subjectId	Discipline Name	Subject Name	Coordinators	Type	Institute	Content
115101004	Physics	Electrodynamics	Prof. Amol Dighe	Web	IIT Bombay	Select Lecture 1 : Maxwell�s equations: a review Lecture 2 : Solving static boundary value problems Lecture 3 : Time dependent EM fields: relaxation, propagation Lecture 4 : Energy in electric and magnetic fields Lecture 5 : EM waves with boundaries Lecture 6 -7 : EM waves in confined spaces Lecture 8 : EM wave equation with sources Lecture 9 : EM radiation Lecture 10-11 : Multipole radiation Lecture 12 : Problems Lecture 1 : From electrodynamics to Special Relativity Lecture 2 : Lorentz transformations of observables Lecture 3 : Relativistic energy and momentum Lecture 4 : Covariant and contravariant 4-vectors Lecture 5 : Metric and higher-rank 4-tensors Lecture 6 : Tensor calculus Lecture 7 : Relativistic kinematics: scattering and decay Lecture 8 : EM field tensor and Maxwell�s equations Lectures 9 -10: Lagrangian formulation of relativistic mechanics Lecture 11 : Lagrangian formulation of relativistic ED Lecture 12 : Problem Lectures 1- 2 : Motion of charges in E and B fields Lecture 3 : EM potentials from a moving charge (Lienard-Wiechert) Lectures 4-5 : EM fields from a uniformly moving charge Lectures 6-7 : Cherenkov radiation Lecture 8 : Radiation from an accelerating charge Lecture 9 : Radiation from linear motion: Bremsstrahlung Lectures 10-11 : Radiation from circular orbits: Synchrotron Lectures 12-13 : Radiation reaction force Lectures 14-15 : EM radiation passing through matter Lecture 16 : Problems
115101005	Physics	Electromagnetic Theory	Prof. D.K. Ghosh	Video	IIT Bombay	Select L1-Scalar field and its Gradient L2-Line and Surface Integrals L3-Divergence and Curl of Vector Fields L4-Conservative Field, Stoke's Theorem L5-Laplacian L6-Electric Field Potential L7-Gauss's Law, Potential L8-Electric Field and Potential L9-Potential and Potential Energy L10-Potential and Potential Energy II L11-Potential and Potential Energy III L12-Coefficients of Potential and Capacitance L13-Poission and Laplace Equation L14-Solutions of Laplace Equation L15-Solutions of Laplace Equation II L16-Solutions of Laplace Equation III L17-Special Techniques L18-Special Techniques II L19-Special Techniques III L20-Dielectrics L21-Dielectrics II L22-Dielectrics III L23-Equation of Continuity L24-a) Force between current loops b) Magnetic Vector Potential L25-Magnetic Vector Potential L26-Boundary Conditions L27-Magnetized Material L28-Magentostatics (contd..),Time Varying Field (Introduction) L29-Faraday's Law and Inductance L30-Maxwell's Equations L31-Maxwell's Equations and Conservation Laws L32-Conservation Laws L33-a) Angular Momentum Conservation b) Electromagnetic Waves L34-Electromagnetic Waves L35-Propagation of Electromagnetic Waves in a metal L36-Waveguides L37-Waveguides II L38-Resonating Cavity L39-Radiation L40-Radiation II
115101009	Physics	Ideas and methods in condensed matter theory	Dr. Kedar Damle	Web	IIT Bombay	Select Lecture 1: Overview of course and index of topics Lecture 2: Review and preview Lecture 3: Conceptual overview Lecture 4: Linear response theory-I (Derivation of response kernel) Lecture 5: Linear response theory-II (Properties of response kernel) Lecture 6: Fluctuation-Disspation theorem and introduction to systems of interest Lecture 7: Path integral representation and spin coherent states Lecture 8: Path integral for spin systems Lecture 9: Path integral for spin systems: Berry Phase Lecture 10: Introduction to quantum antiferro- magnets Lecture 11: Long-wavelength expansion in the Neel state Energetic terms Lecture 12 : Expanding the Berry phase term Lecture 13 : Berry phase in d = 1 and d = 2 antiferromagnets Lecture 14 : Probes of quantum antiferromagnetism Lecture 15 : Many-particle quantum mechanics: