Edinburgh Research Explorer

Prof Michael Davies, BA MA (Cantab) PhD CIET FIEEE

Jeffrey Collins Chair of Signal Processing

Profile photo

Willingness to take Ph.D. students: Yes

Compressed sensing and sparse representations in signal and image processing

Education / Academic qualification

Doctor of Philosophy (PhD), University College London
Noise Reduction in Nonlinear Time Series Analysis
Bachelor of Arts, University of Cambridge

Professional Qualifications

Fellow of IEEE, FIEEE
Chartered Engineer, CIET

Visiting and Research Positions

2012                      Texas Instruments Distinguished Visiting Professor, Rice University

2009-date            Visiting Professor, Heriot Watt University, UK

1993-98                Royal Society University Research Fellow, University of Cambridge


Mike Davies holds the Jeffrey Collins Chair in Signal and Image Processing at the University of Edinburgh where he leads the Edinburgh Compressed Sensing Research Group. He is currently the Head of the Institute for Digital Communications (IDCom) in the School of Engineering, and Director of the Joint Research Institute in Signal and Image Processing (JRI-SIP) a the collaborative research venture between the University of Edinburgh and Heriot-Watt University as part of the Edinburgh Research Partnership.

He received an M.A. in engineering from Cambridge University in 1989 where he was awarded a Foundation Scholarship (1987), and a Ph.D. degree in nonlinear dynamics and signal processing from University College London (UCL) in 1993. In 1993 he was awarded a Royal Society University Research Fellowship and was appointed a Texas Instruments Distinguished Visiting Professor at Rice University in 2012. He currently manages a £7M portfolio of research grants from a variety of sources including: EPSRC, Dstl, industry and the EU, and leads the University Defence Research Collaboration (UDRC), a UK programme of signal processing research in defence in collaboration with the UK Defence Science and Technology Laboratory (Dstl).

Research Interests

My work focusses on the fields of sparse representations and compressed sensing, and their application to various signal processing and imaging problems. During the past decade I have made significant contributions to the key areas of fundamental CS theory, new signal models, including dictionary learning techniques, the development and analysis of new reconstruction algorithms, This work includes: the proposal and analysis of the highly popular Iterative Hard Thresholding family of algorithms for sparse reconstruction; the development of new reconstruction theory for structured sparse signal models; the introduction and analysis for a new model (co-sparsity) for redundant analysis representations; and the characterization of types of statistical distribution that admit accurate low dimensional approximations.

I have applied these ideas to a number of RF sensing applications including dynamic MRI and 3D brain imaging, Electronic Surveillance and Low Frequency Synthetic Aperture Radar - work that is being exploited in a new DSTL funded Low Frequency SAR system with SEA Ltd. Most recently, in collaboration with colleagues at EPFL I have proposed a new compressed sensing framework for quantitative MRI.

I also have an active interest in the related topics of machine learning, high-dimensional statistics and information theory.

Current Projects

UDRC: University Defence Research Collaboration in Signal Processing

An academia led partnership between the defence industry, academia and the government sector. The UDRC develops research in signal processing with application to the defence industry.

CQ-MRI: EPSRC funded award in Compressed Quantitative MRI

The proposed research will provide the first proof-of-principle for a new family of Compressed Quantitative Magnetic Resonance Imaging (CQ-MRI), able to rapidly acquire a multitude of physical parameter maps for the imaged tissue from a single scan.

CIRI: EPSRC funded award in Compressed Imaging in Radio Interferometry

The CIRI project aims to bring new advances for interferometric imaging for next-generation radio telescopes, together with theoretical and algorithmic evolutions in generic compressive imaging.

GE /US Dept. Homeland Sec. funded Orchestrated Data Flow for Baggage Screening

Developing new compressed sensing based advanced X-ray material discrimination for explosive detection systems in baggage screening.

EU Innovative Training Networks:

SpaRTaN: Sparse Representations and Compressed Sensing Training Network

MacSeNet: Machine Sensing Training Network

Professional Activities

2013 – date         Member of IEEE Sig. Proc. Theory and Methods technical committee


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