A Brief Introduction to Classical Mechanics with Illustrative Problems

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Based on the lecture notes for a course on Classical Mechanics, students with a basic knowledge of calculus should be able to follow this book. Unlike other textbooks, exercises are not included because the main goal is to equip students with the skills to problem-solve. An old-fashioned yet efficient method has been to provide a step-by-step derivation of the fundamental formulas, giving students an overview of the subject through various illustrative examples and showing how to apply the general results to relevant problems in Classical Mechanics. Sample Chapter(s) Preface Chapter 1: Force and Energy Contents: Force and Energy Newtonian Gravity Scattering and Systems of Particles Non-Inertial Frames Extended Rigid Bodies Lagrangian Formulation Hamiltonian Formulation Variational Problems Appendices: Derivation of the Lagrange Equations Prolate and Oblate Coordinates Laplace Equation Readership: Graduate students in Classical Mechanics with a basic knowledge of Calculus.

CLASSICAL AND QUANTUM MECHANICS WITH LIE ALGEBRAS

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How to see physics in its full picture? This book offers a new approach: start from math, in its simple and elegant tools: discrete math, geometry, and algebra, avoiding heavy analysis that might obscure the true picture. This will get you ready to master a few fundamental topics in physics: from Newtonian mechanics, through relativity, towards quantum mechanics. Thanks to simple math, both classical and modern physics follow and make a complete vivid picture of physics. This is an original and unified point of view to highlighting physics from a fresh pedagogical angle. Each chapter ends with a lot of relevant exercises. The exercises are an integral part of the chapter: they teach new material and are followed by complete solutions. This is a new pedagogical style: the reader takes an active part in discovering the new material, step by step, exercise by exercise. The book could be used as a textbook in undergraduate courses such as Introduction to Newtonian mechanics and special relativity, Introduction to Hamiltonian mechanics and stability, Introduction to quantum physics and chemistry, and Introduction to Lie algebras with applications in physics. Sample Chapter(s) 1 - Introduction to Newtonian Mechanics: Energy and Work Request Inspection Copy Contents: Introduction to Newtonian Physics: Introduction to Newtonian Mechanics: Energy-Work Angular Momentum and Its Conservation Stability in Geometrical Optics Towards Stability in Classical Mechanics: Poincare Stability in Classical Mechanics Cantor Set and Its Applications Is The Universe Infinite? Binary Trees and Chaos Theory The Binomial Formula and Quantum Statistical Mechanics: Newton's Binomial and Trinomial Formulas Applications in Quantum Statistical Mechanics Introduction to Relativity: Introduction to Special Relativity: Momentum-Energy Towards General Relativity: Spacetime and Its Coordinates Introduction to Quantum Physics and Chemistry: Introduction to Quantum Mechanics: Energy Levels and Spin Quantum Chemistry: Electronic Structure Introduction to Lie Algebras and Their Applications: Jordan Form and Algebras Design Your Lie Algebra Ideals and Isomorphism Theorems Exercises: Solvability and Nilpotency Nilpotency and Engel's Theorems Weight Space and Lie's Lemma and Theorem Cartan's Criterion for Solvability Killing Form and Simple Ideal Decomposition Hamiltonian Mechanics: Energy and Angular Momentum Lie Algebras in Quantum Mechanics and Special Relativity Appendix: Background in Calculus: Functions and Their Derivatives Polynomials and Partial Derivatives Matrices and Their Eigenvalues References Index Readership: Undergraduate and graduate students in Mathematics, Physics, and Chemistry.