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IF 0.2 0 MEDIEVAL & RENAISSANCE STUDIES Journal of Medieval Religious Cultures Pub Date : 2021-01-01 DOI:10.5325/jmedirelicult.47.2.0210
Witcombe
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引用次数: 0

摘要

本文的目的是揭示以各种重费米子(HF)金属为代表的强相关费米系统、3he等二维液体、量子自旋液体化合物、准晶体和一维量子自旋液体系统所表现出的一种新的物质状态。我们将这些不同的体系命名为HF化合物,因为它们表现出HF金属的典型行为。在HF化合物中,在零温度下可以发生独特的相变,称为费米子凝聚量子相变(FCQPT);这个FCQPT产生平坦带,从而导致特定的状态,称为费米子凝聚。准粒子有效质量的无限增加标志着FCQPT;这些准粒子决定了HF化合物的热力学、输运和弛豫性质。我们在FCQPT框架内对许多重要实验数据的讨论解决了物质新状态的奥秘。因此,FCQPT和费米子凝聚可以被认为是在各种HF化合物中观察到的非费米液体行为的普遍原因。我们通过分析和使用完全基于实验的论据表明,这些系统在热力学、输运和弛豫性质上表现出普遍的标度行为。因此,不同HF化合物的量子物理是普遍的,并且不考虑化合物的微观结构而出现。这种均匀的行为使我们可以把它看作是HF化合物所表现出的一种新的物质状态的主要特征。
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Review
The aim of this review paper is to expose a new state of matter exhibited by strongly correlated Fermi systems represented by various heavy-fermion (HF) metals, two-dimensional liquids like 3 He, compounds with quantum spin liquids, quasicrystals, and systems with one-dimensional quantum spin liquid. We name these various systems HF compounds, since they exhibit the behavior typical of HF metals. In HF compounds at zero temperature the unique phase transition, dubbed throughout as the fermion condensation quantum phase transition (FCQPT) can occur; this FCQPT creates flat bands which in turn lead to the specific state, known as the fermion condensate. Unlimited increase of the effective mass of quasiparticles signifies FCQPT; these quasiparticles determine the thermodynamic, transport and relaxation properties of HF compounds. Our discussion of numerous salient experimental data within the framework of FCQPT resolves the mystery of the new state of matter. Thus, FCQPT and the fermion condensation can be considered as the universal reason for the non-Fermi liquid behavior observed in various HF compounds. We show analytically and using arguments based completely on the experimental grounds that these systems exhibit universal scaling behavior of their thermodynamic, transport and relaxation properties. Therefore, the quantum physics of different HF compounds is universal, and emerges regardless of the microscopic structure of the compounds. This uniform behavior allows us to view it as the main characteristic of a new state of matter exhibited by HF compounds.
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来源期刊
Journal of Medieval Religious Cultures
Journal of Medieval Religious Cultures MEDIEVAL & RENAISSANCE STUDIES-
CiteScore
0.30
自引率
0.00%
发文量
26
期刊最新文献
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