← Hall of Fame

h¹¹=95 · h²¹=111 · χ=-32

kreuzer-skarke-97b998bfa6c9

Permanent topological certificate for these invariants. Link to this dossier — the id is content-addressed from Hodge data, not from a run rank.

Cite this dossier

Software / dataset entry — not a journal article. Verified means a dataset target-rule match, not experimental physics.

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Datasetkreuzer-skarke
VerifiedYes
Best score0.9997
Best rank seen31
h¹¹95
h²¹111
χ-32
Times seen3

Hodge numbers do not uniquely determine a Calabi–Yau. Many distinct polytopes/triangulations share (h¹¹, h²¹, χ). This page is a topological certificate for the invariants, not a uniqueness proof.

Analysis

Exact identities, moduli counts, and tadpole budgets from Hodge data — plus honest proxies. Tabs label what is exact vs proxy vs unavailable.

exact + proxy Hodge numbers do not uniquely determine a Calabi–Yau. Many distinct polytopes/triangulations share (h¹¹, h²¹, χ). This page is a topological certificate for the invariants, not a uniqueness proof.

1
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0950
11111111
0950
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1

Simplified CY3 Hodge diamond (corners + h¹¹ / h²¹).

h^{1,1} h^{2,1}

Identities

Euler characteristic (CY3)
\chi = 2(h^{1,1} - h^{2,1})
→ -32
D3 tadpole charge
L = |\chi|/24
→ 1.3333
Mirror map (Hodge)
(h^{1,1}, h^{2,1}) \mapsto (h^{2,1}, h^{1,1})
→ (111, 95)
Flux vacua proxy (log-density)
\log N_{\mathrm{flux}} \sim 2K\log(2\pi L) - \log K!\quad(K=h^{2,1}+1)
→ 0.6449

With this candidate’s numbers

Euler characteristic
\chi = 2(h^{1,1}-h^{2,1}) = 2(95-111) = -32
D3 tadpole budget
L = \dfrac{|\chi|}{24} = \dfrac{|-32|}{24} = 1.3333
Generation index
n_{\mathrm{gen}} = \dfrac{|\chi|}{2} = \dfrac{|-32|}{2} = 16
Mirror map
(h^{1,1},h^{2,1},\chi)=(95,111,-32)\;\mapsto\;(111,95,32)
Tadpole L1.3333
Total moduli206
Hodge balance0.9223
Flux density proxy0.6449
Generation index |χ|/216
N_flux estimate3.027e+24
Picard–Fuchs K112
Scan readiness37.5%

External catalogs

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Landscape neighborhood

Where this Hodge pair sits among Hall of Fame entries for the same dataset (Euclidean distance in (h¹¹, h²¹)). Sampled board — not the full KS database.

Nearest on the board

Student lab

What are these numbers?

Calabi–Yau shapes are candidate “hidden dimensions” in string theory. h^{1,1} counts Kähler moduli (sizes of even cycles); h^{2,1} counts complex-structure moduli. For a CY threefold, \chi = 2(h^{1,1} - h^{2,1}) and the tadpole budget is L = |\chi|/24.

Euler
\chi = 2(h^{1,1}-h^{2,1})
Tadpole
L = \dfrac{|\chi|}{24}
Generations
n_{\mathrm{gen}} = \dfrac{|\chi|}{2}
Flux count proxy
K = h^{2,1}+1
Stirling landscape
\log N \sim 2K\log(2\pi L)-\log K!

The N_{\mathrm{flux}} estimate is the same asymptotic Bousso–Polchinski / Denef–Douglas-style proxy used by physics_dossier.flux_vacua_estimate (Stirling for \log K!) — not a vacuum scan.

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