Algebraic preliminaries and wavefunction description Lecture 16 : Many-body physics in second-quantized language Lecture 17 : Path integral description of many-body physics Lecture 18 : Calculating with the Bosonic path integral Lecture 19 : Phases and excitations of the Bose-Hubbard model Lecture 20 : Effective field theory for the Bose-Hubbard model Lecture 21 : Spin wave theory for quantum rotor model Lecture 22 : of Quantum rotor analysis of instability of N�el state to quantum and thermal fluctuations Lecture 23 : The Mermin-Wagner theorem Lecture 24 : Renormalization group approach to the breakdown of spinwave theory : Basic ideas and formalism Lecture 25 : Renormalization group for the quantum rotor model: Details and the flow equation Lecture 26 : Renormalization group approach to the quantum rotor model: Phases and phase transitions Lecture 27 : Renormalization group approach to the quantum rotor model: Finite temperature properties Lecture 28: Low energy rotor description of the superfluid state and transition to insulating behaviour Lecture 29 : Vortices and their interactions Lecture 30 : Statistical mechanics of vortices -- consequences for superfluid density Lecture 31 : Kosterlitz Thouless theory
115101010	Physics	Quantum Mechanics I	Prof. S.H. Patil	Web	IIT Bombay	Select Chapter 1 : Prelude to Quantum theory Chapter 2 : Introduction to Quantum ideas Chapter 3 : Elements of Quantum Mechanics Chapter 4 : Quantum mechanics in 1-dimension Chapter 5 : Quantum mechanics in 2-dimension Chapter 6 : Quantum mechanics in 3-dimension Chapter 7 :Miscellaneous topics Tutorials
115101011	Physics	Special Theory of Relativity	Prof. Shiva Prasad	Video	IIT Bombay	Select L1-Problem with Classical Physics L2-Michelson-Morley Experiment L3-Postulates of Special Theory of Relativity and Galilean Transformation L4-Look out for a New Transformation L5-Lorentz Transformation L6-Length Contraction and Time Dilation L7-Examples of Length Contraction and Time Dilation L8-Velocity Transformation and Examples L9-A Three Event Problem L10-A Problem involving Light and Concept of Casuality L11-Problems involving Casuality and Need to Redefine Momentum L12-Minikowski Space and Four Vectors L13-Proper Time a Four Scalar L14-Velocity Four Vector L15-Momentum Energy Four Vector L16-Relook at Collision Problems L17-Zero Rest Mass Particle and Photon L18-Doppler Effect in Light L19-Example in C-Frame L20-Force in Relativity L21-Force Four-Vector L22-Electric & Magnetic Field Transformation L23-Example of EM Field Transformation L24-Current Density Four Vector and Maxwell Equation
115101012	Physics	Superconductivity	Prof. P.P. Singh,Prof. A.V. Mahajan	Web	IIT Bombay	Select Lecture 1: Historical review and a survey of properties of superconductors. Lecture 1: Electrical conductivity and heat capacity followed by problem solving Lecture 2: Magnetic susceptibility and Hall Effect followed by problem solving Lecture 1: Two fluid model for superconductivity and London equations Lecture 2: Solution of London equations and free energy calculations Lecture 1: Basic thermodynamics and magnetism Lecture 2: Application to the superconducting transition followed by problem solving Lecture 1: Free energy formulation Lecture 2: Determination of coefficients Alpha and Beta in the absence of fields and gradients Lecture 3: GL equations in presence of fields currents and gradients Lecture 4: Coherence length, flux quantum, field penetration in a slab Lecture 5: Type II superconductivity, fluxoid quantisation Lecture 6: Critical field of thin films Lecture 7: Field and order parameter variation inside a vortex Lecture 1: Cooper-Pair Problem: Schroedinger Equation for Two Interacting Electrons Lecture 2: Cooper-Pair Problem: Solution for Zero Center-of-Mass Momentum Lecture 3: Cooper-Pair Problem: Bound States