Core2Learn Mechanical Engineering
The Core2Learn program for Mechanical Engineering comprises of 6 core subjects, namely
A Three-Step program conduct framework is proposed.
Prepare Step
Students will view at least 250 video hours across 310 Topics, excluding Outcome Review videos, in this step. Upon completion, each student will attain 900+ Active Learning Outcomes, and attempt 3600+ Knowledge Check Questions and 1500+ Summary Quiz questions to verify this attainment. In addition, they will submit 50 Session Reflection Activity comprising reflections, feedback and questions and doubts for resolution.
Practice Step
Most subjects are scheduled within 10 LiveClass sessions. Approx. 50 LiveClass sessions will be scheduled across these 6 subjects, The duration of each LiveClass session is dependent on the faculty and classroom response. During LiveClass the Faculty will apprise student preparation from the VPT report, and Completion and Gradebook reports. They will resolve student doubts highlighted in the SRA report, review student responses to KCQ and SQQs and then practice likely Interview questions using classroom discussion, debate, and Active Quiz questions.
Perform Step
Post completion of all LiveClass sessions the College should schedule several Mock Interview sessions where various types of interview-setting interactions should be emulated. These interactions should range from 'Tell-me-about-yourself' to probing application related queries.
Session Plan
The detailed session plan, along with the Learning Outcomes, VPT per Outcome and other details are progressively displayed under each subject. The suggested study time per day is also indicated should the student choose to be guided by it.

Session 1

Strength of Material – Session 1
Session Topics : 8
Active Learning Outcomes : 20
Summary Quiz : 8
Video Play Time : ~6 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Basics of SOM 7 ALO 1.1.1-1: Define Strength of Material
26 ALO 1.1.1-2: Explain various types of assumptions in Strength of Material
9 ALO 1.1.1-3: Differentiate between Mechanics and Strength of Materials
Load and its types 95 ALO 1.1.2-1: Define load and explain various types of load
Stress and its types 25 ALO 1.2.1-1: Explain the basic concept of Stress
21 ALO 1.2.1-2: Classify the Stress and explain each of them
5 ALO 1.2.1-3: Calculate the Stress of the bar
5 ALO 1.2.1-4: State Principal of St. Venant’s
Strain and its types 3 ALO 1.2.2-1: Define Strain
39 ALO 1.2.2-2: List and explain various types of strain
7 ALO 1.2.2-3: Calculate the Strain of the bar
Hooke’s Law and Stress-Strain Curve 7 ALO 1.2.3-1: State Hooke’s Law
19 ALO 1.2.3-2: Explain the behavior of the Stress-strain curve
4 ALO 1.2.3-3: Define Proof Stress
Deformation in various Section of the body 7 ALO 1.3.1-1: Describe and calculate the deformation due to Axial Load-in Prismatic Body
6 ALO 1.3.1-2:  Describe and calculate the deformations due to Axial Load in Tapered Cylinder
10 ALO 1.3.1-3: Describe and calculate the deformation due to Axial Load in Tapered Rectangular
Principle of Superposition 43 ALO 1.3.2-1: Explain the concept of the principle of superposition
Deformation due to self-weight of body 25 ALO 1.3.3-1: Describe and calculate the deformation due to the Self-Weight of the body
22 ALO 1.3.3-2: Explain the Bar in Parallel

Session 2

Strength of Material – Session 2
Session Topics : 4
Active Learning Outcomes : 15
Summary Quiz : 4
Video Play Time : ~4 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Elastic Constants 19 ALO 1.4.1-1:  Explain the Volumetric Strain due to three Mutually Perpendicular Stresses
12 ALO 1.4.1-2: Explain the following term: Modulus of Elasticity, Modulus of Rigidity, Bulk Modulus, and Poisson’s Ratio
40 ALO 1.4.1-3: Describe the relation between the elastic constants
Thermal Stresses 15 ALO 1.4.2-1: Explain the concept of thermal stresses and strains when the body is free to move
15 ALO 1.4.2-2: Describe the thermal stresses when the body is constrained to move
5 ALO 1.4.2-3: Describe the thermal stresses in a tapered cylindrical bar
10 ALO 1.4.2-4: Describe the thermal stresses in a composite bar
Strain Energy 4 ALO 1.4.3-1: Explain the concept of Strain Energy
20 ALO 1.4.3-2: Define Resilience, Proof Resilience, and, Modulus of Resilience
6 ALO 1.4.3-3: Define Toughness and Modulus of Toughness
12 ALO 1.4.3-4: Explain the relation between Impact load and Gradual load
Mechanical properties of materials and Factor of Safety 31 ALO 1.5.1-2: List and explain Mechanical properties of materials
13 ALO 1.5.1-2 Define True Stress and True Strain
6 ALO 1.5.1-3: Explain the Factor of Safety and Permissible Stress
5 ALO 1.5.1-4: Explain the Stress-Strain curve of ideal materials

Session 3

Strength of Material – Session 3
Session Topics : 5
Active Learning Outcomes : 7
Summary Quiz : 5
Video Play Time : ~4 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Types of Load, Beam, and Support 49 ALO 2.1.1-1: Define and classify the following terms:
i. Beam
ii. Load  iii. Support
Concepts of Shear Force and Bending Moment 14 ALO 2.1.2-1: Recall the Sign Convention of Shear Force and Bending Moment
10 ALO 2.1.2-2: Recall the Relation between Shear Force, Bending Moment, and Load
9 ALO 2.1.2-3: Describe the procedure for drawing Shear Force and Bending Moment diagram
S.F.D & B.M.D for Cantilever Beam 73 ALO 2.2.1-1: Describe and calculate the Shear Force and Bending Moment for a Cantilever Beam
S.F.D & B.M.D for Simply Supported Beam 68 ALO 2.2.2-1: Describe and calculate Shear Force and Bending Moment for a Simply Supported Beam
S.F.D and B.M.D for Overhanging Beam and calculation of Point of Contraflexure 17 ALO 2.3.1-1: Describe Shear force and Bending Moment For an Overhanging Beam and calculation of Point of Contraflexure

