DYNAMICS
The Galileo–Newton Formulation of Dynamics
Galilean relativity
Newton’s dynamical laws
Gravitational and inertial mass
Particle Dynamics in One Dimension
Motion of a particle under a force
Potential energy diagrams
Tension
Friction
Resistive motion
Escape velocity
Oscillations
Hooke’s law
Simple harmonic motion
Period of small oscillations
Damped simple harmonic motion
Damped simple harmonic motion with a forcing term
The LCR circuit
Particle Dynamics in Two and Three Dimensions
Projectiles
Energy and force
Charged particles in an electromagnetic field
Central Forces and Orbits
Central forces and angular momentum
Circular motion
Orbital motion
The inverse square law
The orbital equation
Perturbed orbits
Kepler’s laws of planetary motion
The perihelion precession of Mercury
Rutherford scattering
Multi-Particle Systems
Conservation of linear momentum
Conservation of angular momentum
The centre of mass frame
The two-body problem
Collisions
Inelastic collisions
Variable mass problems
Rigid Bodies
Rotation of a rigid body about a fixed axis
Planar motion of a rigid body
Rotating Reference Frames
Rates of change in a rotating frame
Newton’s second law in a rotating frame
The centrifugal force
The Coriolis force
RELATIVITY
Special Relativity
Inception
Einstein’s postulates of special relativity
Lorentz transformations
Minkowski diagrams (space-time diagrams)
Relativistic kinematics
Space-Time
The light cone
Proper time
The four-component vector formalism
Relativistic Mechanics
4-momentum
Relativistic energy
Massless particles
Aberration
Particle collisions
Appendix: Conic Sections
Solutions
Index
Exercises appear at the end of each chapter.
Biography
Peter J. O’Donnell is a Lecturer in the Department of Applied Mathematics and Theoretical Physics at the University of Cambridge, where he is also a Fellow of St. Edmund’s College. Dr. O’Donnell’s current research focuses on Lanczos potential theory, black holes, and quantum gravity.
"… an introduction to the central concepts of dynamics and special relativity … . Having a dual exploration of the two under one cover offers the rare opportunity for entry-level college physics students to understand their relationships, with mathematics backing the examples and exercises paired to better understand the concepts. The result is an approach more accessible to newcomers than most, and important for anyone studying dynamics and relativity."
—Midwest Book Review, April 2015"This book consists of two parts: one on classical Newtonian dynamics and one on Einstein’s special relativity theory. It is a refreshingly well-written book composed in a nice style but with due attention paid to precision. … [the] first part constitutes an excellent introduction to classical mechanics. The second part of the book is equally good and consists of three chapters on special relativity. … Throughout the book, many examples are given and many exercises are set (and solutions supplied at the end of the book). At several places, interesting historical remarks are made and which I believe are important for a full understanding of the ideas involved. This book is a welcome addition to the literature on this subject. It is well written in a most readable style and is a comprehensive introduction to classical and relativistic mechanics."
—Professor Graham Hall FRSE FRAS, Institute of Mathematics, University of Aberdeen
