct from land cover change: cheatgrass in the great basin. Remote Sens Environ 94:204–213Google Scholar
  16. Brasier CM, Cooke DEL, Duncan JM (1999) Origin of a new Phytophthora pathogen through interspecific hybridization. PNAS (USA) 96:5878–5883Google Scholar
  17. Bridges DC (1992) Crop losses due to weeds in the United States. Weed Science Society of America, Champaign, p 403Google Scholar
  18. Bunce JA (2001) Are annual plants adapted to the current concentration of carbon dioxide? Int J Plant Sci 162:1261–1266Google Scholar
  19. Bunce JA, Ziska LH (2000) Crop ecosystem responses to climatic change: crop/weed interactions. In: Reddy KR, Hodges HF (eds) Climate change and global crop productivity. CABI, New York, pp 333–348Google Scholar
  20. Burdon JJ, Elmqvist T (1996) Selective sieves in the epidemiology of Melampsora lini. Plant Pathol 45:933–943Google Scholar
  21. Canadell JG, Le Quere C, Raupach MR et al (2007) Contributions to accelerating atmospheric CO2 growth from economic activity, carbon intensity, and efficiency of natural sinks. PNAS 104:18866–18870Google Scholar
  22. Cannon RJC (1998) The implications of predicted climate change for insect pests in the UK, with emphasis on non-indigenous species. Glob Chang Biol 4:785–796Google Scholar
  23. Capinera JL (2002) North American vegetable pests: the pattern of invasion. Am Entomol 48:20–39Google Scholar
  24. Chakraborty S, Data S (2002) Polycyclic infection by Colletotrichum gloeosporioides at high CO2 selects for increased aggressiveness. (Abstr.) Phyopathology 92:S13Google Scholar
  25. Chakraborty S, Pangga IB, Lupton J, Hart L, Room PM, Yates D (2000) Production and dispersal of Colletotrichum gloeosporioides spores on Stylosanthes scabra under elevated CO2. Environ Pollut 108:381–387Google Scholar
  26. Chen D-X, Coughenour MB, Eberts D, Thullen J (1994) Interactive effects of CO2 enrichment and temperature on the growth of dioecious Hydrilla verticillata. Environ Exp Bot 34:345–353Google Scholar
  27. Crowley TJ, Berner RA (2001) CO2 and climate change. Science 292:870–872Google Scholar
  28. Currano ED, Wilf P, Wing SL, Labandeira CC, Lovelock EC, Royer DL (2008) Sharply increased insect herbivory during the Paleocene-Ecocene thermal maximum. PNAS 105:1960–1964Google Scholar
  29. Del Ponte EM, Godoy CV, Canteri MG, Reis EM, Yang XB (2006) Models and applications for risk assessment and prediction of Asian soybean rust epidemics. Fitopatol Bras 31:533–544Google Scholar
  30. Dippery JK, Tissue DT, Thomas RB, Strain BR (1995) Effects of low and elevated CO2 on C3 and C4 annuals. Oecologia 101:13–20Google Scholar
  31. Dukes JS (2000) Will the increasing atmospheric CO2 concentration affect the success of invasive species? In: Mooney HA, Hobbs RJ (eds) Invasive species in a changing world. Island, Washington DC, pp 95–113Google Scholar
  32. Dukes JS (2002) Comparison of the effect of elevated CO2 on an invasive species (Centaurea solstitialis) in monoculture and community settings. Plant Ecol 160:225–234Google Scholar
  33. Dukes JS, Mooney HA (2000) Does global change increase the success of biological invaders? Trends Ecol Evol 14:135–139Google Scholar
  34. Enserik M (1999) Biological invaders sweep in. Science 285:1834–1836Google Scholar
  35. Evans EA (2003) Economic dimensions of invasive species. Choices 2:1–9Google Scholar
  36. Fleming RA, Tatchell GM (1995) Shifts in the flight periods of British aphids: a response to climate warming? In: Harrington R, Stork NE (eds) Insects in a changing environment. Academic Press, London, pp 505–508Google Scholar
  37. Forseth IN, Innis AF (2004) Kudzu (Pueraria montana): history, physiology and ecology combine to make a major ecosystem threat. Crit Rev Plant Sci 23:401–413Google Scholar
