Lectures related to Introduction to 2D Materials

Beyond CMOS Devices: Valleytronics and Excitonic Devices

Delves into valleytronics, excitonic devices, and their potential for future optoelectronic applications.

Explores semiconductor devices historical development, contact resistance, FET characteristics, quantum limit, 2D materials contacts, and charge-injection mechanisms.

Ultrafast Carrier and Spin Dynamics in 2D Semiconductors

Reviews ultrafast carrier and spin dynamics in 2D semiconductors and their heterostructures, exploring unique optical responses and novel applications.

Simulation of 2D Field Effect Transistors

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

Semiconductor Devices II: Contact Resistance Modeling

Explores contact resistance modeling in semiconductor devices, focusing on gate voltage calculation and defect analysis.

Contact Resistance: Theory and Measurements

Explores contact resistance in semiconductor devices, including Moore's Law, FET characteristics, quantum limits, and measurement techniques.

Semiconductor Devices II: Defects Engineering

Covers the analysis of measurements and defects engineering in semiconductor devices, including density of states and defect probing.

Physics of p-n Junctions

Covers the physics of p-n junctions, including properties at thermal equilibrium, space charge region formation, and optical lithography.

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.

Organic Electronics: Devices & Materials

Explores organic electronics, focusing on devices like transistors and photovoltaic cells, and the preparation of semiconductor materials.

Techno-Scientific Promises: Moore's Law

Delves into the evolution and potential limits of Moore's Law, analyzing its impact on the semiconductor industry and technological innovation.

Organic Electronic Devices: Field-Effect Transistors

Explores organic field-effect transistors, covering their fabrication, working principles, and real device examples.

Density of States in Semiconductor Devices

Explores density of states in semiconductor devices, covering electron gas, energy bands, Fermi-Dirac distribution, and band structures.

Contact Resistance in Semiconductor Devices

Explores contact resistance in semiconductor devices, quantum resistance, quantized conductance, spin injection challenges, and strategies for reducing contact resistance.

Unified View of Charge Transport in Organic Semiconductors

Provides a unified understanding of charge transport mechanisms in organic semiconductors using the generalized Einstein relation.

Organic Electronic Materials: Field-Effect Transistors

Explores organic electronic materials, focusing on organic field-effect transistors (OFETs) and their operation, characterization, and real-world applications.

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.

Introduction to IC Design

Introduces the design of analog CMOS integrated circuits and emphasizes the importance of good analog design skills.

Building Tomorrow’s Electronics: From Atoms to Devices Log in to Mediaspace to watch this video

Delves into the evolution of transistors, the impact of quantum effects on nano-devices, and the functionality of memristors.

MOSFET Structure and Operation: Qualitative Analysis Log in to Mediaspace to watch this video

Describes the qualitative behavior of MOSFET transistors, focusing on their structure and operational principles.