This second edition adds 46 new problems, for a total of 203. The solutions to certain “old” problems have been revised for improved clarity, in response to questions and comments from our students (second-year students in the Master’s in Physics program). Each problem is given a title indicating its relation to the various areas of physics or technology. By tackling the problems presented here, students are gently introduced to advanced topics such as unipolar and homopolar motors, magnetic monopoles, radiation pressure, angular momentum of light, bulk and surface plasmons, and radiation friction. We also address a number of tricky concepts and apparent ambiguities and paradoxes encountered in the classical theory of electromagnetism, with a particular focus on conservation laws and transformation properties between different frames of reference. At the same time, the book can be used as an introduction to applications of classical electromagnetism including cutting-edge topics like plasmonics, metamaterials, and light-driven propulsion. While unnecessary mathematical complexity is avoided, the new edition also provides a few introductory examples concerning elegant and powerful solution techniques. Hopefully the second edition offers an even better teaching tool for undergraduates in physics, mathematics, and electric engineering, and a valuable reference guide for students planning to work in optics, material science, electronics, and plasma physics.

This second edition adds 46 new problems, for a total of 203. The solutions to certain “old” problems have been revised for improved clarity, in response to questions and comments from our students (second-year students in the Master’s in Physics program). Each problem is given a title indicating its relation to the various areas of physics or technology. By tackling the problems presented here, students are gently introduced to advanced topics such as unipolar and homopolar motors, magnetic monopoles, radiation pressure, angular momentum of light, bulk and surface plasmons, and radiation friction. We also address a number of tricky concepts and apparent ambiguities and paradoxes encountered in the classical theory of electromagnetism, with a particular focus on conservation laws and transformation properties between different frames of reference. At the same time, the book can be used as an introduction to applications of classical electromagnetism including cutting-edge topics like plasmonics, metamaterials, and light-driven propulsion. While unnecessary mathematical complexity is avoided, the new edition also provides a few introductory examples concerning elegant and powerful solution techniques. Hopefully the second edition offers an even better teaching tool for undergraduates in physics, mathematics, and electric engineering, and a valuable reference guide for students planning to work in optics, material science, electronics, and plasma physics.

This second edition adds 46 new problems, for a total of 203. The solutions to certain “old” problems have been revised for improved clarity, in response to questions and comments from our students (second-year students in the Master’s in Physics program). Each problem is given a title indicating its relation to the various areas of physics or technology. By tackling the problems presented here, students are gently introduced to advanced topics such as unipolar and homopolar motors, magnetic monopoles, radiation pressure, angular momentum of light, bulk and surface plasmons, and radiation friction. We also address a number of tricky concepts and apparent ambiguities and paradoxes encountered in the classical theory of electromagnetism, with a particular focus on conservation laws and transformation properties between different frames of reference. At the same time, the book can be used as an introduction to applications of classical electromagnetism including cutting-edge topics like plasmonics, metamaterials, and light-driven propulsion. While unnecessary mathematical complexity is avoided, the new edition also provides a few introductory examples concerning elegant and powerful solution techniques. Hopefully the second edition offers an even better teaching tool for undergraduates in physics, mathematics, and electric engineering, and a valuable reference guide for students planning to work in optics, material science, electronics, and plasma physics.

This 2nd edition offers an introduction to the field of superintense laser-plasma interactions, a domain that has unlocked new regimes of scientific inquiry and technological advancement. By focusing on fundamental models and illustrative examples, this second edition serves as an essential primer for those seeking to understand the complexities of laser-plasma dynamics without requiring prior knowledge of plasma physics.Key concepts such as the pressure of light, radiation friction, and nonlinear relativistic dynamics are examined providing readers with a basic framework for understanding the subject. The book delves into laser-plasma based electron and ion acceleration, offering an insight into the potential for groundbreaking applications in radiation sources and high field studies. This edition also introduces some new topics reflecting the latest advancements in the field, including an outlook to the quantum regime of strong field interactions.Ideal for students, researchers, and professionals in physics and engineering, this book is a valuable resource for anyone interested in the cutting-edge science of laser-plasma interactions. Whether used as a textbook, a quick reference, or an accessible introduction, it equips readers with the knowledge to navigate and contribute to this dynamic area of research.

