Pipeline Depth Optimization

Pipeline Depth Optimization is a methodological framework in parallel computing that systematically determines the optimal number of pipeline stages to maximize throughput and minimize latency in deep learning model execution.

18

Publications

931

Citations

50

Authors

20

Institutions

Publications per year

2017–2026

2

Authors

50

  1. AH
    A. Hartstein

    IBM Research - Thomas J. Watson Research Center, United States

    4 publications · 297 citations

    4

    h-index

  2. TR
    Thomas R. Puzak

    IBM Research - Thomas J. Watson Research Center, United States

    4 publications · 297 citations

    4

    h-index

  3. MG
    Michael Gschwind

    IBM Research - Thomas J. Watson Research Center, United States

    3 publications · 282 citations

    3

    h-index

  4. PE
    Philip Emma

    IBM Research - Thomas J. Watson Research Center, United States

    3 publications · 282 citations

    3

    h-index

  5. DB
    David Brooks

    Harvard University Press, United States

    3 publications · 282 citations

    3

    h-index

1–5 of 50

Venues

  1. ACM Transactions on Architecture and Code Optimization

    TACO · 2 publications · 39 citations

    2

    h-index

  2. IEEE Transactions on Computers

    2 publications · 84 citations

    2

    h-index

  3. 1

    h-index

  4. ACM SIGARCH Computer Architecture News

    1 publications · 148 citations

    1

    h-index

  5. Circuits and Systems

    CS · 1 publications · 15 citations

    1

    h-index

1–5