proposition 29.26 The two integrals of torque-free motion

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proposition 29.26: The two integrals of torque-free motion29.26equation 29.12: eq:rigid-kinetic-energy29.12theorem 29.25: Euler's equations29.25proposition 29.33: Dissipation drives a free body to its largest moment29.33proposition 29.43: The three integrable heavy tops29.43remark 29.27: Euler's equations as a Lie–Poisson system29.27remark 29.30: Polhode and herpolhode29.30remark 24.42: The intermediate axis24.42theorem 29.29: Poinsot's construction29.29proof : ch:12-rigid-body-rotating-frames@proof-17proofproposition 49.17: Magnetic-dipole spin-down49.17postulate 19.22: Newton's second law, rotational case19.22theorem 29.16: Principal axes29.16theorem 29.7: Transport theorem29.7phenomenon 29.46: A fast spinning top does not fall29.46phenomenon 29.31: The intermediate-axis instability29.31proposition 29.28: Free rotation of a symmetric body29.28proposition 24.41: The free rigid body is a Lie–Poisson system24.41proof : ch:12-rigid-body-rotating-frames@proof-16proofproof : ch:12-rigid-body-rotating-frames@proof-21proofproposition 29.36: Three first integrals29.36remark 29.45: What integrability buys, and where it stops29.45remark 29.44: The Kovalevskaya integral29.44proof : ch:12-rigid-body-rotating-frames@proof-28proofdefinition 24.37: Casimir function24.37definition 24.40: Lie–Poisson bracket24.40definition 29.19: Inertia ellipsoid29.19remark 29.32: What the linearization is entitled to conclude29.32proof : ch:12-rigid-body-rotating-frames@proof-19proof

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typedirectionnode provenancewhere
depends_on eq:rigid-kinetic-energy declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:794
depends_on Euler's equations declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:794
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 The three integrable heavy tops declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:1591
depends_on Euler's equations as a Lie–Poisson system declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:828
depends_on Polhode and herpolhode declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:957
depends_on The intermediate axis declared parts/03-classical-mechanics/07-symplectic-geometry.tex:1448
depends_on Poinsot's construction declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:911
proves ch:12-rigid-body-rotating-frames@proof-17 declared parts/03-classical-mechanics/12-rigid-body-rotating-frames.tex:797