【公开课】普渡大学 - 纳米光子建模(双字,Nanophotonic Modeling,PurdueX)

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2020-03-01 21:38:59
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https://www.edx.org/course/nanophotonic-modeling 普渡大学 - 纳米光子建模(双字,Nanophotonic Modeling,PurdueX) 本课程介绍了当前在纳米光子学设计和研究工作中采用的计算技术,以及按波长尺度构造的光子材料和器件。 通常,这些系统将被表征为具有纳米级的临界尺寸。 这些可以包括纳米光子,等离子和超材料组件和系统。 中文:双字 英语(美国):仅英文
www.bilibili.com/read/cv9038294 关于“微电子与纳电子学”的使用说明及版权声明
视频选集
(18/85)
L1.1 Introduction
07:18
L1.2 Bloch Theorem
04:02
L1.3 1D Bandstructures
07:04
L1.4 Reciprocal Lattice Vectors
07:17
L1.5 2D Bandstructures
06:12
L1.6 2D Photonic Crystal Bandgaps
05:22
L1.7 Symmetries in 2D Photonic Crystals
06:56
L1.8 Defects in 2D Photonic Crystals
06:05
L1.9 Photonic Crystal 1D Periodic Waveguides
05:28
L1.10 Photonic Crystal Slabs
06:28
L1.11 Other 2D Photonic Structures
03:54
L1.12 3D Photonic Crystals
06:18
L1.13 Rod-Hole 3D Photonic Crystals
05:32
L1.14 Formulating the Photonic Bandstructure Calculation
05:31
L1.15 Methods for Solving the Photonic Bandstructure
06:27
L1.16 Eigensolvers for Bandstructure Calculations
06:26
L1.17 Targeted Eigensolvers
03:31
L1.18 Running MIT Photonic Bands (MPB)
05:34
L1.19 MPB for Triangular Lattices
03:18
L1.20 MPB for 3D Lattices and Bandgap Maximization
05:45
L1.21 Finding Point Defects in MPB
04:06
L1.22 Summary of Unit 1
06:30
L2.1 Unit 2 Introduction
04:19
L2.2 Connecting Ray Optical Matrices
08:32
L2.3 Wave Optical Matrices
05:47
L2.4 T-Matrices
06:45
L2.5 S-Matrices
05:49
L2.6 S-Matrices with Periodicity
06:07
L2.7 S-Matrices with Periodicity II
05:33
L2.8 Comparison of S-Matrices with Other Approaches
06:41
L2.9 Photonic Simulations with S4
05:46
L2.10 S4 GUI Input
04:54
L2.11 S4 GUI Output
06:22
L2.12 CAMFR Rationale
06:30
L2.13 CAMFR Boundary Conditions
07:03
L2.14 CAMFR Usage I
05:45
L2.15 CAMFR Usage II
05:22
L2.16 CAMFR Usage III
05:52
L2.17 Metasurface S-Matrix Calculations
05:54
L2.18 Light Trapping with Metasurfaces
07:03
L2.19 Unit 2 Summary & Conclusions
07:01
L3.1 Unit 3 Introduction
10:13
L3.2 Finite Difference Time Domain Method
06:27
L3.3 3D FDTD
07:47
L3.4 MEEP:An FDTD Solver
08:16
L3.5 Light Trapping in Photovoltaics
05:47
L3.6 FDTD Dispersion Modeling with QCRF
06:12
L3.7 Tandem Photovoltaic Modeling in FDTD
05:10
L3.8 Characterizing Perovskite Silicon Tandem Photovoltaic Cells
08:12
L3.9 MEEP:Basic Usage
06:55
L3.10 MEEP:Index Guided Waveguides
04:32
L3.11 MEEP:Bent Waveguides
04:04
L3.12 MEEP:Ring Resonators
04:32
L3.13 MEEP:Ring Resonators II
05:54
L3.14 MEEP:Kerr Nonlinearities
09:57
L3.15 MEEP:Photonic Bandstructures
07:31
L3.16 MEEP:Defect Resonant Modes
07:06
L3.17 MEEP:Waveguide Transmission
07:14
L3.18 FDTD Validation Against Experiment
08:14
L3.19:Plasmonic Nanoparticle Light Trapping
03:23
L3.20 Local Density of States
07:19
L3.21 Local Density of States in Omniguide Fibers
04:27
L3.22 Summary and Conclusions
06:08
L4.1 Unit 4 Introduction
09:40
L4.2 Time-Domain Laser Simulation
06:43
L4.3 Photonic Crystal Lasers
06:07
L4.4 Omniguide Fiber Lasers
04:17
L4.5 Beam Propagation Method
07:06
L4.6 Basis Choices for Beam Propagation Method
05:54
L4.7 Introduction to Finite Element Method (FEM)
06:15
L4.8 Galerkin Method for Finite Element Problems
09:13
L4.9 Improving FEM Accuracy
07:32
L4.10 An FEM Waveguide Mode Solvers
05:14
L4.11 Evaluating FEM Waveguide Solvers
04:42
L4.12 Mode Solutions for Photonic Crystal Fibers
05:13
L4.13 Introduction to Thermal Transport
09:19
L4.14 Thermal Transport Modeling
09:58
L4.15 FAESOR:a MATLAB Toolbox for FEM Modeling
06:31
L4.16 FEM Modeling Examples
06:55
L4.17 Evaluating the Accuracy of Thermal FEM
06:57
L4.18 Blackbody Radiation
08:29
L4.19 Thermophotovoltaic Concepts
09:20
L4.20 Thermophotovoltaic Model Validation
08:28
L4.21 Future Research in Thermophotovoltaics
08:56
L4.22 Summary & Conclusions
08:56
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