Micah Murray

Prof. Dr. Micah Murray

orcid

Research Focus & Metrics

Academic Career Length

31Years (1996-Present)

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

Representative Publications

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1 October 2004 in Clinical Neurophysiology
Verified
Journal Article
Closed access
CMChristoph M. Michel
Christoph M. Michel
MMMicah Murray
Micah Murray
GLGöran Lantz
Göran Lantz
SGSara Gonzalez
Sara Gonzalez
LSLaurent Spinelli
Laurent Spinelli
RPRolando Grave de Peralta
Rolando Grave de Peralta

4 October 2021 in Nature Physics
Verified
Journal Article
Closed access
PDF file
FBFederico Battiston
Federico Battiston
EAEnrico Amico
Enrico Amico
ABAlain Barrat
Alain Barrat
Ginestra BianconiGinestra Bianconi
Ginestra Bianconi
GAGuilherme Ferraz De Arruda
Guilherme Ferraz De Arruda
Giovanni PetriGiovanni Petri
Giovanni Petri

18 March 2008 in Brain Topography
Verified
Journal Article
Closed access
PDF file
MMMicah Murray
Micah Murray
DBDenis Brunet
Denis Brunet
CMChristoph M. Michel
Christoph M. Michel

1 June 2002 in Cognitive Brain Research
Verified
Journal Article
Closed access
SMSophie Molholm
Sophie Molholm
WRWalter Ritter
Walter Ritter
MMMicah Murray
Micah Murray
DJDaniel C Javitt
Daniel C Javitt
CSCharles E Schroeder
Charles E Schroeder
JFJohn J Foxe
John J Foxe

1 June 2012 in NeuroImage
Verified
Journal Article
Closed access
CMChristoph M. Michel
Christoph M. Michel
MMMicah Murray
Micah Murray

1 January 2011 in Computational Intelligence and Neuroscience
Verified
Journal Article
Open access
PDF file
DBDenis Brunet
Denis Brunet
MMMicah Murray
Micah Murray
CMChristoph M. Michel
Christoph M. Michel
This paper describes methods to analyze the brain's electric fields recorded with multichannel Electroencephalogram (EEG) and demonstrates their implementation in the software CARTOOL. It focuses on the analysis of the spatial properties of these fields and on quantitative assessment of changes of field topographies across time, experimental conditions, or populations. Topographic analyses are advantageous because they are reference independents and thus render statistically unambiguous results. Neurophysiologically, differences in topography directly indicate changes in the configuration of the active neuronal sources in the brain. We describe global measures of field strength and field similarities, temporal segmentation based on topographic variations, topographic analysis in the frequency domain, topographic statistical analysis, and source imaging based on distributed inverse solutions. All analysis methods are implemented in a freely available academic software package called CARTOOL. Besides providing these analysis tools, CARTOOL is particularly designed to visualize the data and the analysis results using 3-dimensional display routines that allow rapid manipulation and animation of 3D images. CARTOOL therefore is a helpful tool for researchers as well as for clinicians to interpret multichannel EEG and evoked potentials in a global, comprehensive, and unambiguous way.