Course Content
Module 1: Laser and optical fiber (VIQ with solutions)
This video content will help you score 80+ without any effort. This course is specially designed for last moment exam preparation. This includes previous year repeated questions, model paper questions and very important questions prepared by expert instructors.
0/10
Introduction
03:26
1.Discuss the interaction of radiation with matter.
04:55
2.Derive the expression for energy density of radiation under thermal equilibrium condition in terms Einstein coefficient.
09:34
3.Explain the requisites and conditions of a laser system.
05:46
4.llustrate the construction and working of Semiconductor LASER with a neat sketch and energy level diagram also mention its applications.
08:05
5. Discuss the applications of LASER
11:46
6. Define Acceptance angle and Numerical Aperture and hence derive an expression for NA in terms of RIs core, cladding and surrounding.
08:14
7. Discuss the types of optical fibers based on Modes of Propagation and RI profile.
05:04
8. Describe attenuation and explain the various fiber losses.
08:13
9.Discuss Point to Point communication using optical fibers.
07:42
Module 2: Quantum mechanics (VIQ with solutions)
This video content will help you score 80+ without any effort. This course is specially designed for last moment exam preparation. This includes previous year repeated questions, model paper questions and very important questions prepared by expert instructors.
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Introduction
01:16
1. Derive an expression for de Broglie wavelength by analogy and hence discuss the significance of de Broglie waves.
06:52
2. State and explain Heisenberg uncertainty principle. Using this principle, show that the electrons cannot reside inside the nucleus.
05:07
3. a. Define 1. Wave pocket 2. Phase velocity 3. Group velocity b. write a note on Principle of Complementarity.
02:27
4. Explain the Wave function with mathematical form and Discuss the physical significance of a wave function.
05:46
5. Setup Schrodinger time- independent wave equation in one dimension.
09:18
6. Discuss the motion of a quantum particle in a one-dimensional infinite potential well of width ‘a’ and also obtain the eigen functions and energy eigen states well (potential well of infinite depth) or of a particle in a box Or Explain Eigen functions and Eigen Values and hence derive the eigen function of a particle inside infinite potential well of width ‘a’ using the method of normalization.
17:36
Module 3: Quantum COMPUTING (VIQ with solutions)
This video content will help you score 80+ without any effort. This course is specially designed for last moment exam preparation. This includes previous year repeated questions, model paper questions and very important questions prepared by expert instructors.
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Introduction
02:04
1. Elucidate the differences between classical and quantum computing.
02:56
2. Explain the representation of qubit using Bloch Sphere.
06:36
3. Define a bit and qubit and explain the properties of qubit.
04:13
4. State the Pauli matrices and apply Pauli matrices on the states |0⟩ and |1 ⟩ .
03:43
5. Definitions of various matrices.
09:03
6. Explain Orthogonality and Orthonormality with an example for each.
01:19
7. Explain Single qubit gate and multiple qubit gate with an example for each.
04:12
8.Explain the Matrix representation of 0 and 1 States and apply identity operator I to |0> and |1> states
01:27
9. A Linear Operator ’X’ operates such that X |0⟩ = |1⟩ and X |1⟩= |0⟩ Find the matrix representation of ’X’.
03:21
10. Describe the working of controlled-Z gate mentioning its matrix representation and truth- table.
02:46
11. Discuss the CNOT gate and its operation on four different input states.
03:23
12.Discuss the working of phase gate mentioning its matrix representation and truth table. 13. Explain Pauli X,Y and Z gate state 0 and 1 with proper gate representations and their truth table. 14. Equation and 15.short notes on other important quantum gates.
14:49
Module 4: Electrical properties of materials and applications(VIQ with solutions)
This video content will help you score 80+ without any effort. This course is specially designed for last moment exam preparation. This includes previous year repeated questions, model paper questions and very important questions prepared by expert instructors.
0/11
Introduction
03:23
01.Enumerate the failures of classical free electron theory and assumptions of quantum free electron theory of metals.
05:04
02.Define Fermi energy, Fermi Factor and Discuss the variation of Fermi factor with temperature and energy
03:54
03.Explain Meissner’s Effect, the variation of critical field with temperature and temperature dependence of resistance of a superconductor.
06:19
04. Differentiate the types of superconductors.
04:17
05.Explain the phenomenon of superconductivity and Discuss qualitatively the BCS theory of superconductivity for negligible resistance of metal at temperatures close to absolute zero.
03:38
06.write a note on high temperature superconductor.
05:18
07. Explain DC and AC Josephson effects
04:58
08. Give the qualitative explanation of DC Squid and RF Squid with the help of a neat sketch.
07:30
09.Short note on Applications of Superconductivity in Quantum Computing(optional).
06:01
10.Write about the concept of Matheissen rule(optional).
03:31
Module 5: Physics of animation (VIQ with solutions)
This video content will help you score 80+ without any effort. This course is specially designed for last moment exam preparation. This includes previous year repeated questions, model paper questions and very important questions prepared by expert instructors.
0/11
Introduction
02:03
1. Discuss timing in Linear motion, Uniform motion, slow in and slow out.
04:09
2. Sketch and explain the motion graphs for linear, easy ease, easy ease in and easy ease out cases of animation.
04:48
3. Distinguish between descriptive and inferential statistics.
01:55
4. Illustrate the odd rule and odd rule multipliers with a suitable example.
03:35
5. Describe Jumping and parts of jump.
04:42
6. Discuss the salient features of Normal distribution using bell curves.
03:04
7. Elucidate the importance of size & scale and weight and strength in animations.
05:09
8. Mention the general pattern of monte Carlo method and hence determine the value of π.
05:17
9. Describe the calculation of Push time and stop time with examples.
02:17
10. Discuss modeling the probability for proton decay.
04:22
NUMERICALS
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All Modules Numericals
56:00
All Modules Study Materials (Very Important questions with answers)
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Module 1
00:00
Module 2
00:00
Module 3
00:00
Module 4
00:00
Module 5
00:00
Numericals
00:00
Applied Physics for CSE Stream | All 5 MODULES | Very Important questions with solutions EXPLAINED | BPHYS102/202 | Last moment exam preparation
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