\documentstyle[11pt]{article} \setlength{\textheight 8.10in} \setlength{\textwidth 6.5in} \setlength{\oddsidemargin -0.20in} \setlength{\evensidemargin -0.20in} \setlength{\unitlength 1.0cm} \setlength{\topmargin 0.10in} %\topmargin -0.7in \newcounter{equate}[section] \newcommand{\eqnum}{\refstepcounter{equate} \eqno(\thesection.\theequate)} \newtheorem{th}{Theorem} \newtheorem{lem}[th]{Lemma} \newtheorem{cor}[th]{Corollary} \newtheorem{deff}[th]{Definition} \def\qed{\hbox{${\vcenter{\vbox{ \hrule height 0.4pt\hbox{\vrule width 0.4pt height 6pt \kern5pt\vrule width 0.4pt}\hrule height 0.4pt}}}$}} \def\huh{\hbox{\vrule width 2pt height 8pt depth 2pt}} \def\Bbb#1{{\bf #1}} %\def\eqnum#1{\eqno (#1)} \def\fnote#1{\footnote} \def\blacksquare{\hbox{\vrule width 4pt height 4pt depth 0pt}} \def\square{\hbox{\vrule\vbox{\hrule\phantom{o}\hrule}\vrule}} \title{Regular Array for the Solution of Toeplitz System of Linear Equations by Monte Carlo Method} \author{ V.~N.~Alexandrov and G.~Ok\v sa \thanks{Institute for Informatics, Slovak Academy of Sciences, Bratislava, and Nuclear Power Plant Research Institute, Trnava, Slovak Republic. Funded by the Royal Society Postdoctoral Fellowship Scheme.}\\ \small Department of Computer Sciences \\ \small University of Liverpool\\ \small Chadwick Building\\ \small Peach Street\\ \small Liverpool\\ \small L69 7ZF, UK } \date{} \begin{document} \maketitle %------------------------------------------------------------------------------------------------------------- \abstract{ We propose a regular array for solving system of linear algebraic equations with an $n \times n$ Toeplitz diagonally dominant matrix using a Monte Carlo method. The basic array computes a component of the vector solution in $n+N+T$ steps (including input and output time) and $3NT$ cells where $N$ is the number of chains and $T$ is the length of each chain in the stochastic process. A whole solution vector is computed in time $2n+N+T$ in the fully pipelined fashion and requires $3nNT$ cells. A number of bounds on $N$ and $T$ are established which show that our design is faster than existing designs for reasonably large values of $n$. \noindent \vglue10pt {\em Keywords}\/: Toeplitz matrix, Monte Carlo method, System of Linear Algebraic Equations, Regular Array }eywords}\/: Toeplitz matrix, Monte Carlo method, System of Linear Algebraic Equations, Regular Array }eywords}oItsquateag %------------------------------------------------------------------------------------------------------------- \e{\ecument} \