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Quantifying the effects of climate change and water abstraction on a population of barramundi (Lates calcarifer), a diadromous estuarine finfish
Authors
A. B. Campbell
Balston
+47 more
Brander
Brown
Caputi
Chiew
Clark
Clark
Drinkwater
Ford
Francis
Galindo-Bect
Gillanders
Gillanders
Gillson
Gr�we
Halliday
Harley
Hilborn
I. A. Halliday
Ives
J. B. Robins
Katersky
Kell
Kennedy
Keyl
King
Koehn
Lough
M. F. O'Neill
M. Tanimoto
Milton
M�llmann
Ottersen
Pankhurst
Pender
Peterson
Pittock
Plag�nyi
Poloczanska
Punt
Rajaguru
Rijnsdorp
Robins
Robins
Russell
Staunton-Smith
Vance
V�r�smarty
Publication date
1 January 2012
Publisher
'CSIRO Publishing'
Doi
Abstract
Many aquatic species are linked to environmental drivers such as temperature and salinity through processes such as spawning, recruitment and growth. Information is needed on how fished species may respond to altered environmental drivers under climate change so that adaptive management strategies can be developed. Barramundi (Lates calcarifer) is a highly prized species of the Indo-West Pacific, whose recruitment and growth is driven by river discharge. We developed a monthly age- and length-structured population model for barramundi. Monte Carlo Markov Chain simulations were used to explore the population's response to altered river discharges under modelled total licenced water abstraction and projected climate change, derived and downscaled from Global Climate Model A1FI. Mean values of exploitable biomass, annual catch, maximum sustainable yield and spawning stock size were significantly reduced under scenarios where river discharge was reduced; despite including uncertainty. These results suggest that the upstream use of water resources and climate change have potential to significantly reduce downstream barramundi stock sizes and harvests and may undermine the inherent resilience of estuarine-dependent fisheries. © 2012 CSIRO
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info:doi/10.1071%2Fmf11246
Last time updated on 24/12/2020
Queensland DAF eResearch Archive
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oai:era.daf.qld.gov.au:3757
Last time updated on 05/12/2023