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CHAPTER Thirteen - Indirect evolutionary interactions in a multitrophic system

Published online by Cambridge University Press:  05 February 2013

Timothy P. Craig
Affiliation:
Department of Biology, University of Minnesota-Duluth
Joanne K. Itami
Affiliation:
Department of Biology, University of Minnesota-Duluth
Michael Dixon
Affiliation:
US Fish and Wildlife Service
Terry R. Hams
Affiliation:
Golder Associates, Saskatoon
Takayuki Ohgushi
Affiliation:
Kyoto University, Japan
Oswald Schmitz
Affiliation:
Yale University, Connecticut
Robert D. Holt
Affiliation:
University of Florida
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Summary

Indirect evolutionary effects

Species interact both directly and indirectly through interactions mediated by a third species. Recently, it has been established that these indirect interactions have important effects on the structure of ecological communities and that they can produce more complex interaction webs than the food webs of direct trophic interactions (Ohgushi 2005, 2007). In this chapter we address the question: can indirectly interacting species separated in space or time influence each other’s evolution? These indirect interactions can evolve if there is a chain reaction where one species exerts selection via a second species on a heritable trait of a third species (Fig. 13.1). If indirect interactions can evolve they may play an important role in community evolution. Measuring indirect interactions is more difficult than measuring direct evolutionary interactions. We will suggest strategies for measuring indirect evolutionary interactions using examples from the community centred on the gall-inducing fly Eurosta solidaginis, its host plants and natural enemies.

Goldenrod–herbivore–natural enemy interaction

Eurosta has formed three partially reproductively isolated populations on Solidago altissima altissima, S. a. gilvocanescens and S. gigantea which we refer to as the forest altissima, prairie altissima and forest gigantea host races, respectively. The forest altissima and forest gigantea host races occur sympatrically in the forest biome of North America (Waring et al. 1990; Craig et al. 1993, 1997, 2001, 2007a, b; Brown et al. 1996; Itami et al. 1998; Stireman et al. 2005; Horner et al. 2008) and the host races on S. altissima gilvocanescens and S. gigantea occur sympatrically in the prairie (Craig et al. 2007a; Craig and Itami 2011). Along the forest–prairie biome border there is geographic mosaic in the distribution of S. a. altissima and S. a. gilvocanescens growing in close proximity to each other.

Type
Chapter
Information
Trait-Mediated Indirect Interactions
Ecological and Evolutionary Perspectives
, pp. 244 - 256
Publisher: Cambridge University Press
Print publication year: 2012