Lecture 4: Spatial Extent of Cooper-Pair Wavefunction Lecture 5: Cooper-Pair Problem Using Second Quantization Lecture 6: Electron-Phonon Interaction in Metals Lecture 7: Macroscopic Coherent States of Harmonic Oscillator Lecture 8: BCS Theory: BCS Wavefunction Lecture 9: BCS Wavefunction in terms of 2m-particle states Lecture 10: Number of Particles and Phase as Canonically Conjugate Variables Lecture 11: BCS Reduced Hamiltonian Lecture 12: Variational Determination of the Energy of the BCS Ground State. Lecture 13: Elementary Excitations and the Bogoliubov-Valatin Transformation Lecture 14: Bogoliubov-Valatin Canonical Transformation and the Model Hamiltonian Lecture 15: Superconducting Energy Gap and Its Temperature Dependence Lecture 16: Superconducting Transition Temperature Lecture 17: Heat Capacity and other Thermodynamic Properties Lecture 1: Quasiparticle Tunneling: Energy-Level Diagrams Lecture 2: Quasiparticle Tunneling: Microscopic Theory Lecture 3: Pair Tunneling and the Time-Dependent Perturbation Theory Lecture 4: Pair Tunneling, Modified Bogoliubov-Valatin Transformation and the Josephson Effects Lecture 1 : Equivalent circuit for Josephson junction and analysis Lecture 2 : Josephson junctions in a field, SQUIDs and other application Lecture 1: Experimental probes of superconductivity-1 Lecture 2 : Experimental probes of superconductivity-2 Lecture 1 : Unconventional superconductors
115102014	Physics	Electronics	Prof. D.C. Dube	Video	IIT Delhi	Select p-n diode p-n Junction/Diode(Contd.) p-n diode (contd.) Diode Application Transistors Reverse - bias (Contd.) Transistors (Continue) Transistors (Contd.) Biasing a transistor unit 2 contd. Biasing of transistor H and R Parameters and their use in small amplifiers Small signal amplifiers analysis using H - Parameters Small signal amplifiers analysis using R - Parameters R - analysis (Contd.) Common Collector(CC) amplifier (Contd.) Feedback in amplifiers, Feedback Configurations and multi stage amplifiers Reduction in non-linear distortion Input/Output impedances in negative feedback amplifiers (Contd.) RC Coupled Amplifiers RC Coupled Amplifiers (Contd.) RC Coupled Amplifiers (Contd..) FETs ans MOSFET FETs ans MOSFET (Contd.) Depletion - MOSFET Drain and transfer characteristic of E - MOSFET Self Bias (Contd.) Design Procedure FET/MOSFET Amplifiers and their Analysis CMOS Inverter CMOS Inverter (contd.) Power Amplifier Power Amplifier (contd.) Power Amplifier (contd..) Power Amplifier (contd...) Differential and Operational Amplifier Differential and Operational Amplifier (Contd.) dc and ac analysis Differential and Operational Amplifier dc and ac analysis (Contd.) Operational Amplifiers Operational amplifiers in open loop (Contd.) Summing Amplifiers Frequency response of an intigration Filters Specification of OP Amplifiers
115102017	Physics	Nuclear Science & Engineering	Dr. Santanu Ghosh	Web	IIT Delhi	Select Content and Lecture Plan[module 1] Basic Properties of Nucleus [Lecture 1] Shape of the Nucleus: Electric Moments and magnetic Moment [Lecture 2] Binding Energy of a Nucleus [Lecture 3] Examples with hints for lectures 1 to 3 [Lecture 4] Liquid Drop Model: Nuclear Stability [Lecture 5] Liquid Drop Model: Nuclear Stability (Contd.) [Lecture 6] Magic Nuclei and Nuclear Shell Model [Lecture 7] Examples with hints for lectures 5 to 7 [Lecture 8] Bibliography [module 1] Content and Lecture Plan[module 2] Generation of energetic particles in accelerators [Lecture 1] Interaction of photons with matter [Lecture 3] Gas Detectors [Lecture 4] Gas Detectors (Contd.)