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1 ins as one of the most challenging issues in condensed matter physics.
2 nd for the simulation of complex problems in condensed matter physics.
3 conductors is one of the deepest problems in condensed matter physics.
4 in of which remains a central controversy in condensed matter physics.
5 elds of biology, physical chemistry and soft condensed matter physics.
6 valuable to areas ranging from photonics to condensed matter physics.
7 rol them is one of the biggest challenges of condensed matter physics.
8 vital role in the transport of electrons in condensed matter physics.
9 will be of interest for atomic, nuclear, and condensed matter physics.
10 sting phenomena and fundamental questions in condensed matter physics.
11 QAH effect(4-7), would open a new chapter in condensed matter physics.
12 d topology are two central threads of modern condensed matter physics.
13 nciples and are used in both high-energy and condensed matter physics.
14 y and magnetism attracts growing interest in condensed matter physics.
15 ystems and is gaining extensive attention in condensed matter physics.
16 recently attracted significant attention in condensed matter physics.
17 nerate collective behavior is at the core of condensed matter physics.
18 w-energy excitations with important roles in condensed matter physics.
19 nts one of the most fundamental phenomena in condensed matter physics.
20 as a textbook example of an ordered phase in condensed matter physics.
21 s important challenges and opportunities for condensed matter physics.
22 2 ushered a new era of research in many-body condensed matter physics.
23 d the foundation of the field of topological condensed matter physics.
24 aring states (FMPs) represent a forefront of condensed matter physics.
25 uperconductivity generated great interest in condensed matter physics.
26 tors, remains one of the greatest puzzles in condensed matter physics.
27 tter is a center piece of modern research in condensed matter physics.
28 g the most intriguing research directions in Condensed Matter Physics.
29 systems has given topology a central role in condensed matter physics.
30 hnology, from elementary particle physics to condensed matter physics.
31 eld theory to quantum information science to condensed matter physics.
32 spin systems is an emergent topic of modern condensed matter physics.
33 rder is one of the most intriguing topics in condensed matter physics.
34 parameters - is a key research direction in condensed matter physics.
35 materials is an emerging area of research in condensed matter physics.
36 including some of the most popular ones from condensed matter physics.
37 )) superconductivity is a central problem in condensed matter physics.
38 s to biology, magneto- and hydrodynamics and condensed matter physics.
39 ely in recent years in materials science and condensed matter physics.
40 allic hydrogen has been a great challenge in condensed matter physics.
41 ature is the most fundamental information in condensed matter physics.
42 glass has attracted significant interest in condensed matter physics.
43 s is one of the major trends in contemporary condensed matter physics.
44 critical phenomenon in materials science and condensed matter physics.
45 nds are the focus of much recent interest in condensed matter physics.
46 ces, ranging from biological applications to condensed matter physics.
47 emarkable platform to study new phenomena in condensed matter physics.
48 Te3 films stands out as a landmark of modern condensed matter physics.
49 als is one of the most fascinating topics in condensed matter physics.
50 to low T have been a long-standing puzzle in condensed matter physics.
51 functionality remains one of the enigmas of condensed matter physics.
52 is one of the most remarkable discoveries in condensed matter physics.
53 ying the quantum Hall and related effects in condensed matter physics.
54 emains one of the great unsolved problems in condensed matter physics.
55 -orbit coupling has been actively studied in condensed matter physics.
56 l importance to many outstanding problems in condensed matter physics.
57 ng from atomic fine structure to topological condensed matter physics.
58 sordered systems is a fundamental problem of condensed matter physics.
59 ce) is one of the major challenges of modern condensed matter physics.
60 perconductors is a major unsolved problem in condensed matter physics.
61 tical points" is a central topic of study in condensed matter physics.
62 to realizing fundamentally new phenomena in condensed matter physics.
63 perature (T(c)) is being actively pursued in condensed-matter physics.
64 star on the horizon of materials science and condensed-matter physics.
65 d fundamental bridge between high-energy and condensed-matter physics.
66 x magnetic phases and topological defects in condensed-matter physics.
