Topology optimization of analog circuit design via global optimization using factorization machines with digital annealer

This study delves into the automatic analog circuit design, focusing primarily on topology optimization. Many real-world calculations and evaluations often involve complex and nonlinear problems, posing significant challenges in optimization. Obtaining characteristic values using a simulator can req...

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Main Authors: Masaharu HIDA, Hiroshi IKEDA, Akito MARUO, Masaru SATO, Takashi YAMAZAKI
Format: Article
Language:English
Published: The Japan Society of Mechanical Engineers 2024-10-01
Series:Journal of Advanced Mechanical Design, Systems, and Manufacturing
Subjects:
Online Access:https://www.jstage.jst.go.jp/article/jamdsm/18/6/18_2024jamdsm0076/_pdf/-char/en
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author Masaharu HIDA
Hiroshi IKEDA
Akito MARUO
Masaru SATO
Takashi YAMAZAKI
author_facet Masaharu HIDA
Hiroshi IKEDA
Akito MARUO
Masaru SATO
Takashi YAMAZAKI
author_sort Masaharu HIDA
collection DOAJ
description This study delves into the automatic analog circuit design, focusing primarily on topology optimization. Many real-world calculations and evaluations often involve complex and nonlinear problems, posing significant challenges in optimization. Obtaining characteristic values using a simulator can require significant computational resources, adding to the complexity of these issues. In this paper, we employ an innovative optimization method that employs a factorization machine with a digital annealer (FM-DA) and a genetic algorithm (GA). The result is a global optimization method that integrates local optimization structures into its framework. FM-DA&GA represents a black-box optimization technique, where the input variables are expressed as binary variables. The optimization process is then performed using factorization machines that predict characteristic data. This method has been proven to be highly effective for topology optimization in the design of analog circuits. Furthermore, this method can produce a structure with excellent optimization performance at a less computational cost owing to the use of global optimization.
format Article
id doaj-art-a0fbee23418c48098bd9a121e40fcc89
institution Kabale University
issn 1881-3054
language English
publishDate 2024-10-01
publisher The Japan Society of Mechanical Engineers
record_format Article
series Journal of Advanced Mechanical Design, Systems, and Manufacturing
spelling doaj-art-a0fbee23418c48098bd9a121e40fcc892024-11-28T05:20:32ZengThe Japan Society of Mechanical EngineersJournal of Advanced Mechanical Design, Systems, and Manufacturing1881-30542024-10-01186JAMDSM0076JAMDSM007610.1299/jamdsm.2024jamdsm0076jamdsmTopology optimization of analog circuit design via global optimization using factorization machines with digital annealerMasaharu HIDA0Hiroshi IKEDA1Akito MARUO2Masaru SATO3Takashi YAMAZAKI4Optimization Technology Project, Quantum Laboratory, Fujitsu LimitedOptimization Technology Project, Quantum Laboratory, Fujitsu LimitedTechnology Insight Dep., Global Business Quality Management Office, Fujitsu LimitedAdvanced Sensor Devices Project, Device & Materials Research Center, Fujitsu LimitedOptimization Technology Project, Quantum Laboratory, Fujitsu LimitedThis study delves into the automatic analog circuit design, focusing primarily on topology optimization. Many real-world calculations and evaluations often involve complex and nonlinear problems, posing significant challenges in optimization. Obtaining characteristic values using a simulator can require significant computational resources, adding to the complexity of these issues. In this paper, we employ an innovative optimization method that employs a factorization machine with a digital annealer (FM-DA) and a genetic algorithm (GA). The result is a global optimization method that integrates local optimization structures into its framework. FM-DA&GA represents a black-box optimization technique, where the input variables are expressed as binary variables. The optimization process is then performed using factorization machines that predict characteristic data. This method has been proven to be highly effective for topology optimization in the design of analog circuits. Furthermore, this method can produce a structure with excellent optimization performance at a less computational cost owing to the use of global optimization.https://www.jstage.jst.go.jp/article/jamdsm/18/6/18_2024jamdsm0076/_pdf/-char/enfactorization machinesdigital annealeranalog circuittopology optimizationglobal optimization
spellingShingle Masaharu HIDA
Hiroshi IKEDA
Akito MARUO
Masaru SATO
Takashi YAMAZAKI
Topology optimization of analog circuit design via global optimization using factorization machines with digital annealer
Journal of Advanced Mechanical Design, Systems, and Manufacturing
factorization machines
digital annealer
analog circuit
topology optimization
global optimization
title Topology optimization of analog circuit design via global optimization using factorization machines with digital annealer
title_full Topology optimization of analog circuit design via global optimization using factorization machines with digital annealer
title_fullStr Topology optimization of analog circuit design via global optimization using factorization machines with digital annealer
title_full_unstemmed Topology optimization of analog circuit design via global optimization using factorization machines with digital annealer
title_short Topology optimization of analog circuit design via global optimization using factorization machines with digital annealer
title_sort topology optimization of analog circuit design via global optimization using factorization machines with digital annealer
topic factorization machines
digital annealer
analog circuit
topology optimization
global optimization
url https://www.jstage.jst.go.jp/article/jamdsm/18/6/18_2024jamdsm0076/_pdf/-char/en
work_keys_str_mv AT masaharuhida topologyoptimizationofanalogcircuitdesignviaglobaloptimizationusingfactorizationmachineswithdigitalannealer
AT hiroshiikeda topologyoptimizationofanalogcircuitdesignviaglobaloptimizationusingfactorizationmachineswithdigitalannealer
AT akitomaruo topologyoptimizationofanalogcircuitdesignviaglobaloptimizationusingfactorizationmachineswithdigitalannealer
AT masarusato topologyoptimizationofanalogcircuitdesignviaglobaloptimizationusingfactorizationmachineswithdigitalannealer
AT takashiyamazaki topologyoptimizationofanalogcircuitdesignviaglobaloptimizationusingfactorizationmachineswithdigitalannealer