AIP Conference Proceedings 2009
DOI: 10.1063/1.3109944
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SIC-POVMS and MUBS: Geometrical Relationships in Prime Dimension

Abstract: The paper concerns Weyl-Heisenberg covariant SIC-POVMs (symmetric informationally complete positive operator valued measures) and full sets of MUBs (mutually unbiased bases) in prime dimension. When represented as vectors in generalized Bloch space a SIC-POVM forms a d 2 − 1 dimensional regular simplex (d being the Hilbert space dimension). By contrast, the generalized Bloch vectors representing a full set of MUBs form d + 1 mutually orthogonal d − 1 dimensional regular simplices. In this paper we show that, i… Show more

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Cited by 44 publications
(45 citation statements)
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“…We now have a different line of argument singling out these subspaces for attention, and we suggest that this hints at a deeper connection between MUBs and SICs. Indeed, one weak link is already known [22,23]. In dimension p = 3 there is a very direct link, effectively discovered by Hesse in a different language [24], and elaborated on since [25].…”
Section: Introductionmentioning
confidence: 99%
“…We now have a different line of argument singling out these subspaces for attention, and we suggest that this hints at a deeper connection between MUBs and SICs. Indeed, one weak link is already known [22,23]. In dimension p = 3 there is a very direct link, effectively discovered by Hesse in a different language [24], and elaborated on since [25].…”
Section: Introductionmentioning
confidence: 99%
“…Moreover, the vectors being sought are then always fully determined by a complete set of mutually unbiased bases, in a geometrically natural way. Although it is considerably harder to see (one will have to read several papers in order to patch a proof together [6][7][8][9]), this statement holds also when d = 3. Numerically, SICs have been found in every dimension where they have been looked for (this includes all dimensions d ≤ 121, and a few more [10,11]), but no existence proof has been found, and beyond three dimensions it is very hard to see an underlying pattern in the solutions.…”
Section: Introducing the Weyl-heisenberg Groupmentioning
confidence: 99%
“…To see this we use the analysis in [33]. Let t j = Tr(G j ) and let Q j (respectively N j ) be the set of quadratic residues (respectively non-residues) in Z qj .…”
Section: Lemmamentioning
confidence: 99%