Begrenzung effect inS⁢i3⁢N4encapsulated plasmonic Sn nanoparticles

IF 3.7 2区 物理与天体物理 Q1 Physics and Astronomy Physical Review B Pub Date : 2024-11-06 DOI:10.1103/physrevb.110.205411
Chloé Minnai, Andrea Vanzan, Luke C. Reidy, Alec P. LaGrow, Marcel Di Vece
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引用次数: 0

Abstract

Previous studies of metal nanoparticle plasmonic properties yielded various nontrivial effects beyond the simple dipole response to light, such as the higher-order plasmon modes and dark and bright localized surface plasmons. Another intriguing plasmonic effect is the reduction of bulk plasmon (BP) resonances strength due to the Begrenzung effect, a phenomenon of the BP resonance modifications at the surface, which has been experimentally observed before and mathematically derived. In this work the LSP and BP resonances of tin nanoparticles were studied with electron energy loss spectroscopy (EELS) up to 45 eV. The effect of the Begrenzung effect on the plasmon resonances is here determined by reduced experimental EELS signals on Si3N4 encapsulated tin nanoparticles, which is explained by a detailed analysis of simulations. These simulations reveal an ubiquitous manifestation of the Begrenzung effect at multiple energies. The disentanglement of the multiple plasmon resonances in the SiNx covered tin nanoparticles give evidence of a rich plasmon occurrence which has been comprehensively mapped, that could lead to precise tailoring of plasmon properties up to extreme ultraviolet energies.
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Si3N4 封装的等离子体锡纳米粒子中的乞丐效应
以往对金属纳米粒子质子特性的研究发现,除了简单的偶极子对光的响应之外,还存在各种非同寻常的效应,例如高阶等离子体模式以及暗色和明亮的局部表面等离子体。另一种有趣的等离子效应是由于贝格伦宗效应(Begrenzung effect)而导致的体等离子体(BP)共振强度降低,这是一种在表面发生的 BP 共振变化现象,之前已在实验中观察到,并在数学上得到了推导。在这项工作中,利用电子能量损失光谱(EELS)研究了锡纳米粒子的 LSP 和 BP 共振,最高可达 45 eV。贝格伦宗效应对等离子体共振的影响是通过 Si3N4 封装的锡纳米粒子上减少的实验 EELS 信号确定的,并通过详细的模拟分析加以解释。这些模拟揭示了贝格伦宗效应在多种能量下的普遍表现。SiNx 包裹的锡纳米粒子中多重等离子体共振的解缠证明了丰富的等离子体现象,这些现象已被全面绘制,从而可以精确定制等离子体特性,直至极端紫外线能量。
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来源期刊
Physical Review B
Physical Review B 物理-物理:凝聚态物理
CiteScore
6.70
自引率
32.40%
发文量
0
审稿时长
3.0 months
期刊介绍: Physical Review B (PRB) is the world’s largest dedicated physics journal, publishing approximately 100 new, high-quality papers each week. The most highly cited journal in condensed matter physics, PRB provides outstanding depth and breadth of coverage, combined with unrivaled context and background for ongoing research by scientists worldwide. PRB covers the full range of condensed matter, materials physics, and related subfields, including: -Structure and phase transitions -Ferroelectrics and multiferroics -Disordered systems and alloys -Magnetism -Superconductivity -Electronic structure, photonics, and metamaterials -Semiconductors and mesoscopic systems -Surfaces, nanoscience, and two-dimensional materials -Topological states of matter
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