Electrically Controlled Terahertz Micro-Oscillator: A Proposal
This paper proposes a novel, electrically controlled terahertz micro-oscillator based on a nanocomposite slab containing metal nanorods sandwiched between graphene sheets, potentially enabling compact, powerful, and tunable terahertz radiation sources for various applications.
菱形多層石墨烯中厚度依賴的拓撲相和扁平能帶
本研究利用角分辨光電子能譜系統地探討了菱形多層石墨烯的電子結構隨層數的演變，揭示了其從三維Su-Schrieffer-Heeger模型到拓撲狄拉克節點螺旋半金屬的厚度驅動拓撲相變。
능면형 다층 그래핀에서 두께에 따른 위상 상전이 및 플랫 밴드
능면형 다층 그래핀(RMG)의 두께 변화에 따른 전자 구조 및 위상 특성 변화를 분광학적으로 조사한 결과, 3차원 SSH 모델에서 위상학적 디락 노달 나선 반금속으로의 독특한 두께 의존적 위상 상전이가 관찰되었습니다.
ロンボヘドラル多層グラフェンにおける層数依存のトポロジカル相とフラットバンド
本研究では、角度分解光電子分光法を用いてロンボヘドラル多層グラフェンの層数変化に対する電子構造の変化を系統的に調べ、層数増加に伴うトポロジカル相転移を観測した。
Thickness-Dependent Topological Phase Transitions and Evolution of Flat Bands in Rhombohedral Multilayer Graphene from Few-Layer to Bulk Limit: A NanoARPES Study
The electronic structure of rhombohedral multilayer graphene (RMG) undergoes a thickness-dependent topological phase transition, evolving from a 3D generalization of the Su-Schrieffer-Heeger (SSH) model in thin layers to a topological Dirac nodal spiral semimetal (DNSS) in the bulk limit, as revealed by NanoARPES measurements.
Spread Complexity as a Diagnostic Tool for Non-Hermitian Many-Body Localization Transitions
This study investigates the effectiveness of spread complexity, a measure of quantum chaos, in characterizing non-Hermitian many-body localization transitions, revealing its ability to distinguish between ergodic and localized phases and detect complex-real eigenvalue transitions.
단순 모델을 통한 전자 교환 결합 행동 탐구
본 연구는 전자 교환 결합의 강도와 부호가 화학적 환경, 특히 금속-리간드 원자 간 거리 및 리간드 원자의 종류에 따라 어떻게 달라지는지 규명합니다.
単純なモデルを用いた電子交換相互作用の挙動解明
物質の磁気的性質は、化学環境や格子定数などの構造的特徴と複雑に関係しており、交換結合を調整することで制御できる可能性がある。
The Impact of Chemical Structure on Exchange Coupling in Magnetic Materials: A First-Principles Study Using Simple Models
The chemical environment surrounding metal atoms significantly influences the strength and sign of exchange coupling in magnetic materials, which can be tuned by manipulating the metal-ligand distance and the type of ligand atoms.
各向同性超材料剛度超越 Hashin-Shtrikman 上限
通過利用材料和結構的協同各向異性，可以設計出超越 Hashin-Shtrikman 上限的各向同性超材料，為輕量化高剛度材料的研發提供新思路。
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