theorem 31.37 The Navier–Stokes equations

open in the book · parts/03-classical-mechanics/14-fluid-dynamics.tex:1056 · p. 1053

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theorem 31.37: The Navier–Stokes equations31.37theorem 31.36: The Newtonian constitutive relation31.36theorem 31.22: Euler's equations of motion31.22definition A.741: The statistical settingA.741definition A.760: The convecting layerA.760definition 31.43: Creeping flow31.43phenomenon 31.78: Convective onset at a computed threshold31.78phenomenon 31.41: The fourth-power law of pipe flow31.41phenomenon 31.49: Dynamical similarity31.49proposition A.761: The Boussinesq equationsA.761proposition 31.40: Circular Couette flow31.40proposition 31.39: Plane Couette flow31.39remark 31.48: What is actually proved31.48remark 31.38: Whose equations, and the Stokes hypothesis31.38theorem A.745: Kármán–Howarth–Monin relationA.745theorem 31.71: Boundary-layer thickness31.71theorem 31.82: The Reynolds-averaged equations31.82theorem 31.58: The vorticity transport equation31.58proof : ch:14-fluid-dynamics@proof-18proofdefinition 31.32: Newtonian fluid; dynamic and kinematic viscosity31.32proposition 31.9: Cauchy–Stokes decomposition31.9theorem A.718: Stokes' drag law with its coefficientA.718proof : ch:14-fluid-dynamics@proof-17proofdefinition 31.21: Ideal fluid31.21lemma 31.11: Transport theorem for a material volume31.11theorem 30.21: Cauchy's equation of motion30.21lemma A.712: The force is a far-field integralA.712phenomenon 31.88: Sound travels at the adiabatic speed31.88proposition A.797: The outer limit loses a boundary conditionA.797proposition 31.80: Rayleigh's circulation criterion31.80proposition 52.24: The p-mode cavity52.24remark 31.23: Boundary conditions, and what the ideal model omits31.23theorem 31.24: Bernoulli31.24theorem 31.64: Kelvin's circulation theorem31.64theorem 31.91: Rankine–Hugoniot jump conditions31.91theorem 31.77: Rayleigh's inflexion-point criterion31.77proof : ch:14-fluid-dynamics@proof-11proofdefinition 11.4: Expectation11.4definition 31.51: The other similarity groups31.51equation 31.42: eq:fluid-reynolds-number31.42neighborhood truncated

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typedirectionnode provenancewhere
depends_on The Newtonian constitutive relation declared parts/03-classical-mechanics/14-fluid-dynamics.tex:1074
depends_on Euler's equations of motion declared parts/03-classical-mechanics/14-fluid-dynamics.tex:1074
depends_on The statistical setting declared appendices/A-long-proofs.tex:35945
depends_on The convecting layer declared appendices/A-long-proofs.tex:37085
depends_on Creeping flow declared parts/03-classical-mechanics/14-fluid-dynamics.tex:1304
depends_on Convective onset at a computed threshold declared parts/03-classical-mechanics/14-fluid-dynamics.tex:2608
depends_on The fourth-power law of pipe flow declared parts/03-classical-mechanics/14-fluid-dynamics.tex:1228
depends_on Dynamical similarity declared parts/03-classical-mechanics/14-fluid-dynamics.tex:1476
depends_on The Boussinesq equations declared appendices/A-long-proofs.tex:37111
depends_on Circular Couette flow declared parts/03-classical-mechanics/14-fluid-dynamics.tex:1185
depends_on Plane Couette flow declared parts/03-classical-mechanics/14-fluid-dynamics.tex:1151
depends_on What is actually proved declared parts/03-classical-mechanics/14-fluid-dynamics.tex:1456
depends_on Whose equations, and the Stokes hypothesis declared parts/03-classical-mechanics/14-fluid-dynamics.tex:1126
depends_on Kármán–Howarth–Monin relation declared appendices/A-long-proofs.tex:36166
depends_on Boundary-layer thickness declared parts/03-classical-mechanics/14-fluid-dynamics.tex:2262
depends_on The Reynolds-averaged equations declared parts/03-classical-mechanics/14-fluid-dynamics.tex:2788
depends_on The vorticity transport equation declared parts/03-classical-mechanics/14-fluid-dynamics.tex:1832
proves ch:14-fluid-dynamics@proof-18 declared parts/03-classical-mechanics/14-fluid-dynamics.tex:1077