  38. Franks SJ, Sim S, Weis AE (2007) Rapid evolution of flowering time by an annual plant in response to a climate fluctuation. Proc Nat Acad Sci 104:1278–1282Google Scholar
  39. Freeden AL, Field CB (1995) Contrasting leaf and ecosystem CO2 and H2O exchange in Avena fatua monoculture: growth at ambient and elevated CO2. Photosynth Res 43:263–271Google Scholar
  40. Froud-Williams RJ (1996) Weeds and climate change: implications for their ecology and control. Asp Appl Biol 45:187–196Google Scholar
  41. Garbutt K, Bazzaz FA (1984) The effects of elevated CO2 on plants: III. Flower, fruit and seed production and abortion. New Phytol 98:433–446Google Scholar
  42. Gelbard JL, Belnap J (2003) Roads as conduits for exotic plant invasions in a semiarid landscape. Conserv Biol 17:420–432Google Scholar
  43. Graham J, Simpson A, Crall A, Jarnevich C, Newman G, Stohlgren T (2008) Vision of a cyberinfrastructure for nonnative, invasive species management. Biosci 58:263–268Google Scholar
  44. Gutierrez AP (2000) Crop ecosystem responses to climatic change: pests and population dynamics. In: Reddy KR, Hodges HF (eds) Climate change and global crop productivity. CABI, New York, pp 353–370Google Scholar
  45. Harrington R (2002) Insect pests and global environmental change. In: Douglas I (ed) Encyclopedia of global environmental change, vol 3. Wiley, Chichester, pp 381–386Google Scholar
  46. Harvell CD, Mitchell CE, Ward JR, Altizer S, Dobson AP, Ostfeld RS, Samuel MD (2002) Climate warming and disease risks for terrestrial and marine biota. Science 296:2158–2162Google Scholar
  47. Hattenschwiler S, Korner C (2003) Does elevated CO2 facilitate naturalization of the non-indigenous Prunus laurocerasus in Swiss temperate forests? Funct Ecol 17:778–785Google Scholar
  48. Heagle AS, Burns JC, Fisher DE, Miller JE (2002) Effects of carbon dioxide enrichment on leaf chemistry and reproduction by two-spotted spider mites (Acari: Tetrachynidae) on white clover. Environ Entomol 31:594–601Google Scholar
  49. Hibberd JM, Whitbread R, Farrar JF (1996) Effect of elevated concentrations of CO2 on infection of barley by Erysiphe graminis. Physiol Mol Plant Pathol 48:37–53Google Scholar
  50. Hijmans RJ, Grunwald NJ, van Haren RJF, MacKerron DKL, Scherm H (2000) Potato late blight simulation for global change research. GILB Newsletter 12:1–3Google Scholar
  51. Huxman TE, Hamerlynck EP, Smith SD (1999) Reproductive allocation and seed production in Bromus madritensis ssp. rubens at elevated atmospheric CO2. Funct Ecol 13:769–777Google Scholar
  52. IPCC, Climate Change (2007) Impacts, adaptation and vulnerability. IPCC Secretariat, Geneva, SwitzerlandGoogle Scholar
  53. Jeter KM, Hamilton J, Klotz JH (2002) Red imported fire ants threaten agriculture, wildlife and homes. Calif Agric 56:26–34Google Scholar
  54. Joutei AB, Roy J, Van Impe G, Lebrun P (2000) Effect of elevated CO2 on the demography of a leaf-sucking mite feeding on bean. Oecologia 123:75–81Google Scholar
  55. Julien MH, Skarratt B, Maywald GF (1995) Potential geographical distribution of alligator weed and its biological control by Agasicles hygrophila. J Aquat Plant Manage 33:55–60Google Scholar
  56. Karl TR, Melillo JM, Peterson TC (2009) Global climate change impacts in the United States, Cambridge University Press, 196 pGoogle Scholar
  57. Kimball BA (1983) Carbon dioxide and agricultural yield: an assemblage and analysis of 430 prior observations. Agron J 75:779–788Google Scholar
  58. Kimball BA, Mauney JR, Nakayama IS, Idso SB (1993) Effects of increasing atmospheric CO2 on vegetation. Vegetatio 104/105:65–75Google Scholar
  59. Kolar CS, Lodge DM (2001) Progress in invasion biology. Trends Ecol Evol 16:199–204Google Scholar