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References

Abrahamson, W. G.Weis, A. E. 1997 :Goldenrods, Gallmakers, and Natural EnemiesPrinceton, NJPrinceton University PressGoogle Scholar
Brown, J. M.Abrahamson, W. G.Way, P. A. 1996 Mitochondrial DNA phylogeography of host races of the goldenrod ball gallmaker, (Diptera: Tephritidae)Evolution 50 777CrossRefGoogle Scholar
Craig, T. P. 2007 Evolution of plant-mediated interactions among natural enemiesOhgushi, T.Craig, T. P.Price, P. W.Ecological Communities: Plant Mediation in Indirect Interaction WebsCambridgeCambridge University Press331CrossRefGoogle Scholar
Craig, T. P.Itami, J. K. 2011 Divergence of in response to host plant variation and natural enemiesEvolution 65 802CrossRefGoogle ScholarPubMed
Craig, T. P.Horner, J. D.Itami, J. K. 1997 Hybridization studies on the host races of : implications for sympatric speciationEvolution 51 1552Google ScholarPubMed
Craig, T. P.Horner, J. D.Itami, J. K. 2001 Genetics, experience and host–plant preference in : implications for host shifts and speciationEvolution 55 773CrossRefGoogle ScholarPubMed
Craig, T. P.Itami, J. K.Abrahamson, W. G.Horner, J. D. 1993 Behavioral evidence for host–race formation in Evolution 47 1696CrossRefGoogle Scholar
Craig, T. P.Itami, J. K.Abrahamson, W. GHorner, J. D 1999 Oviposition preference and offspring performance of on genotypes of Oikos 86 119CrossRefGoogle Scholar
Craig, T. P.Itami, J. K.Craig, J. V. 2007 Host plant genotype influences survival of hybrids between host racesEvolution 61 2607CrossRefGoogle ScholarPubMed
Craig, T. P.Itami, J. KHorner, J. D. 2007 Geographic variation in the evolution and coevolution of a tritrophic interactionEvolution 61 1137CrossRefGoogle ScholarPubMed
Craig, T. P.Itami, J. K.Schantz, C. 2000 The influence of host plant variation and intraspecific competition on oviposition preference in the host races of Ecological Entomology 25 7CrossRefGoogle Scholar
Cronin, J. T.Abrahamson, W. G.Craig, T. P. 2001 Temporal variation in herbivore host-plant preference and performance: constraints on host-plant adaptationOikos 93 312CrossRefGoogle Scholar
Dixon, M. D.Craig, T. P.Itami, J. K 2009 The geographic mosaic of coevolution and the natural enemies of Evolutionary Ecology Research 11 871Google Scholar
Endler, J. A. 1980 Natural selection on color patterns in Evolution 34 76CrossRefGoogle ScholarPubMed
Hartnett, D. C.Abrahamson, W. G. 1979 The effects of stem gall insects on life history patterns in Ecology 60 910CrossRefGoogle Scholar
Honda, K.Omura, H.Chachin, M.Kawano, S.Inoue, T. 2011 Synergistic or antagonistic modulation of oviposition response of two swallowtail butterflies, , and , to by its constitutive prenylated flavonoid, phellamurinJournal of Chemical Ecology 37 575CrossRefGoogle ScholarPubMed
Itami, J. K.Craig, T. P.Horner, J. D. 1998 Factors affecting gene flow between the host races of Mopper, S.Strauss, S.Genetic Structure and Local Adaptation in Natural Insect Populations: Effects of Ecology, Life History, BehaviorNew YorkChapman and Hall375CrossRefGoogle Scholar
Lande, R.Arnold, S. J. 1983 The measurement of selection on correlated charactersEvolution 37 1210CrossRefGoogle ScholarPubMed
Nuismer, S. L.Gandon, S. 2008 Moving beyond common-garden and transplant designs: insight into the causes of local adaptation in species interactionsAmerican Naturalist 171 658Google ScholarPubMed
Ohgushi, T. 2005 Indirect interaction webs: herbivore-induced effects through change in plantsAnnual Review of Ecology, Evolution, and Systematics 36 81CrossRefGoogle Scholar
Ohgushi, T. 2007 Nontrophic, indirect interaction webs of herbivorous insectsOhgushi, T.Craig, T. P.Price, P. W.Ecological Communities: Plant Mediation in Indirect Interaction WebsCambridgeCambridge University Press221CrossRefGoogle Scholar
Stireman, J. O.Nason, J. K.Heard, S. B. 2005 Host-associated genetic differentiation in phytophagous insects: general phenomenon or isolated exceptions? Evidence from a goldenrod-insect communityEvolution 59 2573CrossRefGoogle ScholarPubMed
Thompson, J. N. 1994 The Coevolutionary ProcessChicago, ILUniversity of Chicago PressCrossRefGoogle Scholar
Thompson, J. N 2005 The Geographic Mosaic of CoevolutionChicago, ILUniversity of Chicago PressGoogle Scholar
Waring, G. L.Abrahamson, W. G.Howard, D. J. 1990 Genetic differentiation among host-associated populations of the gallmaker (Diptera: Tephritidae)Evolution 44 1648CrossRefGoogle Scholar
Weis, A. E.Abrahamson, W. G. 1986 Evolution of host plant manipulation by gall makers: Ecological and genetic factors in the interactionAmerican Naturalist 127 681CrossRefGoogle Scholar
Weis, A. E.Kapelinski, A. D. 1994 Variable selection on gall size, II, A path analysis of the ecological factors behind selectionEvolution 48 734Google ScholarPubMed
Weis, A. E.Abrahamson, W. G.McCrea, K. D. 1985 Host gall size and oviposition success by the parasitoid Ecological Entomology 10 341CrossRefGoogle Scholar
Weis, A. EMcCrea, K. D.Abrahamson, W. G. 1989 Can there be an escalating arms race without coevolution? Implications from a host–parasitoid simulationEvolutionary Ecology 3 361CrossRefGoogle Scholar
Whitham, T. G.Bailey, J. K.Schweitzer, J. A. 2006 A framework for community and ecosystem genetics: from genes to ecosystemsNature Reviews Genetics 7 510CrossRefGoogle ScholarPubMed

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