Building Tomorrow’s Electronics: From Atoms to Devices

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Related lectures (30)

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Delves into the use of germanium in quantum computing, emphasizing hole-based quantum systems and materials advancements.

Nanoscience Frontiers

Delves into the frontiers of nanoscience, exploring the manipulation of atoms, magnetic data storage, semiconductor devices, quantum technology, and the economic impact of the semiconductor industry.

Integrated Circuits: Evolution and Fabrication

Explores the evolution of integrated circuits, from transistors to CMOS technology, highlighting key historical milestones.

MOSFET Basics: NMOS and PMOS Characteristics

Provides an overview of MOSFET operation, focusing on NMOS and PMOS characteristics, including current equations and channel modulation effects.

Analog CMOS Integrated Circuits: Fundamentals

Covers the fundamentals of analog CMOS integrated circuits, emphasizing transistor-level design principles and the historical impact of CMOS technology.

MOSFET Operation: Understanding NMOS Behavior

Explains the operation of NMOS structures and their behavior in various regimes, including sub-threshold, linear, and saturation.

Simulation of Quantum Devices

Covers the simulation of 2D and 1D Field-Effect Transistors using the Non-Equilibrium Green's Function method.

Quantum and Nanocomputing

Explores Cryo-CMOS components, quantum computing stack, amplifier performance, noise specifications, and impedance matching in electronic circuits.

Simulation of 2D Field Effect Transistors

Covers the simulation of 2D Field Effect Transistors and the advantages of using Green's Function.

Organic Electronic Devices

Explores the history, challenges, and quantum mechanics behind organic electronics, focusing on intramolecular electron delocalization and semiconductor materials preparation.