This 2nd edition offers an introduction to the field of superintense laser-plasma interactions, a domain that has unlocked new regimes of scientific inquiry and technological advancement. By focusing on fundamental models and illustrative examples, this second edition serves as an essential primer for those seeking to understand the complexities of laser-plasma dynamics without requiring prior knowledge of plasma physics.Key concepts such as the pressure of light, radiation friction, and nonlinear relativistic dynamics are examined providing readers with a basic framework for understanding the subject. The book delves into laser-plasma based electron and ion acceleration, offering an insight into the potential for groundbreaking applications in radiation sources and high field studies. This edition also introduces some new topics reflecting the latest advancements in the field, including an outlook to the quantum regime of strong field interactions.Ideal for students, researchers, and professionals in physics and engineering, this book is a valuable resource for anyone interested in the cutting-edge science of laser-plasma interactions. Whether used as a textbook, a quick reference, or an accessible introduction, it equips readers with the knowledge to navigate and contribute to this dynamic area of research.

This book contains 157 problems in classical electromagnetism, most of them new and original compared to those found in other textbooks. Each problem is presented with a title in order to highlight its inspiration in different areas of physics or technology, so that the book is also a survey of historical discoveries and applications of classical electromagnetism. The solutions are complete and include detailed discussions, which take into account typical questions and mistakes by the students. Without unnecessary mathematical complexity, the problems and related discussions introduce the student to advanced concepts such as unipolar and homopolar motors, magnetic monopoles, radiation pressure, angular momentum of light, bulk and surface plasmons, radiation friction, as well as to tricky concepts and ostensible ambiguities or paradoxes related to the classical theory of the electromagnetic field. With this approach the book is both a teaching tool for undergraduates in physics, mathematics and electric engineering, and a reference for students wishing to work in optics, material science, electronics, plasma physics.

This second edition adds 46 new problems, for a total of 203. The solutions to certain “old” problems have been revised for improved clarity, in response to questions and comments from our students (second-year students in the Master’s in Physics program). Each problem is given a title indicating its relation to the various areas of physics or technology. By tackling the problems presented here, students are gently introduced to advanced topics such as unipolar and homopolar motors, magnetic monopoles, radiation pressure, angular momentum of light, bulk and surface plasmons, and radiation friction. We also address a number of tricky concepts and apparent ambiguities and paradoxes encountered in the classical theory of electromagnetism, with a particular focus on conservation laws and transformation properties between different frames of reference. At the same time, the book can be used as an introduction to applications of classical electromagnetism including cutting-edge topics like plasmonics, metamaterials, and light-driven propulsion. While unnecessary mathematical complexity is avoided, the new edition also provides a few introductory examples concerning elegant and powerful solution techniques. Hopefully the second edition offers an even better teaching tool for undergraduates in physics, mathematics, and electric engineering, and a valuable reference guide for students planning to work in optics, material science, electronics, and plasma physics.

This second edition adds 46 new problems, for a total of 203. The solutions to certain “old” problems have been revised for improved clarity, in response to questions and comments from our students (second-year students in the Master’s in Physics program). Each problem is given a title indicating its relation to the various areas of physics or technology. By tackling the problems presented here, students are gently introduced to advanced topics such as unipolar and homopolar motors, magnetic monopoles, radiation pressure, angular momentum of light, bulk and surface plasmons, and radiation friction. We also address a number of tricky concepts and apparent ambiguities and paradoxes encountered in the classical theory of electromagnetism, with a particular focus on conservation laws and transformation properties between different frames of reference. At the same time, the book can be used as an introduction to applications of classical electromagnetism including cutting-edge topics like plasmonics, metamaterials, and light-driven propulsion. While unnecessary mathematical complexity is avoided, the new edition also provides a few introductory examples concerning elegant and powerful solution techniques. Hopefully the second edition offers an even better teaching tool for undergraduates in physics, mathematics, and electric engineering, and a valuable reference guide for students planning to work in optics, material science, electronics, and plasma physics.

