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The Structure of the Majorana Clifford Group
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abstract
In quantum information science, Clifford operators and stabilizer codes play a central role for systems of qubits (or qudits). In this paper, we study their analogues for systems composed of Majorana fermions. In this case, a crucial role is played by fermion parity symmetry, which is an unbreakable symmetry present in any system with fundamentally fermionic degrees of freedom. We prove that the subgroup of parity-preserving Majorana Cliffords can be represented by the orthogonal group over the binary field $\F$, and we show how it can be generated by braiding operators and used to construct any (even-parity) Majorana stabilizer code. We also analyze the frame potential for this so-called p-Clifford group when acting on a fixed-parity sector of the Hilbert space, proving that it is equivalent to the frame potential of the ordinary Clifford group acting on the same sector.
Forward citations
Cited by 3 Pith papers
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Clifford Transformations for Fermionic Quantum Systems: From Paulis to Majoranas to Fermions
Fermionic Clifford transformations are generated by half-body and pair operators with angles kπ/2, preserving many-body rank and fermionic parity.
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A Grassmann phase-space Lp norm defines a computable hybrid magic proxy for boson-fermion systems, with a closed-form magic power for the conditional displacement gate.
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Conjugacy classes of linear actions in the plane Cremona group
No central result can be verified: the manuscript body for arXiv:2508.09929 was not supplied, and the attached full text belongs to a different preprint.
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