![a, b, Classical and mesoscopic electromagnetic boundary conditions, respectively. c, Schematic of equilibrium and induced densities at a jellium-vacuum interface; is the centroid of the induced charge. d, nonclassical corrections can be formulated as surface polarisations: the effective surface dipole density π(r) and the current density K(r). e, Experimental structure. f, π(r) of the (1, 1) gap plasmon mode. g, Observation of large nonclassical corrections [1]](https://nrms.kisti.re.kr/bitextimages/TRKO202200009715/TRKO202200009715_8_image_1.png "a, b, Classical and mesoscopic electromagnetic boundary conditions, respectively. c, Schematic of equilibrium and induced densities at a jellium-vacuum interface; is the centroid of the induced charge. d, nonclassical corrections can be formulated as surface polarisations: the effective surface dipole density π(r) and the current density K(r). e, Experimental structure. f, π(r) of the (1, 1) gap plasmon mode. g, Observation of large nonclassical corrections [1]")
![a, Theoretical impact of on the AGP dispersion. b, Relative theoretically predicted shift of the AGP wavevector between applying the -parameter and not for different graphene doping levels EF and spacer thickness t. [5]](https://nrms.kisti.re.kr/bitextimages/TRKO202200009715/TRKO202200009715_9_image_1.png "a, Theoretical impact of on the AGP dispersion. b, Relative theoretically predicted shift of the AGP wavevector between applying the -parameter and not for different graphene doping levels EF and spacer thickness t. [5]")
![a, Plasmon-mediated Purcell enhancement at the nanoscale: normalized LDOS of a normally-oriented emitter near a metal sphere. b, Two-photonemission (ss transition) of a hydrogenic atom above a planar air –metal interface: enhancement of the differential decay rate as a function of frequency for different emitter–interface separations at a transition frequency of [7]](https://nrms.kisti.re.kr/bitextimages/TRKO202200009715/TRKO202200009715_10_image_1.png "a, Plasmon-mediated Purcell enhancement at the nanoscale: normalized LDOS of a normally-oriented emitter near a metal sphere. b, Two-photonemission (ss transition) of a hydrogenic atom above a planar air –metal interface: enhancement of the differential decay rate as a function of frequency for different emitter–interface separations at a transition frequency of [7]")
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| 주관연구기관 | 한국과학기술원 Korea Advanced Institute of Science and Technology |
|---|---|
| 연구책임자 | 장민석 |
| 참여연구자 | Jacob Terndrup Heiden |
| 보고서유형 | 최종보고서 |
| 발행국가 | 대한민국 |
| 언어 | 대한민국 |
| 발행년월 | 2022-01 |
| 과제시작연도 | 2021 |
| 주관부처 | 과학기술정보통신부 Ministry of Science and ICT |
| 연구관리전문기관 | 한국과학기술원 Korea Advanced Institute of Science and Technology |
| 등록번호 | TRKO202200009715 |
| 과제고유번호 | 1711151264 |
| 사업명 | 한국과학기술원연구운영비지원(R&D)(주요사업비) |
| DB 구축일자 | 2022-09-24 |
| 키워드 | 어쿠스틱 그래핀 플라즈몬 기반 금속의 양자적 표면 특성 규명.Probing quantum surface-response of metals with acoustic graphene plasmons. |
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