theorem 16.35 System of Euler–Lagrange equations

open in the book · parts/02-mathematical-methods/14-calculus-of-variations.tex:982 · p. 642

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theorem 16.35: System of Euler–Lagrange equations16.35lemma 16.20: Mixed form16.20theorem 16.22: Euler–Lagrange16.22proposition 16.6: The isoperimetric extremal is a circle16.6theorem 16.41: Multiplier rule for pointwise constraints16.41proof : ch:14-calculus-of-variations@proof-19proofcorollary 7.44: Substitution and integration by parts7.44lemma 16.19: du Bois-Reymond16.19theorem 16.43: Euler's rule for integral constraints16.43proof : ch:14-calculus-of-variations@proof-10proofequation 16.15: eq:calcvar-first-variation16.15proposition 16.16: Stationarity is necessary16.16definition 16.62: Field of extremals; slope function16.62phenomenon 30.52: Euler buckling30.52proposition 29.39: Steady precession29.39theorem 16.31: Natural boundary condition16.31proof : ch:14-calculus-of-variations@proof-11proofproof : ch:14-calculus-of-variations@proof-3proofequation 16.37: eq:calcvar-pointwise-constraints16.37lemma 16.18: Fundamental lemma16.18proposition 21.56: The two prescriptions and their difference21.56proof : ch:14-calculus-of-variations@proof-23proof

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typedirectionnode provenancewhere
depends_on Mixed form declared parts/02-mathematical-methods/14-calculus-of-variations.tex:993
depends_on Euler–Lagrange declared parts/02-mathematical-methods/14-calculus-of-variations.tex:993
depends_on The isoperimetric extremal is a circle declared parts/02-mathematical-methods/14-calculus-of-variations.tex:225
depends_on Multiplier rule for pointwise constraints declared parts/02-mathematical-methods/14-calculus-of-variations.tex:1208
proves ch:14-calculus-of-variations@proof-19 declared parts/02-mathematical-methods/14-calculus-of-variations.tex:996