Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Stabilizer Algebra and the k-Profile Theorem for Mermin Pentagrams

Zhou-Li Chen

Published Jun 1, 2026• 0 citations
Publisher
DOI
10.5281/zenodo.20502868

Related papers

The Equiangular Characterization of Mermin Pentagrams: Symplectic Embedding, 10-Ray Cap, and the Failure of the Collinearity–Obstruction Dictionary

Zhou-Li Chen

•May 1, 2026•0 citations

Heisenberg-Modelle, Mermin-Wagner-Theorem

Norbert Straumann

Springer eBooks•Oct 4, 2016•0 citations

The breaking of Mermin-Wagner-Hohenberg's theorem for fractional systems

César Augusto Dartora

Physics Letters A•Jan 16, 2024•1 citation

The many mathematical faces of Mermin's proof of the Kochen-Specker theorem

Leon Loveridge, Raouf Dridi

Mermin's simple "pentagram" proof of the Kochen-Specker theorem is examined from various perspectives. We emphasise the many mathematical structures intimately related to Kochen-Specker proofs, ranging through functional analysis, sheaf theory and topos theory, Coxeter groups and algebraic geometry. Some novel results are presented along the way.

arXiv:1511.00950•Nov 3, 2015•3 citations

Stabilizer Formalism and Its Applications

Keisuke Fujii

SpringerBriefs in mathematical physics•Jan 1, 2015•3 citations

Mermin's pentagram as an ovoid of PG(3, 2)

Метод Санига, Péter Lévay

Mermin's pentagram, a specific set of ten three-qubit observables arranged in quadruples of pairwise commuting ones into five edges of a pentagram and used to provide a very simple proof of the Kochen-Specker theorem, is shown to be isomorphic to an ovoid (elliptic quadric) of the three-dimensional projective space of order two, PG(3, 2). This demonstration employs properties of the real three-qubit Pauli group embodied in the geometry of the symplectic polar space W (5, 2) and rests on the facts that: 1) the four observables/operators on any of the five edges of the pentagram can be viewed as points of an affine plane of order two, 2) all the ten observables lie on a hyperbolic quadric of the five-dimensional projective space of order two, PG(5, 2), and 3) that the points of this quadric are in a well-known bijective correspondence with the lines of PG(3, 2).

arXiv:1111.5923•Europhysics Letters (EPL)•Mar 1, 2012•18 citations
Mermin's pentagram, a specific set of ten three-qubit observables arranged in quadruples of pairwise commuting ones into five edges of a pentagram and used to provide a very simple proof of the Kochen-Specker theorem, is shown to be isomorphic to an ovoid (elliptic quadric) of the three-dimensional projective space of order two, PG(3, 2). This demonstration employs properties of the real three-qubit Pauli group embodied in the geometry of the symplectic polar space W (5, 2) and rests on the facts that: 1) the four observables/operators on any of the five edges of the pentagram can be viewed as points of an affine plane of order two, 2) all the ten observables lie on a hyperbolic quadric of the five-dimensional projective space of order two, PG(5, 2), and 3) that the points of this quadric are in a well-known bijective correspondence with the lines of PG(3, 2).