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Architecture and Mapping Co-Exploration and Optimization for DNN Accelerators.

紀錄類型:	書目-語言資料,手稿 : Monograph/item
正題名/作者:	Architecture and Mapping Co-Exploration and Optimization for DNN Accelerators./
作者:	Trewin, Benjamin.
面頁冊數:	1 online resource (44 pages)
附註:	Source: Masters Abstracts International, Volume: 85-12.
Contained By:	Masters Abstracts International85-12.
標題:	Computer engineering. -
電子資源:	click for full text (PQDT)
ISBN:	9798383058459

Architecture and Mapping Co-Exploration and Optimization for DNN Accelerators.
Trewin, Benjamin.

Architecture and Mapping Co-Exploration and Optimization for DNN Accelerators. - 1 online resource (44 pages)

Source: Masters Abstracts International, Volume: 85-12.

Thesis (M.S.)--Southern Illinois University at Carbondale, 2024.

Includes bibliographical references

It is extremely difficult to optimize a deep neural network (DNN) accelerator's performance on various networks in terms of energy and/or latency because of the sheer size of the search space. Not only do DNN accelerators have a huge search space of different hardware architecture topologies and characteristics, which may perform better or worse on certain DNNs, but also DNN layers can be mapped to hardware in a huge array of different configurations. Further, an optimal mapping for one DNN architecture is not consistently the same on a different architecture. These two factors depend on one another. Thus there is a need for co-optimization to take place so hardware characteristics and mapping can be optimized simultaneously, to find not only an optimal mapping but also the best architecture for a DNN as well. This work presents Blink, a design space exploration (DSE) tool, which co-optimizes hardware attributes and mapping configurations. This tool enables users to find optimal hardware architectures through the use of a genetic algorithm and further finds optimal mappings for each hardware configuration using a pruned random selection method. Architecture, layers, and mappings are each sent to Timeloop, a DNN accelerator simulator, to obtain accelerator statistics, which are sent back to the genetic algorithm for next population selection. Through this method, novel DNN accelerator solutions can be identified without tackling the computationally massive task of simulating exhaustively.

Electronic reproduction.
Ann Arbor, Mich. :
ProQuest,
2024

Mode of access: World Wide Web

ISBN: 9798383058459Subjects--Topical Terms:

569006
Computer engineering.
Subjects--Index Terms:

Co-optimizationIndex Terms--Genre/Form:

554714
Electronic books.

Architecture and Mapping Co-Exploration and Optimization for DNN Accelerators.
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520 $a It is extremely difficult to optimize a deep neural network (DNN) accelerator's performance on various networks in terms of energy and/or latency because of the sheer size of the search space. Not only do DNN accelerators have a huge search space of different hardware architecture topologies and characteristics, which may perform better or worse on certain DNNs, but also DNN layers can be mapped to hardware in a huge array of different configurations. Further, an optimal mapping for one DNN architecture is not consistently the same on a different architecture. These two factors depend on one another. Thus there is a need for co-optimization to take place so hardware characteristics and mapping can be optimized simultaneously, to find not only an optimal mapping but also the best architecture for a DNN as well. This work presents Blink, a design space exploration (DSE) tool, which co-optimizes hardware attributes and mapping configurations. This tool enables users to find optimal hardware architectures through the use of a genetic algorithm and further finds optimal mappings for each hardware configuration using a pruned random selection method. Architecture, layers, and mappings are each sent to Timeloop, a DNN accelerator simulator, to obtain accelerator statistics, which are sent back to the genetic algorithm for next population selection. Through this method, novel DNN accelerator solutions can be identified without tackling the computationally massive task of simulating exhaustively.
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