Session 4

Strength of Material – Session 4
Session Topics : 9
Active Learning Outcomes : 27
Summary Quiz : 9
Video Play Time : ~5 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Bending Stresses and its formula 5 ALO 3.1.1-1: Explain the concept of Bending
5 ALO 3.1.1-2: Define Simple Bending and Pure Bending
7 ALO 3.1.1-3: Explain the assumption made in the Theory of Simple Bending
10 ALO 3.1.1-4: Derive an expression for Bending Stresses
Neutral Axis and Moment of Resistance 6 ALO 3.1.2-1: Explain the Neutral Axis
13 ALO 3.1.2-2: Define Moment of Resistance
Section Modulus for Symmertric Section 2 ALO 3.2.1-1: Define Section Modulus
8 ALO 3.2.1-2: Describe and calculate Section Modulus for Rectangular and Hollow rectangular Section
6 ALO 3.2.1-3: Describe and calculate Section Modulus for Circular and Hollow circular Section
10 ALO 3.2.1-4: Describe and calculate Section Modulus for Square Section
Section Modulus for Unsymmertric Section 6 ALO 3.2.2-1: Describe and calculate Section Modulus for Triangular Section
18 ALO 3.2.2-2: Describe and calculate Section Modulus for I (symmetrical and unsymmetrical) section
12 ALO 3.2.2-3: Describe and calculate Section Modulus for T-Section
Bending Stresses in Symmetrical Section 15 ALO 3.3.1-1: Describe and calculate the Bending Stresses in Rectangular Section
7 ALO 3.3.1-2: Describe and calculate the Bending Stresses in Circular Section
5 ALO 3.3.1-3: Describe and calculate the Bending Stresses in Square Section
Bending Stresses in Unsymmetric Section 11 ALO 3.3.2-1: Describe and calculate Bending Stress in Triangular Section
10 ALO 3.3.2-2: Describe and calculate Bending Stresses in I (symmetrical and unsymmetrical) section
8 ALO 3.3.2-3: Describe and calculate Bending Stresses in T-section
Comparison of Beam and Beam of uniform strength 10 ALO 3.4.1-1: Explain Comparison between Rectangular Beam
3 ALO 3.4.1-2: Explain Comparison between Square Beams
14 ALO 3.4.1-3: Explain Comparison between Rectangular and circular Beams
16 ALO 3.4.1-4: Explain the concept of Beam of Uniform Strength
Eccentric loading of a Section 21 ALO 3.4.2-1: Explain the phenomena of Eccentric Loading on the Cross-section of the Beam
8 ALO 3.4.2-2: Explain the Middle One-Third Rule for Rectangular Section
13 ALO 3.4.2-3: Explain the Middle One-Fourth Rule for Circular Section
Composite Beam 35 ALO 3.5.1-1: Explain the concept of Composite Beams/Flitched Beam

Session 5

Strength of Material – Session 5
Session Topics : 10
Active Learning Outcomes : 25
Summary Quiz : 10
Video Play Time : ~5 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Torsion Equation 8 ALO 4.1.1-1: Explain the concept of Torsion
8 ALO 4.1.1-2: Explain the assumptions in Torsion Theory
18 ALO 4.1.1-3: Describe the Torsion Equation for Circular Shafts
Polar Moment of Inertia and Polar Modulus of Section 5 ALO 4.1.2-1: Explain Polar Moment of Inertia
8 ALO 4.1.2-2: Explain Polar Modulus of section
Torsion in Solid and Hollow circular Shaft 7 ALO 4.1.3-1: Describe and calculate Maximum Shear Stress and Torque for Solid Circular shaft
11 ALO 4.1.3-2: Describe and calculate Maximum Shear Stress and Torque for Hollow Circular shaft
Power transmiited by Shaft and Torsional Stiffness 7 ALO 4.2.1-1: Explain and calculate Power transmitted by Shafts
10 ALO 4.2.1-2: Define Torsional Stiffness and Torsional Rigidity
Combined Bending and Torsion of circular Shafts 13 ALO 4.2.2 -1: Explain the Significance of Strain Energy in Torsion
8 ALO 4.2.2-2: Describe the phenomena of Torsion in Series and Parallel
18 ALO 4.2.2-3: Calculate the Equivalent Bending Moment and Equivalent Torque
Comparison between Solid and Hollow Shaft 7 ALO 4.2.3-1: Explain the Design of Shaft
17 ALO 4.2.3-2: Calculate the Strength of the Shafts for Equal Weight and Equal Size
9 ALO 4.2.3-3: Explain the Sign Convention of Twisting Moment
Introduction to Shear Stress 3 ALO 5.1.1-1: Explain the variation of Shear Stress in the Beams
16 ALO 5.1.1-2: List various assumptions that are taken in the analysis of Shear Stress in the Beams
Shear Stress Variation in Rectangular and Circular Section 15 ALO 5.1.2-1: Describe and calculate the Shear Stress Distribution for the Rectangular Section
13 ALO 5.1.2-2: Describe and calculate the Shear Stress Distribution for the Circular Section
Shear Stress Variation in Triangular and Square Section 18 ALO 5.1.3-1: Describe and calculate the Shear Stress Distribution for the Triangular Section
21 ALO 5.1.3-2: Describe and calculate the Shear Stress Distribution for the Square Section
Shear Stress Variation in I – Section and T – Section 19 ALO 5.2.1-1: Describe and calculate the Shear Stress Distribution for I-section
13 ALO 5.2.1-2: Describe and calculate the Shear Stress Distribution for T-Section
7 ALO 5.2.1-3: Describe and calculate the Shear Stress Distribution for Channel-Section
9 ALO 5.2.1-4: Explain the concept of Shear Center

Session 6

Strength of Material – Session 6
Session Topics : 7
Active Learning Outcomes : 10
Summary Quiz : 7
Video Play Time : ~5 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Introduction to Slope and Deflection 12 ALO 6.1.1-1: Explain the concept of Slope and Deflection
11 ALO 6.1.1-2: Describe the Differential Equation for the Slope and Deflection of the Beam
5 ALO 6.1.1-3: List various methods to find out the Slope and Deflection
Double Integration method for Cantilever Beam 31 ALO 6.1.2-1: Explain the Double Integration Method to find out the of Slop and Deflection for Cantilever Beam under various loading conditions
i. Pont Load  ii. Uniformly Distributed Load  iii. Uniformly Varying Load  iv. Couple at the free End
Double Integration method for Simply Supported Beam 59 ALO 6.1.3-1: Explain the Double Integration Method to find out the Slope and Deflection for Simply Supported Beam Under various Loading conditions
i. Point Load  ii. Uniformly Distributed load  iii. Uniformly Varying Load  iv. Couple at the Free End
Macaulay’s method for cantilever and Simply Supported Beam 46 ALO 6.2.1-1: Explain Macaulay’s Method to find out the of Slope and Deflection for different loading conditions
Moment Area Method for Cantilever Beam 55 ALO 6.3.1-1: Explain the Moment Area Method to find out the Slope and Deflection for Cantilever Beam under various Loading conditions
i. Point Load  ii. Uniformly Distributed load  iii. Uniformly Varying Load  iv. Couple at the free End
Moment Area Method for Simply Supported Beam 15 ALO 6.3.2-1: Explain Moment Area Method to find out the of Slope and Deflection for Simply Beam under various loading conditions
i. Point Load  ii. Uniformly Distributed load  iii. Couple at the Support
Strain Energy Method for Cantilever Beam and Simply Supported Beam 23 ALO 6.4.1-1: Explain the Strain Energy Method to find out the Slope and Deflection for different loading conditions
16 ALO 6.4.1-2: State and prove Castigliano’s first Theorem

