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Classical Mechanics and Nonlinear Dynamics | ||
Preface | vii | |
1 | Introduction | 1 |
1.1 | Basics | 1 |
1.1.1 | Structure of Mathematica | 2 |
1.1.2 | Interactive Use of Mathematica | 4 |
1.1.3 | Symbolic Calculations | 6 |
1.1.4 | Numerical Calculations | 11 |
1.1.5 | Graphics | 13 |
1.1.6 | Programming | 23 |
2 | Classical Mechanics | 31 |
2.1 | Introduction | 31 |
2.2 | Mathematical Tools | 35 |
2.2.1 | Introduction | 35 |
2.2.2 | Coordinates | 36 |
2.2.3 | Coordinate Transformations and Matrices | 38 |
2.2.4 | Scalars | 54 |
2.2.5 | Vectors | 57 |
2.2.6 | Tensors | 59 |
2.2.7 | Vector Products | 64 |
2.2.8 | Derivatives | 69 |
2.2.9 | Integrals | 73 |
2.2.10 | Exercises | 74 |
2.3 | Kinematics | 76 |
2.3.1 | Introduction | 76 |
2.3.2 | Velocity | 77 |
2.3.3 | Acceleration | 81 |
2.3.4 | Kinematic Examples | 82 |
2.3.5 | Exercises | 94 |
2.4 | Newtonian Mechanics | 96 |
2.4.1 | Introduction | 96 |
2.4.2 | Frame of Reference | 98 |
2.4.3 | Time | 100 |
2.4.4 | Mass | 101 |
2.4.5 | Newton's Laws | 103 |
2.4.6 | Forces in Nature | 106 |
2.4.7 | Conservation Laws | 111 |
2.4.8 | Application of Newton's Second Law | 118 |
2.4.9 | Exercises | 188 |
2.4.10 | Packages and Programs | 188 |
2.5 | Central Forces | 201 |
2.5.1 | Introduction | 201 |
2.5.2 | Kepler's Laws | 202 |
2.5.3 | Central Field Motion | 208 |
2.5.4 | Two-Particle Collisons and Scattering | 240 |
2.5.5 | Exercises | 272 |
2.5.6 | Packages and Programs | 273 |
2.6 | Calculus of Variations | 274 |
2.6.1 | Introduction | 274 |
2.6.2 | The Problem of Variations | 276 |
2.6.3 | Euler's Equation | 281 |
2.6.4 | Euler Operator | 283 |
2.6.5 | Algorithm Used in the Calculus of Variations | 284 |
2.6.6 | Euler Operator for q Dependent Variables | 293 |
2.6.7 | Euler Operator for q + p Dimensions | 296 |
2.6.8 | Variations with Constraints | 300 |
2.6.9 | Exercises | 303 |
2.6.10 | Packages and Programs | 303 |
2.7 | Lagrange Dynamics | 305 |
2.7.1 | Introduction | 305 |
2.7.2 | Hamilton's Principle Historical Remarks | 306 |
2.7.3 | Hamilton's Principle | 313 |
2.7.4 | Symmetries and Conservation Laws | 341 |
2.7.5 | Exercises | 351 |
2.7.6 | Packages and Programs | 351 |
2.8 | Hamiltonian Dynamics | 354 |
2.8.1 | Introduction | 354 |
2.8.2 | Legendre Transform | 355 |
2.8.3 | Hamilton's Equation of Motion | 362 |
2.8.4 | Hamilton's Equations and the Calculus of Variation | 366 |
2.8.5 | Liouville's Theorem | 373 |
2.8.6 | Poisson Brackets | 377 |
2.8.7 | Manifolds and Classes | 384 |
2.8.8 | Canonical Transformations | 396 |
2.8.9 | Generating Functions | 398 |
2.8.10 | Action Variables | 403 |
2.8.11 | Exercises | 419 |
2.8.12 | Packages and Programs | 419 |
2.9 | Chaotic Systems | 422 |
2.9.1 | Introduction | 422 |
2.9.2 | Discrete Mappings and Hamiltonians | 431 |
2.9.3 | Lyapunov Exponents | 435 |
2.9.4 | Exercises | 448 |
2.10 | Rigid Body | 449 |
2.10.1 | Introduction | 449 |
2.10.2 | The Inertia Tensor | 450 |
2.10.3 | The Angular Momentum | 453 |
2.10.4 | Principal Axes of Inertia | 454 |
2.10.5 | Steiner's Theorem | 460 |
2.10.6 | Euler's Equations of Motion | 462 |
2.10.7 | Force-Free Motion of a Symmetrical Top | 467 |
2.10.8 | Motion of a Symmetrical Top in a Force Field | 471 |
2.10.9 | Exercises | 481 |
2.10.10 | Packages and Programms | 481 |
3 | Nonlinear Dynamics | 485 |
3.1 | Introduction | 485 |
3.2 | The Korteweg-de Vries Equation | 488 |
3.3 | Solution of the Korteweg-de Vries Equation | 492 |
3.3.1 | The Inverse Scattering Transform | 492 |
3.3.2 | Soliton Solutions of the Korteweg-de Vries Equation | 498 |
3.4 | Conservation Laws of the Korteweg-de Vries Equation | 505 |
3.4.1 | Definition of Conservation Laws | 506 |
3.4.2 | Derivation of Conservation Laws | 508 |
3.5 | Numerical Solution of the Korteweg-de Vries Equation | 511 |
3.6 | Exercises | 515 |
3.7 | Packages and Programs | 516 |
3.7.1 | Solution of the KdV Equation | 516 |
3.7.2 | Conservation Laws for the KdV Equation | 517 |
3.7.3 | Numerical Solution of the KdV Equation | 518 |
References | 521 | |
Index | 529 | |
Electrodynamics, Quantum Mechanics, General Relativity, and Fractals | ||
Preface | vii | |
4 | Electrodynamics | 545 |
4.1 | Introduction | 545 |
4.2 | Potential and Electric Field of Discrete Charge Distributions | 548 |
