Millimeter Wave Technology
Millimeter Wave Technology. Instructor: Prof. Mrinal Kanti Mandal, Department of Electronics and Electrical Communication Engineering, IIT Kharagpur. Millimeter wave components are usually realized by frequency scaling the microwave components. However, an engineer has to deal with several design challenges in terms of higher loss, high signal-to-noise ratio, signal distortions etc. while implementing a millimeter wave system. Primary focus of this course is to introduce the design problems and their solutions at millimeter wave frequencies.
(from nptel.ac.in)
| Introduction to Millimeter Wave Technology |
| Lecture 01 - Introduction and Jagadish Chandra Bose's Work |
| Lecture 02 - Millimeter Wave Applications |
| Lecture 03 - Phase and Group Velocity, Slow and Fast Waves, Skin Depth, Boundary Conditions |
| Lecture 04 - Challenges in Millimeter Wave Technology |
| Lecture 05 - Material Properties at Millimeter Wave Frequencies, Substrate Losses |
| Guiding Structures |
| Lecture 06 - Dielectric Loss, Conductor Loss, Radiation and Surface Wave Loss |
| Lecture 07 - EM Waves in Transmission Lines, Surface Waves |
| Lecture 08 - Parallel Plate Guide, Waveguiding Structures: Rectangular Waveguides |
| Lecture 09 - Waveguiding Structures: Rectangular Waveguides, High Power Limitation |
| Lecture 10 - Rectangular Waveguides: High Power Limitation (cont.), Planar Transmission Lines |
| Lecture 11 - Planar Transmission Lines: Microstrip Lines |
| Lecture 12 - Microstrip Coupled Lines |
| Lecture 13 - Conductor-Backed Coplanar Waveguide, Surface-Integrated Waveguide |
| Lecture 14 - Surface-Integrated Waveguide, Fabrication of PCB Circuits |
| Lecture 15 - Dielectric Guides |
| Antennas at Millimeter Wave Frequencies |
| Lecture 16 - Antenna Parameters, Printed Millimeter Wave Antennas |
| Lecture 17 - Printed Millimeter Wave Antennas, Waveguide Slot Arrays |
| Lecture 18 - On Chip Antennas, Dipole and Slot Antennas |
| Lecture 19 - Loop Antennas, Fabrication of On Chip Antennas, Leaky Wave Antennas |
| Lecture 20 - Leaky Wave Antennas |
| Passive Components |
| Lecture 21 - Dielectric Resonators |
| Lecture 22 - Filters |
| Lecture 23 - Filters: Determination of Quality Factor and Coupling Coefficient |
| Lecture 24 - Power Dividers and Couplers |
| Lecture 25 - Matched Termination |
| Active Devices |
| Lecture 26 - Active Devices: Solid-State Devices |
| Lecture 27 - Heterojunction Bipolar Transistor, Schottky Diode, PIN Diode |
| Lecture 28 - Transferred Electron Devices (TEDs), Avalanche Transit-Time Devices |
| Lecture 29 - IMPATT Diode Operation, Field Effect Transistors: High-Electron-Mobility Transistor |
| Lecture 30 - Electronic Switches |
| Lecture 31 - Electronic Switches (cont.) |
| Noise and Link Budget |
| Lecture 32 - Millimeter Wave Propagation, Friis Transmission Equation, Link Budget |
| Lecture 33 - Example of Link Margin Calculation, Digital Modulation and Bit Error Rate |
| Lecture 34 - Channel Performance at 60 GHz, Millimeter Wave Link Budget |
| Lecture 35 - Millimeter Wave Link Budget, Thermal Noise, Noise Temperature |
| Lecture 36 - Thermal Noise, Noise Temperature, External Sources of Noise |
| Millimeter Wave Systems |
| Lecture 37 - Antenna and Source Noise, Receiver Noise, Receiver Noise Factor |
| Lecture 38 - Receiver Noise Factor, Operating Noise Factor, Noise Figure for Cascaded System Elements |
| Lecture 39 - Receiver Noise Calculation, Passive Imaging |
| Lecture 40 - Transceiver Architectures |
| References |
Millimeter Wave Technology
Instructor: Prof. Mrinal Kanti Mandal, Department of Electronics and Electrical Communication Engineering, IIT Kharagpur. Millimeter wave components are usually realized by frequency scaling the microwave components.
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