Anthony Richardson

Anthony Richardson


Research Focus & Metrics

Academic Career Length

31Years (1996-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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4 August 2013 in Nature Climate Change
Verified
Journal Article
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EPElvira S. Poloczanska
Elvira S. Poloczanska
CBChristopher J. Brown
Christopher J. Brown
WSWilliam J. Sydeman
William J. Sydeman
WKWolfgang Kiessling
Wolfgang Kiessling
DSDavid S. Schoeman
David S. Schoeman
ARAnthony Richardson
Anthony Richardson

1 August 2004 in Nature
Verified
Journal Article
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MEMartin Edwards
Martin Edwards
ARAnthony Richardson
Anthony Richardson

4 November 2011 in Science
Verified
Journal Article
Closed access
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MBMichael T. Burrows
Michael T. Burrows
DSDavid S. Schoeman
David S. Schoeman
LBLauren B. Buckley
Lauren B. Buckley
PMPippa Moore
Pippa Moore
EPElvira S. Poloczanska
Elvira S. Poloczanska
ARAnthony Richardson
Anthony Richardson
Ecologically relevant measures of contemporary global climate change can predict species distributions and vulnerabilities.

1 June 2005 in Trends in Ecology & Evolution
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Journal Article
Closed access
GHG Hays
G Hays
ARAnthony Richardson
Anthony Richardson
CRC Robinson
C Robinson

4 May 2016 in Frontiers in Marine Science
Verified
Journal Article
Open access
PDF file
EPElvira S. Poloczanska
Elvira S. Poloczanska
MBMichael T. Burrows
Michael T. Burrows
CBChristopher J. Brown
Christopher J. Brown
JMJorge García Molinos
Jorge García Molinos
BHBenjamin S. Halpern
Benjamin S. Halpern
WSWilliam J. Sydeman
William J. Sydeman
Climate change is driving changes in the physical and chemical properties of the ocean that have consequences for marine ecosystems. Here, we review evidence for the responses of marine life to recent climate change across ocean regions, from tropical seas to polar oceans. We consider observed changes in calcification rates, demography, abundance, distribution and phenology of marine species. We draw on a database of observed climate change impacts on marine species, supplemented with evidence in the Fifth Assessment Report of the Intergovernmental Panel on Climate Change. We discuss factors that limit or facilitate species’ responses, such as fishing pressure, the availability of prey, habitat, light and other resources, and dispersal by ocean currents. We find that general trends in species responses are consistent with expectations from climate change, including poleward and deeper distributional shifts, advances in spring phenology, declines in calcification and increases in the abundance of warm-water species. The volume and type of evidence of species responses to climate change is variable across ocean regions and taxonomic groups, with much evidence derived from the heavily-studied north Atlantic Ocean. Most investigations of marine biological impacts of climate change are of the impacts of changing temperature, with few observations of effects of changing oxygen, wave climate, precipitation (coastal waters) or ocean acidification. Observations of species responses that have been linked to anthropogenic climate change are widespread, but are still lacking for some taxonomic groups (e.g., phytoplankton, benthic invertebrates, marine mammals).

11 March 2008 in ICES Journal of Marine Science
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ARAnthony Richardson
Anthony Richardson
Richardson, A. J. 2008. In hot water: zooplankton and climate change. – ICES Journal of Marine Science, 65: 279–295. An overview is provided of the observed and potential future responses of zooplankton communities to global warming. I begin by describing the importance of zooplankton in ocean ecosystems and the attributes that make them sensitive beacons of climate change. Global warming may have even greater repercussions for marine ecosystems than for terrestrial ecosystems, because temperature influences water column stability, nutrient enrichment, and the degree of new production, and thus the abundance, size composition, diversity, and trophic efficiency of zooplankton. Pertinent descriptions of physical changes in the ocean in response to climate change are given as a prelude to a detailed discussion of observed impacts of global warming on zooplankton. These manifest as changes in the distribution of individual species and assemblages, in the timing of important life-cycle events, and in abundance and community structure. The most illustrative case studies, where climate has had an obvious, tangible impact on zooplankton and substantial ecosystem consequences, are presented. Changes in the distribution and phenology of zooplankton are faster and greater than those observed for terrestrial groups. Relevant projected changes in ocean conditions are then presented, followed by an exploration of potential future changes in zooplankton communities from the perspective of different modelling approaches. Researchers have used a range of modelling approaches on individual species and functional groups forced by output from climate models under future greenhouse gas emission scenarios. I conclude by suggesting some potential future directions in climate change research for zooplankton, viz. the use of richer zooplankton functional groups in ecosystem models; greater research effort in tropical systems; investigating climate change in conjunction with other human impacts; and a global zooplankton observing system.