Lectures related to Contact Resistance in Semiconductor Devices

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.

Quantum Structures: Band Gaps and Heterostructures

Covers the formation and properties of quantum wells and heterostructures in semiconductor materials.

Graphene: Quantum Properties and Nanoribbons

Explores graphene's quantum conductance, special electronic properties, nanoribbon fabrication, and edge effects.

Density of States in Semiconductor Devices

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

Semiconductor Devices II: Contact Resistance Modeling

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

PN Junctions and Heterostructures: Principles and Applications

Discusses the principles of pn junctions and heterostructures in semiconductor physics, focusing on their electrical characteristics and practical applications.

Semiconductor Physics: Fundamentals and Applications

Delves into the physics of semiconductors, exploring their properties and applications in electronics and optoelectronics.

Semiconductor Materials and Nanostructures

Covers the history of semiconductor materials, band structure, charge carriers, doping, electronic transport, optical properties, and applications.

Introduction to 2D Materials

Introduces 2D materials, FETs, optoelectronics, post-CMOS concepts, and the historical impact of Moore's Law on semiconductor devices.

Semiconductor Devices II: Defects Engineering

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

Efficient Visible Light Emitters

Explores the historical evolution and challenges of efficient visible light emitters, focusing on LED technology and the quest for 100%+ efficiency.

Excitons, Luminescence and LEDs

Explores excitons, luminescence, and LEDs, including their formation, impact on carrier density, and working principles.

Spectroscopy: Electronic Properties and Techniques

Explores energy spectroscopy techniques like XPS and UPS, Auger spectroscopy, surface sensitivity, and graphene band structure.

Quantum Science: Applications of Statistical Physics

Explores the applications of quantum science in statistical physics, covering semiconductors, photons, and quantum point contacts.

Contact Resistance: Theory and Measurements

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

Heat Dissipation in Field-Effect Transistors

Explores heat dissipation challenges in field-effect transistors and the potential of MOS2 and graphene for electronic devices.

Photodiodes: Design and Optimization of Heterojunctions

Covers the design and optimization of photodiodes, focusing on enhancing performance through material selection and the importance of the depletion region.

Contact Resistance in Semiconductor Devices

Explores contact resistance in semiconductor devices and methods to measure and extract it.

Proximitized Materials: From Spintronics to Majorana States

Explores the transition from spintronics to Majorana states in proximitized materials, focusing on magnetic proximity and topological superconductivity detection.

Beyond CMOS Devices: Valleytronics and Excitonic Devices

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