Head version
a93551347dce
a93551347dce924b1db75d40218841bf085a465f
- Toolchain
- leanprover/lean4:v4.32.0
- Revision date
- 22 Jul 2026
- Dependencies
- 13
- Versions
- 9
AlexKontorovich/PrimeNumberTheoremAnd
Blueprint for the PNT+ Project
Therefore indexed 1,644 complete source declarations from the exact package revision. Individual authorship and independent verification remain unset.
Head version
a93551347dce924b1db75d40218841bf085a465f
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Pin this source in lakefile.lean
require PrimeNumberTheoremAnd from git "https://github.com/AlexKontorovich/PrimeNumberTheoremAnd.git" @ "a93551347dce924b1db75d40218841bf085a465f"
Source declarations
Showing 501 to 520 of 1,644 declarations.
theorem
Row-11 floor (Buthe) [e^3.5, e^10] via floor_xpow_of_check.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row11 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row11.lean:414
theorem
FKS2 Corollary 24, row 11 (table7 entry (x ↦ x^{-1/100}, Icc 1 3757.6)):
Eπ x ≤ x^{-1/100} whenever log x ∈ [1, 3757.6]. For x > 0 this splits into
the four segments above; for x ≤ 0 (possible since log is even) Eπ x ≤ 0 < x^{-1/100}.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row11 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row11.lean:461
theorem
Row-2 Buthe floor [e^8, e^43] via floor_xhalf_of_check.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row2 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row2.lean:44
theorem
FKS2 Corollary 24, row 2 (table7 entry (x ↦ (log x)^{3/2}·x^{-1/2}, Icc 1 65.65)):
Eπ x ≤ (log x)^{3/2}·x^{-1/2} whenever log x ∈ [1, 65.65]. For x > 0 this splits into
the three segments above; for x < 0 (possible since log is even) the exponent
-(1)/2 gives cos((-(1)/2)·π) = cos(-π/2) = 0, so x^{-1/2} = 0 and the RHS is 0,
while Eπ x ≤ 0.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row2 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row2.lean:97
theorem
Row-3 Buthe floor [e^9, e^43] via floor_xhalf_of_check.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row3 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row3.lean:54
theorem
FKS2 Corollary 24, row 3
(table7 entry (x ↦ (1/(8π))·(log x)²·x^{-1/2}, Icc 8 60.8)):
Eπ x ≤ (1/(8π))·(log x)²·x^{-1/2} whenever log x ∈ [8, 60.8]. For x > 0 this
splits into the three segments above; for x < 0 (possible since log is even) the
exponent -(1)/2 gives cos((-(1)/2)·π) = cos(-π/2) = 0, so x^{-1/2} = 0 and the RHS
is 0, while Eπ x ≤ 0.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row3 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row3.lean:112
theorem
Buthe Eπ-upper-bound as eval FloorButhe.lhsE on the WIDE range [2, e^43]
(vs Epi_le_evalLhsE_low's [2, e^10]): identical reconciliation, but taking the
x ≤ 10^19 hypothesis directly (e^43 ≈ 4.7e18 < 10^19), which extends the Buthe
reread to the full x^{-1/2}-floor range. Curve-independent, so reusable by every
x^{-1/2} row (rows 1–5). Bottoms out at Buthe theorem_2e/2f + li.two_approx.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row4 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row4.lean:48
lemma
Support of lhsE - xhalfCurveE c twoK for the dyadic slab kernel.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row4 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row4.lean:118
theorem
Row-4 Buthe floor [e^3, e^43] via floor_xhalf_of_check.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row4 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row4.lean:203
theorem
FKS2 Corollary 24, row 4 (table7 entry (x ↦ (log x)²·x^{-1/2}, Icc 1 70.6)):
Eπ x ≤ (log x)²·x^{-1/2} whenever log x ∈ [1, 70.6]. For x > 0 this splits into
the three segments above; for x < 0 (possible since log is even) the exponent
-(1)/2 gives cos((-(1)/2)·π) = cos(-π/2) = 0, so x^{-1/2} = 0 and the RHS is 0,
while Eπ x ≤ 0.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row4 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row4.lean:256
theorem
Row-5 Buthe floor [e^3, e^43] via floor_xhalf_of_check. (Named floor_xhalf_row5,
not floor_row5, since FKS2.floor_row5 is already taken by Corollary 23's row 5 in the
imported FKS2Cor23.lean base file - unrelated corollary, same row index.)
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row5 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row5.lean:42
theorem
FKS2 Corollary 24, row 5 (table7 entry (x ↦ (log x)³·x^{-1/2}, Icc 1 80)):
Eπ x ≤ (log x)³·x^{-1/2} whenever log x ∈ [1, 80]. For x > 0 this splits into
the three segments above; for x < 0 (possible since log is even) the exponent
-(1)/2 gives cos((-(1)/2)·π) = cos(-π/2) = 0, so x^{-1/2} = 0 and the RHS is 0,
while Eπ x ≤ 0.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row5 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row5.lean:91
theorem
Row-6 floor (Buthe) [e^8, e^10] via floor_xpow_of_check.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row6 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row6.lean:74
theorem
FKS2 Corollary 24, row 6 (table7 entry (x ↦ x^{-1/3}, Icc 1 80.55)):
Eπ x ≤ x^{-1/3} whenever log x ∈ [1, 80.55]. For x > 0 this splits into
the four segments above; for x ≤ 0 (possible since log is even) Eπ x ≤ 0 < x^{-1/3}.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row6 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row6.lean:121
theorem
Row-7 floor (Buthe) [e^6, e^10] via floor_xpow_of_check.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row7 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row7.lean:74
theorem
FKS2 Corollary 24, row 7 (table7 entry (x ↦ x^{-1/4}, Icc 1 107.6)):
Eπ x ≤ x^{-1/4} whenever log x ∈ [1, 107.6]. For x > 0 this splits into
the four segments above; for x ≤ 0 (possible since log is even) Eπ x ≤ 0 < x^{-1/4}.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row7 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row7.lean:121
theorem
Row-8 floor (Buthe) [e^5, e^10] via floor_xpow_of_check.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row8 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row8.lean:74
theorem
FKS2 Corollary 24, row 8 (table7 entry (x ↦ x^{-1/5}, Icc 1 134.8)):
Eπ x ≤ x^{-1/5} whenever log x ∈ [1, 134.8]. For x > 0 this splits into
the four segments above; for x ≤ 0 (possible since log is even) Eπ x ≤ 0 < x^{-1/5}.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row8 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row8.lean:121
theorem
Row-9 floor (Buthe) [e^4, e^10] via floor_xpow_of_check.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row9 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row9.lean:74
theorem
FKS2 Corollary 24, row 9 (table7 entry (x ↦ x^{-1/10}, Icc 1 270.8)):
Eπ x ≤ x^{-1/10} whenever log x ∈ [1, 270.8]. For x > 0 this splits into
the four segments above; for x ≤ 0 (possible since log is even) Eπ x ≤ 0 < x^{-1/10}.
PrimeNumberTheoremAnd.IEANTN.FKS2Cor24Row9 · PrimeNumberTheoremAnd/IEANTN/FKS2Cor24Row9.lean:121
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