Session 7

Strength of Material – Session 7
Session Topics : 9
Active Learning Outcomes : 25
Summary Quiz : 9
Video Play Time : ~6 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Introduction to State of Stress 29 ALO 7.1.1-1: Recall the concept of Critical Point and Critical Section
7 ALO 7.1.1-2: Recall the condition of Plane Stress
19 ALO 7.1.1-3: Recall the Matrix of Stress Tensor
13 ALO 7.1.1-1: Define Principal Stress and Principal Plane
Principle Stresses 7 ALO 7.1.2-2: Recall the Plane of Maximum Shear Stress
29 ALO 7.1.2-3: Recall the concept of Pure Shear Stress Plane
Uni-axial and Biaxial Stresses 25 ALO 7.1.3-1: Recall and calculate the Stresses developed due to Direct Stress or Uniaxial Stress condition
14 ALO 7.1.3-2: Recall and calculate the Stresses developed due to Biaxial with Zero Shear Stress condition
Pure Stress 18 ALO 7.1.4-1: Recall and calculates the Stresses developed due to Pure shear stress condition
6 ALO 7.1.4-2: Recall and calculate the Stresses developed due to Biaxial with Shear Stress condition
Stresses and its planes 11 ALO 7.2.1-1: Recall Sum of Normal Stress on Two Mutually Perpendicular Planes
8 ALO 7.2.1-2: Describe and calculate Principal Stresses and its Planes
12 ALO 7.2.1-3: Describe and calculate Maximum Shear Stresses and their Planes
9 ALO 7.2.1-4: Describe and calculate Normal Stress on the Plane of Maximum Shear Stress
Mohr’s Circle for Stresses 11 ALO 7.2.2-1: Recall the concept of Mohr’s Circle
80 ALO 7.2.2-2: Draw the Mohr’s Circle for the following State of Stress
i. For Uni-axial Stress
ii. For Bi-axial with Zero Shear Stress  iii. For Pure Shear Stress  iv. For Bi-axial with Shear Stress
State of Strain and Strain Tensor 11 ALO 7.3.1-1: Recall State of Strain and Strain Tensor
3 ALO 7.3.1-2: Recall and calculate the Normal Strain in Oblique Planes
6 ALO 7.3.1-3: Explain and calculate the Shear Strains in Oblique Planes
4 ALO 7.3.1-4: Determine the Principal Strain and its Planes
7 ALO 7.3.1-5: Determine Maximum Shear Strain and its Planes
Strain Rosettes 9 ALO 7.3.2-1: Determine the relation between Principal Stresses and Principal Strains
13 ALO 7.3.2-2: Recall the concept of Strain Rosettes
Starin Energy 5 ALO 7.3.3-1: Recall and calculate the Strain Energy in Three-Dimensional Stress System
3 ALO 7.3.3-2: Recall and calculate the Shear Strain Energy in Three-Dimensional Stress System

Session 8

Strength of Material – Session 8
Session Topics : 9
Active Learning Outcomes : 22
Summary Quiz : 9
Video Play Time : ~3 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Introduction to Column and modes of failure 6 ALO 8.1.1-1: Define the term Column, Strut, and Tie
5 ALO 8.1.1-2: Explain the Failure Modes of Column
9 ALO 8.1.1-3: Differentiate between the Buckling and Crushing Load of Failure
Euler’s Theory of Column 2 ALO 8.1.2-1: Explain Euler’s Theory of Column
8 ALO 8.1.2-2: Describe and calculate the Euler’s formula for Crippling Load when both ends Hinged
10 ALO 8.1.2-3: Describe and calculate the Euler’s formula for Crippling Load when one end is fixed and the other Hinged
Effective length of a Column and Slenderness ratio 10 ALO 8.2.1-1: Explain the Effective Length of a Column
14 ALO 8.2.1-2: Define Slenderness Ratio of a Column
7 ALO 8.2.1-3: Explain the assumptions and limitations of Euler’s Theory
Rankine Formula 10 ALO 8.2.2-1: Explain the Rankine formula for Crippling Load
Introduction to Thin cylinder 2 ALO 9.1.1-1: Define Pressure Vessel
2 ALO 9.1.1-2: List various types of Pressure Vessels
11 ALO 9.1.1-3: Classify Stresses in Pressure Vessels
Thin Cylindrical shell subjected to internal pressure 14 ALO 9.1.2-1: Describe the Circumferential and Longitudinal Stresses for Thin Cylindrical Shell subjected to an Internal Pressure
12 ALO 9.1.2-2: Explain the Maximum Shear Stress in Thin Cylindrical Shell
Volumetric Strain of thin cylindrical shell 12 ALO 9.1.3-1: Describe Circumferential and Longitudinal Strain for Thin Cylindrical Shell subjected to an Internal Pressure
4 ALO 9.1.3-2: Explain Volumetric Strain of Thin Cylindrical Shell
Thin Spherical shells subjected to internal pressure 12 ALO 9.1.4-1: Explain the phenomena of Thin Spherical Shell
6 ALO 9.1.4-2: Explain The Volumetric Strain in a Thin Spherical Shell
9 ALO 9.1.4-3: Explain the Stresses in Hemispherical Portion of the Shell
Stresses in a Thick Cylindrical shell and Thick Spherical shell 37 ALO 9.2.1-1: Describe Lame’s Equation to find out Stresses in Thick Cylinder and assumptions made in Lame’s Theory
8 ALO 9.2.1-2: Describe Lame’s Equation to find out the Stresses in Thick Spherical Shell