This second edition adds 46 new problems, for a total of 203. The solutions to certain “old” problems have been revised for improved clarity, in response to questions and comments from our students (second-year students in the Master’s in Physics program). Each problem is given a title indicating its relation to the various areas of physics or technology. By tackling the problems presented here, students are gently introduced to advanced topics such as unipolar and homopolar motors, magnetic monopoles, radiation pressure, angular momentum of light, bulk and surface plasmons, and radiation friction. We also address a number of tricky concepts and apparent ambiguities and paradoxes encountered in the classical theory of electromagnetism, with a particular focus on conservation laws and transformation properties between different frames of reference. At the same time, the book can be used as an introduction to applications of classical electromagnetism including cutting-edge topics like plasmonics, metamaterials, and light-driven propulsion. While unnecessary mathematical complexity is avoided, the new edition also provides a few introductory examples concerning elegant and powerful solution techniques. Hopefully the second edition offers an even better teaching tool for undergraduates in physics, mathematics, and electric engineering, and a valuable reference guide for students planning to work in optics, material science, electronics, and plasma physics.

This 2nd edition offers an introduction to the field of superintense laser-plasma interactions, a domain that has unlocked new regimes of scientific inquiry and technological advancement. By focusing on fundamental models and illustrative examples, this second edition serves as an essential primer for those seeking to understand the complexities of laser-plasma dynamics without requiring prior knowledge of plasma physics.Key concepts such as the pressure of light, radiation friction, and nonlinear relativistic dynamics are examined providing readers with a basic framework for understanding the subject. The book delves into laser-plasma based electron and ion acceleration, offering an insight into the potential for groundbreaking applications in radiation sources and high field studies. This edition also introduces some new topics reflecting the latest advancements in the field, including an outlook to the quantum regime of strong field interactions.Ideal for students, researchers, and professionals in physics and engineering, this book is a valuable resource for anyone interested in the cutting-edge science of laser-plasma interactions. Whether used as a textbook, a quick reference, or an accessible introduction, it equips readers with the knowledge to navigate and contribute to this dynamic area of research.

This 2nd edition offers an introduction to the field of superintense laser-plasma interactions, a domain that has unlocked new regimes of scientific inquiry and technological advancement. By focusing on fundamental models and illustrative examples, this second edition serves as an essential primer for those seeking to understand the complexities of laser-plasma dynamics without requiring prior knowledge of plasma physics.Key concepts such as the pressure of light, radiation friction, and nonlinear relativistic dynamics are examined providing readers with a basic framework for understanding the subject. The book delves into laser-plasma based electron and ion acceleration, offering an insight into the potential for groundbreaking applications in radiation sources and high field studies. This edition also introduces some new topics reflecting the latest advancements in the field, including an outlook to the quantum regime of strong field interactions.Ideal for students, researchers, and professionals in physics and engineering, this book is a valuable resource for anyone interested in the cutting-edge science of laser-plasma interactions. Whether used as a textbook, a quick reference, or an accessible introduction, it equips readers with the knowledge to navigate and contribute to this dynamic area of research.

This book contains 157 problems in classical electromagnetism, most of them new and original compared to those found in other textbooks. Each problem is presented with a title in order to highlight its inspiration in different areas of physics or technology, so that the book is also a survey of historical discoveries and applications of classical electromagnetism. The solutions are complete and include detailed discussions, which take into account typical questions and mistakes by the students. Without unnecessary mathematical complexity, the problems and related discussions introduce the student to advanced concepts such as unipolar and homopolar motors, magnetic monopoles, radiation pressure, angular momentum of light, bulk and surface plasmons, radiation friction, as well as to tricky concepts and ostensible ambiguities or paradoxes related to the classical theory of the electromagnetic field. With this approach the book is both a teaching tool for undergraduates in physics, mathematics and electric engineering, and a reference for students wishing to work in optics, material science, electronics, plasma physics.