Title page for ETD etd-020199-095313


Type of Document Master's Thesis
Author Camphouse, Russell C.
Author's Email Address rcamphou@math.vt.edu
URN etd-020199-095313
Title Approximations and Object-Oriented Implementation for a Parabolic Partial Differential Equation
Degree Master of Science
Department Mathematics
Advisory Committee
Advisor Name Title
John Burns Committee Chair
Gene Cliff Committee Member
Jeff Borggaard Committee Member
Terry Herdman Committee Member
Keywords
  • semi-discrete
  • finite difference
  • parabolic partial differential equation
  • object-oriented programming
Date of Defense 1999-01-27
Availability unrestricted
Abstract
This work is a numerical study of the 2-D heat

equation with Dirichlet boundary

conditions over a polygonal domain.

The motivation for this study is a chemical

vapor deposition (CVD) reactor in

which a substrate is heated while being exposed

to a gas containing

precursor molecules. The interaction between

the gas and the substrate results

in the deposition of a compound thin film

on the substrate.

Two different numerical approximations are

implemented to produce numerical

solutions describing the conduction of thermal

energy in the reactor.

The first method used is a Crank-Nicholson finite

difference technique which

tranforsm the 2-D heat equation into an

algebraic system of equations. For the second

method, a semi-discrete method is

used

which transforms the partial differential

equation into a system of ordinary

differential equations.

The goal of this work is to investigate the

influence of boundary conditions,

domain geometry, and initial condition on thermal

conduction

throughout the reactor. Once insight is gained

with respect to the

aforementioned conditions, optimal design and

control can be investigated. This work

represents a first step in our long term goal of

developing optimal design and control of such

CVD systems. This work has been funded through

Partnerships in Research Excellence and

Transition (PRET) grant number F49620-96-1-0329.

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