Physical Properties of High Temperature 1990
DOI: 10.1142/9789814343046_0007
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The Hall Effect and Its Relation to Other Transport Phenomena in the Normal State of the High-Temperature Superconductors

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Cited by 42 publications
(16 citation statements)
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“…While the theoretical formulation of the Hall linear response R H (ω, T ) is well established [8,9], there are very few theoretical results and numerical studies for models with strong correlation in particular in the relevant low T and low doping regime [10]. Recently an approach and a numerical procedure have been designed [11] which yield for a static d.c. R H at T = 0 (although for a ladder system) the desired result, namely a semi-classical behavior R * H = 1/e 0 n h in a magnetic insulator at low hole doping n h = N h /N (e 0 being the electric charge), as found experimentally in cuprates [6,7]. Moreover, for a reactive (non-dissipative) R H (T = 0) [12] it was possible to find an useful relation to the variation of the Drude weight (charge stiffness) D with the electron density n,…”
mentioning
confidence: 73%
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“…While the theoretical formulation of the Hall linear response R H (ω, T ) is well established [8,9], there are very few theoretical results and numerical studies for models with strong correlation in particular in the relevant low T and low doping regime [10]. Recently an approach and a numerical procedure have been designed [11] which yield for a static d.c. R H at T = 0 (although for a ladder system) the desired result, namely a semi-classical behavior R * H = 1/e 0 n h in a magnetic insulator at low hole doping n h = N h /N (e 0 being the electric charge), as found experimentally in cuprates [6,7]. Moreover, for a reactive (non-dissipative) R H (T = 0) [12] it was possible to find an useful relation to the variation of the Drude weight (charge stiffness) D with the electron density n,…”
mentioning
confidence: 73%
“…It is evident that the Hall effect in cuprates [6,7], as well as in systems with strongly correlated electrons in general, still lacks proper theoretical understanding. This applies for most investigated reference cuprate LSCO and R H dependence on T and hole doping n h .…”
mentioning
confidence: 99%
“…Unfortunately, these predictions cannot yet be tested with ordinary superconductors, because charge carrier densities and mobilities in these systems do not put them into the quantum Hall regime [55]. Their verification would be the smoking gun for particle-vortex duality, although its testing must wait until these systems can be reliably manufactured in the quantum regime.…”
Section: Universal Critical Points Are Predicted For the Flowmentioning
confidence: 99%
“…This behavior is in contrast to what is seen in transport measurements. Resistivity and Hall effect data indicate that the transport characteristics scale with x, 28,29 even into the overdoped regime. 30 Although it is conceivable that only those mobile electrons which have relatively low coupling to other degrees of freedom contribute to the transport, it is surely more than coincidental that this proportion should be exactly x/(1ϩx).…”
mentioning
confidence: 98%