NOC:Physics of Nanomaterials

Lecture 1 - Introduction to nanomaterials and nanotechnology

Lecture 2 - Classification of Nanomaterials

Lecture 3 - Need of nanomaterials

Lecture 4 - Application of nanomaterials

Lecture 5 - Concept and Quantum Mechanical Explanation of Electron Confinement

Lecture 6 - Energy Band Diagram in Solid State Materials

Lecture 7 - Crystal Structures and Phase Transitions in Nanomaterials

Lecture 8 - Dimensionality Effects on the Electrical properties

Lecture 9 - Introduction to Synthesis Methods for Nanomaterials

Lecture 10 - Kinetically and Thermodynamically Controlled Routes

Lecture 11 - Top Down and Bottom Up Synthesis Routes - 1

Lecture 12 - Top Down and Bottom Up Synthesis Routes - 2

Lecture 13 - Low Dimensional Structures - Quantum Wells, Wires and Dots; Conduction Electrons and Dimensionality

Lecture 14 - Fermi Gas and Density of States

Lecture 15 - Fermi Gas and Density of States

Lecture 16 - Coulomb Potential and Single Electron Tunnelling

Lecture 17 - Metal Nanoclusters

Lecture 18 - Semiconducting Nanoparticle Clusters

Lecture 19 - Molecular Clusters

Lecture 20 - Quantum Devices - Infrared Detectors and Quantum Dot lasers

Lecture 21 - Application of carbon nanotubes

Lecture 22 - Carbon clusters and nanotubes

Lecture 23 - Electrical, Vibrational and Mechanical Properties of Carbon Nanotubes

Lecture 24 - Application of carbon nanotubes

Lecture 25 - Magnetism at Nanoscale

Lecture 26 - Nanostructured Magnetic Materials

Lecture 27 - Dynamics of Nanomagnets - I

Lecture 28 - Dynamics of Nanomagnets - II

Lecture 29 - Giant Magnetoresistance

Lecture 30 - Colossal Magnetoresistance

Lecture 31 - Nanocarbon Ferromagnets

Lecture 32 - Superparamagnetism and ferrofluids

Lecture 33 - Self Assembly and Catalysis

Lecture 34 - Process of Self Assembly

Lecture 35 - Monolayers and Porous Materials

Lecture 36 - Nature of Catalysis,Pillard Clays and Colloids

Lecture 37 - Nanomaterials for Energy Devices

Lecture 38 - Secondary Batteries

Lecture 39 - Supercapacitors

Lecture 40 - Porous Silicon, Photoluminescence and Photovoltaics

Lecture 41 - Introduction to useful various techniques

Lecture 42 - Particle size determination

Lecture 43 - Phase Transition Using X-ray Diffraction

Lecture 44 - Strain Estimation

Lecture 45 - TEM and SEM

Lecture 46 - Infrared and Raman Spectroscopy

Lecture 47 - Porosity and Specific Surface Areas

Lecture 48 - Infrared and Raman Spectroscopy