Engineering Physics for Smart Systems

About the work

• We give you the syllabus below and a sample notes PDF to record from. The notes unlock once you fill in your details in the form.
• You send back a link to an unlisted YouTube video or a Drive video of yourself teaching from those notes. Nothing to upload here.
• Selected educators have 3-4 weeks to submit the full recording.
• Payment for the subject: Upto 1500-2000 (Based on Hrs of recording).
• Shortlisted applicants are contacted by our team with the next steps.

Subject syllabus

Exactly what you would be recording.

Unit I 
Semiconductor Physics and Electronic Materials: Overview of classification of materials: 
Conductors, Semiconductors, Insulators. Intrinsic and Extrinsic Semiconductors: their    energy 
bands, Fermi Level and carrier concentration. Carrier Transport in semiconductors: Drift and 
diffusion currents, Mobility and conductivity, Generation and Recombination of carriers; Hall 
Effect Phenomenon, Working Principle and Practical Applications- Classification of materials, 
Determination of material type, and Calculation of material parameters [8] 
Unit II      
Optics: Interference: Division of Wavefront -Young’s Double Slit Experiment and Division of 
Amplitude - Newton’s Rings Experiment, Michelson Interferometer. 
Diffraction: Introduction, single slit diffraction, analyzing the intensity pattern, central maxima, 
and minima, Diffraction grating (qualitative overview).  
LASER: Coherence, population inversion and basic principles, Construction, the He-Ne laser,  
the Ruby laser and their applications.Unit III 
Electromagnetics: Maxwell’s Equations: Differential and Integral form and their interpretation, 
Boundary conditions, work done by the electromagnetic field and Poynting Vector.  
Electromagnetic waves: the wave equation, plane electromagnetic waves, energy carried by 
electromagnetic waves, skin depth. [8] 
Unit IV 
Quantum Mechanics and its applications: Wave-Particle Duality, De-Broglie hypothesis, 
Davisson-Germer Experiment. 
Schrodinger Wave Equation: Time Dependent and time-Independent forms; particle in a 1D 
infinite potential box.  
Practical applications of Quantum mechanics: IV-Characteristics of tunnel diode, Overview of 
Carbon Nanotubes and Graphene.