Introduction to Electronic Circuits
Explore electronic circuits, from basic components to advanced concepts like amplifiers and digital systems. Gain practical skills in circuit analysis and design.
Fundamentals of Semiconductor Devices
Explore semiconductor physics, device structures, and operational principles. Covers energy bands, carrier dynamics, p-n junctions, transistors, and advanced topics like heterojunctions and compound semiconductors.
Semiconductor Devices and Circuits
Explore quantum mechanics, semiconductor physics, and electronic devices. From wave-particle duality to charge transport and continuity equations, gain a comprehensive understanding of semiconductor fundamentals.
Semiconductor Physics Class 12
You will learn about energy bands, valence and conduction bands, intrinsic and extrinsic properties, semiconductors, diodes, solar cells, transistors, digital and analog signals, logic gates, and much more.
Strain and Crystal Field Splitting Inversion in III-Nitrides
Explore strain and crystal field splitting inversion in III-Nitrides, focusing on advanced condensed matter theory concepts and their applications.
Revolução de Eletrônica: O Caminho da Lei de Ohm ao Domínio Nanoscópio
Explore a evolução da eletrônica, desde a lei de Ohm até a nanoescala, com foco na revolução tecnológica e seus impactos na física moderna.
How a Transistor Works - NPN Bipolar Junction Transistor Explained
Explore the inner workings of NPN bipolar junction transistors, understanding their function and operation in electronic circuits.
MOS Capacitances in NMOS Transistors - Lecture 1.5
Explore gate, parasitic, and diffusion capacitances in NMOS transistors, focusing on their impact and modeling in MOS devices.
NMOSCAP in Accumulation Mode - Lecture 7.1
Explore NMOSCAP operation in accumulation mode, examining key principles and applications in semiconductor device physics.
Non-Ideal MOS Model - Mobility Degradation and Velocity Saturation Effects
Explore non-ideal MOS transistor behavior, including mobility degradation and velocity saturation effects on current flow.
Skewed Inverter and Threshold Voltage - Lecture 2.5
Explore skewed inverters, threshold voltage estimation, and their relationship to skewing-ratio in CMOS design.
Modeling of P-N Junction Devices for Photovoltaic Applications
Explore P-N junction device modeling for photovoltaics using ADEPT, Quantum ESPRESSO, and S4. Learn to simulate various materials and structures, calculate properties, and optimize solar cell designs.
Introduction to Semiconductor Devices
Explore fundamental concepts and principles of semiconductor devices, gaining essential knowledge for electronic engineering applications.
Sub 1 Volt Bandgap Circuit Design
Explore sub-1 volt bandgap circuits, their design principles, and applications in low-power electronic systems.
Short Channel Current Model Analysis for MOS Transistors
Explore short channel current models for MOS transistors, analyzing non-ideal behavior in linear and saturation regions.
NMOS Transistor Working - Lecture 1.3
Explore NMOS transistor operation and typical current characteristics in this concise lecture on semiconductor device fundamentals.
Channel Length Modulation Effect in Current Models - Lecture 2.1
Explore channel length modulation effect on current models, comparing long and short-channel approaches for enhanced understanding of MOSFET behavior.
Introduction to NMOS Transistor Working - Lecture 1.2
Explore NMOS transistor operation modes: accumulation, depletion, and inversion. Learn about current, threshold voltage, and carrier types.
NMOSCAP in Inversion Mode - Lecture 7.3
Explore NMOSCAP operation in inversion mode, examining its characteristics and applications in semiconductor devices.
Correlated Electrons in Two Dimensions - The Fractional Quantum Hall Effect and More
Explore the fascinating world of correlated electrons in 2D systems, focusing on the fractional quantum Hall effect and its implications for condensed matter physics.
Making Camera Pixels from Copper
Explore the creation of photosensitive pixels using copper oxide in this fascinating experiment, delving into semiconductor physics and advanced microscopy techniques.