New Foundations for Classical Mechanics

This is a textbook on classical mechanics at the intermediate level, but its main purpose is to serve as an introduction to a new mathematical language for physics called geometric algebra. Mechanics is most commonly formulated today in terms of the vector algebra developed by the American physicist...

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Bibliographic Details
Main Author: Hestenes, D.
Format: eBook
Language:English
Published: Dordrecht Springer Netherlands 1986, 1986
Edition:1st ed. 1986
Series:Fundamental Theories of Physics
Subjects:
Online Access:
Collection: Springer Book Archives -2004 - Collection details see MPG.ReNa
Table of Contents:
  • 3–10. Conservative Forces and Constraints
  • 4: Central Forces and Two-Particle Systems
  • 4–1. Angular Momentum
  • 4–2. Dynamics from Kinematics
  • 4–3. The Kepler Problem
  • 4–4. The Orbit in Time
  • 4–5. Conservative Central Forces
  • 4–6. Two-particle Systems
  • 4–7. Elastic Collisions
  • 4–8. Scattering Cross Sections
  • 5: Operators and Transformations
  • 5–1. Linear Operators and Matrices
  • 5–2. Symmetric and Skewsymmetric Operators
  • 5–3. The Arithmetic of Reflections and Rotations
  • 5–4. Transformation Groups
  • 5–5. Rigid Motions and Frames of Reference
  • 5–6. Motion in Rotating Systems
  • 6: Many-Particle Systems
  • 6–1. General Properties of Many-Particle Systems
  • 6–2. The Method of Lagrange
  • 6–3. Coupled Oscillations and Waves
  • 6–4. Theory of Small Oscillations
  • 6–5. The Newtonian Many BodyProblem
  • 7: Rigid Body Mechanics
  • 7–1. Rigid Body Modeling
  • 7–2. Rigid Body Structure
  • 7–3. The Symmetrical Top
  • 1: Origins of Geometric Algebra
  • 1–1. Geometry as Physics
  • 1–2. Number and Magnitude
  • 1–3. Directed Numbers
  • 1–4. The Inner Product
  • 1–5. The Outer Product
  • 1–6. Synthesis and Simplification
  • 1–7. Axioms for Geometric Algebra
  • 2: Developments in Geometric Algebra
  • 2–1. Basic Identities and Definitions
  • 2–2. The Algebra of a Euclidean Plane
  • 2–3. The Algebra of Euclidean 3-Space
  • 2–4. Directions, Projections and Angles
  • 2–5. The Exponential Function
  • 2–6. Analytic Geometry
  • 2–7. Functions of a Scalar Variable
  • 2–8. Directional Derivatives and Line Integrals
  • 3: Mechanics of a Single Particle
  • 3–1. Newton’s Program
  • 3–2. Constant Force
  • 3–3. Constant Force with Linear Drag
  • 3–4. Constant Force with Quadratic Drag
  • 3–5. Fluid Resistance
  • 3–6. Constant Magnetic Field
  • 3–7. Uniform Electric and Magnetic Fields
  • 3–8. Linear Binding Force
  • 3–9. Forced Oscillations
  • 7–4. Integrable Cases of Rotational Motion
  • 7–5. Rolling Motion
  • 7–6. Impulsive Motion
  • 8: Celestial Mechanics
  • 8–1. Gravitational Forces, Fields and Torques
  • 8–2. Perturbations of Kepler Motion
  • 8–3. Perturbations in the Solar System
  • 8–4. Spinor Mechanics and Perturbation Theory
  • 9: Foundations of Mechanics
  • 9–1. Models and Theories
  • 9–2. The Zeroth Law of Physics
  • 9–3. Generic Laws and Principles of Particle Mechanics
  • 9–4. Modeling Processes
  • Appendixes
  • A Spherical Trigonometry
  • B Elliptic Functions
  • C Units, Constants and Data
  • Hints and Solutions for Selected Exercises
  • References