Russell Barrow

Prof. Russell Barrow

orcid

Research Focus & Metrics

Academic Career Length

25Years (2002-Present)

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

Representative Publications

View All Publications
19 May 2014 in Australian Journal of Chemistry
Verified
Journal Article
Closed access
PDF file
ABAndrew M. Beekman
Andrew M. Beekman
Russell BarrowRussell Barrow
Russell Barrow
Natural products, their derivatives or compounds based on natural product leads constitute ~50 % of clinically used pharmaceuticals. This review highlights pharmaceuticals currently used in Australia and New Zealand that have their origins in fungal metabolites, discussing the natural products chemistry and medicinal chemistry leading to their application as pharmaceuticals.

3 May 2012 in Organic Letters
Verified
Journal Article
Closed access
BBBjorn Bohman
Bjorn Bohman
LJLynne Jeffares
Lynne Jeffares
GFGavin Flematti
Gavin Flematti
RPRyan D. Phillips
Ryan D. Phillips
KDKingsley W. Dixon
Kingsley W. Dixon
Russell BarrowRussell Barrow
Russell Barrow

28 February 2003 in Australian Journal of Chemistry
Verified
Journal Article
Closed access
PDF file
AMAdam P. Michael
Adam P. Michael
EGEmily J. Grace
Emily J. Grace
MKMike Kotiw
Mike Kotiw
Russell BarrowRussell Barrow
Russell Barrow
Australian Journal of Chemistry - an International Journal for Chemical Science publishes research papers from all fields of chemical science.

31 October 2018 in Plant Physiology
Verified
Journal Article
Open access
PDF file
WCWeihua Chen
Weihua Chen
MTMatthew Taylor
Matthew Taylor
Russell BarrowRussell Barrow
Russell Barrow
MCMikaël Croyal
Mikaël Croyal
JMJosette Masle
Josette Masle
The phospho-base methylation pathway is vital for phosphatidylcholine synthesis and plant life, and its committing step critically depends on key individual res

21 February 2017 in Molecules
Verified
Journal Article
Open access
PDF file
DSDominik Skoneczny
Dominik Skoneczny
Paul WestonPaul Weston
Paul Weston
XZXiaocheng Zhu
Xiaocheng Zhu
Geoff GurrGeoff Gurr
Geoff Gurr
RCRagan M. Callaway
Ragan M. Callaway
Leslie Ann WestonLeslie Ann Weston
Leslie Ann Weston
Metabolic profiling can be successfully implemented to analyse a living system’s response to environmental conditions by providing critical information on an organism’s physiological state at a particular point in time and allowing for both quantitative and qualitative assessment of a specific subset(s) of key metabolites. Shikonins are highly reactive chemicals that affect various cell signalling pathways and possess antifungal, antibacterial and allelopathic activity. Based on previous bioassay results, bioactive shikonins, are likely to play important roles in the regulation of rhizosphere interactions with neighbouring plants, microbes and herbivores. An effective platform allowing for rapid identification and accurate profiling of numerous structurally similar, difficult-to-separate bioactive isohexenylnaphthazarins (shikonins) was developed using UHPLC Q-TOF MS. Root periderm tissues of the invasive Australian weeds Echium plantagineum and its congener E. vulgare were extracted overnight in ethanol for shikonin profiling. Shikonin production was evaluated at seedling, rosette and flowering stages. Five populations of each species were compared for qualitative and quantitative differences in shikonin formation. Each species showed little populational variation in qualitative shikonin production; however, shikonin was considerably low in one population of E. plantagineum from Western New South Wales. Seedlings of all populations produced the bioactive metabolite acetylshikonin and production was upregulated over time. Mature plants of both species produced significantly higher total levels of shikonins and isovalerylshikonin > dimethylacrylshikonin > shikonin > acetylshikonin in mature E. plantagineum. Although qualitative metabolic profiles in both Echium spp. were nearly identical, shikonin abundance in mature plant periderm was approximately 2.5 times higher in perennial E. vulgare extracts in comparison to those of the annual E. plantagineum. These findings contribute to our understanding of the biosynthesis of shikonins in roots of two related invasive plants and their expression in relation to plant phenological stage.