[Lecture 5] Solid State Detector [Lecture 6] Scintillation Detectors [Lecture 7] Nuclear Electronics for Signal processing [Lecture 8] Bibliography [module 2] Contents and Lecture plans [module3] Fundamentals of Nuclear Reactions, Reaction energy and Model [Lecture 1] Reaction Cross section and Examples of various Nuclear Reactions [Lecture 2] Fission Reaction Mechanism, Energy in Fission Reaction and Basic Formulation on Fission Reactor [Lecture 3] Basic Design Aspects of a Fission Reactor [Lecture 4] Basic Design Aspects of a Fission Reactor (Contd.)[Lecture 5] Basic Fusion Process, Stellar Evolution and Fusion Reaction Rate [Lecture 6] Fusion Reactions in the Plasma and Reactor Design Aspects [Lecture 7] Various issues related to Tokamak and the present status [Lecture 8] Bibliography [module 3] Contents and Lecture plans [module4] Basic Formulation of Radioactivity [Lecture 1] Theory of Successive Transformation and Radioactive Equilibrium [Lecture 2] Basic Formulation on Radioactive Dating process [Lecture 3] Accelerator Mass Spectrometry [Lecture 4] Radiation Dosimetry and Interaction of Nuclear Radiation with Biological Specimen [Lecture 5] Radioisotopes and Their Use in Medical Diagnostics [Lecture 6] Nuclear Radiation Based Therapy [Lecture 7] Practical Examples Related To Above Topics [Lecture 8] Bibliography [module 4] Interaction of energetic charged particles with matter [Lecture 2] Contents and Lecture plans [module5] Neutron Activation Analysis (NAA) [Lecture 1] Neutron Activation Analysis (NAA)(Continued) [Lecture 2] Rutherford Back Scattering Spectrometry (RBS) [Lecture 3] Rutherford Back Scattering Spectrometry (RBS) (Continued) [Lecture 4] Nuclear reaction Analysis (NRA) [Lecture 5] Nuclear reaction Analysis (NRA) (Continued) [Lecture 6] Particle induced X-ray emission (PIXE)[Lecture 7] Particle induced X-ray emission (PIXE) (Continued) [Lecture 8] Bibliography [module 5]
115102020	Physics	Plasma Physics: Fundamentals and Applications	Prof. V.K. Tripathi,Prof. Vijayshri	Video	IIT Delhi	Select Introduction to Plasmas Plasma Response to fields: Fluid Equations DC Conductivity and Negative Differential Conductivity RF Conductivity of Plasma RF Conductivity of Plasma Contd Hall Effect, Cowling Effect and Cyclotron Resonance Heating Electromagnetic Wave Propagation in Plasma Electromagnetic Wave Propagation in Plasma Contd Electromagnetic Wave Propagation Inhomogeneous Plasma Electrostatic Waves in Plasmas Energy Flow with an Electrostatic Wave Two Stream Instability Relativistic electron Beam- Plasma Interaction Cerenkov Free Electron Laser Free Electron Laser Free Electron Laser: Energy gain Free Electron Laser: Wiggler Tapering and Compton Regime Operation Weibel Instability Rayleigh Taylor Instability Single Particle Motion in Static Magnetic and Electric Fields Plasma Physics Grad B and Curvature Drifts Adiabatic Invariance of Magnetic Moment and Mirror confinement Mirror machine Thermonuclear fusion Tokamak Tokamak operation Auxiliary heating and current drive in tokamak Electromagnetic waves propagation in magnetise plasma Longitudinal electromagnetic wave propagation cutoffs, resonances and faraday rotation Electromagnetic propagation at oblique angles to magnetic field in a plasma Low frequency EM waves magnetized plasma Electrostatic waves in magnetized plasma Ion acoustic, ion cyclotron and magneto sonic waves in magnetized plasma VIasov theory of plasma waves Landau damping and growth of waves Landau damping and growth of waves Contd Anomalous resistivity in a plasma Diffusion in plasma Diffusion in magnetized plasma Surface plasma wave Laser interaction with plasmas embedded with clusters Current trends and epilogue
