03311cam a22005054a 4500001001300000003000900013005001700022006001900039007001500058008004100073020001800114020001500132020001800147035002200165040002300187100003800210245008500248264004300333264004300376264001700419300006700436336002600503337002600529338003600555506005000591520154200641588004702183650004102230650005602271650004702327650003302374650002302407650002102430650003002451650001502481650001602496650003002512650002202542655003002564700004502594700003702639710003102676830003802707856006002745musev2_60819MdBmJHUP20241003151126.0m o d cr||||||||nn|n190726s2018 mau o 00 0 eng d a9780262348010 z0262348012 z9780262038430 a(OCoLC)1053169862 aMdBmJHUPcMdBmJHUP1 aHartnoll, SeaneVerfasserIn.4aut10aHolographic Quantum Matter / cSean A. Hartnoll, Andrew Lucas, and Subir Sachdev 1aLondon, EnglandbThe MIT Pressc[2018] 3aBaltimore, Md. :bProject MUSE, c2018 4c©[2018] a1 online resource: bIllustrationen, Diagramme (schwarz-weiss) atextbtxt2rdacontent acomputerbc2rdamedia aonline resourcebcr2rdacarrier0 aOpen AccessfUnrestricted online access2star a"Holographic Quantum Matter describes a new field that has emerged in the past decade at the interface of condensed matter physics and quantum gravity. Experimental discoveries in condensed matter have led to the identification of numerous materials--like high temperature superconductors (HTS)--in which the collective motion of electrons requires deeper understand of quantum effects at large length scales. HTS's act as a "strange metal" in which the charge and energy is not carried by quasiparticles. In the meantime, studies of quantum gravity using string theory led to a major breakthrough with the identification of a mathematical tool known as the holographic correspondence. The authors describe the developments that followed with the realization that states of quantum matter without quasiparticle excitations are precisely those that are efficiently described by the holographic correspondence. The book is addressed to graduate students in theoretical physics, especially those specializing in condensed matter, string theory, or quantum field theory. It presents the necessary background in the study of quantum matter and in string theory, so that students in both fields are apprised of recent developments in the other field. It connects this introductory discussion to what are the most important recent developments. It provides the tools and motivation for performing holographic computations. And it explains how the salient technical results from holographic studies have led to new insights into quantum matter"- aDescription based on print version record. 7aHolography2fast0(OCoLC)fst00958938 7aDuality (Nuclear physics)2fast0(OCoLC)fst00899252 7aCondensed matter2fast0(OCoLC)fst00874443 6aDualite (Physique nucleaire) 6aMatiere condensee. 4aCondensed matter 4aDuality (Nuclear physics) 4aHolography 0aHolography. 0aDuality (Nuclear physics) 0aCondensed matter. 7aElectronic books. 2local1 aSachdev, Subird1961-eVerfasserIn.4aut1 aLucas, AndreweVerfasserIn.4aut2 aProject Muse.edistributor 0aBook collections on Project MUSE.40zFull text available: uhttps://muse.jhu.edu/book/60819/