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PRODID:IEEE vTools.Events//EN
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DTSTART:20230312T030000
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DTSTART:20231105T010000
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BEGIN:VEVENT
DTSTAMP:20231121T223024Z
UID:0F714493-D883-4C6C-876A-605AF89F8D84
DTSTART;TZID=America/New_York:20231031T090000
DTEND;TZID=America/New_York:20231031T094500
DESCRIPTION:The unprecedented surge in the scale of network topologies and 
 traffic has fueled a pressing demand for rapid simulation of new network d
 esigns\, prior to both emulation and real-world deployment. However\, conv
 entional network simulation techniques do not scale well\, due to their hi
 gh computational costs and low degrees of parallelism. In response\, netwo
 rk performance estimators have emerged as a promising alternative\, levera
 ging parallel inference of deep neural networks for acceleration. However\
 , these estimators still face challenges in achieving satisfactory scalabi
 lity and generality.\n\nIn this talk\, we introduce some of our recent wor
 k on improving the performance\, scalability and generality of network per
 formance estimation. I will first introduce DeepQueueNet\, our work on usi
 ng deep neural network models to emulate the behaviour of network devices\
 , supporting arbitrary network topologies and device traffic management me
 chanisms. For generating training data samples\, the design and implementa
 tion of DeepQueueNet depended upon our recent work on a new Python-based d
 iscrete event simulator\, which I developed from scratch. Our extensive ex
 periments showed that DeepQueueNet achieved near-linear speedup in the num
 ber of GPUs\, and its estimation accuracy for average and 99th percentile 
 round-trip time outperforms existing end-to-end DNN-based performance esti
 mators. I will conclude the talk with key insights in our ongoing work to 
 improve DeepQueueNet.\n\nSpeaker(s): Baochun Li\n\nNiagara Falls\, Ontario
 \, Canada
LOCATION:Niagara Falls\, Ontario\, Canada
ORGANIZER:rboutaba@uwaterloo.ca
SEQUENCE:14
SUMMARY:Towards Fast\, Scalable and Generalized Network Performance Estimat
 ion
URL;VALUE=URI:https://events.vtools.ieee.org/m/385214
X-ALT-DESC:Description: &lt;br /&gt;&lt;p&gt;The unprecedented surge in the scale of ne
 twork topologies and traffic has fueled a pressing demand for rapid simula
 tion of new network designs\, prior to both emulation and real-world deplo
 yment. However\, conventional network simulation techniques do not scale w
 ell\, due to their high computational costs and low degrees of parallelism
 . In response\, network performance estimators have emerged as a promising
  alternative\, leveraging parallel inference of deep neural networks for a
 cceleration. However\, these estimators still face challenges in achieving
  satisfactory scalability and generality.&lt;/p&gt;\n&lt;p&gt;In this talk\, we introd
 uce some of our recent work on improving the performance\, scalability and
  generality of network performance estimation. I will first introduce Deep
 QueueNet\, our work on using deep neural network models to emulate the beh
 aviour of network devices\, supporting arbitrary network topologies and de
 vice traffic management mechanisms. For generating training data samples\,
  the design and implementation of DeepQueueNet depended upon our recent wo
 rk on a new Python-based discrete event simulator\, which I developed from
  scratch. Our extensive experiments showed that DeepQueueNet achieved near
 -linear speedup in the number of GPUs\, and its estimation accuracy for av
 erage and 99th percentile round-trip time outperforms existing end-to-end 
 DNN-based performance estimators. I will conclude the talk with key insigh
 ts in our ongoing work to improve DeepQueueNet.&lt;/p&gt;
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