  60. Kurz WA, Dymond CC, Stinson G, Rampley GJ, Neilson ET, Carroll AL, Ebata T, Safranyik L (2008) (2008) Mountain pine bark beetle and forest carbon feedback to climate change. Nature 452:987–990Google Scholar
  61. Lande R, Shannon S (1996) The role of genetic variation in adaptation and population persistence in a changing environment. Evolution 50:434–437Google Scholar
  62. Lawrence RL, Wood SD, Sheley RL (2005) Mapping invasive plants using hyperspectral imagery and Breiman Cutler classifications (randomFOrest). Remote Sens Environ 100:356–362Google Scholar
  63. Lawton JH (2000) Community ecology in a changing world inter research. Oldendorf/Luhe GermanyGoogle Scholar
  64. Lejeune KR, Griffin JL, Reynolds DB, Saxton AM (1994) Itchgrass (Rottboellia cochinchinensis) interference in soybean (Glycine max). Weed Technol 8:733–737Google Scholar
  65. Lencse RJ, Griffin JL (1991) Itchgrass (Rottboellia cochinchinensis) interference in sugarcane (Saccharum sp.). Weed Technol 5:396–399Google Scholar
  66. Leonard KJ (1974) Foliar pathogens of maize in North Carolina. Plant Dis Rep 58:532–534Google Scholar
  67. Levine JM, Vila M, D’Antonio CM, Dukes JS, Grigulis K, Lavorel S (2003) Mechanisms underlying the impact of exotic plant invasions. Philos Trans R Soc Lond B 270:775–781Google Scholar
  68. Lobell DB, Field CB (2007) Global scale climate crop yield relationships and the impacts of recent warming. Env Res Lett 2:1–7Google Scholar
  69. Lobell DB, Burke MB, Tebaldi C, Mastrandrea MD, Falcon WP, Naylor RL (2008) Prioritizing climate change adaptation needs for food security in 2030. Science 319:607–610Google Scholar
  70. Malcolm JR, Markham A, Neilson RP, Garaci M (2002) Estimated migration rates under scenarios of global climate change. J Biogeogr 29:835–849Google Scholar
  71. Mitchell CE, Reich PB, Tilman D, Groth JV (2003) Effects of elevated CO2, nitrogen deposition, and decreased species diversity on foliar fungal plant disease. Glob Chang Biol 9:438–451Google Scholar
  72. Mooney HA, Hobbs RJ (2000) Invasive species in a changing world. Island, Washington DC, p 457Google Scholar
  73. Moore PD (2004) Favoured aliens for the future. Nature 427:594Google Scholar
  74. Morose SR, Bazzaz FA (1994) Elevated CO2 and temperature alter recruitment and size hierarchies in C3 and C4 annuals. Ecology 75:966–975Google Scholar
  75. Muzik TJ (1976) Influence of environmental factors on toxicity to plants. In: Audus LJ (ed) Herbicides: physiology, biochemistry, ecology. Academic, New York, pp 203–247Google Scholar
  76. National Invasive Species Council (NISC) (2006) Invasive species definition, clarification, and guidance while paper. On line: Accessed 12 June 2009
  77. NAST, National Assessment Synthesis Team (2000) Climate change impacts on the United States: the potential consequences of climate variability and change. US Global Change Research Program, Washington DC, 363 pGoogle Scholar
  78. National Research Council (2002) Predicting invasions of non-indigenous plants and plant pests. National Academy Press, Washington DC, p 194Google Scholar
  79. Norris RF (1982) Interactions between weeds and other pests in the agroecosystem. In: Hatfield JL, Thomason IJ (eds) Biometeorology in integrated pest management. Academic, New York, pp 343–406Google Scholar
  80. Oerke EC, Dehne HW (2004) Safeguarding production losses in major crops and the role of crop protection. Crop Prot 23:275–285Google Scholar
  81. Olfert O, Hallett R, Weiss RM, Soroka J, Goodfellow S (2006) Potential distribution and relative abundance of swede midge Contarinia nasturtii, an invasive pest in Canada. Entomol Exp Appl 120:221–228Google Scholar
  82. Parker-Williams AE, Hunt ER Jr (2004) Accuracy assessment for detection of leafy spurge with hyperspectral imagery. J Range Manag 57:106–112Google Scholar