115102022	Physics	Quantum Electronics	Prof. K. Thyagarajan	Video	IIT Delhi	Select Introduction Anisotropic Media Anisotropic Media (Contd.) Anisotropic Media (Contd..) Nonlinear optical effects and nonlinear polarization Non - Linear Optics (Contd.) Non - Linear Optics (Contd..) Non - Linear Optics (Contd...) Non - Linear Optics (Contd....) Non - Linear Optics - Quasi Phase Matching Non - Linear Optics Non Linear Optics contd Non Linear Optics contd. Non Linear Optics contd.. Non Linear Optics contd... Non Linear Optics contd.... Non Linear Optics contd..... Non Linear Optics contd...... Non Linear Optics contd....... Third Order Non - Linear Effects Third Order Non - Linear Effects(Contd.) Third Order Non - Linear Effects(Contd..) Third Order Non - Linear Effects(Contd...) Review of Quantum Mechanics Review of Quantum Mechanics (Contd.) Review of Quantum Mechanics (Contd..) Quantization of EM Field Quantization of EM Field (Contd.) Quantization of EM Field (Contd..) Quantum States of EM Field Quantum States of EM Field (Contd.) Quantization of EM Field (Contd...) Quantization of EM Field (Contd....) Quantization of EM Field (Contd.....) Quantization of EM Field (Contd......) Quantization of EM Field (Contd.......) Beam Splitter Beam Splitter (Contd..) Beam Splitter and Balanced Homodyning Balanced Homodyning Quantum Picture of Parametric Down Conversion Questions
115102023	Physics	Quantum Mechanics and Applications	Prof. Ajoy Ghatak	Video	IIT Delhi	Select Basic Quantum Mechanics I: Wave Particle Duality Basic Quantum Mechanics II: The Schrodinger Equation and The Dirac Delta Function Dirac Delta Function & Fourier Transforms The Free Particle Physical Interpretation of The Wave Function Expectation Values & The Uncertainty Principle The Free Particle (Contd.) Interference Experiment & The Particle in a Box Problem On Eigen Values and Eigen Functions of the 1 Dimensional Schrodinger Equation Linear Harmonic Oscillator Linear Harmonic Oscillator (Contd1.) Linear Harmonic Oscillator (Contd2.) Linear Harmonic Oscillator (Contd3.) Tunneling through a Barrier The 1-Dimensional Potential Wall & Particle in a Box Particle in a Box and Density of States The Angular Momentum Problem The Angular Momentum Problem (Contd.) The Hydrogen Atom Problem The Two Body Problem TheTwo Body Problem: The Hydrogen atom, The Deutron and The Diatomic Molecule Two Body Problem: The Diatomic molecule (contd.) and the 3 Dimensional Oscillator 3d Oscillator & Dirac's Bra and Ket Algebra Dirac�s Bra and Ket Algebra Dirac�s Bra and Ket Algebra : The Linear Harmonic Oscillator The Linear Harmonic Oscillator using Bra and Ket Algebra (contd.) The Linear Harmonic Oscillator: Coherent State and Relationship with the Classical Oscillator Coherent State and Relationship with the Classical Oscillator Angular Momentum Problem using Operator Algebra Angular Momentum Problem (contd.) Pauli Spin Matrices and The Stern Gerlach Experiment The Larmor Precession and NMR Spherical Harmonics using Operator Algebra Addition of Angular Momentum: Clebsch Gordon Coefficient Clebsch Gordon Coefficients The JWKB Approximation The JWKB Approximation: Use of Connection Formulae to solve Eigen value Problems. The JWKB Approximation: Use of Connection Formulae to calculate Tunneling Probability. The JWKB Approximation: Tunneling Probability Calculations and Applications. The JWKB Approximation: Justification of the Connection Formulae Time Independent Perturbation Theory Time Independent Perturbation Theory (Contd.1) Time Independent Perturbation Theory (Contd.2)
115102025	Physics	Fundamental concepts of semiconductors	Dr. G. Vijaya Prakash	Web	IIT Delhi	Select Introduction Crystal Structure Dynamics of electrons in periodic potential Band gaps in semiconductors Holes and effective mass concept Density of states Extrinsic semiconductors Degenerate and non-degenerate semiconductors Scattering Phenomena Macroscopic Transport Carrier transport Optical processes in semiconductors(Introduction) Optical absorption transitions in semiconductors ( e-h pair production): Radiative and nonradiative recombination process Overall carrier transport process Semiconductor as a device (Introduction) Fabrication of devices Principles of p-n junctions (homo-junctions): Diodes
