Week 1: Foundation of Quantum Mechanics
Class 1: Principles of Quantum Mechanics- Energy Quanta, Wave–Particle Duality, The Uncertainty Principle
Class 2: Schrodinger’s Wave Equation, Extension of the Wave Theory to Atoms,
Class 3: Allowed and Forbidden Energy Bands-Formation of Energy Bands, The Kronig–Penney Model, K Space Diagram
Class 4: Electrical Conduction in Solids-The Energy Band and the Bond Model, Drift Current, Electron Effective Mass
Class 5: Density of States Function (as a function of Temperature), Statistical Mechanics- The Fermi Dirac Probability Function (as a function of Temperature), The Distribution Function and the Fermi Energy, Quasi Fermi Level
Week 2: Basic MOS Device Physics
Class 1: Basic MOSFET Structure, symbol and working as a Switch
Class 2: MOSFET Operation- Depletion, Accumulation and Inversion
Class 3: MOSFET I/V Characteristics- threshold voltage, I/V Characteristics, Transconductance
Class 4: Second-Order Effects – (a) Body Effect
Class 5: Second Order Effects- (b) Channel Length Modulation, (c) Subthreshold Conduction
Week 3: Cryogenic Electronics
Class 1: Introduction to Cryogenics in Electronics
Class 2: Cryogenic Coolant/Fluids used
Class 3: Transition in Properties of materials with variation in Temperature
Class 4: Semiconductor devices at Room Temperature@300 K
Class 5: Semiconductor devices at Low Temperature@ below 150 K and 77K
Week 4: Analysis of Device Physics at Low Temperature
Class 1: Change in Bandgap at Low Temperature
Class 2: Change in Intrinsic Carrier concentration
Class 3: Lowering in the level of Fermi Energy
Class 4: Effect of Freeze-out on dopant atom concentration
Class 5: Complete Effect of Overall Phenomenon
Week 5: Modelling of Cryo-MOS Device
Class 1: Introduction to Modelling of Cryo-MOS Device
Class 2: Device Performance Modelling at Cryogenic Temperatures
Class 3: Semiconductor Device Equations at Low Temperature
Class 4: Incomplete Ionization Models
Class 5: Mobility Models: Scattering effect
Week 6: Impact of Cryogenic Temperature on MOS Device Physics
Class 1: Change in Threshold Voltage
Class 2: Effect on Mobility
Class 3: Effect on leakage and saturation current
Class 4: Kink-observed at higher VDS due to Impact Ionization
Class 5: Subthreshold Swing and Transconductance
Week 7: Variability in Cryogenic based device
Class 1: Introduction to MOS Capacitance
Class 2: Traps and Defects at Cryogenic Temperatures
Class 3: C-V Characteristics: High-Frequency and Low Frequency Capacitance
Class 4: Characterization Techniques
Class 5: Cryogenic MOS Capacitance Modeling
Class 6: Noise Performance and Flicker Noise
Week 8: Cryo-CMOS Configurable Hardware Components
Class 1: Cryo-ADC
Class 2: Cryo-Low Noise Amplifiers
Class 3: Multiplexers and Circulators
Class 4: Cryo-Oscillators
Class 5: Cryo-Power Management Circuits and Sensors and Sensor Interfaces
Class 6: Cryo-Phase-Locked Loops (PLLs)
Week 9: Quantum Qubits And Architecture of Quantum Computers
Class 1: Introduction to Qubits
Class 2: Properties of Qubits
Class 3: Architecture of Quantum Computers
Class 4: Interfacing Quantum Processor with Classical Controllers
Class 5: Quantum Gates and Operations
Class 6: Quantum Entanglement and Quantum Communication
Week 10: Cryo-CMOS Configurable Hardware Components
Class 1: Single Qubit System
Class 2: Extension to multi-Qubit systems
Class 3: Multiplexing DC and I/O signal for 4 qubits
Class 4: Multiplexing techniques based on FDMA, TDMA, SDMA
Class 5: Future trends –Number of Qubits required?
Class 6: Quantum Gate Operations and Quantum Circuits
Week 11: Sensing/ Metrology
Class 1: Introduction to Quantum Metrology- Mathematical Foundation
Class 2: Quantum Sensing and it’s real world application
Class 3: Challenges to Metrology and Sensing
Class 4: SPADS- Single-Photon Avalanche Diode Sensors
Class 5: Challenges to Quantum Technology
Class 6: Quantum Information Processing in Sensing and Metrology
Week 12: Methodologies for Sensing
Class 1: Qubit readout front-end circuits for (a) Spin qubit
Class 2: Qubit readout front-end circuits for (b) Transmon qubit
Class 3: Sensing the Qubits- Optical Technique
Class 4: Sensing the Qubits- Microwave Technique
Class 5: Recapitulation
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