  83. Patterson DT (1993) Implications of global climate change for impact of weeds, insects and plant diseases. Inter Crop Sci 1:273–280Google Scholar
  84. Patterson DT (1995a) Weeds in a changing climate. Weed Sci 43:685–701Google Scholar
  85. Patterson DT (1995b) Effects of environmental stress on weed/crop interactions. Weed Sci 43:483–490Google Scholar
  86. Patterson DT, Meyer CR, Flint EP, Quimby PC Jr (1979) Temperature responses and potential distribution of itchgrass (Rottboellia exaltata) in the United States. Weed Sci 27:77–82Google Scholar
  87. Patterson DT, Westbrook JK, Joyce RJC, Lingren PD, Rogasik J (1999) Weeds, insects and diseases. Clim Change 43:711–727Google Scholar
  88. Paul PA, Munkvold GP (2005) Influence of temperature and relative humidity on sporulation of Cercospora zeae-aydis and expansion of gray leaf spot lesions on maize leaves. Plant Dis 89:624–630Google Scholar
  89. Pearson PN, Palmer MR (2000) Atmospheric carbon dioxide concentrations over the past 60 million years. Nature 406:695–699Google Scholar
  90. Pimental D, Lach L, Zuniga R, Morrison D (2000) Environmental and economic costs of nonindigenous species in the United States. Biosci 50:53–65Google Scholar
  91. Polley HW, Johnson HB, Mayeux HS (1994) Increasing CO2: comparative responses of the C4 grass Schizachyrium and grassland invader Prosopis. Ecology 75:976–988Google Scholar
  92. Polley HW, Johnson HB, Mayeux HS, Tischler CR, Brown DA (1996) Carbon dioxide enrichment improves growth, water relations and survival of droughted honey mesquite (Prosopis glandulosa) seedlings. Tree Physiol 16:817–823Google Scholar
  93. Polley HW, Tischler CR, Johnson HB, Derner JD (2002) Growth rate and survivorship of drought: CO2 effects on the presumed tradeoff in seedlings of five woody legumes. Tree Physiol 22:383–391Google Scholar
  94. Poorter H (1993) Interspecific variation in the growth response of plants to an elevated ambient CO2 concentration. Vegetatio 104/105:77–97Google Scholar
  95. Poorter H, Roumet C, Campbell BD (1996) Interspecific variation in the growth response of plants to elevated CO2: a search for functional types. In: Korner C, Bazzaz FA (eds) Carbon dioxide, populations and communities. Academic Press, New York, pp 375–412Google Scholar
  96. Rejmanek M (1996) A theory of seed plant invasiveness: the first sketch. Biol Conserv 78:171–181Google Scholar
  97. Rejmanek M (2000) Invasive plants: approaches and predictions. Austral Ecol 25:497–506Google Scholar
  98. Rodriguez-Trelles F, Rodriguez MA (1998) Rapid micro-evolution and loss of chromosomal diversity in Drosophila in response to climate warming. Evol Ecol 12:829–838Google Scholar
  99. Rogers HH, Runion GB, Krupa SV (1994) Plant responses to atmospheric CO2 enrichment, with emphasis on roots and the rhizosphere. Environ Pollut 83:155–189Google Scholar
  100. Rogers HH Jr, Runion GB, Prior SA, Price AJ, Torbert HA III, Gjerstad DH (2008) Effects of elevated atmospheric CO2 on invasive plants: comparison of purple and yellow nutsedge (Cyperus rotundus L. and C. esculentus L.). J Environ Qual 37:395–400Google Scholar
  101. Rosenberg JR, Burt PJA (1999) Windborne displacements of desert locusts from Africa to the Caribbean and South America. Aerobiologia 15:167–175Google Scholar
  102. Rosenzweig CE, Tubiello F, Goldberg R, Mills E, Bloomfield J (2002) Increased crop damage in the U.S. from excess precipitation under climate change. Glob Environ Change 12:197–202Google Scholar
  103. Roy BA, Gusewell S, Harte J (2004) Response of plant pathogens and herbivores to warming experiment. Ecology 85:2570–2581Google Scholar
  104. Rudolph K (1993) Infection of the plant by Xanthomonas. In: Swings JG, Civerolo EL (eds) Xanthomonas. Chapman and Hall, London, UK, pp 193–264Google Scholar
