Incremental Power Grid Verification

Verification of the on-die power grid is a key step in the design of complex high performance integrated circuits. For the very large grids in modern designs, incremental verification is highly desirable, because it allows one to skip the verification of a certain section of the grid (internal nodes...

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Bibliographic Details
Main Author: Abhishek
Other Authors: Najm, Farid N.
Language:en_ca
Published: 2012
Subjects:
EDA
Online Access:http://hdl.handle.net/1807/33311
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spelling ndltd-LACETR-oai-collectionscanada.gc.ca-OTU.1807-333112013-11-02T03:43:50ZIncremental Power Grid VerificationAbhishekEDAPower Grid Verification0544Verification of the on-die power grid is a key step in the design of complex high performance integrated circuits. For the very large grids in modern designs, incremental verification is highly desirable, because it allows one to skip the verification of a certain section of the grid (internal nodes) and instead, verify only the rest of the grid (external nodes). The focus of this work is to develop efficient techniques for incremental verification in the context of vectorless constraints-based grid verification, under dynamic conditions. The traditional difficulty is that the dynamic case requires iterative analysis of both the internal and the external sections. A solution in the transient case is provided through two key contributions: 1) a bound on the internal nodes’ voltages is developed that eliminates the need for iterative analysis, and 2) a multi-port Norton approach is used to construct a reduced macromodel for the internal section.Najm, Farid N.2012-112012-11-20T20:33:06ZNO_RESTRICTION2012-11-20T20:33:06Z2012-11-20Thesishttp://hdl.handle.net/1807/33311en_ca
collection NDLTD
language en_ca
sources NDLTD
topic EDA
Power Grid Verification
0544
spellingShingle EDA
Power Grid Verification
0544
Abhishek
Incremental Power Grid Verification
description Verification of the on-die power grid is a key step in the design of complex high performance integrated circuits. For the very large grids in modern designs, incremental verification is highly desirable, because it allows one to skip the verification of a certain section of the grid (internal nodes) and instead, verify only the rest of the grid (external nodes). The focus of this work is to develop efficient techniques for incremental verification in the context of vectorless constraints-based grid verification, under dynamic conditions. The traditional difficulty is that the dynamic case requires iterative analysis of both the internal and the external sections. A solution in the transient case is provided through two key contributions: 1) a bound on the internal nodes’ voltages is developed that eliminates the need for iterative analysis, and 2) a multi-port Norton approach is used to construct a reduced macromodel for the internal section.
author2 Najm, Farid N.
author_facet Najm, Farid N.
Abhishek
author Abhishek
author_sort Abhishek
title Incremental Power Grid Verification
title_short Incremental Power Grid Verification
title_full Incremental Power Grid Verification
title_fullStr Incremental Power Grid Verification
title_full_unstemmed Incremental Power Grid Verification
title_sort incremental power grid verification
publishDate 2012
url http://hdl.handle.net/1807/33311
work_keys_str_mv AT abhishek incrementalpowergridverification
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