67 he most celebrated theoretical frameworks of condensed-matter physics.
68 ) is one of the longest-standing problems in condensed-matter physics.
69 tallic hydrogen is a key unsolved problem in condensed-matter physics.
70 to find answers to outstanding questions in condensed-matter physics.
71 ring emergent phenomena and exotic phases in condensed-matter physics.
72 s in biomedicine, biophysics, chemistry, and condensed-matter physics.
73 one of the most perplexing topics in current condensed-matter physics.
74 topologies constitute a major part of modern condensed-matter physics.
75 n Hall (QSH) phase is an exotic phenomena in condensed-matter physics.
76 gh-energy theories, quantum information, and condensed-matter physics.
77 l discoveries and conceptual developments in condensed-matter physics.
78 upon the Hall effect are invaluable tools in condensed-matter physics.
79 al insulators have become the rising star in condensed-matter physics.
80 is one of the major outstanding problems in condensed-matter physics.
82 nderlying many phenomena in electrodynamics, condensed-matter physics(2,3) and particle physics(4,5).
84 stems has become a rapidly advancing area in condensed matter physics(3-5), with substantial implicat
86 direct analog to the Lifshitz transition in condensed matter physics, a change in the topology of is
88 orld at the intersection of cell biology and condensed matter physics about ten years ago, forever tr
89 stone for chemistry as well as hard and soft condensed matter physics-accounts for this startling obs
90 ition is one of the few unsolved problems in condensed matter physics: agreement on the cause of the
92 d sensing, and hints at analogous effects in condensed matter physics and Bose-Einstein condensates.
94 problems in materials science, nanoscience, condensed matter physics and chemistry, such as phase tr
95 nity between two formerly close-knit fields: condensed matter physics and electronic device engineeri
96 remains one of the most studied phenomena in condensed matter physics and is relevant for research ar
97 an additional unexpected insight comes from condensed matter physics and liquid physics in particula
98 sional (2D) materials have been the focus of condensed matter physics and material science due to the
99 ikely to remain one of the leading topics in condensed matter physics and materials science for many
100 dipity, has been a long sought-after goal in condensed matter physics and materials science, but achi
105 e ground for exploring emergent phenomena in condensed matter physics and next-generation magnetic-me
106 ur findings bridge the studies of defects in condensed matter physics and optics and may enable appli
109 materials continues to be a central theme in condensed matter physics and to drive advances in key ar
110 osition ideas that have proved successful in condensed matter physics and turbulence theory with rece
111 ltiple types of orders is a common thread in condensed matter physics and unconventional superconduct
112 structural properties, are at the center of condensed matter physics and underlie valuable technolog
113 ate between 'up' and 'down'-is a key goal in condensed-matter physics and materials science because i
116 rentz invariance, however, is not present in condensed matter physics, and by generalizing the Dirac
117 t the intersection of solid-state chemistry, condensed matter physics, and materials science and engi
118 mimetals are a central topic of contemporary condensed matter physics, and the discovery of new compo
121 any fields, including biology, chemistry and condensed matter physics as well as semiconductor indust
122 le in determining the physical properties in condensed matter physics, as the symmetry operations of
123 models and virtual experiments based on soft condensed matter physics at multiple scales, from the mo
124 materials has attracted immense attention in condensed-matter physics because they host new quantum s
126 -the glass transition--is a central issue in condensed matter physics but also affects many other fie
127 ngs underscore the robustness of topological condensed matter physics, but also unveil the phenomenol
128 Quantum criticality is a central concept in condensed matter physics, but the direct observation of
129 were originally predicted and discovered in condensed matter physics, but they find their counterpar
130 and surface chemistry, materials science and condensed matter physics, but they offer broad new capab
131 and soluble but captures a central theme of condensed matter physics by sitting precariously on the
133 r(4+) have received renewed attention in the condensed matter physics community, as it has been repor
137 e quantum Hall effect, fundamental in modern condensed matter physics, continuously inspires new theo
138 ains one of the most challenging problems in condensed matter physics despite tremendous research eff
139 Kagome metals have emerged as a frontier in condensed matter physics due to their potential to host
141 Dirac physics has aroused great interests in condensed matter physics ever since the discovery of gra
142 ic systems is a major breakthrough in recent condensed matter physics, finding appropriate materials
144 uctures have been a key point of interest in condensed-matter physics for decades owing to a plethora
145 The Feynman relation, a much celebrated condensed matter physics gemstone for more than 70 years
146 ent electronic material and model system for condensed-matter physics, graphene and its electrical tr
148 rsuit of quantum spin liquid (QSL) states in condensed matter physics has drawn attention to kagome a
150 ana fermions as quasiparticle excitations in condensed-matter physics has created much excitement.