115102026	Physics	Semiconductor Optoelectronics	Prof. M. R. Shenoy	Video	IIT Delhi	Select Context and Scope of the Course Energy Bands in Solids E-K Diagram The Density of States The Density of States (contd..) The Density of states in a Quantum well Structure Occupation Probability and Carrier Concentration Carrier Concentration and Fermi Level Quasi Fermi Levels Semiconductor Materials Semiconductor Hetrostructures-Lattice-Matched Layers Strained -Layer Epitaxy and Quantum Well Structures Bandgap Engineering Hetrostructure p-n junctions Schottky Junction and Ohmic Contacts Fabrication of Heterostructure Devices Interaction od Photons with Electrons and Holes in a Semiconductor Optical Joint Density of States Rates of Emission and Absorption Amplication by Stimulated Emission The Semiconductor (Laser) Amplifier Absorption Spectrum of Semiconductor Gain and Absorption Spectrum of Quantum Well Structures Electro-absorption Modulator Electro-absorption Modulator - II Device Configuration Mid-Term Revision Question and Discussion Part - III Semiconductor Light Sources Light Emitting Diode-I Device Structure and Parameters Light Emitting Diode-II Device Chracteristics Light Emitting Diode-III Output Characteristics Light Emitting Diode-IV Modulation Bandwidth Light Emitting Diode-V materials and Applications Laser Basics Semiconductor Laser - I Device Structure Semiconductor Laser - II Output Characteristics Semiconductor Laser - III Single Frequency Lasers Vertical Cavity Surface Emitting Laser (VCSEL) Quantum Well Laser Practical Laser Diodes and Handling General Characteristics of Photodetectors Responsivity and Impulse Response Photoconductors Semiconductor Photo-Diodes Semiconductor Photo-Diodes -II : APD Other Photodectors Photonic Integrated Circuits
115103028	Physics	Advanced Statistical Mechanics	Dr. S.B. Santra	Web	IIT Guwahati	Select Specification of macrostates and microstates Statistical ensembles Thermodynamics in different ensembles Nature of Particles and Statistics Thermodynamic Stability, positive response function and convexity of free energy Continuous Phase transition or Critical phenomena Morphology, fluctuation and correlation Correlation in terms of fluctuation and response Critical exponents Values of Critical exponents and their characteristics How to proceed? Spin-1/2 Ising Model Two dimensional Ising Model Spin-1 Ising Model Models and universality Mean field theory for Fluids Determination of critical point and the critical exponents Mean field theory for magnetic systems Solution of Mean field equation of state Determination of Mean field critical exponents Critical exponents of correlation length and correlation function Bethe approximation Bethe approximation for Ising model on 2-dimensional square lattice Landau theory of phase transition Critical behavior with Landau potential The methodology Eigenvalues and eigenvectors of T Isothermal susceptibility Example:1 Example:2 High Temperature series expansion Two-dimensional Ising Model Duality transformation and Determination of Tc Extrapolation methods of a series Monte Carlo Technique for Physical Systems Markov chain MC simulation of Ising Model Measurements Homogeneous Function Scaling hypothesis and Free energy function Renormalization Group (RG) RG Operation Free Energy as generalized homogeneous function Determination of critical exponents Application of RG to 1-d spin 1/2 Ising Model Determination of fixed point
