Peter Thorburn

Dr. Peter Thorburn

orcid

Research Focus & Metrics

Academic Career Length

26Years (2001-Present)

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

Representative Publications

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6 July 2020 in Global Change Biology
Verified
Journal Article
Closed access
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GFGatien N. Falconnier
Gatien N. Falconnier
MCMarc Corbeels
Marc Corbeels
KBKenneth J. Boote
Kenneth J. Boote
FAFrançois Affholder
François Affholder
MAMyriam ADAM
Myriam ADAM
HWHeidi Webber
Heidi Webber

1 May 2001 in Field Crops Research
Verified
Journal Article
Closed access
PTPeter Thorburn
Peter Thorburn
MPMervyn E. Probert
Mervyn E. Probert
FRFiona A. Robertson
Fiona A. Robertson

1 November 2019 in ISPRS Journal of Photogrammetry and Remote Sensing
Verified
Journal Article
Open access
ISIurii Shendryk
Iurii Shendryk
YRYannik Rist
Yannik Rist
CTCatherine Ticehurst
Catherine Ticehurst
PTPeter Thorburn
Peter Thorburn

1 November 2021 in Environmental Modelling & Software
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Journal Article
Closed access
DWDaniel Wallach
Daniel Wallach
TPTaru Palosuo
Taru Palosuo
PTPeter Thorburn
Peter Thorburn
ZHZvi Hochman
Zvi Hochman
EGEmmanuelle Gourdain
Emmanuelle Gourdain
Sabine SeidelSabine Seidel
Sabine Seidel

5 September 2017 in Frontiers in Plant Science
Verified
Journal Article
Open access
PTPeter Thorburn
Peter Thorburn
JBJody S. Biggs
Jody S. Biggs
JPJeda Palmer
Jeda Palmer
EMElizabeth A. Meier
Elizabeth A. Meier
KVKirsten Verburg
Kirsten Verburg
DSDanielle M. Skocaj
Danielle M. Skocaj
Sugarcane production relies on the application of large amounts of nitrogen (N) fertilizer. However, application of N in excess of crop needs can lead to loss of N to the environment, which can negatively impact ecosystems. This is of particular concern in Australia where the majority of sugarcane is grown within catchments that drain directly into the World Heritage listed Great Barrier Reef Marine Park. Multiple factors that impact crop yield and N inputs of sugarcane production systems can affect N use efficiency (NUE), yet the efficacy many of these factors have not been examined in detail. We undertook an extensive simulation analysis of NUE in Australian sugarcane production systems to investigate (1) the impacts of climate on factors determining NUE, (2) the range and drivers of NUE, and (3) regional variation in sugarcane N requirements. We found that the interactions between climate, soils and management produced a wide range of simulated NUE, ranging from ~0.3 Mg cane (kg N)-1, where yields were low (i.e. 5 Mg cane (kg N)-1 in plant crops where yields were high and N inputs low. Of the management practices simulated (N fertilizer rate, timing and splitting; fallow management; tillage intensity; and in-field traffic management), the only practice that significantly influenced NUE in ratoon crops was N fertilizer application rate. N rate also influenced NUE in plant crops together with the management of the preceding fallow. In addition, there is regional variation in N fertilizer requirement that could make N fertilizer recommendations more specific. While our results show that complex interrelationships exist between climate, crop growth, N fertilizer rates and N losses to the environment, they highlight the priority that should be placed on optimizing N application rate and fallow management to improve NUE in Australian sugarcane production systems. New initiatives in seasonal climate forecasting, decisions support systems and enhanced efficiency fertilizers have potential for making N fertilizer management more site specific, an action that should facilitate increased NUE.

1 October 2018 in European Journal of Agronomy
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Journal Article
Closed access
BKBrian A. Keating
Brian A. Keating
PTPeter Thorburn
Peter Thorburn