ScholarWorks@Hanyang University ERICA Campus: Jung, Young Dae

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Jung, Young Dae (정영대)

ERICA 첨단융합대학 (ERICA 지능정보양자공학전공)

Research Area: 이론물리학(원자 및 플라즈마 물리학, 생체물리학, 천체물리학)

Tel 031-400-5477
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plasmas:8||atomic processes:8||Lithography simulation:6||Lithography:6||surface waves:5||Quantum plasmas:5||atomic data:5||Quantum Plasmas:5||plasma temperature:4||dusty plasmas:4||quantum plasmas:4||spacecharge wave:4||Surface wave:3||Plasma Physics:3||plasma density:3||collisional damping:3||Resonant instability:3||Lorentzian plasmas:3||Transition Bremsstrahlung:2||Atomic processes:2||bremsstrahlung:2||plasma collision processes:2||complex plasmas:2||entanglement fidelity:2||Selfassembly process:2||ElectronExchange Effect:2||dynamic screening:2||Selfassembly:2||Dynamics:2||molecular processes:2||turbulence:2||Occurrence scattering time:2||Damping:2||MEMS:2||molecular data:2||Dusty Plasmas:2||Quantum Shielding:2||streaming instability:2||electron collisions:2||Electronexchange effect:1||Electronhole plasmas:1||Electronpositronion dusty plasmas:1||Embedded Channels:1||Embedded fluidic channels:1||Entanglement Fidelity:1||FermiDirac Plasmas:1||Field configuration effects:1||Finitedifference time domain:1||Fluid Model:1||Fluid equation:1||Friedel screening:1||Hasegawa surface wave:1||Hybrid wave:1||ISM : general:1||Immersion lithography:1||Induced Radiated Power:1||Inverse Lithography:1||Inverse lithography:1||Ions:1||Jeans effect:1||KSTAR:1||KarpmanWashimi Nonlinear Magnetization:1||KarpmanWashimi magnetization:1||KramersKronig relations:1||KramersKronig 관계식:1||Landau damping:1||Landau retardation:1||Landau 감쇠:1||Langmuir oscillations:1||Lineedge roughness:1||Linear plasma devices:1||Lithography Simulation:1||Lorentzian plasma:1||Magnetized anisotropic plasmas:1||Magnetoacoustic Wave:1||Microlithography:1||Mode conversion:1||Mode transition:1||Molecular:1||Molecularscale simulation:1||Monte Carlo method:1||MonteCarlo:1||MultiExposures:1||Multiexposures:1||Multimode propagation:1||Multipole surface solitons:1||Negative Resist:1||Negative chemically amplified resist:1||Negative resist:1||Nonideal plasmas:1||Nonideal Plasmas:1||Nonlocal nonlinear media:1||Nonrelativistic bremsstrahlung:1||Nonthermal Effects:1||Numerical Solutions:1||Numerical solutions:1||Occurrence Scattering Time:1||Optical lattice field:1||Oscillatory Screening:1||PMI (plasmamaterial interaction):1||Pair annihilation:1||Paired Solitons:1||Plasma screening effects:1||Plasmas:1||Plasmon Effects:1||Polarization:1||Polarization bremsstrahlung process:1||Ponderomotive Force:1||Ponderomotive force:1||Quantum Interference:1||Quantum Lorentzian Plasmas:1||Quantum Plasma:1||Quantum Pressure:1||Quantum Screening:1||Quantum diffraction:1||Quantum shielding:1||Ramsauer minima:1||RamsauerTownsend Minima:1||Relativistic Wake Field:1||SchrodingerPoisson System:1||SchrodingerPoisson system:1||SelfGravitational Instability:1||Semibounded magnetized dusty plasmas:1||Semiclassical Plasma:1||Semiclassical Plasmas:1||Shannon information entropy:1||Size Effects:1||Slabs:1||Streaming and Resonant Interaction:1||Strongly Coupled Plasmas:1||Strongly Coupled Semiclassic Plasmas:1||Sun : atmosphere:1||Sun: atmosphere:1||Surface acoustic wave devices:1||Surface dust ionacoustic wave:1||Surface electrostaticioncyclotron