Session 1

Fluid Mechanics – Session 1
Session Topics : 12
Active Learning Outcomes : 34
Summary Quiz : 12
Video Play Time : ~4 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Basics of Fluid Mechanics 7 ALO 1.1.1-1: Define Fluid Mechanics
10 ALO 1.1.1-2: Define Hydrostatics and Hydrodynamics
3 ALO 1.1.1-3: Explain the basic concept of Fluid
Types of Fluid 15 ALO 1.1.2-1: List various types of Fluids ALO 1.1.2-2: Define and differentiate between the Ideal and Practical Fluids ALO 1.1.2-3: Define and differentiate between the Compressible and Incompressible Fluids
18 ALO 1.1.2-4: Define and differentiate between the Newtonian and Non-Newtonian Fluids
Properties of Fluids 17 ALO 1.1.3-1: List various Properties of Fluids ALO 1.1.3-2: Define Density or Mass Density
5 ALO 1.1.3-3: Define Specific Weight or Weight Density
5 ALO 1.1.3-4: Define Specific Volume and Specific Gravity
17 ALO 1.1.3-5: Explain Viscosity and its types ALO 1.1.3-6: State Newton’s Law of Viscosity
20 ALO 1.1.3-7: Explain the concept of Surface Tension and Capillary
Pascal’s law and Pressure Variation 3 ALO 1.2.1-1: Define Pressure and explain the Pressure Intensity at a point in a Fluid
1 ALO 1.2.1-2: State Pascal’s Law
2 ALO 1.2.1-3: Explain Pressure Variation in a Fluid at Rest
9 ALO 1.2.1-4: Explain Hydrostatic Law
6 ALO 1.2.1-5: Define Absolute, Gauge, Atmospheric, and Vacuum Pressures
Simple Manometers 3 ALO 1.2.2-1: Define and classify Manometers
3 ALO 1.2.2-2: Define Piezometer ALO 1.2.2-3: Explain the Simple U-tube Manometer
15 ALO 1.2.2-4: Define and Classify Mechanical Gauges ALO 1.2.2-5: Differentiate between the Manometers and Mechanical Gauges
Single Column Manometers 5 ALO 1.2.3-1: Define and classify Single Column Manometers ALO 1.2.3-2: Explain the Vertical Single Column Manometers
6 ALO 1.2.3-3: Inclined Single Column Manometers
Differential Manometers 2 ALO 1.2.4-1: Differentiate between the Simple and Differential Manometer
9 ALO 1.2.4-2: Explain the U-tube Differential Manometers
6 ALO 1.2.4-3: Explain the Inverted U-tube Differential Manometers ALO1.2.4-4: Differentiate between the U-tube Differential and Inverted U-tube Differential Manometers
Hydrostatic forces and Centre of Pressure 9 ALO 1.3.1-1: Define Rigid Body Forces
5 ALO 1.3.1-2: Explain the Hydrostatic Forces
4 ALO 1.3.1-3: Explain the Centre of Pressure and Total Pressure
Hydrostatic forces on Plane surface 6 ALO 1.3.2-1: Describe the Hydrostatic Forces on the Plane Vertical Surfaces
6 ALO 1.3.2-2: Describe the Hydrostatic Forces on the Inclined Plane Surfaces ALO 1.3.2-3: Describe the Hydrostatic Forces on the Horizontal Plane Surfaces
Hydrostatic forces on Curved surface 9 ALO 1.3.3-1: Describe the Hydrostatic Forces on the Curved Surfaces
Buoyancy 4 ALO 1.4.1-1: Define Buoyancy and Buoyant Force ALO 1.4.1-2: State Archimedes’ Principle
4 ALO 1.4.1-3: Explain the Condition for Equilibrium
2 ALO 1.4.1-4: List and explain types of Equilibrium
4 ALO 1.4.1-5: Describe the concept of Stability for Immersed and Floating Bodies
Metacentric Height 7 ALO 1.4.2-1: Explain the concept of Metacentric Height

Session 2

Fluid Mechanics – Session 2
Session Topics : 8
Active Learning Outcomes : 23
Summary Quiz : 8
Video Play Time : ~4 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Lagrangian and Eulerian Approach 5 ALO 2.1.1-1: Explain the Lagrangian and Eulerian Approaches
2 ALO 2.1.1-2: Explain the basic concept of Fluid Continuum
Types of Fluid Flow 6 ALO 2.1.2-1: List various Types of Kinematics Fluid and differentiate between them
3 ALO 2.1.2-2: Define Steady and Unsteady Flow
3 ALO 2.1.2-3: Define Uniform and Non-Uniform Flow
3 ALO 2.1.2-4: Define Rotational and Irrotational Flow
9 ALO 2.1.2-5: Define Laminar and Turbulent Flow
3 ALO 2.1.2-6: Define Compressible and Incompressible Flow
Types of Flow Lines 8 ALO 2.1.3-1: Explain Pathline, Streamline, and Streakline Flow ALO 2.1.3-2: Differentiate between Pathline, Streamline, and Streakline Flow
6 ALO 2.1.3-3: Explain the Differential Equation of Streamline
Continuity Equation 26 ALO 2.2.1-1: Describe the Continuity Equation
13 ALO 2.2.1-2: Explain the Continuity Equation in Multi-Dimensional Flow ALO 2.2.1-3: Calculate the Discharge through the Continuity Equation
Fluid Acceleration 19 ALO 2.2.2-1: Define Convective, Local, and Normal Acceleration
24 ALO 2.2.2-2: Differentiate between Convective, Local, and Normal Acceleration
4 ALO 2.2.2-3: Define and differentiate between Tangential and Centripetal Acceleration
Angular Deformation and Rotation 17 ALO 2.2.3-1: Explain Angular Deformation and Rotation
5 ALO 2.2.3-2: Explain Angular Velocity ALO 2.2.3-3: Differentiate between Angular Deformation, Rotation, and Velocity
Circulation and Vorticity 18 ALO 2.3.1-1: Explain the concept of Circulation and Vorticity in Fluid Flow
11 ALO 2.3.1-2: Explain the Velocity Potential Function
Potential Function and Stream Function 27 ALO 2.3.2-1: Explain the Stream Function in Fluid Flow
11 ALO 2.3.2-2: Describe the Relation between Equipotential Line and StreamLine
7 ALO 2.3.2-3: Explain the concept of Flow-net
5 ALO 2.3.2-4: State the Cauchy-Riemann Equation

Session 3

Fluid Mechanics – Session 3
Session Topics : 10
Active Learning Outcomes : 18
Summary Quiz : 10
Video Play Time : ~5 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Various Forces acting on the Fluid elements 11 ALO 3.1.1-1: List and explain various Forces which are acting on the Fluid Elements
Bernoulli Equation and its limitation 40 ALO 3.1.2-1: Recall the significance of Bernoulli Equation in Fluid Flow
Venturi Meter 65 ALO 3.2.1-1: Recall the Venturimeter ALO 3.2.1-2: Calculate the Discharge Rate and Velocity Flow of Venturimeter in different Conditions
Orifice Meter 7 ALO 3.2.2-1: Recall the working phenomena of Orificemeter ALO 3.2.2-2: Determine the Discharge through Orificemeter
Pitot Tube and Flow nozzles 14 ALO 3.2.3-1: Recall the working phenomena of Pitot-tube ALO 3.2.3-2: Calculate the Discharge through the Pitot-tube
6 ALO 3.2.3-3: Recall the Flow Nozzle ALO 3.2.3-4: Calculate the Discharge Rate of Nozzle in different Condition
Weir and Notches 11 ALO 3.2.4-1: Recall Weir and Notches ALO 3.2.4-2: Classify Weir and Notches
24 ALO 3.2.4-3: Calculate the Discharge through the Weirs and Notches
Momentum Equation and its application 6 ALO 3.3.1-1: Recall the Momentum Equation and Impulse Momentum Equation
24 ALO 3.3.1-2: Describe the expression for the Force exerted by a Flowing Fluid on a Pipe bend
Free liquid Jets 11 ALO 3.3.2-1: Recall the phenomena of Free Liquid Jet and derive its Equation
12 ALO 3.3.2-2: Recall Time of Flight, Maximum Height and Horizontal Range of Jet ALO 3.3.2-3: Calculate Time of Flight, Maximum Height and Horizontal Range of Jet
Impact of jet on a fixed plates in different condition 5 ALO 3.4.1-1: Recall the phenomena of Impact of Jet
14 ALO 3.4.1-2: Describe and calculate the Force exerted by Jet on a Flat Fixed Plate
9 ALO 3.4.1-3: Describe and calculate the Force exerted by Jet on a Inclined Fixed Plate
9 ALO 3.4.1-4: Describe and calculate the Force exerted by Jet on a Curved Fixed Plate
Impact of jet on moving plate 12 ALO 3.4.2-1: Recall the phenomena of Impact of Jet on a Moving Plate ALO 3.4.2-2: Describe and calculate the Force exerted by Jet on a Flat Moving Plate
9 ALO 3.4.2-3: Describe and calculate the Force exerted by Jet on a Series of Flat vanes mounted on a Wheel

