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DTSTART:20190216T230000
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DTSTART;TZID=America/Sao_Paulo:20210910T133000
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DESCRIPTION:Abstract:\n\nIn recent years\, Deep Neural Networks (DNNs) have
  made inroads into a number of applications involving pattern recognition 
 ranging from facial recognition to self-driving cars. Many of these applic
 ations\, such as self-driving cars\, have real-time requirements\, where s
 pecialized DNN hardware accelerators help meet those requirements. As the 
 models become more capable\, they also become deeper and more complex\, le
 ading to increased computational and storage demands. Model pruning and da
 ta quantization are two effective methods for mitigating this demand by co
 mpressing the network and simplifying computation. As hardware accelerator
 s push the performance envelope while adhering to strict power constraints
 \, reliability is frequently a casualty. In particular\, power-constrained
  DNN accelerators are more vulnerable to transient and intermittent hardwa
 re faults due to particle hits\, manufacturing variations\, and fluctuatio
 ns in power supply voltage and temperature. In this talk\, we will discuss
  reliability of DNNs from various design perspectives and share results fr
 om recent improvements.\n\nShort Bio:\n\nSandip Kundu is a Professor of El
 ectrical and Computer Engineering at the University of Massachusetts Amher
 st. Recently\, he also served as a program director at the National Scienc
 e Foundation. Kundu began his career at IBM Research as a Research Staff M
 ember\; then worked at Intel Corporation as a Principal Engineer before jo
 ining UMass Amherst as a professor in 2005. He has published nearly 300 re
 search papers in VLSI design and test\, holds several key patents includin
 g ultra-drowsy sleep mode in processors\, and has given more than a dozen 
 tutorials at various conferences. He is a Fellow of the IEEE\, Fellow of t
 he Japan Society for Promotion of Science (JSPS)\, Senior International Sc
 ientist of the Chinese Academy of Sciences and was a Distinguished Visitor
  of the IEEE Computer Society. He has served as associate editor of a numb
 er of IEEE and ACM journals. He has been the Technical Program Chair/Gener
 al Chair of multiple conferences including ICCD\, ATS\, ISVLSI\, DFTS and 
 VLSI Design.\n\nVirtual: https://events.vtools.ieee.org/m/279993
LOCATION:Virtual: https://events.vtools.ieee.org/m/279993
ORGANIZER:jose.azambuja@inf.ufrgs.br
SEQUENCE:1
SUMMARY:CASS Talks with Sandip Kundu\, University of Massachusetts Amherst\
 , USA
URL;VALUE=URI:https://events.vtools.ieee.org/m/279993
X-ALT-DESC:Description: &lt;br /&gt;&lt;p&gt;&amp;nbsp\;&lt;/p&gt;\n&lt;p&gt;&amp;nbsp\;&lt;/p&gt;\n&lt;p&gt;Abstract:&lt;
 /p&gt;\n&lt;p&gt;In recent years\, Deep Neural Networks (DNNs) have made inroads in
 to a number of&amp;nbsp\;applications involving pattern recognition ranging fr
 om facial recognition to self-driving cars.&amp;nbsp\;Many of these applicatio
 ns\, such as self-driving cars\, have real-time requirements\, where&amp;nbsp\
 ;specialized DNN hardware accelerators help meet those requirements. As th
 e models&amp;nbsp\;become more capable\, they also become deeper and more comp
 lex\, leading to increased&amp;nbsp\;computational and storage demands. Model 
 pruning and data quantization are two effective&amp;nbsp\;methods for mitigati
 ng this demand by compressing the network and simplifying&amp;nbsp\;computatio
 n. As hardware accelerators push the performance envelope while adhering t
 o&amp;nbsp\;strict power constraints\, reliability is frequently a casualty. I
 n particular\, power-constrained&amp;nbsp\;DNN accelerators are more vulnerabl
 e to transient and intermittent hardware faults due to&amp;nbsp\;particle hits
 \, manufacturing variations\, and fluctuations in power supply voltage and
 &amp;nbsp\;temperature. In this talk\, we will discuss reliability of DNNs fro
 m various design&amp;nbsp\;perspectives and share results from recent improvem
 ents.&amp;nbsp\;&lt;/p&gt;\n&lt;p&gt;Short Bio:&amp;nbsp\;&lt;/p&gt;\n&lt;p&gt;Sandip&amp;nbsp\;&lt;span class=&quot;m
 arkbufuz89as&quot; data-markjs=&quot;true&quot; data-ogac=&quot;&quot; data-ogab=&quot;&quot; data-ogsc=&quot;&quot; da
 ta-ogsb=&quot;&quot;&gt;Kundu&lt;/span&gt;&amp;nbsp\;is a Professor of Electrical and Computer En
 gineering at the University of&amp;nbsp\;Massachusetts Amherst. Recently\, he 
 also served as a program director at the National&amp;nbsp\;Science Foundation
 .&amp;nbsp\;&lt;span class=&quot;markbufuz89as&quot; data-markjs=&quot;true&quot; data-ogac=&quot;&quot; data-o
 gab=&quot;&quot; data-ogsc=&quot;&quot; data-ogsb=&quot;&quot;&gt;Kundu&lt;/span&gt;&amp;nbsp\;began his career at IB
 M Research as a Research Staff Member\;&amp;nbsp\;then worked at Intel Corpora
 tion as a Principal Engineer before joining UMass Amherst as a&amp;nbsp\;profe
 ssor in 2005. He has published nearly 300 research papers in VLSI design a
 nd test\,&amp;nbsp\;holds several key patents including ultra-drowsy sleep mod
 e in processors\, and has given&amp;nbsp\;more than a dozen tutorials at vario
 us conferences. He is a Fellow of the IEEE\, Fellow of the&amp;nbsp\;Japan Soc
 iety for Promotion of Science (JSPS)\, Senior International Scientist of t
 he Chinese&amp;nbsp\;Academy of Sciences and was a Distinguished Visitor of th
 e IEEE Computer Society. He has&amp;nbsp\;served as associate editor of a numb
 er of IEEE and ACM journals. He has been the Technical&amp;nbsp\;Program Chair
 /General Chair of multiple conferences including ICCD\, ATS\, ISVLSI\, DFT
 S&amp;nbsp\;and VLSI Design.&lt;/p&gt;
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