theorem 29.16 Principal axes

open in the book · parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:455 · p. 981

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theorem 29.16: Principal axes29.16definition 29.13: Inertia tensor, continuum form29.13proposition 29.15: Positivity29.15theorem 5.79: Spectral theorem for a self-adjoint operator5.79definition 29.19: Inertia ellipsoid29.19definition 29.35: The Lagrange top29.35definition 29.18: Classification of tops29.18phenomenon 29.31: The intermediate-axis instability29.31proposition 29.33: Dissipation drives a free body to its largest moment29.33proposition 29.17: Triangle inequalities29.17theorem 29.25: Euler's equations29.25proof : ch:12-rigid-body-rotating-frames@proof-10proofdefinition 7.125: Multiple integral7.125definition 13.5: Tensor under orthogonal transformations13.5definition 19.42: Inertia tensor19.42example 29.23: The polar moment of the Earth, and what it reveals29.23proposition 49.17: Magnetic-dipole spin-down49.17proposition 29.14: Angular momentum and kinetic energy29.14proposition 29.24: MacCullagh's formula29.24proposition 29.22: Perpendicular-axis theorem29.22theorem 29.20: Parallel-axis theorem29.20proof : ch:12-rigid-body-rotating-frames@proof-9proofcorollary 5.72: Existence of an eigenvalue over ℂ5.72definition 5.41: Adjoint5.41theorem 5.40: Rank–nullity5.40definition 30.20: Pressure and deviatoric stress30.20proposition 30.9: Principal strains30.9theorem 5.80: Simultaneous diagonalization of commuting self-adjoint operators5.80theorem 5.84: Spectral theorem for a real symmetric operator5.84theorem 28.33: Normal modes28.33proof : ch:03-linear-algebra-representations@proof-31prooftheorem 29.29: Poinsot's construction29.29definition 21.31: Lagrangian21.31proposition 29.11: Angular velocity in Euler angles29.11proposition 29.28: Free rotation of a symmetric body29.28remark 29.32: What the linearization is entitled to conclude29.32proof : ch:12-rigid-body-rotating-frames@proof-20proofproposition 29.26: The two integrals of torque-free motion29.26proof : ch:12-rigid-body-rotating-frames@proof-21proofproof : ch:12-rigid-body-rotating-frames@proof-11proofneighborhood truncated

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typedirectionnode provenancewhere
cites Specimen theoriae turbinum derived parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:463
depends_on Inertia tensor, continuum form declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:466
depends_on Positivity declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:466
depends_on Spectral theorem for a self-adjoint operator declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:466
depends_on Inertia ellipsoid declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:535
depends_on The Lagrange top declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:1248
depends_on Classification of tops declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:525
depends_on The intermediate-axis instability declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:976
depends_on Dissipation drives a free body to its largest moment declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:1062
depends_on Triangle inequalities declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:504
depends_on Euler's equations declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:752
proves ch:12-rigid-body-rotating-frames@proof-10 declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:470