EE61204: Power Management Integrated Circuits

Venue: NR-224 (Nalanda Class Complex)
Class Timings: THURS(15:00-16:55) , FRI(15:00-16:55)
References:
[1] Power Management Techniques for Integrated Circuit Design By Ke-Horng Chen, Wiley-Blackwell, 2016
[2] Power Management Integrated Circuits by M.M. Hella and P.P. Mercier (eds.), CRC Press, 2016
[3] Fundamentals of Power Electronics, 2nd Edition by Robert W. Erickson, Dragan Maksimovic, Springer (India) Pvt. Ltd, 2005
[4] Reconfigurable Switched-Capacitor Power Converters by D. Ma, R. Bondade, Springer
[5] Design of Analog CMOS Integrated Circuits by Bezad Razavi, Tata McGraw-Hill
    Class-1: Course introduction
    Class-2: Introduction to Power Management Integrated Circuits
    Class-3: Few State-of-Art Designs
    Voltage and Current References:
    Class-4: Supply-independent current biasing
    Class-5: Voltage to current converter
    Class-6: Voltage reference, NTC Voltage, PTC Voltage, Bandgap Reference
    Class-7: PTAT current reference, Sub 1-V Bandgap Reference
    Impact of Technology in Power Management IC:
    Class-8: Power MOSFETs and Isolation Technology, DMOS, LDMOS, HVMOS
    Linear Regulators:
    Class-9: Conceptual development of linear regulator, classifications
    Class-10: Numerical Problems
    Class-11: Analytical model, different specifications
    Class-12: Numerical Problems
    Class-13: Single-stage topology and different variants
    Class-14: Single-stage topology: DC analysis
    Class-15: Single-stage topology: small signal analysis and pole movements
    Class-16: Single-stage topology: small signal analysis and pole movements, slewing response
    Class-17: Two-stage topology and DC analysis for different variants
    Class-18: Two-stage topology: small signal analysis and pole movements, slewing response
    Class-19: Three-stage topology: with-capacitor case and pole movements.
    Class-20: Three-stage topology: capacitor-less case, nested Miller compensation and pole movements.
    Class-21: Digital LDO
    Class-22: System-level considerations of linear regulator
    Inductor-Based Switching Converters:
    Class-23: Different converter topologies: buck, boost and buck-boost
    Class-24: Conversion ratio, inductor current ripple and capacitor voltage ripple
    Class-25: Discontinuous Conduction Mode (DCM) and its motivation
    Class-26: Derivation of CCM-DCM Boundary, Effects of non-ideal Components on Conversion Ratio and Need for Regulation
    Class-27: Generic control-schemes for the converter, voltage-mode hysteretic control
    Class-28: Design of CMOS hysteretic comparator, Numerical problem, Current-mode hysteretic control
    Class-29: Constant ON-time control
    Class-30: Constant OFF-time control
    Class-31: Design of super-buffer
    Class-32: Driver and Deadtime Design
    Class-33: Voltage-mode PWM control, trailing edge, leading edge, double edge PWM modulator
    Class-34: Converter modelling
    Class-35: Converter modelling
    Class-36: Type-I, Type-II, Type-III compensator
    Class-37: Loss model, Gate charge and Miller plateau
    Class-38: Loss calculation under CCM and DCM operation
    Class-39: Layout considerations in PMIC, Power transistor layout
    Class-40: Latch-up issue, guard-rings, Floor planning, Packaging considerations
    Class-41: Floor planning, Packaging considerations
    Switched-Capacitor based DC-DC Converters:
    Class-42: Basic concept and features, Voltage Buffer, Voltage Inverter
    Class-43: Voltage Doubler, Dickson's Charge pump
    Class-44: Cross-coupled voltage doubler, switch and capacitor implementation, reconfigurable charge pump.
    Class-45: An Example Design of Power Management IC: Battery-less Energy Harvesting Frontends for Powering Multiple IoT Nodes
    Class-46: An Example Design of Power Management IC: Battery-less Energy Harvesting Frontends for Powering Multiple IoT Nodes
    Class-47: Conclusion
    Class-48: Class-test