Week 1: Lecture 1: Introduction
Lecture 2: Passive circuit elements: R, L and C
Lecture 3: Resistor color coding, Surface mount capacitors and inductors on PCBs
Week 2: Lecture 4: Active circuit elements: MOSFET, BJTs
Lecture 5: Network analysis: Kirchoff’s Laws
Lecture 6: Network theorems: Thevenin, Norton, Maximum Power Transfer etc.
Week 3: Lecture 7: Circuit Simulations using SPICE: Operating point analysis
Lecture 8: DC Simulations
Lecture 9: Small-Signal AC Simulations, Large Signal Simulations.
Week 4: Lecture 10: Metal Interconnections, Through holes and vias.
Lecture 11: Interconnect design
Lecture 12: CMOS inverter basics
Week 5: Lecture 13: CMOS inverter design
Lecture 14: Combinational circuit design: Part 1
Lecture 15: Combinational circuit design: Part 2
Week 6: Lecture 16: Sequential circuit design: Part 1
Lecture 17: Sequential circuit design: Part 2
Lecture 18: Digital Design: Boolean Algebra
Week 7: Lecture 19: Logic Families, Component Datasheets
Lecture 20: TTL/CMOS logic Interfacing Constraints
Lecture 21: Hardware Description Languages: VHDL and Verilog
Week 8: Lecture 22: Digital circuit design: Inverters/Logic-gates.
Lecture 23: Digital circuit design: decoder/multiplexers.
Lecture 24: Digital circuit design: Adders/Multipliers and ALU.
Week 9: Lecture 25: Understanding PCBs
Lecture 26: Single layer and multi-layer PCBs
Lecture 27: Holes, Vias, Layers Limitations
Week 10: Lecture 28: Hands-on Training on PCB Prototyping-1
Lecture 29: Hands-on Training on PCB Prototyping-2
Lecture 30: Hands-on Training on PCB Prototyping-3
Week 11: Lecture 31: Hands-on Training on PCB Prototyping-4
Lecture 32: Example: Basic PCB design 1
Lecture 33: Example: Basic PCB design 2
Week 12: Lecture 34: Example: Advance PCB design 1
Lecture 35: Example: Advance PCB design 2
Lecture 36: Conclusion
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