The purpose of this course is to provide a review of basic principles
of heat transfer and an enhanced perspective on the practical thermal
analysis of heat transfer processes involving conduction, radiation,
and convection.
Who Should Participate
Practicing engineers and other professionals who are concerned with
practical applications involving heat transfer should consider taking
this course.
Special Benefits
Participants will receive Heat Transfer—Professional
Version: Book/Disk Package 2nd ed. (1999) .
Course Coverage
• Basic Concepts: Conduction, Radiation, & Convection
• Practical and Formal Analysis Approaches
• Conduction: One and Multi-Dimensional Heat Transfer
• Convection: Practical Analysis Approach
• Radiation: Review of Practical Analysis Approach
Special attention is given to
• capabilities and limitations
of the practical analysis approach
• establishing a frame of reference for recognizing
conditions for which more advanced
analysis involving the use of numerical methods and
computer codes is required,
featuring lecture-computer workshop sessions using Dr. Thomas’
textbook and supporting heat transfer software.
Instruction
The course is to be taught by Dr. Lindon Thomas and Associates.
Dr. Thomas earned his degrees in mechanical engineering at Tulsa University
(BS) and Kansas State University (PhD) and has served on faculties of
Akron University, University of Tennessee, and University of Petroleum
& Minerals. He has taught undergraduate and graduate heat transfer
courses for over thirty years. His professional contributions include
recent textbooks on heat transfer and numerous journal and conference
publications.
Course Schedule
Lecture - Computer Workshop Sessions
Session I. CONDUCTION
Day 1. INTRODUCTION
• Transport Mechanisms and Laws
• Conduction: Fourier Law of Conduction
• Radiation: Stefan-Boltzmann Law
• Convection: Newton Law of Cooling
• Thermal Resistance Concept
ONE-DIMENSIONAL HEAT TRANSFER
• Plane and Radial Walls
• Energy-Generating Walls
• Finned Walls
• Workshop Examples
Day 2. MULTI-DIMENSIONAL CONDUCTION
• Composite Walls
• Conduction: Mathematical Formulations
• Steady and Unsteady Systems
• Practical Thermal Circuit Method
• Workshop Examples
• Numerical Methods: Introduction
Session II. CONVECTION AND RADIATION
Day 3. CONVECTION
• Characterizing Factors
• Practical Analysis Approach
• Coefficients of Friction and Heat Transfer
• Characteristics of Internal Flow
• Bulk-stream Characteristics
• Forced Convection
• Convection Correlations
Day 4. CONVECTION AND RADIATION
• Practical Thermal Analysis
• Tube Flow
• External Flows
• Flow across Tube Banks
• Workshop Examples
• Practical Numerical Method
• Practical Analysis Approach to Radiation: Review
Course Material
Heat Transfer—Professional Version2e
Lindon Thomas
Thermal Engineering Associates
The Textbook
• is easy to read;
• is comprehensive, covering basic concepts pertaining to conduction,
radiation and convection;
• features a unique approach to the study of convection heat transfer
that separates the theory and the practical analysis
approach and enables the reader to gain a basic understanding of
the key elements of evaluation and design with or without
study of the details of boundary layer theory;
• provides extended coverage of convection, which includes evaluation
of convection coefficients for shell-side flow of shell-and-tube
exchangers and computer analysis of heat exchangers;
• includes many pedagogical advantages such as numerous practical
examples employing consistent methodology and categorical
glossary; and
• is supported by an exclusive heat transfer software package.
Outstanding Academic Title
Choice, American Library Association
“An extremely useful and highly recommended
reference book for all levels, from
introductory to advanced applications.”
Dr. R Darby. Chemical Engineering
Texas A & M University
Heat Transfer—Professional Version2e
Capstone Publishing Corporation
Heat Transfer Software
Wen Wu, Ford Motor Company add
Edward Lumsdaine, Michigan Tech University
The Software
• is easy to use and requires no manual;
• is comprehensive, treating all basic topics covered in the textbook;
• is coordinated with text by chapter and section numbers that
correspond to each topic;
• is integrated with text by the use of actual book examples as
topic cases and by indicating
equation numbers that provide the basis for
solutions developed by software;
• is adaptable, such that the parameters for each topic can be
modified according to the
dictates of the problem under consideration.
• provides quick calculations and simultaneous print-out of dependent
variables;
• features graphical and/or animated output which offers visual
representations of numerous solutions.