4.3 | Boundary Problem of Electrostatics | 555 |
4.4 | Two Ions in the Penning Trap | 566 |
4.4.1 | The Center of Mass Motion | 569 |
4.4.2 | Relative Motion of the Ions | 572 |
4.5 | Exercises | 577 |
4.6 | Packages and Programs | 578 |
4.6.1 | Point Charges | 578 |
4.6.2 | Boundary Problem | 581 |
4.6.3 | Penning Trap | 582 |
5 | Quantum Mechanics | 587 |
5.1 | Introduction | 587 |
5.2 | The Schrodinger Equation | 590 |
5.3 | One-Dimensional Potential | 595 |
5.4 | The Harmonic Oscillator | 609 |
5.5 | Anharmonic Oscillator | 619 |
5.6 | Motion in the Central Force Field | 631 |
5.7 | Second Virial Coefficient and Its Quantum Corrections | 642 |
5.7.1 | The SVC and Its Relation to Thermodynamic Properties | 644 |
5.7.2 | Calculation of the Classical SVC B[subscript c](T) for the (2n-n)-Potential | 646 |
5.7.3 | Quantum Mechanical Corrections B[subscript q1](T) and B[subscript q2](T) of the SVC | 655 |
5.7.4 | Shape Dependence of the Boyle Temperature | 680 |
5.7.5 | The High-Temperature Partition Function for Diatomic Molecules | 684 |
5.8 | Exercises | 687 |
5.9 | Packages and Programs | 688 |
5.9.1 | QuantumWell | 688 |
5.9.2 | HarmonicOscillator | 693 |
5.9.3 | AnharmonicOscillator | 695 |
5.9.4 | CentralField | 698 |
6 | General Relativity | 703 |
6.1 | Introduction | 703 |
6.2 | The Orbits in General Relativity | 707 |
6.2.1 | Quasielliptic Orbits | 713 |
6.2.2 | Asymptotic Circles | 719 |
6.3 | Light Bending in the Gravitational Field | 720 |
6.4 | Einstein's Field Equations (Vacuum Case) | 725 |
6.4.1 | Examples for Metric Tensors | 727 |
6.4.2 | The Christoffel Symbols | 731 |
6.4.3 | The Riemann Tensor | 731 |
6.4.4 | Einstein's Field Equations | 733 |
6.4.5 | The Cartesian Space | 734 |
6.4.6 | Cartesian Space in Cylindrical Coordinates | 736 |
6.4.7 | Euclidean Space in Polar Coordinates | 737 |
6.5 | The Schwarzschild Solution | 739 |
6.5.1 | The Schwarzschild Metric in Eddington-Finkelstein Form | 739 |
6.5.2 | Dingle's Metric | 742 |
6.5.3 | Schwarzschild Metric in Kruskal Coordinates | 748 |
6.6 | The Reissner-Nordstrom Solution for a Charged Mass Point | 752 |
6.7 | Exercises | 759 |
6.8 | Packages and Programs | 761 |
6.8.1 | EulerLagrange Equations | 761 |
6.8.2 | PerihelionShift | 762 |
6.8.3 | LightBending | 767 |
7 | Fractals | 773 |
7.1 | Introduction | 773 |
7.2 | Measuring a Borderline | 776 |
7.2.1 | Box Counting | 781 |
7.3 | The Koch Curve | 790 |
7.4 | Multifractals | 795 |
7.4.1 | Multifractals with Common Scaling Factor | 798 |
7.5 | The Renormlization Group | 801 |
7.6 | Fractional Calculus | 809 |
7.6.1 | Historical Remarks on Fractional Calculus | 810 |
7.6.2 | The Riemann-Liouville Calculus | 813 |
7.6.3 | Mellin Transforms | 830 |
7.6.4 | Fractional Differential Equations | 856 |
7.7 | Exercises | 883 |
7.8 | Packages and Programs | 883 |
7.8.1 | Tree Generation | 883 |
7.8.2 | Koch Curves | 886 |
7.8.3 | Multifactals | 892 |
7.8.4 | Renormalization | 895 |
7.8.5 | Fractional Calculus | 897 |
Appendix | 899 | |
A.1 | Program Installation | 899 |
A.2 | Glossary of Files and Functions | 900 |
A.3 | Mathematica Functions | 910 |
References | 923 | |
Index | 931 |
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Add Mathematica for Theoretical Physics: Electrodynamics, Quantum Mechanics, General Relativity, and Fractals, Vol. 2, Class-tested textbook that shows readers how to solve physical problems and deal with their underlying theoretical concepts while using Mathematica® to derive numeric and symbolic solutions. Delivers dozens of fully interactive examples for learning a, Mathematica for Theoretical Physics: Electrodynamics, Quantum Mechanics, General Relativity, and Fractals, Vol. 2 to the inventory that you are selling on WonderClubX
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Add Mathematica for Theoretical Physics: Electrodynamics, Quantum Mechanics, General Relativity, and Fractals, Vol. 2, Class-tested textbook that shows readers how to solve physical problems and deal with their underlying theoretical concepts while using Mathematica® to derive numeric and symbolic solutions. Delivers dozens of fully interactive examples for learning a, Mathematica for Theoretical Physics: Electrodynamics, Quantum Mechanics, General Relativity, and Fractals, Vol. 2 to your collection on WonderClub |