Lecture 21: Demonstration on the experiment of Young's modulus of mettalic bar and data collection
23
Lecture 22: Calculate the value of young's modulus of given metallic bar form the recorded datas
24
Lecture 23: Experimental demonstration to calculate the spring constant of a given spring
25
Lecture 24:
26
Lecture 25: Theory regarding Moment of inertia of a flywheel
27
Lecture 26: Experimental demonstration to calculate the moment of inertia of a given flywheel
28
Lecture 27: How to calculate the value of moment of inertia of a flywheelform the recorded data
29
Lecture 28: Theory regarding surface tension of the liquid
30
Lecture 29: Demonstration on the experiment of surface tension and data collection
31
Lecture 30: How to calculate the value of surface tension of water from the recorded data
32
Lecture 31: Theory regarding viscosity of liquid
33
Lecture 32: Demonstration on the experiment of viscosity
34
Lecture 33: Data analysis of recorded data on viscosity
35
Lecture 34: Forced Oscillations – Pohl’s pendulum
36
Lecture 35: Coupled Pendulum
37
Lecture 36: Demonstration on the experiment of compound pendulum
38
Lecture 37: Theory regarding compound pendulum has been discussed
39
Lecture 38:
40
Lecture 39: Linear expansion of metal
41
Lecture 40: Expt. to study linear expansion
42
Lecture 41: Determine the coefficient of thermal conductivity of a bad conductor
43
Lecture 42: Determination of electrical equivalent of heat
44
Lecture 43: Determination of specific heat of the given solid metals using Dulong-Petit's law
45
Lecture 44:
46
Lecture 45: Theorey and Demonstartion Platinum Resistance thermometer
47
Lecture 46: Experiment on Platinum Resistance thermometer
48
Lecture 47: To study the current-voltage relationship of an L-R circuit
49
Lecture 48: To study the variation in current and voltage in a series LCR circuit
50
Lecture 49: Sensitivity of Blastic Galvanometer
51
Lecture 50: Expt. for Sensitivity of Blastic Galvanometer
52
Lecture 51: Theory on RC Circuit
53
Lecture 52: Expt. on RC Circuit
54
Lecture 53: Theory regarding the magnetic field along the axis of a circular coil
55
Lecture 54: Experiment regarding the magnetic field along the axis of a circular coil
56
Lecture 55: Study the induced e.m.f of inductance coil
57
Lecture 56: Mutual inductance
58
Lecture 57: Theory regarding permeability of air
59
Lecture 58: Experiment to determination the permeability of air
60
Lecture 59: Devices around us
61
Lecture 60: Devices around us (Contd.)
Description:
COURSE OUTLINE: I will teach Experimental Physics in this course. I have designed this course in three modules:
(I) Experimental Physics-I: Experiments on Mechanics, General properties of matter, Thermal properties of matter, Sound, Electricity and magnetism.
(II) Experimental Physics-II: Experiments on Optics and Modern Physics.
(III) Experimental Physics-III: Experiments on Solid state physics and Modern Optics.
Each module is of 30 hours course and module-I will run in Jan-Apr 2019. At present we will discuss only module-II and III may be discussed in successive semester.This course is not only suitable for undergraduate students of physics, rather it is compulsory for all undergraduate students of science, engineering and technology , who have to deal with instruments in any point of time during their carrier and profession. This course will make you understand the working principle of many common devices through their applications in different experiments with particular aims also this course have positive feedback for the national level examinations like GATE, NET, JAM and JEST conducted by IIT, UGC/CSIR, IIT and SERB, respectively.
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