TY - JOUR
T1 - Ecological networks - beyond food webs
AU - Ings, Thomas C.
AU - Montoya, Jose M.
AU - Bascompte, Jordi
AU - Bluethgen, Nico
AU - Brown, Lee
AU - Dormann, Carsten F.
AU - Edwards, Francois
AU - Figueroa, David
AU - Jacob, Ute
AU - Jones, J. Iwan
AU - Lauridsen, Rasmus B.
AU - Ledger, Mark E.
AU - Lewis, Hannah M.
AU - Olesen, Jens M.
AU - van Veen, F. J. Frank
AU - Warren, Phil H.
AU - Woodward, Guy
N1 - Funding: The authors thank NERC for financial support for TI (NE/ D012813/1), GW (NE/D013305/1) and JM (NE/C002105/1).
PY - 2009/1/1
Y1 - 2009/1/1
N2 - A fundamental goal of ecological network research is to understand how the complexity observed in nature can persist and how this affects ecosystem functioning. This is essential for us to be able to predict, and eventually mitigate, the consequences of increasing environmental perturbations such as habitat loss, climate change, and invasions of exotic species.Ecological networks can be subdivided into three broad types: 'traditional' food webs, mutualistic networks and host-parasitoid networks. There is a recent trend towards cross-comparisons among network types and also to take a more mechanistic, as opposed to phenomenological, perspective. For example, analysis of network configurations, such as compartments, allows us to explore the role of co-evolution in structuring mutualistic networks and host-parasitoid networks, and of body size in food webs.Research into ecological networks has recently undergone a renaissance, leading to the production of a new catalogue of evermore complete, taxonomically resolved, and quantitative data. Novel topological patterns have been unearthed and it is increasingly evident that it is the distribution of interaction strengths and the configuration of complexity, rather than just its magnitude, that governs network stability and structure.Another significant advance is the growing recognition of the importance of individual traits and behaviour: interactions, after all, occur between individuals. The new generation of high-quality networks is now enabling us to move away from describing networks based on species-averaged data and to start exploring patterns based on individuals. Such refinements will enable us to address more general ecological questions relating to foraging theory and the recent metabolic theory of ecology.We conclude by suggesting a number of 'dead ends' and 'fruitful avenues' for future research into ecological networks.
AB - A fundamental goal of ecological network research is to understand how the complexity observed in nature can persist and how this affects ecosystem functioning. This is essential for us to be able to predict, and eventually mitigate, the consequences of increasing environmental perturbations such as habitat loss, climate change, and invasions of exotic species.Ecological networks can be subdivided into three broad types: 'traditional' food webs, mutualistic networks and host-parasitoid networks. There is a recent trend towards cross-comparisons among network types and also to take a more mechanistic, as opposed to phenomenological, perspective. For example, analysis of network configurations, such as compartments, allows us to explore the role of co-evolution in structuring mutualistic networks and host-parasitoid networks, and of body size in food webs.Research into ecological networks has recently undergone a renaissance, leading to the production of a new catalogue of evermore complete, taxonomically resolved, and quantitative data. Novel topological patterns have been unearthed and it is increasingly evident that it is the distribution of interaction strengths and the configuration of complexity, rather than just its magnitude, that governs network stability and structure.Another significant advance is the growing recognition of the importance of individual traits and behaviour: interactions, after all, occur between individuals. The new generation of high-quality networks is now enabling us to move away from describing networks based on species-averaged data and to start exploring patterns based on individuals. Such refinements will enable us to address more general ecological questions relating to foraging theory and the recent metabolic theory of ecology.We conclude by suggesting a number of 'dead ends' and 'fruitful avenues' for future research into ecological networks.
KW - Mutualistic networks
KW - Host-parasitoid interactions
KW - Metabolic theory of ecology
KW - Ecological stoichiometry
KW - Foraging theory
U2 - 10.1111/j.1365-2656.2008.01460.x
DO - 10.1111/j.1365-2656.2008.01460.x
M3 - Review article
SN - 0021-8790
VL - 78
SP - 253
EP - 269
JO - Journal of Animal Ecology
JF - Journal of Animal Ecology
IS - 1
ER -