152 Recently, links between relativistic and condensed matter physics have been uncovered, where rela
153 sical systems.Topological effects known from condensed matter physics have recently also been explore
154 o materials science, physical chemistry, and condensed-matter physics have been investigated during t
155 The kagome motif is a versatile platform for condensed matter physics, hosting rich interactions betw
156 tic interactions and is important in current condensed matter physics in areas such as the descriptio
157 trons plays a key role in various aspects of condensed matter physics - including electron hydrodynam
158 oncept of topology(3) has been expanded from condensed matter physics into photonics(4), giving rise
160 One of the recently established paradigms in condensed matter physics is examining a system's behavio
162 e of the greatest challenges in contemporary condensed matter physics is to ascertain whether the for
164 One of the most challenging problems in condensed matter physics is to predict crystal structure
170 One of the most far-reaching problems in condensed-matter physics is to understand how interactio
173 rality as an additional degree of freedom in condensed matter physics, leading to a range of novel ph
174 ials with light has emerged as a frontier of condensed-matter physics, leading to the discovery of va
175 materials is a fundamental research topic in condensed matter physics, materials science and geophysi
176 ations in the fields of electronics, optics, condensed matter physics, metamaterials, and biomedicine
177 lic state, and will have potential impact on condensed matter physics, nanochemistry, and catalysis a
179 ed with broken symmetry is a major effort in condensed matter physics, particularly in regard to the
180 more decades in time is a grand challenge in condensed matter physics, physical chemistry, and materi
181 um information processing, as well as a rich condensed-matter physics playground with which to explor
183 own phases of matter, attracting interest in condensed matter physics, quantum physics, and photonics
184 onal devices, with promising implications in condensed-matter physics, quantum optics and related fie
188 distortion, has been a fundamental topic in condensed matter physics, serving as a potential platfor
189 nductivity has been a long-standing quest in condensed matter physics since the discovery of superflu
190 n electrons has long been a focused topic in condensed-matter physics since it has led to the discove
191 (LKSD) has been among the central topics of condensed-matter physics since the dawn of the band theo
192 d truly transdisciplinary topic encompassing condensed matter physics, solid state chemistry, and mat
193 roposed for significant unsolved problems in condensed-matter physics, such as non-Fermi-liquid behav
195 oblems and problems in materials science and condensed matter physics that can be formulated as inter
197 onon, a roton or a magnon, is used in modern condensed matter physics to describe an elementary colle
198 ms are fundamental to phenomena ranging from condensed-matter physics to cosmology, yet they are gene
199 niques and devices from atomic, quantum, and condensed-matter physics to detect tiny signals due to n
200 ive method, inspired by analogous methods in condensed matter physics, to examine the anatomical orga
201 By using a density-map method derived from condensed-matter physics, we quantified microcolumns in
202 ic gases have realized numerous paradigms of condensed matter physics, where control over interaction
203 extreme conditions has significance to both condensed matter physics, where it may provide insight i
204 mergence of a new paradigm of 'relativistic' condensed-matter physics, where quantum relativistic phe
205 their properties is a central goal of modern condensed-matter physics, which holds promise for a new
206 larities and Van Hove singularities arise in condensed matter physics, while intensity, phase and pol
207 een driving exciting progress in the area of condensed matter physics, with findings that have recent
208 chanical systems is a central goal of modern condensed matter physics, with implications for systems
209 fascinating and still unresolved problem in condensed-matter physics, yet has an important bearing o