115103038	Physics	Physics of Magnetic Recording and Recording Media	Dr. A. Perumal,Prof. A. Srinivasan	Web	IIT Guwahati	Select History and overview of magnetic recording Magnetic Tapes Magnetic Anisotropy 1 Magnetic Anisotropy 2 Soft and Hard magnetic materials and Stoner-Wohlfarth theory Electronic structure of normal metals Ferromagnetic metals and Half metals : I Ferromagnetic metals and Half metals : II Spin dependent scattering Spin polarization The Writing process Nature of the transitions in the writing process: I Nature of the transitions in the writing process : II Model for the writing process Effect of imaging from the head and the relaxation of transition parameter Different types of writing process The Read back Voltage Readback from a single transition Pulse width and Current Optimization Magnetoresistive readback Magnetic Circuits and Eddy Current losses Selection of Core Materials Magnetoresistance Head Anisotropic Magnetoresistance Head Giant Magnetoresistance Head Spin valve based GMR Head Tunnelling Magnetoresistance Head DISK Drive Assembly, Writing and Reading process Reading and Writing process Perpendicular Head Fields Magnetic recording media and its requirements Particulate and Thin Film Media Media Substrates Patterned Media Properties of magnetic thin films: Part 1 Properties of magnetic thin films: Part 2 Properties of magnetic thin films: Part 3 Properties of magnetic thin films: Part 4 Future projection on magnetic recording Trilemma in magnetic recording Patterning Media
115103039	Physics	Spintronics: Physics and Technology	Dr. A. Perumal	Web	IIT Guwahati	Select Introduction The Early History of Spin : Quantum Mechanics of Spin Spin - Orbit interaction Spin - Orbit interaction in solids Spin Relaxation Spin relaxation mechanisms I Spin relaxation mechanisms II Basic Electron Transport Basic Electron Transport in thin films Conduction in Discontinuous films Magneto Resistance Spin dependent scattering, Giant Magneto resistance Giant Magneto resistance Theory Spin dependent tunneling, Tunnel Magnetoresistance Effect of various paramaters on Tunnel Magneto resistance Introduction to Andreev Reflection Spin polarization, Basic theory of Andreev reflections Basic theory of Andreev reflections Andreev Reflection at ferromagnet and Superconductor Spin transfer torques - I Spin transfer torques � II Spin transfer torques � III Magnetic domain walls Ratchet effect in domain wall motion Domain wall motion Domain wall scattering Spin injection, Spin accummulation and Spin current - I Spin injection, Spin accummulation and Spin current � II Silicon based spin electronic devices - I Silicon based spin electronic devices � II Spin LED: Fundamental and applications - I Spin-injection Contacts Spin photoelectronic devices - I Spin photoelectronic devices � II Electron Spin Filtering - I Electron Spin Filtering � II Deposition and Fabrication Techniques - I Deposition and Fabrication Techniques � II Deposition and Fabrication Techniques � III Deposition and Fabrication Techniques � IV Spin-Valve and Spin-Tunneling and Sensor Devices
115104043	Physics	Nuclear Physics: Fundamentals and Applications	Prof. H.C. Verma	Video	IIT Kanpur	Select Lecture-01-Brief Overview of the course Lecture-02-Nuclear Size Lecture-03-Nuclear Size Cont.. Lecture-04-Nuclear Size Cont.. Lecture-05-Semi empirical Mass Formula Lecture-06-Semi empirical Mass Formula Cont.. Lecture-07-Semi empirical Mass Formula Cont.. Lecture-08-Semi empirical Mass Formula Cont.. Lecture-09-Semi empirical Mass Formula Cont.. Lecture-10-How are Neutron stars bound Lecture-11-Deuteron Lecture-12-Deuteron Cont.. Lecture-13-Deuteron Cont.. Lecture-14-Scattering of nucleons Lecture-15-Low energy n-p scattering Lecture-16-Theories of nuclear forces Lecture-17-Shell model Lecture-18-Shell model Contd.. Lecture-19-Shell model Contd.. Lecture-20-Shell model Contd.. Lecture-21-Shell model Contd.. Lecture-22-Collective models Lecture-23-Vibrational and Rotational levels Lecture-24-Radioactivity, Alpha Decay Lecture-25-Alpha decay Contd.. Lecture-26-Beta decay Lecture-27-Beta decay Contd.. Lecture-28-Beta decay Contd.. Lecture-29-Gamma decay Lecture-30-Nuclear Reactions Lecture-31-Nuclear reaction Contd.. Lecture-32-Nuclear reaction Contd.. Lecture-33-Nuclear Fission basics Lecture-34-Nuclear fission of uranium Lecture-35-Nuclear Fission Reactor Lecture-36-Nuclear Energy Programme of India Lecture-37-Nuclear Fusion Lecture-38-Nuclear fusion Contd.. Lecture-39-Thermonuclear fusion reactors Lecture-40-Fusion reactions in Stars and stellar neutrinos Lecture-41-Nucleosynthesis of elements in Stars Lecture-42-Mossbauer Spectroscopy Lecture-43-RBS, PIXE, NAA, Summary