  105. Runion GB, Entry JA, Prior SA, Mitchell RJ, Rogers HH (1999) Tissue chemistry and carbon allocation in seedlings of Pinus palustris subjected to elevated atmospheric CO2 and water stress. Tree Physiol 19:329–335Google Scholar
  106. Salinari F, Giosue S, Tubiello FN, Rettori A, Rossi V, Spannas F, Rosenzweig C, Gullino ML (2006) Downy mildew (Plasmopara viticola) epidemics on grapevine under climate change. Glob Chang Biol 12:1299–1307Google Scholar
  107. Sasek TW, Strain BR (1988) Effects of carbon dioxide enrichment on the growth and morphology of Kudzu (Pueraria lobata). Weed Sci 36:28–36Google Scholar
  108. Sasek TW, Strain BR (1990) Implications of atmospheric CO2 enrichment and climatic change for the geographical distribution of two introduced vines in the USA. Clim Change 16:31–51Google Scholar
  109. Sasek TW, Strain BR (1991) Effects of CO2 enrichment on the growth and morphology of a native and introduced honeysuckle vine. Am J Bot 78:69–75Google Scholar
  110. Scherm H, Coakley SM (2003) Plant pathogens in a changing world. Austral Plant Path 32:157–165Google Scholar
  111. Skinner K, Smith L, Rice P (2000) Using noxious weed lists to prioritize targets for developing weed management strategies. Weed Sci 48:640–644Google Scholar
  112. Smith SD, Strain BR, Sharkey TD (1987) Effects of CO2 enrichment on four Great Basin grasses. Funct Ecol 1:139–143Google Scholar
  113. Smith SD, Huxman TE, Zitzer SF, Charlet TN, Housman DC, Coleman JS, Fenstermaker LK, Seemann JR, Nowak RS (2000) Elevated CO2 increases productivity and invasive species success in an arid ecosystem. Nature 408:79–82Google Scholar
  114. Song L, Wu J, Changhan L, Furong L, Peng S, Chen B (2009) Different responses of invasive and native species to elevated CO2 concentration. Acta Oecol 35:128–135Google Scholar
  115. Sutherst RW, Maywald GF, Yonow T, Stevens PM (1999) CLIMEX: predicting the effects of climate on plants and animals, version 1.1. CSIRO, Melbourne, AustraliaGoogle Scholar
  116. Sutherst RW, Baker RHA, Coakley SM, Harrington R, Kriticos DJ, Scherm H (2007) Pests under global change—meeting your future landlords? In: Canadell JC, Pataki DE, Pitelka LF (eds) Terrestrial ecosystems in a changing world. Springer, Berlin, pp 211–226Google Scholar
  117. Thompson GB, Drake BG (1994) Insects and fungi on a C3 sedge and a C4 grass exposed to elevated atmospheric CO2 concentrations in open-top chambers in the field. Plant Cell Environ 17:1161–1167Google Scholar
  118. Torchin ME, Lafferty KD, Dobson AP, McKenzie VJ, Kuris AM (2003) Introduced species and their missing parasites. Nature 421:628–629Google Scholar
  119. Travis J, Futyuma DJ (1993) Global change: lessons from and for evolutionary biology. In: Kareiva PM, Kingsolver JG, Huey RB (eds) Biotic interactions and global change. Sinauer, Sunderland, MA, pp 251–263Google Scholar
  120. Tremmel DC, Patterson DT (1993) Responses of soybean and 5 weeds to CO2 enrichment under 2 temperature regimes. Can J Plant Sci 73:1249–1260Google Scholar
  121. Tyser RW, Worley CA (1992) Alien flora in grasslands adjacent to road and trial corridors in Glacier National Park, Montana (USA). Conserv Biol 6:253–262Google Scholar
  122. Vila M, Corbin JD, Dukes JS, Pino J, Smith SD (2007) Linking plant invasions to global environmental change. In: Canadell JC, Pataki DE, Pitelka LF (eds) Terrestrial ecosystems in a changing world. Springer, Berlin Heidelberg, pp 93–102Google Scholar
  123. Wanyera R, Kinyus MG, Jin Y, Singh RP (2006) The spread of stem rust caused by Puccinia graminis sp. Tritici, with virulence on Sr31 in wheat in eastern Africa. Plant Dis 90:113–116Google Scholar
  124. Ward JMJ, Laing MD, Nowell D (1997) Chemical control of maize gray leaf spot. Crop Prot 16:265–271Google Scholar
  125. Ward JMJ, Stromberg EL, Nowell DC, Nutter FW Jr (1999) Gray leaf spot: a disease of global importance in Maize production. Plant Dis 83:884–895Google Scholar