Session 4

Fluid Mechanics – Session 4
Session Topics : 6
Active Learning Outcomes : 14
Summary Quiz : 6
Video Play Time : ~2 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Vortex Flow 20 ALO 4.1.1-1: Define and classify the Vortex Flow
7 ALO 4.1.1-2: Explain the Free Vortex Flow
7 ALO 4.1.1-3: Explain the Force Vortex Flow
Laminar Flow and Darcy weisbach equation 16 ALO 4.1.2-1: Define Laminar, Turbulent, and Internal Flow
4 ALO 4.1.2-2: Explain the Characteristics of Laminar flow
10 ALO 4.1.2-3: Describe Darcy Weisbach Equation for Laminar Flow
Laminar Equation through Circular pipes 27 ALO 4.2.1-1: Explain the Phenomena of Laminar Flow through Circular Pipes ALO 4.2.1-2: Calculate the Diameter and Velocity of the Flow in Circular Pipes
Hagen-Poiseuille Flow 7 ALO 4.2.2-1: Explain the concept of Hagen-Poiseuille Flow
4 ALO 4.2.2-2: Explain the function of Viscometer
4 ALO 4.2.2-3: Describe the Shear velocity in Laminar flow
Momentum and Kinetic Energy Correction Factor 3 ALO 4.2.3-1: Explain Kinetic Energy Correction Factor
4 ALO 4.2.3-2: Explain Momentum Correction Factor
Laminar flow through two fixed plates 6 ALO 4.3.1-1: Explain the Phenomena of Laminar Flow through two Fixed Plates
9 ALO 4.3.1-2: Describe the Velocity and Shear Stress distribution when Laminar Flow between two Parallel Fixed Plates

Session 5

Fluid Mechanics – Session 5
Session Topics : 8
Active Learning Outcomes : 20
Summary Quiz : 8
Video Play Time : ~4 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Introduction to Turbulent Flow 9 ALO 5.1.1-1: Explain the Characteristics of Turbulent Flow
21 ALO 5.1.1-2: Explain the Significance of Reynold’s Stress in Turbulent Flow
Prandle Mixing length theory 14 ALO 5.1.2-1: Describe the Significance of Prandtl’s Mixing Length theory in the Turbulent Flow
Hydrodynamically Smooth and Rough boundaries 15 ALO 5.2.1-1: Describe the Velocity Distribution in Turbulent Flow in Pipes ALO 5.2.1-2: Define and differentiate between the Hydro-dynamically Smooth and Rough Boundaries
9 ALO 5.2.1-3: Describe the Velocity Distribution for the Turbulent Flow in Smooth Pipes and Rough Pipes
10 ALO 5.2.1-4: Explain the Friction Factor in Turbulent Flow
Major Energy Losses 6 ALO 6.1.1-1: Explain the Major Energy Losses in pipes
11 ALO 6.1.1-2: Describe Darcy’s and Chezy’s equation
21 ALO 6.1.1-3: Calculate Loss of Head in the pipe by using Darcy’s and Chezy’s equation
Minor Energy Losses 21 ALO 6.1.2-1: List various types of Minor Energy Losses ALO 6.1.2-2: Describe and calculate Loss of Head due to Sudden Enlargement and Contraction
16 ALO 6.1.2-3: Describe and calculate Loss of Head at Entrance and Exit of a Pipe
12 ALO 6.1.2-4: Describe and calculate Loss of Head due to Obstruction in a Pipe and Bend in Pipe
Hydraulic gradient line and Total energy line 2 ALO 6.2.1-1: Explain the Hydraulic Gradient Line
29 ALO 6.2.1-2: Explain the Total Energy Line
Compound pipes 12 ALO 6.2.2-1: Describe the phenomena of Flow through Pipes in Series and Parallel
11 ALO 6.2.2-2: Explain the concept of Equivalent Pipe (Dupuits Equation)
13 ALO 6.2.2-3: Explain the concept of Multi-Reservoir System
10 ALO 6.2.2-4: Calculate the Power Transmission through Pipes
Siphon pipes and Water hammer 18 ALO 6.2.3-1: Explain the Flow-through Syphon Pipe
6 ALO 6.2.3-2: Explain the concept of Water hammer

Session 6

Fluid Mechanics – Session 6
Session Topics : 6
Active Learning Outcomes : 19
Summary Quiz : 6
Video Play Time : ~3 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Boundary layer concept and its Characteristics 11 ALO 7.1.1-1: Explain the Boundary Layer concept
8 ALO 7.1.1-2: Explain the Laminar Boundary Layer, Turbulent Boundary Layer, and Laminar sub-Layer
Boundary layer thickness 8 ALO 7.1.2-1: Describe the Boundary Layer Thickness
18 ALO 7.1.2-2: Explain the Displacement Thickness, Momentum Thickness, and Energy Thickness
20 ALO 7.1.2-3: Define the Shape Factor ALO 7.1.2-4: Compute the Boundary Layer Thickness
Von-karman momentum integral equation 25 ALO 7.1.3-1: Describe the Momentum Integral Equation for the Boundary Layer (Von-Karman)
8 ALO 7.1.3-2: Explain the essential features of Blasius method of solving Laminar Boundary Layer Equations for a Flat Plate
Boundary layer seperation 8 ALO 7.2.1-1: Explain the phenomena of Separation of Boundary Layer
4 ALO 7.2.1-2: Explain the Effect of Pressure Gradient on Boundary Layer Separation
9 ALO 7.2.1-3: Explain the Methods of Preventing the Separation of Boundary Layer
Drag Forces 17 ALO 7.3.1-1: Explain the Drag Forces
2 ALO 7.3.1-2: List various types of Drag Forces
13 ALO 7.3.1-3: Describe the Local Drag Co-efficient
6 ALO 7.3.1-4: Explain the Drag Forces on Sphere and Cylinder ALO 7.3.1-5: Calculate the Drag Forces and Co-efficient of Drag
Lift Forces 10 ALO 7.3.2-1: Explain the Lift Forces
12 ALO 7.3.2-2: Describe the development of Lift on a Circular Cylinder
17 ALO 7.3.2-3: Describe the Lift Forces and Lift Coefficient for a Rotating Cylinder
1 ALO 7.3.2-4: Define Magnus Effect
11 ALO 7.3.2-5: Explain the Development of Lift on an Airfoil

