How statement and proof provenance work
The first chip identifies the source of the statement or construction; the second identifies the source of its local proof or verification.
- Literature-sourced: the exact statement appears in a cited source; only wording and notation differ.
- AI-adapted: a semantically identical restatement of literature-sourced material, modulo indexing, notation, and boundary cases adopted by the library.
- AI-generated: a genuinely novel statement formulated by AI, with no source for the claim itself.
These labels describe origin, not correctness: citations and verification chips remain separate evidence.
The exponent, product, quotient, and iterated-power laws for positive real bases and real exponents
Statement
For and ,
Facts & Assumptions
Given: Positive reals and real exponents .
Proof
Expanding by [L1] and applying [L3] gives .
Expanding and using gives .
The same calculation with and [L3] gives .
Since , expanding gives .
Depends on
Used by
- Compatible extensions from the finite simple core Corollary
- Gautschi's inequality for the real Gamma function Corollary
- Lᵖ is uniformly convex for 1<p<∞ Corollary
- Lyapunov central limit theorem Corollary
- The polynomial Rödl property implies the Erdős–Hajnal property Corollary
- The volume of a radius-r closed n-ball is π^n/2rⁿ/Γ(n/2+1) Corollary
- Integral geometric layers of a decreasing block partition Definition
- Coordinate vectors converge weakly to zero in ell p Example
- Nonidentical strong law under summable normalized variances Example
- Tightness from a uniform moment bound Example
- A large Y-part in a structural comb partition yields the clique-or-stable-set outcome Lemma
- A wide integral geometric layer forces the complete-or-anticomplete property-(*) blockade Lemma
- Admissible parameters for the density recursion Lemma
- Clarkson inequalities in both exponent ranges Lemma
- Elementary lower and upper bounds on a unit cube Lemma
- Increasing the exponent past finite measure gives zero Lemma
- Integral geometric layers exist, cover the partition, and retain the required cutoff bounds Lemma
- Local special copy trichotomy Lemma
- Log-convex solutions of the Gamma recurrence obey the Bohr--Mollerup factorial squeeze Lemma
- Qid maximal blowup trichotomy Lemma
- Special copy trichotomy produces a restricted blockade Lemma
- Successive small integral geometric layers contradict a large X-part Lemma
- The p-functional need not be a norm for 0 < p < 1 Proposition
- A tau-critical graph has no wide pure blockade with cograph pattern Theorem
- Alon–Pach–Solymosi: if H₁ and H₂ have the Erdős–Hajnal property, so does the graph obtained from H₁ by substituting H₂ for a vertex Theorem
- An entire function of polynomial growth is a polynomial Theorem
- An α-narrow graph contains a perfect induced subgraph of order at least |V(G)|^1/α Theorem
- Change of base and inversion of the positive-base real exponential Theorem
- Every finite family with the Erdős–Hajnal property is viral Theorem
- Finite variance logarithmic rate for iid sums Theorem
- For all positive k,ℓ, some finite graph has girth greater than ℓ and chromatic number greater than k Theorem
- Holder's inequality for finite sums and conjugate real exponents Theorem
- ℓᵖ includes into ℓʳ for p < r Theorem
- Minkowski's inequality for finite sums and real exponent p greater than one Theorem
- Quantitative density theorem for ell divisive graphs Theorem
- Standard Maclaurin expansions Theorem
- Strong law under summable normalized variances Theorem
- The C5-free graphs satisfy a polynomial kappa bound Theorem
- The Cantor set has dimension log 2 / log 3 and critical measure one Theorem
- The Erdos-Hajnal property is equivalent to the large-cograph, large-perfect, and kappa formulations Theorem
…and 8 more results.
Dependency tree · two levels
18 results within two dependency steps of this one, each drawn at its shortest distance from it. An arrow runs from a result to what uses it, so the chart reads left to right and ends at this result, which carries a heavier outline. Every node is a link to that result. Click elsewhere on the chart to enlarge it.
Sources
- J. Lebl, Basic Analysis, Logarithm and Exponential (standard reference, not scraped)
- MIT OpenCourseWare 18.100B Real Analysis, Spring 2025 full lecture notes (standard reference, not scraped)