Design of Posynomial Models for Mosfets: Symbolic
Regression Using Genetic Algorithms
V. Aggarwal, and U. O'Reilly. Genetic Programming Theory and Practice IV, volume 5 of Genetic and Evolutionary Computation, chapter 7, Springer, Ann Arbor, (11-13 May 2006)
Abstract
Starting from a broad description of analogue circuit
design in terms of topology design and sizing, we
discuss the difficulties of sizing and describe
approaches that are manual or automatic. These
approaches make use of blackbox optimisation techniques
such as evolutionary algorithms or convex optimization
techniques such as geometric programming. Geometric
programming requires posynomial expressions for a
circuit's performance measurements. We show how a
genetic algorithm can be exploited to evolve a
polynomial expression (i.e. model) of transistor (i.e.
mosfet) behaviour more accurately than statistical
techniques in the literature.
%0 Book Section
%1 Aggarwal:2006:GPTP
%A Aggarwal, Varun
%A O'Reilly, Una-May
%B Genetic Programming Theory and Practice IV
%C Ann Arbor
%D 2006
%E Riolo, Rick L.
%E Soule, Terence
%E Worzel, Bill
%I Springer
%K algorithms, circuit genetic geometric models, posynomial programming programming, regression, sizing, symbolic
%P -
%T Design of Posynomial Models for Mosfets: Symbolic
Regression Using Genetic Algorithms
%U http://people.csail.mit.edu/unamay/publications-dir/gptp06.pdf
%V 5
%X Starting from a broad description of analogue circuit
design in terms of topology design and sizing, we
discuss the difficulties of sizing and describe
approaches that are manual or automatic. These
approaches make use of blackbox optimisation techniques
such as evolutionary algorithms or convex optimization
techniques such as geometric programming. Geometric
programming requires posynomial expressions for a
circuit's performance measurements. We show how a
genetic algorithm can be exploited to evolve a
polynomial expression (i.e. model) of transistor (i.e.
mosfet) behaviour more accurately than statistical
techniques in the literature.
%& 7
%@ 0-387-33375-4
@incollection{Aggarwal:2006:GPTP,
abstract = {Starting from a broad description of analogue circuit
design in terms of topology design and sizing, we
discuss the difficulties of sizing and describe
approaches that are manual or automatic. These
approaches make use of blackbox optimisation techniques
such as evolutionary algorithms or convex optimization
techniques such as geometric programming. Geometric
programming requires posynomial expressions for a
circuit's performance measurements. We show how a
genetic algorithm can be exploited to evolve a
polynomial expression (i.e. model) of transistor (i.e.
mosfet) behaviour more accurately than statistical
techniques in the literature.},
added-at = {2008-06-19T17:35:00.000+0200},
address = {Ann Arbor},
author = {Aggarwal, Varun and O'Reilly, Una-May},
biburl = {https://www.bibsonomy.org/bibtex/2612339d955c5e836cdbcfa6fde1a0700/brazovayeye},
booktitle = {Genetic Programming Theory and Practice {IV}},
chapter = 7,
editor = {Riolo, Rick L. and Soule, Terence and Worzel, Bill},
interhash = {f7b6b77f67f90184292c971e809d52ca},
intrahash = {612339d955c5e836cdbcfa6fde1a0700},
isbn = {0-387-33375-4},
keywords = {algorithms, circuit genetic geometric models, posynomial programming programming, regression, sizing, symbolic},
month = {11-13 May},
notes = {part of \cite{Riolo:2006:GPTP} Published Jan 2007
after the workshop},
pages = {-},
publisher = {Springer},
series = {Genetic and Evolutionary Computation},
size = {19 pages},
timestamp = {2008-06-19T17:35:15.000+0200},
title = {Design of Posynomial Models for Mosfets: Symbolic
Regression Using Genetic Algorithms},
url = {http://people.csail.mit.edu/unamay/publications-dir/gptp06.pdf},
volume = 5,
year = 2006
}