Session 7

Fluid Mechanics – Session 7
Session Topics : 14
Active Learning Outcomes : 38
Summary Quiz : 14
Video Play Time : ~5 Hours
Suggested Completion : 3 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Introduction to Dimensional Analysis 23 ALO 8.1.1-1: Explain the concept of Dimensional Analysis ALO 8.1.1-2: Define the Fundamental and Derived units
3 ALO 8.1.1-3: List uses of Dimensional Analysis
5 ALO 8.1.1-4: List advantages and limitations of Dimensional Analysis
Rayleigh’s Method 21 ALO 8.1.2-1: List the Methods of Dimensional Analysis ALO 8.1.2-2: Explain the Rayleigh’s Method for Dimensional Analysis
Buckingham’s Theorem 26 ALO 8.1.3-1: Explain the Buckingham’s Ï€ method for Dimensional Analysis
Forces acting on the fluid and Dimensionless number 11 ALO 8.2.1-1: List and define the various Forces acting on the Fluid Flow
3 ALO 8.2.1-2: Define the Dimensionless Number
5 ALO 8.2.1-3: Classify the Dimensionless Number ALO 8.2.1-4: Explain Reynold’s, Froude’s, Mach, Weber’s, and Euler’s Number
Model Analysis and Similitude 5 ALO 8.2.2-1: Define the Model Analysis
2 ALO 8.2.2-2: List various Advantages of Model Analysis
11 ALO 8.2.2-3: Explain the term Similitude ALO8.2.2-4: List and explain various Types of Similitudes
Model Laws 17 ALO 8.2.3-1: Explain the following Model Laws i. Reynold’s Model Law ii. Froude Model Law iii. Euler Model Law iv. Weber Model Law
v. Mach Model Law
Introduction to Turbine and Pump 17 ALO 9.1.1-1: Define Hydraulic Machines, Turbines, and Pumps
2 ALO 9.1.1-2: Classify Turbine and Pump
3 ALO 9.1.1-3: Explain the Hydroelectric Power
9 ALO 9.1.1-4: Explain the general layout of Hydroelectric Power Plant
2 ALO 9.1.1-5: Define Gross Head and Net Head
Efficiencies of a Turbine and Classification of Hydraulic Turbines 13 ALO 9.1.2-1: Define the Efficiency of Turbine
7 ALO 9.1.2-2: Explain the different types of Efficiency of a Turbine
7 ALO 9.1.2-3: Classify the Hydraulic Turbines
Pelton Wheel (or Turbine) 17 ALO 9.2.1-1: Explain the working of the Pelton Wheel ALO 9.2.1-2: Describe the Velocity Triangles and Work done for a Pelton Wheel
17 ALO 9.2.1-3: Explain the Maximum Efficiency of the Pelton Wheel
6 ALO 9.2.1-4: Describe the procedure for Designing of Pelton Wheel
Reaction Turbines 7 ALO 9.2.2-1: Explain the Reaction Turbines and its Components
3 ALO 9.2.2-2: Explain the Function of the Draft Tube
1 ALO 9.2.2-3: List various types of Draft Tube
2 ALO 9.2.2-4: Describe the Efficiency of the Draft Tube
Francis Turbine 3 ALO 9.2.3-1: Explain the working of the Francis Turbine
3 ALO 9.2.3-2: Describe the Velocity Triangles and Work done for a Francis Turbine ALO 9.2.3-3: Explain the Efficiency of the Francis Turbine
2 ALO 9.2.3-4: Describe Working Proportion of Francis Turbine
2 ALO 9.2.3-5: Explain the Analysis of the Francis Turbine
Axial Flow Reaction Turbine 9 ALO 9.2.4-1: Explain Axial-Flow Turbines (Kaplan and Propeller Turbine)
9 ALO 9.2.4-2: Describe working Proportions of Kaplan Turbine
Specific speed of turbine 8 ALO 9.2.5-1: Explain the Specific Speed of a Turbine
4 ALO 9.2.5-2: Explain the Non-dimensional Specific speed (Shape number) of a Turbine ALO 9.2.5-3: List and explain the different types of Unit Quantities
Model testing and cavitation in turbine 6 ALO 9.2.6-1: Explain Model Testing of the Turbines
8 ALO 9.2.6-2: Explain the Cavitation in Turbine
3 ALO 9.2.6-3: Define Thomas Cavitation Factor

Session 1

Heat & Mass Transfer – Session 1
Session Topics : 3
Active Learning Outcomes : 11
Summary Quiz : 3
Video Play Time : ~3 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Modes of Heat Transfer 4 ALO 1.1.1-1: Define Heat
20 ALO 1.1.1-2: Explain the importance of Heat Transfer
13 ALO 1.1.1-3: Differentiate between Thermodynamics and Heat Transfer
14 ALO 1.1.1-4: Explain the modes of heat transfer
Fourier law and Thermal conductivity 13 ALO 1.1.2-1: State and explain Fourier’s Law of Conduction
22 ALO 1.1.2-2: Define Thermal Conductivity
8 ALO 1.1.2-3: Explain the factors on which the thermal conductivity of material depends
21 ALO 1.1.2-4: Explain the effect of temperature on thermal conductivity
Newton law’s of cooling and Stefan Boltzman law 27 ALO 1.2.1-1: Define Convection and explain Newton Law of Cooling
20 ALO 1.2.1-2: Define Radiation and explain Stefan’s Boltzmann Law
6 ALO 1.2.1-3: Explain the concept of Thermal Diffusivity

Session 2

Heat & Mass Transfer – Session 2
Session Topics : 6
Active Learning Outcomes : 18
Summary Quiz : 6
Video Play Time : ~9 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
General Heat Conduction Equation in Different coordinates 43 ALO 2.1.1-1: Describe the general heat conduction equation in cartesian coordinates
34 ALO 2.1.1-2: Explain the general heat conduction equation in cylindrical coordinates
27 ALO 2.1.1-3: Explain the general heat conduction equation in spherical coordinates
Heat conduction through plane and composite wall 24 ALO 2.1.2-1: Describe the Heat Conduction through Plane Wall (without heat generation)
28 ALO 2.1.2-2: Explain the Heat Conduction through Composite Wall
24 ALO 2.1.2-3: Explain the Overall Heat transfer Coefficient
9 ALO 2.1.2-4: Explain the concept of Equivalent Thermal Resistance
38 ALO 2.1.2-5: Describe the Heat Conduction in Plane Wall (with uniform Heat Generation)
Heat Conduction through different configuration of cylinder 35 ALO 2.2.1-1: Describe the conduction heat transfer through hollow cylinder
18 ALO 2.2.1-2: Explain the Conduction Heat Transfer through Composite Cylinder
15 ALO 2.2.1-3: Explain the Conduction-Convection Heat Transfer through Composite Cylinder
Logarithmic mean area a nd Critical Thickness for cylinder 11 ALO 2.2.2-1: Describe the Logarithmic Mean Area for Hollow Cylinder
38 ALO 2.2.2-2: Explain the Heat Conduction in Cylinder with Internal Heat Generation
32 ALO 2.2.2-3: Define the critical thickness of insulation
Heat Conduction through different configuration of Sphere 33 ALO 2.3.1-1: Describe the Radial Heat Conduction through Hollow Sphere
13 ALO 2.3.1-2: Explain the Conduction Heat Transfer through Composite Sphere
Logarithmic mean area a nd Critical Thickness for Sphere 51 ALO 2.3.2-1: Describe the Logarithmic Mean Area for Hollow Sphere
38 ALO 2.3.2-2: Explain the Critical Thickness of Insulation for Sphere

