1992
DOI: 10.1103/physrevlett.68.855
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Hidden order in a frustrated system: Properties of the Heisenberg Kagomé antiferromagnet

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Cited by 451 publications
(524 citation statements)
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“…The "standard" spin correlation function is insensitive to nematic order, so, following Ref. [18], we define a nematic correlation function which is equal to 1 for a coplanar state:…”
Section: Kagome Heisenberg Magnetmentioning
confidence: 99%
“…The "standard" spin correlation function is insensitive to nematic order, so, following Ref. [18], we define a nematic correlation function which is equal to 1 for a coplanar state:…”
Section: Kagome Heisenberg Magnetmentioning
confidence: 99%
“…Geometric frustration, for instance, present in two dimensions (2d) on the triangular or kagome lattices or in three dimensions (3d) on the pyrochlore lattice, does not automatically entail the existence of degenerate classical ground states, the hallmark of frustration. While the classical 120 • state of the 2d Heisenberg antiferromagnet on the triangular lattice is unique (up to global rotations and interchange of sublattices), there is a large number of degenerate ground states on the kagome lattice [1]. The fluctuation between many degenerate classical ground states can lead to a suppression of ordering tendencies, resulting in a cooperative paramagnet or classical spin liquid [2,3].…”
mentioning
confidence: 99%
“…The decisive quantity is the free energy F = E − T S, which favors the state(s) that best can exploit the low-energy configurations in its/their vicinity. A famous example of this mechanism is provided by the classical kagome antiferromagnet where coplanar ground-state configurations are favored at low T [1], but other examples, also in higher dimensions, have been reported in the literature [9,12,13]. For other 3d systems, e.g., Heisenberg spins on the pyrochlore lattice, it was shown to be completely * Author to whom correspondence should be addressed: buhrandt@thp.uni-koeln.de absent, resulting in true classical spin liquids at T = 0 [3,14].…”
mentioning
confidence: 99%
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“…Their regions of stability were found from considering the free energy at finite temperature which was evaluated using a calculation of the elementary excitations. This was an example of 'order by disorder' that had previously been applied to models with continuous symmetry 30,31 . The method gave the ordering of the phases correctly and also identified the line between them.…”
Section: E Phase Lmentioning
confidence: 99%