Optimum microarchitectures for neuromorphic algorithms
Date of Award
2011
Degree Name
M.S. in Electrical Engineering
Department
Department of Electrical and Computer Engineering
Advisor/Chair
Advisor: Tarek M. Taha
Abstract
At present there is a strong interest in the research community to develop large scale implementations of neuromorphic algorithms. These systems consume significant amounts of power, area, and are very expensive to build. This thesis examines the design space of multicore processors for accelerating neuromorphic algorithms. A new multicore chip will enable more efficient design of large scale neuromorphic computing systems. The algorithms examined in this thesis are the HMAX and Izhikevich models. HMAX was developed recently at MIT to model the visual system of the human brain. The Izhikevich model was presented by Izhikevich as a biologically accurate spiking neuron model. This thesis also examines the parallelization of the HMAX model for studying multicore architectures. The results show the best single core architectures for HMAX and Izhikevich are almost same, though HMAX needs more cache. The multicore study shows that the off chip memory bus width and physical memory latency could improve the performance of the multicore system.
Keywords
Integrated circuits Very large scale integration Design and construction, Neural networks (Computer science) Design and construction
Rights Statement
Copyright © 2011, author
Recommended Citation
Wang, Shu, "Optimum microarchitectures for neuromorphic algorithms" (2011). Graduate Theses and Dissertations. 431.
https://ecommons.udayton.edu/graduate_theses/431