Analytical MechanicsSpringer Science & Business Media, 09.03.2013 - 864 Seiten According to established tradition, courses on analytical mechanics include general equations of motion of holonomic and non-holonomic systems, vari ational principles, theory of canonical transformations, canonical equations and theory of their integration (the Hamilton-Jacobi theorem), integral in variants, theory of last multiplier and others. The fundamental laws of mechanics are taken for granted and are not subject to discussion. The present book is concerned with those issues of the above listed sub jects which, in the author's opinion, are most closely related to engineering problems. Application of the methods of analytical mechanics to non-trivial prob lems at the very stage of constructing the equations requires detailed knowl edge of the issues that are normally only briefly touched upon. With this perspective considerable attention is paid to ways of introducing the gener alised coordinates, the theory of finite rotation, methods of calculating the kinetic energy, the energy of accelerations, the potential energy of forces of various nature, and the resisting forces. These introductory chapters, which have to some extent independent significance, are followed by those on methods of constructing differential equations of motion for holonomic and non-holonomic systems in various forms. In these chapters the issues of their interrelations, determination of the constraint forces and some prob lems of analytical statics are discussed as well. It is thought useful to include geometric considerations of the motion of a material system as motion of the representative point in Riemannian space. |
Inhalt
| 19 | |
Rigid body kinematics basic knowledge | 47 |
Theory of finite rotations of rigid bodies 111 | 110 |
rotation | 130 |
Basic dynamic quantities | 151 |
flywheel | 185 |
Work and potential energy | 203 |
The fundamental equation of dynamics Analytical statics 267 | 266 |
Dynamics of relative motion | 449 |
Canonical equations and Jacobis theorem | 523 |
Perturbation theory | 585 |
Variational principles in mechanics | 669 |
mal forms | 714 |
A Elements of the theory of matrices | 781 |
B Basics of tensor calculus 805 | 804 |
| 849 | |
a smooth surface | 283 |
Lagranges differential equations | 303 |
Other forms of differential equations of motion | 391 |
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Häufige Begriffe und Wortgruppen
acceleration angles angular velocity axes Oxyz calculation canonical carrying body centre of inertia coefficients constant cos² denotes derivatives determined differential equations due to eq equations of motion equilibrium expression fixed follows formulae function generalised coordinates generalised forces generalised velocities gimbal given i₁ inertia ellipsoid integral kinetic energy Lagrange's Lagrange's equations Let us consider linear matrix means of eq momenta non-holonomic constraints notation obtain particle perturbed motion plane position vector potential energy projections quadratic form quasi-velocities relationships respectively rigid body rotation sin² solution surface system of equations takes the form tensor trajectory transformation trihedron unit vector values variables variations velocity vector virtue of eq w₁ θα θάς θω νο ΣΣ ат ӘП