Session 3

Heat & Mass Transfer – Session 3
Session Topics : 6
Active Learning Outcomes : 8
Summary Quiz : 6
Video Play Time : ~3 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Basics concept of Fin 10 ALO 3.1.1-1: Recall the Basic concept of Fins
4 ALO 3.1.1-2: List various types of Fins
Heat flow through Rectangular and Infinitely long fin 29 ALO 3.1.2-1: Describe the phenomena of heat dissipation from rectangular fin
20 ALO 3.1.2-2: Describe the phenomena of heat dissipation from an infinitely long fin
ALO 3.1.2-3: Calculate the rate of heat dissipation from the rectangular fin and temperature at the fin tip
Heat dissipation from fin insulated at the tip and fin losing heat at the tip 48 ALO 3.1.3-1: Describe the Phenomena of Heat Dissipation from Fin Insulated at the Tip
ALO 3.1.3-2: Describe the Phenomena of Heat Dissipation from Fin Losing Heat at the Tip
ALO 3.1.3-3: Calculate Rate of Heat Dissipation from the Fin Insulated at the Tip
Fin Efficiency and Effectiveness 48 ALO 3.2.1-1: Recall the significance of fins efficiency and fins effectiveness
ALO 3.2.1-2: Calculate the efficiency and effectiveness of the fins
Errors of measurement of temperature 33 ALO 3.2.2-1:  Describe the phenomena of heat dissipation from straight triangular fin
7 ALO 3.2.2-2: Calculate Rate of heat dissipation from the straight triangular fin
Heat flow through straight triangular fin 31 ALO 3.2.3-1: Recall the error in measurement of temperature by thermometer well

Session 4

Heat & Mass Transfer – Session 4
Session Topics : 9
Active Learning Outcomes : 20
Summary Quiz : 9
Video Play Time : ~5 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Introduction to steady and Unsteady state 11 ALO 4.1.1-1: Define steady and unsteady/transient heat conduction
8 ALO 4.1.1-2: Explain the Periodic and Non-periodic temperature variation
Lumped parameter Analysis 37 ALO 4.1.2-1: Describe Lumped Heat Capacity Analysis with negligible internal thermal resistance
27 ALO 4.1.2-2: Explain Biot and Fourier number
13 ALO 4.1.2-3: Describe instantaneous heat flow and total heat transfer rate
Time Constant & Response Time of Temperature Measuring Instruments 26 ALO 4.2.1-1: Explain the concept of Time Constant
ALO 4.2.1-2: Explain the response time of temperature measuring instruments
Transient Heat Conduction in solids 11 ALO 4.2.2-1:  Explain the Transient heat conduction in solids with finite conduction and convective resistance
12 ALO 4.2.2-2: Explain the utility of Heisler Chart in transient heat conduction problem
Dimensionless Analysis and Characteristic Parameters of Free Convection 17 ALO 5.1.1-1: Recall the physical mechanism of free convection
23 ALO 5.1.1-2: Describe the Dimensional Analysis applied to free convection heat transfer
10 ALO 5.1.1-3: Recall the characteristic parameters in free convection
11 ALO 5.1.1-4: Describe the momentum and energy equation for laminar free convection heat transfer on vertical flat plate
Free Convection on Vertical Flat Plate and Empirical Relations 26 ALO 5.1.2-1: Recall the velocity and temperature profile on a vertical flat plate
6 ALO 5.1.2-3: Recall the concept of combined free and forced convection
12 ALO 5.1.2-2: Describe correlation for free convection
Introduction to Dimensional Analysis 23 ALO 5.2.1-1: Explain the concept of Dimensional Analysis
ALO 5.2.1-2: Define the Fundamental and Derived units
3 ALO 5.2.1-3: List the uses of dimensional analysis
5 ALO 5.2.1-4: List the advantages and limitations of dimensional analysis
Rayleigh’s Method 21 ALO 5.2.2-1: List the methods of dimensional analysis
ALO 5.2.2-2: Explain Rayleigh’s method for dimensional analysis
Buckingham’s Theorem 26 ALO 5.2.3-1: Explain Buckingham’s Ï€ method for dimensional analysis

Session 5

Heat & Mass Transfer – Session 5
Session Topics : 7
Active Learning Outcomes : 16
Summary Quiz : 7
Video Play Time : ~5 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Boundary layer and its thickness 11 ALO 6.1.1-1: Explain the Boundary layer concept
8 ALO 6.1.1-2: Explain the laminar boundary layer, turbulent boundary layer, and laminar sub-Layer
Hydrodynamic boundary layer over a flat plate 8 ALO 6.1.2-1: Describe the Boundary layer thickness
18 ALO 6.1.2-2: Explain the displacement thickness, momentum thickness, and energy thickness
20 ALO 6.1.2-3: Define the Shape Factor
ALO 6.1.2-4 Compute the Boundary layer thickness
Von-karman momentum integral equation 36 ALO 6.1.3-1: Describe the Momentum integral equation for the boundary layer (Von-Karman)
8 ALO 6.1.3-2: Explain the essential features of the Blasius method of solving laminar boundary layer equations for a flat plate
Dimensionless Number and Thermal boundary layer 45 ALO 6.2.1-1: Recall the Basics of Convection
ALO 6.2.1-2: Recall the Dimensional Analysis applied to Forced Convection Heat Transfer
23 ALO 6.2.1-3: Describe thermal boundary layer over the flat plate
29 ALO 6.2.1-4: Recall the physical significance of Nusselt number and Prandtl number
22 ALO 6.2.1-5: Describe Energy equation of Thermal boundary layer over flat plate
Forced Convection in Plate and Pipes for Laminar and Turbulent Flow 26 ALO 6.2.2-1: Recall the Local and Average heat transfer coefficient over the flat plate
12 ALO 6.2.2-2: Describe Reynold’s and Colbum Analogy
32 ALO 6.2.2-3:  Recall the Forced Convection in Flow through Pipe
ALO 6.2.2-4: Describe Temperature Distribution and Bulk Mean Temperature for Laminar Flow
Turbulent Boundary layer 9 ALO 6.3.1-1: Explain the characteristics of turbulent flow
8 ALO 6.3.1-2:  Explain the significance of Reynolds stress in turbulent flow
Prandle Mixing Length theory 14 ALO 6.3.2-1: Describe the significance of Prandtl’s Mixing Length theory in the turbulent flow

