arXiv:0709.3419v2
Abstract
Let the sequence of reals satisfy the condition Then the set is uncountable. Moreover its Hausdorff dimension is equal to 1. Consider the set of naturals of the form and let the sequence performs this set as an increasing sequence. Then the set also has Hausdorff dimension equal to 1. The results obtained use an original approach due to Y. Peres and W. Schlag.
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Not a correctness certificate. A “Correct” result may include yellow typos or minor formal corrections that do not affect substantive soundness. It means this audit found no unresolved substantive error under the stated criteria; it does not replace expert scrutiny or formal verification.
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Detailed mathematical audit
01Statements2 reported findingsContains unsupported statements
The nonemptiness conclusions are recoverable after a constant correction, but the full-dimension conclusion under only the lower sublacunary growth hypothesis is asserted without the construction needed to verify Theorem 3's series condition.
Removal of the upper growth hypothesis is not proved
Pages 3, 6, and 8 · Theorem 3, its sketched proof, and Example A · arXiv:0709.3419v2
The displayed verification of the Hausdorff-dimension series uses the additional upper bound . The paper then says that a different removes this assumption but gives neither that function nor checks Theorem 3's monotonicity, separation, summability, and initial conditions. This is a substantive missing construction, so the dimension-one claim under the lower bound alone is not verified by the supplied argument.
The existential avoidance result survives the dyadic correction
Pages 2–5 and 7–8 · Theorems 1–2 and Example A · arXiv:0709.3419v2
Replacing the false factor-two scale estimate by the factor-four estimate recorded below and shrinking the freely chosen avoidance constant by a fixed factor restores the induction. Since the application asserts existence of some positive , this constant change does not alter its statement.
02Proofs2 reported findingsContains incorrect or incomplete proofs
Lemma 1 uses a false dyadic inequality, and the proof of Theorem 3 is only a template that does not verify its hypotheses in the strongest application.
The dyadic floor inequality is reversed at the endpoint scale
Page 4 · Equations (1)–(2) in the proof of Lemma 1 · arXiv:0709.3419v2
From one obtains , not the printed upper bound . Lemma 1's coefficient must therefore be enlarged from to . Replacing the denominators in the later summability hypotheses by , or equivalently halving the freely selected function in the applications, restores Theorems 1–2 and their qualitative avoidance conclusions. It does not by itself supply the missing full-dimension construction.
Two displayed parameter symbols have unique corrections
Pages 7–8 · verification of Example A · arXiv:0709.3419v2
Replace the impossible condition by , and replace the displayed derivative equality by a lower bound: the omitted positive term makes the derivative strictly larger than the final expression. Both corrections are fixed by the immediately preceding definitions and preserve the monotonicity conclusion.
03Novelty0 reported findingsNo non-novelty findings
No non-novelty findings.