Short Course by Dr. Abbes Amira:Accelerating Matrix Algorithms on Reconfigurable Hardware for Image and Signal Processing Applications

Short course: IMVIP 2004

formatting link

Accelerating Matrix Algorithms on Reconfigurable Hardware for Image and Signal Processing Applications presented by Dr. Abbes Amira, Queens University, Belfast. (Provisional Schedule: Tuesday, August

31st 11.30-13.30).

"Accelerating Matrix Algorithms on Reconfigurable Hardware for Image and Signal Processing Applications" In this Course, Dr. Amira will be presenting a number of solutions and tools to address and perform a range of applications in image, video and signal processing, 3D graphics and scientific applications. Dr. Amira will focus on the design, implementation and acceleration of matrix algorithms such as matrix operations, transforms and decompositions for image and signal processing using Field Programmable Gates Arrays FPGAs, different architectures, arithmetic techniques, design methodologies and design entries (Handel C, Schematic and VHDL). A range of matrix algorithms will be addressed including: Discrete Orthogonal Transforms DOTs for image and signal processing, Matrix Multiplication for array processing, Fast Fourier Transform (FFT) for frequency image filtering, Discrete Wavelet Transform (DWT) for Image and Video Compression, Singular Value Decomposition (SVD) for image denoising. Optimisation solutions will be also presented for reconfigurable hardware design using intelligent techniques. The problem of processing large matrices will be also addressed in this course. Course instructor Dr. Abbes Amira obtained an "Ingéniorat d'Etat" degree in Electronics and a DEA degree in image and speech processing from the National Polytechnic School of Algiers "ENP", a PhD degree in Computer Science and a PGCHET degree from Queen's University, Belfast (UK). He is currently a lecturer in Computer Science at Queen's University, Belfast, teaching computer architecture and algorithms and data structures. His research interests are in Design and Implementation of Digital Image and Signal Processing algorithms, Custom Computing using Field Programmable Gate Array (FPGAs), Hardware/Software Co- Design, System on Chip, Image Processing based Wavelet Transforms, Telecom Applications, Information Systems, Artificial Intelligence, Optimisation Techniques and Information Retrieval. He has written several papers in peer-reviwed conferences and premier journals and chaired a number of sessions in prestigious conferences. He is a regular reviewer for several IEEE, ACM, Elsevier Journals and Conferences such as DSP, TIP, ISCAS, ICASSP and DAC. Dr. Amira is a member of IEEE, ACM and SIGDA. He has carried out successful work in the use of FPGAs for implementing a range of matrix algorithms for signal and image processing applications. He is author of over 80 refereed conference and journal papers during his career to date. In October 2001 he was awarded an EPSRC grant for a proposal entitled "Coprocessor based Matrix Algorithms for Image and Signal Processing". This is a three-year project (worth £112,445). A number of solutions have been successfully implemented for processing large matrix multiplications, transforms and decompositions for image and signal processing applications. The research carried out during Dr. Amira's PhD project was concerned with an investigation into the design and implementation of a range of matrix algorithms such as matrix multiplication and one-dimensional transforms using a novel custom coprocessor system for MATrix algorithms based on Reconfigurable Computing (RCMAT). New algorithms for matrix multiplication, using both systolic and distributed arithmetic design methodologies have been developed. The architectures developed for matrix multiplication exploit different arithmetic techniques such as bit parallel, bit serial and digit serial design methods. In addition, novel architectures were developed to perform matrix transforms using both systolic and distributed arithmetic design methodologies. These architectures are scalable, modular and require less area and time complexity with reduced latency in comparison with existing structures. One of the most notable achievements of this work was a parallel matrix multiplier developed, outperforming the PAMBlox multiplier developed at Stanford University, USA. Dr. Amira has been invited several times to give talks to Universities and companies in UK and US, including University of Oakland at Michigan State, USA, University of Dundee, Scotland, UK and ANDOR company in Belfast.

Reply to
Abbes Amira
Loading thread data ...

ElectronDepot website is not affiliated with any of the manufacturers or service providers discussed here. All logos and trade names are the property of their respective owners.