Learn · Introduction to Microwave and Optical Metamaterials
Lecture 18 of 61Week 4: Theory for Metamaterials
Lec 18: Opical Properties of Dielectrics
Prof. Debabrata Sikdar · IIT Guwahati
Credits and licence
- From
- Introduction to Microwave and Optical Metamaterials, IIT Guwahati (at NPTEL)
- Licence
- CC BY-NC-SA, as NPTEL states it. Non-commercial use only.
- Attribution
- NPTEL states: "Distributed under Creative Commons Attribution-ShareAlike / CC BY - NC - SA", beside a BY-NC-SA badge.
- Who can watch
- Tweens profiles and older. How courses are placed
All the lectures
- Lec 1: Introduction to Microwave and Optical Metamaterials-I
- Lec 2: Introduction to Microwave and Optical Metamaterials-II
- Lec 3: Applications of Optical Metamaterials & Classifications of Metamaterials
- Lec 4: Classifications of Metamaterials-II
- Lec 5: Overview of Metamaterials Technology
- Lec 6: Basic Electromagnetic Theory-I
- Lec 7: Basic Electromagnetic Theory-II
- Lec 8: Electromagnetic Properties of Materials
- Lec 9: Electromagnetic Waves in Materials
- Lec 10: Electromagnetic Waves in Periodic Medium
- Lec 11: Polarization of Electromagnetic Waves
- Lec 12: Fresnel Equations
- Lec 13: Absorption and Dispersion of Electromagnetic Waves
- Lec 14: Scattering of Electromagnetic Waves
- Lec 15: Concept Behind Metamaterials
- Lec 16: Opical Properties of Metals-I
- Lec 17: Opical Properties of Metal and Dielectrics
- Lec 18: Opical Properties of Dielectrics
- Lec 19: Mixing Rules and Effective Medium Theories
- Lec 20: Effective Medium Theory-II
- Lec 21: Overview of Electric Metamaterials
- Lec 22: Periodic Array of Metallic Wires-I
- Lec 23: Periodic Array of Metallic Wires-II
- Lec 24: Inhomogeneous and Chiral Metamaterials
- Lec 25: Types of Engineered Metamaterials and Applications
- Lec 26: Split Ring Resonators
- Lec 27: Optical Magnetic Elements
- Lec 28: Analytical model of magnetic nanostrips
- Lec 29: High-Permittivity Route to Artificial Magnetism
- Lec 30: Modelling of Microwave devices using metamaterials
- Lec 31: 2D Model of Microwave Antenna with One Layer Metamaterial
- Lec 32: Miniaturized Design of Microwave Antenna
- Lec 33: Far-field Focusing for Microwave Antennas
- Lec 34: Metamaterial-Inspired Antennas-I
- Lec 35: Metamaterial-Inspired Antennas-II
- Lec 36: Brief Overview of Negative Index Metamaterials
- Lec 37: Negative Index Metamaterials-I
- Lec 38: Negative Index Metamaterials-II
- Lec 39: Super Resolution with Meta-Lenses
- Lec 40: Applications of Composite Near-Field Superlens
- Lec 41: Fundamentals of Hyperbolic Metamaterials
- Lec 42: Hyberbolic Metamaterials for Super-resolution Hyperlens Imaging
- Lec 43: Hyperbolic metamaterials for nanoscale optical cavities
- Lec 44: Metamaterials Based Nanoscale Optical Cavities and Active Hyperbolic Metamaterials
- Lec 45: Applications of Active Hyperbolic Metamaterials
- Lec 46: Active Hyperbolic Metamaterials for Various Spectral Band
- Lec 47: Principles of Transformational Electromagnetics
- Lec 48: Examples and Applications of Transformational Electromagnetics
- Lec 49: Invisibility Cloaks
- Lec 50: Carpet Cloaking
- Lec 51: Realizing Electromagnetic Cloaking using Metamaterials
- Lec 52: Transformation Electromagnetics for Antenna Applications and Stealth Technology
- Lec 53: Tunable metamaterials and Magnetically tunable metamaterials
- Lec 54: Electrically Tunable Metamaterials
- Lec 55: Thermally Tunable Metamaterials
- Lec 56: Tunable Metamaterials-based Sensors
- Lec 57: Metamaterial Fabrication Techniques
- Lec 58: Microwave Metamaterial Patterning Methods
- Lec 59: Optical Metamaterial Patterning Methods
- Lec 60: Metamaterial Fabrication Technique: Pattern Transfer
- Lec 61: Characterization Methods of Metamaterials