theorem A.242 Stone–Weierstrass; quoted

open in the book · appendices/A-long-proofs.tex:12091 · p. 2909

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theorem A.242: Stone–Weierstrass; quotedA.242definition 6.9: Compact set6.9proposition A.243: Continuous functional calculusA.243definition 6.5: Open cover6.5definition 7.142: Box-counting dimension7.142definition 7.127: Simple regions7.127definition A.498: Zero contentA.498definition A.529: Hausdorff; second countable; locally compactA.529definition 32.8: Attractor and basin32.8definition 12.41: The operator classes12.41definition 13.66: Smooth action; free; proper; orbit13.66lemma A.506: LocalityA.506lemma A.505: A continuous partition of unityA.505lemma A.530: Two elementary facts about compactnessA.530lemma A.307: Partition of unity on a compact manifoldA.307lemma 13.136: Discrete subgroups of ℝ^f13.136proposition 6.10: Continuous images of compact sets6.10theorem A.550: Quoted: discrete subgroups of a real vector spaceA.550theorem A.244: Riesz–Markov; quotedA.244theorem 16.70: The direct method16.70theorem 32.42: The horseshoe is a full shift, quoted32.42theorem 32.30: Poincaré–Bendixson, restated from Part II32.30theorem 9.34: Poincaré–Bendixson; quoted9.34theorem 6.11: Heine–Borel on ℝ6.11theorem 6.12: Heine–Borel in ℝ^N6.12theorem 6.31: Compactness and sequential compactness6.31proposition A.241: The polynomial calculus is isometricA.241proposition 12.61: Uniqueness of the continuous functional calculus12.61definition A.248: Cyclic vector and cyclic subspaceA.248proposition A.246: Bounded Borel functional calculusA.246proposition A.245: The measures μ_x,yA.245proof : app:A-long-proofs@proof-148proof

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depends_on Compact set declared appendices/A-long-proofs.tex:12100
depends_on Continuous functional calculus declared appendices/A-long-proofs.tex:12117