Compiling Probabilistic, Bio-Inspired Circuits on a Field Programmable Analog Array

A field programmable analog array (FPAA) is presented as an energy efficiency engine: a mixed mode processor for which functions can be compiled at significantly less energy costs using noisy computing circuits. More specifically, it will be shown that the core computation of any dynamical system c...

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Main Authors: H. Bo eMarr, Jennifer eHasler
Format: Article
Language:English
Published: Frontiers Media S.A. 2014-05-01
Series:Frontiers in Neuroscience
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fnins.2014.00086/full
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author H. Bo eMarr
Jennifer eHasler
author_facet H. Bo eMarr
Jennifer eHasler
author_sort H. Bo eMarr
collection DOAJ
description A field programmable analog array (FPAA) is presented as an energy efficiency engine: a mixed mode processor for which functions can be compiled at significantly less energy costs using noisy computing circuits. More specifically, it will be shown that the core computation of any dynamical system can be computed on the FPAA at significantly less energy per operation than a digital implementation. A dynamically controllable stochastic system is implemented, which computes Bernoulli random variables, exponentially distributed random variables, and allows for random variables of an arbitrary distribution to be computed. The utility of this system is demonstrated by implementing the well-known Gillespie algorithm for calculating the trajectory of an arbitrary biological system where over a $127X$ performance improvement over current software approaches is shown. The relevance of this approach is extended to any dynamical system. The initial circuits and ideas for this work were generated at the 2008 Telluride Neuromorphic Workshop.
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spelling doaj.art-b93949653a4649edb24e1d33f293f9872022-12-21T23:34:47ZengFrontiers Media S.A.Frontiers in Neuroscience1662-453X2014-05-01810.3389/fnins.2014.0008670872Compiling Probabilistic, Bio-Inspired Circuits on a Field Programmable Analog ArrayH. Bo eMarr0Jennifer eHasler1RaytheonGeorgia Institute of TechnologyA field programmable analog array (FPAA) is presented as an energy efficiency engine: a mixed mode processor for which functions can be compiled at significantly less energy costs using noisy computing circuits. More specifically, it will be shown that the core computation of any dynamical system can be computed on the FPAA at significantly less energy per operation than a digital implementation. A dynamically controllable stochastic system is implemented, which computes Bernoulli random variables, exponentially distributed random variables, and allows for random variables of an arbitrary distribution to be computed. The utility of this system is demonstrated by implementing the well-known Gillespie algorithm for calculating the trajectory of an arbitrary biological system where over a $127X$ performance improvement over current software approaches is shown. The relevance of this approach is extended to any dynamical system. The initial circuits and ideas for this work were generated at the 2008 Telluride Neuromorphic Workshop.http://journal.frontiersin.org/Journal/10.3389/fnins.2014.00086/fullbio-inspiredFPAAprobability theoryReconfigurable AnalogHardware Acceleratorbiological computational model
spellingShingle H. Bo eMarr
Jennifer eHasler
Compiling Probabilistic, Bio-Inspired Circuits on a Field Programmable Analog Array
Frontiers in Neuroscience
bio-inspired
FPAA
probability theory
Reconfigurable Analog
Hardware Accelerator
biological computational model
title Compiling Probabilistic, Bio-Inspired Circuits on a Field Programmable Analog Array
title_full Compiling Probabilistic, Bio-Inspired Circuits on a Field Programmable Analog Array
title_fullStr Compiling Probabilistic, Bio-Inspired Circuits on a Field Programmable Analog Array
title_full_unstemmed Compiling Probabilistic, Bio-Inspired Circuits on a Field Programmable Analog Array
title_short Compiling Probabilistic, Bio-Inspired Circuits on a Field Programmable Analog Array
title_sort compiling probabilistic bio inspired circuits on a field programmable analog array
topic bio-inspired
FPAA
probability theory
Reconfigurable Analog
Hardware Accelerator
biological computational model
url http://journal.frontiersin.org/Journal/10.3389/fnins.2014.00086/full
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