Lectures related to Surface Energy and Semiconductor Nanostructures

Effective Masses in Semiconductor Physics

Covers effective masses in semiconductors, focusing on energy bands and their implications for materials like silicon and gallium arsenide.

Surface Properties: Understanding Semiconductors and Nanomaterials

Covers the significance of surface properties in semiconductors and nanomaterials, including surface energy, reconstruction, and the effects of surface states on electronic behavior.

Electrical and Magnetic Properties of Materials

Explores electrical and magnetic properties of materials, including semiconductors, dielectric behavior, and optical phenomena.

Semiconductor Physics: Donors and Acceptors

Covers the role of donors and acceptors in semiconductor physics and the control of conductivities.

Doping in Semiconductors: Carrier Concentration and Ionization Energy

Discusses doping in semiconductors, focusing on carrier concentration, ionization energy, and the effects of temperature on electrical properties.

Band and Band-like Transport

Explores band and band-like transport in materials, including criteria, examples, charge transfer, and second quantization.

Electrical Conductivity of Metals: Semiconductor Properties

Explores electrical conductivity of metals, semiconductor properties, and energy bands.

Optical Properties of Semiconductors

Explores the optical properties of semiconductors, including absorption spectrum changes and exciton physics.

Semiconductor Physics: Occupancy Statistics and Band Filling

Explores occupancy statistics and band filling in semiconductors, covering intrinsic and doped cases.

Understanding Ohmic Contacts: Schottky and Avalanche Effects

Covers the principles of ohmic contacts and their significance in semiconductor devices.

Phenomenological Description of Magnetocrystalline Anisotropy

Covers the phenomenon of magnetocrystalline anisotropy and its sensitivity to temperature in various materials.

Electronic Bands: Conductors and Insulators

Delves into electronic bands, energy levels, conductors, insulators, and electron holes.

Semiconductor Devices II: Defects Engineering

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

Doping in Semiconductors: Energy Band Models

Covers the impact of doping on semiconductor properties and energy levels.

Contacts: Semiconductor Devices II

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

Semiconductors and Charge Carriers

Introduces semiconductor physics, covering materials, charge density, energy levels, doping, transport, and conductivity.

Electrical Conductivity of Metals

Explores electrical conductivity in metals, semiconductors, and the optical properties of semiconductors.

Metal-Semiconductor Junctions: Thermodynamic Equilibrium

Discusses metal-semiconductor junctions, their historical context, thermodynamic equilibrium, and the principles governing their operation in semiconductor technology.

Charge Carriers in Organic Electronics: Solitons and Polarons

Discusses charge carriers in organic materials, focusing on solitons, polarons, and their implications for charge transport and device performance.

Semiconductor Physics: Fundamentals and Applications

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