Michael P. Barrett

Dr. Michael P. Barrett


Research Focus & Metrics

Academic Career Length

34Years (1993-Present)

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

Representative Publications

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1 November 2003 in The Lancet
Verified
Journal Article
Closed access
MBMichael P. Barrett
Michael P. Barrett
RBRichard Burchmore
Richard Burchmore
ASAugust Stich
August Stich
JLJulio O Lazzari
Julio O Lazzari
AFAlberto Carlos Frasch
Alberto Carlos Frasch
SKSanjeev Krishna
Sanjeev Krishna

10 October 2016 in Parasitology
Verified
Journal Article
Open access
FGFederica Giordani
Federica Giordani
LMLiam J. Morrison
Liam J. Morrison
TRTim G. Rowan
Tim G. Rowan
HKHarry De Koning
Harry De Koning
MBMichael P. Barrett
Michael P. Barrett
SUMMARY: Pathogenic animal trypanosomes affecting livestock have represented a major constraint to agricultural development in Africa for centuries, and their negative economic impact is increasing in South America and Asia. Chemotherapy and chemoprophylaxis represent the main means of control. However, research into new trypanocides has remained inadequate for decades, leading to a situation where the few compounds available are losing efficacy due to the emergence of drug-resistant parasites. In this review, we provide a comprehensive overview of the current options available for the treatment and prophylaxis of the animal trypanosomiases, with a special focus on the problem of resistance. The key issues surrounding the main economically important animal trypanosome species and the diseases they cause are also presented. As new investment becomes available to develop improved tools to control the animal trypanosomiases, we stress that efforts should be directed towards a better understanding of the biology of the relevant parasite species and strains, to identify new drug targets and interrogate resistance mechanisms.

4 February 2012 in Bioinformatics
Verified
Journal Article
Open access
PDF file
DCDarren Creek
Darren Creek
AJAndris Jankevics
Andris Jankevics
KBKarl E. V. Burgess
Karl E. V. Burgess
Rainer BreitlingRainer Breitling
Rainer Breitling
MBMichael P. Barrett
Michael P. Barrett
Summary: The application of emerging metabolomics technologies to the comprehensive investigation of cellular biochemistry has been limited by bottlenecks in data processing, particularly noise filtering and metabolite identification. IDEOM provides a user-friendly data processing application that automates filtering and identification of metabolite peaks, paying particular attention to common sources of noise and false identifications generated by liquid chromatography–mass spectrometry (LC–MS) platforms. Building on advanced processing tools such as mzMatch and XCMS, it allows users to run a comprehensive pipeline for data analysis and visualization from a graphical user interface within Microsoft Excel, a familiar program for most biological scientists. Availability and implementation: IDEOM is provided free of charge at http://mzmatch.sourceforge.net/ideom.html, as a macro-enabled spreadsheet (.xlsb). Implementation requires Microsoft Excel (2007 or later). R is also required for full functionality. Contact:michael.barrett@glasgow.ac.uk Supplementary Information: Supplementary data are available at Bioinformatics online.

21 October 2011 in Analytical Chemistry
Verified
Journal Article
Closed access
DCDarren Creek
Darren Creek
AJAndris Jankevics
Andris Jankevics
Rainer BreitlingRainer Breitling
Rainer Breitling
DWDavid G. Watson
David G. Watson
MBMichael P. Barrett
Michael P. Barrett
KBKarl E. V. Burgess
Karl E. V. Burgess

1 November 2005 in Trends in Parasitology
Verified
Journal Article
Closed access
SCS Croft
S Croft
MBMichael P. Barrett
Michael P. Barrett
JUJ Urbina
J Urbina

7 November 2012 in British Medical Bulletin
Verified
Journal Article
Open access
PDF file
MBMichael P. Barrett
Michael P. Barrett
SCSimon Croft
Simon Croft
The current treatments for human African trypanosomiasis (HAT), Chagas disease and leishmaniasis (collectively referred to as the kinetoplastid diseases) are far from ideal but, for some, there has been significant recent progress. For HAT the only advances in treatment over the past two decades have been the introduction of an eflornithine/nifurtimox co-administration and a shorter regime of the old standard melarsoprol. PubMed. There is a need for new safe, oral drugs for cost-effective treatment of patients and use in control programmes for all the trypanosomatid diseases. Cutaneous leishmaniasis is not on the agenda and treatments are lagging behind. There are three compounds in development for the treatment of the CNS stage of HAT: fexinidazole, currently due to entry into phase II clinical studies, a benzoxaborole (SCYX-7158) in phase I trials and a diamidine derivative (CPD-0802), in advanced pre-clinical development. For Chagas disease, two anti-fungal triazoles are now in clinical trial. In addition, clinical studies with benznidazole, a drug previously recommended only for acute stage treatment, are close to completion to determine the effectiveness in the treatment of early chronic and indeterminate Chagas disease. For visceral leishmaniasis new formulations, therapeutic switching, in particular AmBisome, and the potential for combinations of established drugs have significantly improved the opportunities for the treatment in the Indian subcontinent, but not in East Africa. Improved diagnostic tools are needed to support treatment, for test of cure in clinical trials and for monitoring/surveillance of populations in control programmes.