wave:1||Surface plasma waves:1||Surface waves:1||Symmetric and antisymmetric modes:1||Taguchi method:1||Turbulence damping:1||Turbulent plasmas:1||Wigner timedelay:1||astrophysical plasmas:1||bounded plasma:1||broken degeneracy:1||charge exchange:1||cold quantum plasmas:1||collisional orientation:1||collisional plasma:1||complex plasma:1||coulomb focusing:1||cylindrical waveguide:1||degenerate electron:1||diffusion:1||double patterning:1||effects of ions:1||elastic collisions:1||electiondust particle bremsstrahlung:1||electric multiple units (EMUs):1||electron density:1||electronelectron collision:1||electronexchange effect:1||electronion collisions:1||electronphonon coupling:1||electronpositron plasmas:1||elementary particles:1||fermion systems:1||fusion plasma:1||induced cyclotron frequency:1||inverse lithography:1||iondriven instability:1||kappa turbulent plasma:1||lithography:1||lithography simulation:1||magnetic field effect:1||magnetic field effects:1||magnetized dusty plasmas:1||magnetized plasmas:1||mutimode Hasegawa spacecharge wave:1||nonthermal effect:1||nondestructive evaluation (NDE):1||nonextensive plasmas:1||nonideal plasmas:1||nonthermal diffusion:1||nonthermal effects:1||nuclear data:1||nuclear processes:1||occurrence scattering time:1||orientation phenomena:1||oscillatory quantum shielding:1||oscillatory screening:1||pairiondust plasmas:1||plasma applications:1||plasma dielectric properties:1||plasma fluctuations:1||plasma magnetohydrodynamics:1||plasma oscillations:1||plasma slab:1||plasma theory:1||plasma waveguide:1||plasma waves:1||plasmons:1||ponderomotive force:1||qentropy:1||quantum interference:1||quantum magnetoplasmas:1||quantum plasma:1||quantum recoil:1||quantum screening effects:1||quantum statistical mechanics:1||resonant flow instability:1||safety diagnosis:1||scattering spinasymmetry:1||semibounded quantum plasma:1||semiclassical plasma:1||semiclassical plasmas:1||semiclassical transition probability:1||semiconductor plasma:1||spinchannel preference:1||streaming ions:1||strongly coupled plasma:1||structural analysis:1||surface dust ionacoustic wave:1||surface electromagnetic waves:1||surface ion waves:1||surface ionacoustic mode:1||surface mode:1||surface plasmas:1||surface wave:1||transverse dust lattice waves:1||transverse truncation method:1||turbulent plasma:1||warm plasma:1||waves:1||양자 플라스마:1||유체방정식:1||인과법칙:1||전자교환 효과:1||Astrophysical dusty plasma:1||제동복사 현상:1||Astrophysical plasmas:1||Astrophysical turbulent plasmas:1||Atomic and Molecular Collisions:1||Atomic collisional orientation parameter:1||Atomic collisions:1||Block copolymer:1||Bohm potential:1||Bremsstrahlung process:1||Buneman Instability:1||CAR:1||Causality:1||Chemically Amplified Resist:1||Chemically amplified resist:1||Chemicallyamplified resist:1||Collisional Entanglement Fidelity:1||Collisional Plasmas:1||Complex plasma:1||Compton scattering:1||Convection:1||DiPS2:1||DiPS2 (Divertor Plasma Simulator2):1||Diffusion:1||Dispersion:1||Domain wall soliton:1||Dust Bremsstrahlung:1||Dust rotation:1||Dusty plasma:1||Dynamic Quantum Screening:1||Dynamic Shielding:1||Dynamical Stability:1||ELM (edge localized mode):1||Eikonal Cross Section:1||Eikonal Method:1||Eikonal phase:1||Elastic electronion collision:1||ElectronDust Grain Scattering:1||ElectronIon Quantum Plasmas:1||Electronexchange:1||

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