  126. Watt AD, Leather SR (1986) The pine beauty in Scottish lodgepole pine plantations. In: Berryman AA (ed) Dynamics of forest insect populations: patterns, causes, implications. Plenum, New York, pp 243–266Google Scholar
  127. Wayne PM, Carnelli AL, Connolly J, Bazzaz FA (1999) The density dependence of plant responses to elevated CO2. J Ecol 87:183–192Google Scholar
  128. Webster PJ, Holland GJ, Curry JA, Chang H-R (2005) Changes in tropical cyclone number, duration and intensity in a warming environment. Science 309:1844–1846Google Scholar
  129. Wharton T, Kriticos D (2004) The fundamental and realized niche of the Monterey pine aphid, Essigella californica (Essig) (Hemiptera:Aphididae): implications for managing softwood plantations in Australia. Divers Distrib 10:253–262Google Scholar
  130. Zavala JA, Casteel CL, DeLucia EH, Berenbaum MR (2008) Anthropogenic increase in carbon dioxide compromises plant defense against invasive insects. PNAS 105:5129–5133Google Scholar
  131. Ziska LH (2002) Influence of rising atmospheric CO2 since 1900 on early growth and photosynthetic response of a noxious invasive weed, Canada thistle (Cirsium arvense). Funct Plant Biol 29:1387–1392Google Scholar
  132. Ziska LH (2003a) Evaluation of the growth response of six invasive species to past, present and future atmospheric carbon dioxide. J Exp Bot 54:395–404Google Scholar
  133. Ziska LH (2003b) The impact of nitrogen supply on the potential response of a noxious, invasive weed, Canada thistle (Cirsium arvense) to recent increases in atmospheric carbon dioxide. Physiol Plant 119:105–112Google Scholar
  134. Ziska LH, Teasdale JR (2000) Sustained growth and increased tolerance to glyphosate observed in a C3 perennial weed, quackgrass (Elytrigia repens), grown at elevated carbon dioxide. Aust J Plant Physiol 27:159–164Google Scholar
  135. Ziska LH, George K (2004) Rising carbon dioxide and invasive, noxious plants: potential threats and consequences. World Resour Rev 16:427–447Google Scholar
  136. Ziska LH Bunce JA (2006) Plant responses to rising atmospheric carbon dioxide. In: Morison JIL, Morecroft MD (eds) Plant growth and climate change. Blackwell, Oxford, pp 17–47Google Scholar
  137. Ziska LH, Goins EW (2006) Elevated atmospheric carbon dioxide and weed populations in glyphosate treated soybean. Crop Sci 46:1354–1359Google Scholar
  138. Ziska LH, Runion GB (2007) Future weed, pest and disease problems for plants. In: Newton PCD, Carran A, Edwards GR, Niklaus PA (eds) Agroecosystems in a changing climate. CRC, Boston, pp 262–279Google Scholar
  139. Ziska LH, McClung A (2008) Differential response of cultivated and weedy (red) rice to recent and projected increases in atmospheric carbon dioxide. Agron J 100:1259–1263Google Scholar
  140. Ziska LH, Faulkner SS, Lydon J (2004) Changes in biomass and root:shoot ratio of field-grown Canada thistle (Cirsium arvense), a noxious, invasive weed, with elevated CO2: implications for control with glyphosate. Weed Sci 52:584–588Google Scholar

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© U.S. Government 2010

Authors and Affiliations

  • Lewis H. Ziska
    • 1
    Email author
  • Dana M. Blumenthal
    • 2
  • G. Brett Runion
    • 3
  • E. Raymond HuntJr
    • 4
  • Hilda Diaz-Soltero
    • 5
  1. 1.Crop Systems and Global Change Laboratory, USDA-ARSBeltsvilleUSA
  2. 2.Rangeland Resource Research UnitUSDA Agricultural Research ServiceCheyenneUSA
  3. 3.National Soil Dynamics LaboratoryUSDA Agricultural Research ServiceAuburnUSA
  4. 4.Hydrology and Remote Sensing LaboratoryUSDA Agricultural Research ServiceBeltsvilleUSA
  5. 5.USDASenior Invasive Species CoordinatorWashingtonUSA

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