SUSTAINABLE DEVELOPMENT
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Thermal treatment of materials occupies a significant, increasing proportion of MSE activity and is an integral component of modern curricula as well as a highly monetized co… Read more
SUSTAINABLE DEVELOPMENT
Save up to 30% on top Physical Sciences & Engineering titles!
Thermal treatment of materials occupies a significant, increasing proportion of MSE activity and is an integral component of modern curricula as well as a highly monetized component of industrial production. Laser processing of materials offers advantages over conventional methods of processing. Some of these advantages include fast processing, precision of operation, low cost and local treatment. Analytical modeling of laser processing gives insight into the physical and mathematical aspects of the problem and provides useful information on process optimization. This work from Professor Yilbas, a world-recognized expert in laser materials processing, provides the necessary depth and weight of analysis, collating mathematical and physical modeling and experimentation with the necessary discussion of applications. It meets coherence in topics with high technical quality. It encompasses the basics of laser processing and provides an introduction to analytical modeling of the process. Fundamentals and formulation of the heating process are presented for numerous heating conditions.
Academicians, researchers, engineers, and graduate students. This book will be written for materials processing specialists, be they graduate students, faculty from academic institutions and those who work on lasers in industry. The lowest academic level required is B.Sc./BEng (Bachelor of Science or Engineer)
Dedication
Preface
Acknowledgement
Chapter 1. Introduction to Laser Heating Process
REFERENCES
Chapter 2. Conduction-Limited Laser Pulsed Laser Heating
2.1 Introduction to Heat Generation Due to Absorption of Incident Laser Beam
2.2 Temperature Field Due to Laser Step Input Pulse Heating
2.3 Thermal Efficiency of Heating Process
2.4 Results and Discussion
REFERENCES
Chapter 3. Nonconduction-Limited Pulsed Laser Heating
3.1 Introduction to Nonconduction-Limited Heating
3.2 Step Input Pulse Heating: Melting and Evaporation at the Surface
3.3 Exponential Pulse Heating: Evaporation at the Surface
3.4 Time Integration of Heating
3.5 Two-Dimensional Heating
3.6 Entropy Generation Due to Laser Pulse Heating
3.7 Results and Discussion
REFERENCES
Chapter 4. Laser Cutting Process
4.1 Introduction to Laser Cutting
4.2 Closed-Form Solution to Laser Cutting Process
4.3 Lump Parameter Analysis for Cutting Process
4.4 Analysis for Heat Transfer to Liquid Metals with the Presence of Assisting Gas
4.5 Results and Discussion
REFERENCES
Chapter 5. Thermal Stress Analysis
5.1 Introduction
5.2 Step Input Pulse and Thermal Stress
5.3 Exponential Pulse Heating and Thermal Stress
5.4 Exponential Pulse Heating and Thermal Stresses – Elasto-Plastic Analysis
5.5 Thermal Stress and Entropy Generation Due to Exponential Pulse Heating
5.6 Results and Discussion
REFERENCES
Chapter 6. Laser Short-Pulse Heating
6.1 Introduction to Nonequilibrium Heating
6.2 Exact Solution of Cattaneo’s Equation
6.3 Laser Short-Pulse Heating and Application of Perturbation Method
6.4 Application of Symmetries and Similarity Transformation to Laser Short-Pulse Heating
6.5 Application of Lie Point Symmetry Solution to Laser Short-Pulse Heating
6.6 Results and Discussion
REFERENCES
Index
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