A Notable Relation between -Qubit and -Qubit Pauli Groups via Binary
arXiv:1311.2408 · doi:10.3842/SIGMA.2014.041
Abstract
Employing the fact that the geometry of the -qubit () Pauli group is embodied in the structure of the symplectic polar space and using properties of the Lagrangian Grassmannian defined over the smallest Galois field, it is demonstrated that there exists a bijection between the set of maximum sets of mutually commuting elements of the -qubit Pauli group and a certain subset of elements of the -qubit Pauli group. In order to reveal finer traits of this correspondence, the cases (also addressed recently by Lévay, Planat and Saniga [J. High Energy Phys. 2013 (2013), no. 9, 037, 35 pages, arXiv:1305.5689]) and are discussed in detail. As an apt application of our findings, we use the stratification of the ambient projective space of the -qubit Pauli group in terms of -orbits, where , to decompose into non-equivalent orbits. This leads to a partition of into distinguished classes that can be labeled by elements of the above-mentioned Pauli groups.
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- Lagrangian Grassmannians and Spinor Varieties in Characteristic Two
- A new heuristic approach for contextuality degree estimates and its four- to six-qubit portrayals
- Graph States and the Variety of Principal Minors