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Nanogap-enhanced terahertz sensing of 1 nm thick (λ/10
6
) dielectric films
Hyeong Ryeol Park
, Xiaoshu Chen
, Ngoc Cuong Nguyen
, Jaime Peraire
,
Sang Hyun Oh
Electrical and Computer Engineering
Research output
:
Contribution to journal
›
Article
›
peer-review
94
Scopus citations
Overview
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Dive into the research topics of 'Nanogap-enhanced terahertz sensing of 1 nm thick (λ/10
6
) dielectric films'. Together they form a unique fingerprint.
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Keyphrases
Modeling Techniques
100%
Terahertz Wave
100%
Terahertz Sensing
100%
Nanogap
100%
Dielectric Film
100%
Atom Lithography
66%
Hybridizable Discontinuous Galerkin Method
33%
Discontinuous Galerkin Method
33%
Sub-10 Nm
33%
Atomic Layer Deposition
33%
Terahertz
33%
Film Thickness
33%
Refractive Index Change
33%
Resonance Peak
33%
Resonant Transmission
33%
Al2O3 Film
33%
Finite Element Modeling
33%
Three-dimensional Modeling
33%
Annular Gap
33%
Wafer-scale
33%
Full Three-dimensional
33%
Terahertz Time-domain Spectroscopy (THz-TDS)
33%
Spectral Shift
33%
3D Finite Element Model
33%
Dielectric Overlay
33%
Terahertz Nanophotonics
33%
Sub-10-nm Gaps
33%
Material Science
Lithography
100%
Finite Element Modeling
100%
Dielectric Films
100%
Film Thickness
50%
Refractive Index
50%
Aluminum Oxide
50%
Dielectric Material
50%
Physics
Finite Element Modeling
100%
Dielectric Material
100%
Nanophotonics
50%
Film Thickness
50%
Refractivity
50%
Three Dimensional Models
50%
Atomic Layer Epitaxy
50%
Engineering
Terahertz
100%
Dielectric Films
100%
Atomic Layer
28%
Lithography
28%
Fem Model
28%
Multiscale
14%
Dielectrics
14%
Length Scale
14%
Time Domain
14%
Annular Gap
14%
Discontinuous Galerkin
14%
Refractive Index Change
14%
Atomic Layer Deposition
14%
Dimensional Modeling
14%