Mark Baird

Dr. Mark Baird

orcid

Research Focus & Metrics

Academic Career Length

30Years (1997-Present)

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

Representative Publications

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1 June 2014 in Marine Pollution Bulletin
Verified
Journal Article
Closed access
PMP.I. Macreadie
P.I. Macreadie
MBMark Baird
Mark Baird
Stacey M. Trevathan-TackettStacey M. Trevathan-Tackett
Stacey M. Trevathan-Tackett
ALA.W.D. Larkum
A.W.D. Larkum
PRP.J. Ralph
P.J. Ralph

1 March 2011 in Deep Sea Research Part II: Topical Studies in Oceanography
Verified
Journal Article
Closed access
ISIain M. Suthers
Iain M. Suthers
JYJock W. Young
Jock W. Young
MBMark Baird
Mark Baird
MRMoninya Roughan
Moninya Roughan
JEJason D. Everett
Jason D. Everett
KRKen Ridgway
Ken Ridgway

15 April 2012 in Nature Climate Change
Verified
Journal Article
Closed access
PDF file
KFKevin J. Flynn
Kevin J. Flynn
JBJerry C. Blackford
Jerry C. Blackford
MBMark Baird
Mark Baird
JRJohn A. Raven
John A. Raven
DCDarren R. Clark
Darren R. Clark
GWGlen L. Wheeler
Glen L. Wheeler

28 August 2012 in Geophysical Research Letters
Verified
Journal Article
Open access
PDF file
JEJ. D. Everett
J. D. Everett
MBMark Baird
Mark Baird
POP. R. Oke
P. R. Oke
ISI. M. Suthers
I. M. Suthers
The Tasman Sea is unique ‐ characterised by a strong seasonal western boundary current that breaks down into a complicated field of mesoscale eddies almost immediately after separating from the coast. Through a 16‐year analysis of Tasman Sea eddies, we identify a region along the southeast Australian coast which we name ‘Eddy Avenue’ where eddies have higher sea level anomalies, faster rotation and greater sea surface temperature and chlorophylla anomalies. The density of cyclonic and anticyclonic eddies within Eddy Avenue is 23% and 16% higher respectively than the broader Tasman Sea. We find that Eddy Avenue cyclonic and anticyclonic eddies have more strongly differentiated biological properties than those of the broader Tasman Sea, as a result of larger anticyclonic eddies formed from Coral Sea water depressing chl. aconcentrations, and for coastal cyclonic eddies due to the entrainment of nutrient‐rich shelf waters. Cyclonic eddies within Eddy Avenue have almost double the chlorophylla (0.35 mg m−3) of anticyclonic eddies (0.18 mg m−3). The average chlorophyll a concentration for cyclonic eddies is 16% higher in Eddy Avenue and 28% lower for anticyclonic eddies when compared to the Tasman Sea. With a strengthening East Australian Current, the propagation of these eddies will have significant implications for heat transport and the entrainment and connectivity of plankton and larval fish populations.

18 November 2009 in Marine Ecology Progress Series
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Journal Article
Open access
PDF file
PTP. A. Thompson
P. A. Thompson
MBMark Baird
Mark Baird
TIT. Ingleton
T. Ingleton
MDM. A. Doblin
M. A. Doblin

23 February 2016 in Nature Communications
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Journal Article
Open access
MMMathieu Mongin
Mathieu Mongin
MBMark Baird
Mark Baird
BTBronte Tilbrook
Bronte Tilbrook
RMRichard J. Matear
Richard J. Matear
ALAndrew Lenton
Andrew Lenton
ASAndrew D. L. Steven
Andrew D. L. Steven
The Great Barrier Reef (GBR) is founded on reef-building corals. Corals build their exoskeleton with aragonite, but ocean acidification is lowering the aragonite saturation state of seawater (Ωa). The downscaling of ocean acidification projections from global to GBR scales requires the set of regional drivers controlling Ωa to be resolved. Here we use a regional coupled circulation–biogeochemical model and observations to estimate the Ωa experienced by the 3,581 reefs of the GBR, and to apportion the contributions of the hydrological cycle, regional hydrodynamics and metabolism on Ωa variability. We find more detail, and a greater range (1.43), than previously compiled coarse maps of Ωa of the region (0.4), or in observations (1.0). Most of the variability in Ωa is due to processes upstream of the reef in question. As a result, future decline in Ωa is likely to be steeper on the GBR than currently projected by the IPCC assessment report.