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Journal ArticleDOI

A neural network modeling approach to circuit optimization and statistical design

TLDR
This paper presents a new approach to microwave circuit optimization and statistical design featuring neural network models at either device or circuit levels, which has the capability to handle high-dimensional and highly nonlinear problems.
Abstract
The trend of using accurate models such as physics-based FET models, coupled with the demand for yield optimization results in a computationally challenging task. This paper presents a new approach to microwave circuit optimization and statistical design featuring neural network models at either device or circuit levels. At the device level, the neural network represents a physics-oriented FET model yet without the need to solve device physics equations repeatedly during optimization. At the circuit level, the neural network speeds up optimization by replacing repeated circuit simulations. This method is faster than direct optimization of original device and circuit models. Compared to existing polynomial or table look-up models used in analysis and optimization, the proposed approach has the capability to handle high-dimensional and highly nonlinear problems. >

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Citations
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Proceedings ArticleDOI

Neural based dynamic modeling of nonlinear microwave circuits

TL;DR: In this article, a neural network formulation for modeling nonlinear microwave circuits is achieved in the most desirable format, i.e., continuous time-domain dynamic system format, without having to rely on internal details of the circuit.
Journal ArticleDOI

Yield‐driven electromagnetic optimization via space mapping‐based neuromodels

TL;DR: In this article, an efficient procedure to realize electromagnetics-based yield optimization and statistical analysis of microwave structures using space mapping-based neuromodels is proposed, illustrated by the EM-based statistical analysis and yield optimization of a high temperature superconducting (HTS) microstrip filter.
Journal ArticleDOI

Study on a Fast Solver for Poisson’s Equation Based on Deep Learning Technique

TL;DR: It is shown that deep neural networks have a good learning capacity for numerical simulations, which could help to build some fast solvers for some computational electromagnetic problems.
Journal ArticleDOI

High-Frequency Characteristic Fluctuations of Nano-MOSFET Circuit Induced by Random Dopants

TL;DR: In this article, the discrete-dopant-induced high-frequency characteristic fluctuation of 16-nm-gate metal-oxide-semiconductor field effect transistors (MOSFET) circuit under high frequency regime is quantitatively studied.
References
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Journal ArticleDOI

An introduction to computing with neural nets

TL;DR: This paper provides an introduction to the field of artificial neural nets by reviewing six important neural net models that can be used for pattern classification and exploring how some existing classification and clustering algorithms can be performed using simple neuron-like components.
Journal ArticleDOI

A piecewise harmonic balance technique for determination of periodic response of nonlinear systems

TL;DR: In this paper, a new method for the solution of nonlinear periodic networks has been developed, where the network is decomposed into a minimum number of linear and nonlinear subnetworks.
Journal ArticleDOI

State of the art and present trends in nonlinear microwave CAD techniques

TL;DR: A survey of modern nonlinear CAD techniques as applied to the specific field of microwave circuits shows that the various subjects are not just separate items, but rather can be chained in a strictly logical sequence.
Journal ArticleDOI

Circuit optimization: the state of the art

TL;DR: A unified hierarchical treatment of circuit models forms the basis of the presentation, and the concepts of design centering, tolerance assignment, and postproduction tuning in relation to yield enhancement and cost reduction suitable for integrated circuits are discussed.
Journal ArticleDOI

Nonlinear circuit analysis using the method of harmonic balance—A review of the art. Part I. Introductory concepts

TL;DR: The harmonic balance method is a technique for the numerical solution of nonlinear analog circuits operating in a periodic, or quasi-periodic, steady-state regime as mentioned in this paper, which can be used to efficiently derive the continuous-wave response of numerous nonlinear microwave components including amplifiers, mixers, and oscillators.