115106058	Physics	Classical Field Theory	Prof. Suresh Govindarajan	Video	IIT Madras	Select Lecture 1 Lecture 2 Lecture 3 Lecture 4 Lecture 5 Lecture 6 Lecture 7 Lecture 8 Lecture 9 Lecture 10 Lecture 11 Lecture 12 Lecture 13 Lecture 14 Lecture 15 Lecture 16 Lecture 17 Lecture 18 Lecture 19 Lecture 20 Lecture 21 Lecture 22 Lecture 23 Lecture 24 Lecture 25 Lecture 26 Lecture 27 Lecture 28 Lecture 29 Lecture 30 Lecture 31 Lecture 32 Lecture 33 Lecture 34 Lecture 35 Lecture 36 Lecture 37 Lecture 38 Lecture 39
115106068	Physics	Special Topics in Classical Mechanics	Prof. P.C. Deshmukh	Video	IIT Madras	Select Course Overview Equations of Motion(i) Equations of Motion(ii) Equations of Motion(iii) Equations of Motion(iv) Equations of Motion(v) Oscillators, Resonances, Waves(i) Oscillators, Resonances, Waves(ii) Oscillators, Resonances, Waves(iii) Oscillators, Resonances, Waves(iv) Polar Coordinates(i) Polar Coordinates(ii) Dynamical Symmetry in the Kepler Problem(i) Dynamical Symmetry in the Kepler Problem(ii) Real Effects of Pseudo-Forces Real Effects of Pseudo-Forces(ii) Real Effects of Pseudo-Forces(iii) Real Effects of Pseudo-Forces(iv) Special Theory of Relativity(i) Special Theory of Relativity(ii) Special Theory of Relativity(iii) Special Theory of Relativity(iv) Potentials Gradients Fields(i) Potentials Gradients Fields(ii) Potentials Gradients Fields(iii) Gauss Law Eq of continuity(i) Gauss Law Eq of continuity(ii) Gauss Law Eq of continuity(iii) Fluid Flow Bernoulli Principle (i) Fluid Flow Bernoulli Principle (ii) Classical Electrodynamics (i) Classical Electrodynamics (ii) Classical Electrodynamics (iii) Classical Electrodynamics (iv) Chaotic Dynamical Systems (i) Chaotic Dynamical Systems (ii) Chaotic Dynamical Systems (iii) Chaotic Dynamical Systems (iv) Chaotic Dynamical Systems (v) The Scope and Limitations of Classical Mechanics
115105083	Physics	Osillation and Wave	Prof. S.P. Kastagir Prof. S. Bharadwaj	Web	IIT Kharagpur	Select Oscillations The Damped Oscillator The Damped Oscillator-II Oscillator with external forcing-I Oscillator with external forcing-II Resonance Coupled Oscillators Sinusoidal Waves Electromagnetic Waves-I Electromagnetic Waves-II The vector nature of electromagnetic radiation The Spectrum of Electromagnetic Radiation Interference-I Interference-II Interference-III Interference-IV Coherence Diffraction-I Diffraction- II Diffraction-III X-ray Diffraction Beats The wave equation-I The wave equation-II The wave equation-III Polarization-I Polarization-II Wave-particle duality-I Wave-particle duality-II Interpreting the electron wave Probability-I Probability-II Basic Postulates Operators in Quantum Mechanics Algebra of Operators Uncertainty relation Particle in a potential Particle in a box (Contd.) Step potentials Step potentials
115106086	Physics	Selected Topics in Mathematical Physics	Prof. V. Balakrishnan	Video	IIT Madras	Select Lecture-01 Lecture-02 Lecture-03 Lecture-04 Lecture-05 Lecture-06 Lecture-07 Lecture-08 Lecture-09 Lecture-10 Lecture-11 Lecture-12 Lecture-13 Lecture-14 Lecture-15 Lecture-16 Lecture-17 Lecture-18 Lecture-19 Lecture-20 Lecture-21 Lecture-22 Lecture-23 Lecture-24 Lecture-25 Lecture-26 Lecture-27 Lecture-28 Lecture-29 Lecture-30 Lecture-31 Lecture-32 Lecture-33 Lecture-34 Lecture-35