Session 6

Heat & Mass Transfer – Session 6
Session Topics : 4
Active Learning Outcomes : 12
Summary Quiz : 4
Video Play Time : ~5 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Basic of Radiation 11 ALO 7.1.1-1: Explain Radiative Heat Transfer
20 ALO 7.1.1-2: Explain the radiation properties of surfaces
23 ALO 7.1.1-3: Define Absorptivity, Reflectivity, and Transmissivity
ALO 7.1.1-4: Explain the concept of the Black Body and Gray Body
Laws of Thermal Radiation 73 ALO 7.1.2-1: Describe the following
i. Kirchhoff’s Law
ii. Planck’s Law
iii. Wien’s Displacement Law
iv. Boltzmann Law
v. Lambert’s Cosine Law
16 ALO 7.1.2-2: Explain the Intensity of Radiation
Shape Factor and Thermal Radiation Network 42 ALO 7.2.1-1: Define Shape Factor and explain its salient features
10 ALO 7.2.1-2: Define Irradiation and Radiosity
26 ALO 7.2.1-3: Describe the Electrical network analogy for thermal radiation system
Application of Radiation Network Method and Radiation Shield 9 ALO 7.2.2-1: Recall Heat Exchanger between non-black bodies
17 ALO 7.2.2-2: Describe the Heat Exchanger between infinite parallel plates
29 ALO 7.2.2-3: Describe the Heat Exchanger between infinitely long concentric cylinders
50 ALO 7.2.2-4: Recall Radiation Shields

Session 7

Heat & Mass Transfer – Session 7
Session Topics : 7
Active Learning Outcomes : 13
Summary Quiz : 7
Video Play Time : ~6 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Types of Heat exchanger according to the nature of heat and relative direction of fluid 39 ALO 8.1.1-1: Define Heat Exchanger
ALO 8.1.1-2: List various types of heat exchanger
16 ALO 8.1.1-3: Classify Heat Exchanger according to nature
27 ALO 8.1.1-4:  Classify Heat Exchanger according to the Relative direction of Fluid
Types of Heat exchanger according to the design and physical state of fluids 38 ALO 8.1.2-1: Classify Heat Exchanger according to the design and constructional features
ALO 8.1.2-2: Classify Heat Exchanger according to the physical state of fluids
Overall Heat Transfer Coefficient and Fouling Factor 14 ALO 8.2.1-1: Explain overall heat transfer coefficient of heat exchanger
22 ALO 8.2.1-2: Explain the significance of Fouling Factor in heat exchanger
Logarithmic Mean Temperature Difference (LMTD) method 53 ALO 8.2.2-1: Describe the expression for Log Mean Temperature Difference (LMTD) for the parallel flow heat exchanger
76 ALO 8.2.2-2: Describe the expression for Log Mean Temperature Difference (LMTD) for the counter-flow heat exchanger
Effectivenss of Heat exchanger 15 ALO 8.3.1-1: Explain the Effectiveness of heat exchanger
NTU method of Heat Exchanger 30 ALO 8.3.2-1: Describe the expression for the Effectiveness of parallel flow heat exchanger in terms of Number of Transfer Units (NTU)
27 ALO 8.3.2-2: Describe the expression for the Effectiveness of counter flow heat exchanger in terms of Number of Transfer Units (NTU)
Heat Pipes 16 ALO 8.3.3-1:  Explain the basic principle and working phenomena of heat pipe
6 ALO 8.3.3-2: List various application of Heat Pipe

Session 1

Thermodynamics – Session 1
Session Topics : 4
Active Learning Outcomes : 14
Summary Quiz : 4
Video Play Time : ~4 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Thermodynamics Systems 12 ALO 1.1.1-1: Recall Thermodynamics and its Applications
8 ALO 1.1.1-2: Describe the following terms: i. System and Surrounding
ii. Boundary and Control Volume
25 ALO 1.1.1-3: List and Identify various Thermodynamic Systems
12 ALO 1.1.1-4: Define Homogeneous and Heterogeneous Systems
Thermodynamics Properties 23 ALO 1.1.2-1: Recall  Intensive and Extensive Properties of Thermodynamics
17 ALO 1.1.2-2: Recall Macroscopic and Microscopic viewpoint of Thermodynamics
17 ALO 1.1.2-3: Recall the concept of Continuum
Thermodynamics Equilibrium and Process 23 ALO 1.2.1-1: Recall Thermodynamic Equilibrium of the System
37 ALO 1.2.1-2: Describe the following terms: i. State
ii. Process and Cycle iii. Reversible and Irreversible Process
10 ALO 1.2.1-3: Describe the Quasi-Static Process
14 ALO 1.2.1-4: Recall the Point and Path Function
Zeroth law of thermodynamics 15 ALO 1.2.2-1: Recall the concept of Temperature Measurement
16 ALO 1.2.2-2: List types of Temperature Measurement
38 ALO 1.2.2-3: State Zeroth Law of Thermodynamics

Session 2

Thermodynamics – Session 2
Session Topics : 4
Active Learning Outcomes : 10
Summary Quiz : 4
Video Play Time : ~5 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Energy 15 ALO 1.3.1-1: Recall the concept of Energy
38 ALO 1.3.1-2: Classify Energy ALO 1.3.1-3: Describe the concept of Energy Interaction
Work Interaction 26 ALO 1.3.2-1:  Recall the concept of Work
33 ALO 1.3.2-2: Describe the Work done calculation
51 ALO 1.3.2-3: Recall the types of work done Interaction
Heat Interaction 20 ALO 1.3.3-1: Recall the concept of Heat ALO 1.3.3-2: Describe the heat interaction in various process
33 ALO 1.3.3-3: Recall the concept of specific heat
Ideal Gas Equation 17 ALO 1.3.4-1: Recall the concept of Ideal Gas
21 ALO 1.3.4-2: Describe the Adiabatic relation between P, T, and V
54 ALO 1.3.4-3: Recall the representation of various processes in P-V diagram

Session 3

Thermodynamics – Session 3
Session Topics : 3
Active Learning Outcomes : 11
Summary Quiz : 3
Video Play Time : ~4 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
First Law of Thermodynamics 32 ALO 2.1.1-1: Describe the First Law of Thermodynamics
29 ALO 2.1.1-1: Recall the concept of Internal Energy
10 ALO 2.1.1-3: Describe the Perpetual Motion Machine-1
Consequences of First Law of Thermodynamics 20 ALO 2.1.2-1: Recall different types of Work done
8 ALO 2.1.2-2: Recall the term Energy of Universe
18 ALO 2.1.2-3: Recall the concept of Enthalpy
19 ALO 2.1.2-4: Describe the concept of Free Expansion
Application of First Law to Flow process 15 ALO 2.1.3-1: Recall the concept of Control Volume analysis
39 ALO 2.1.3-2: Derive the Steady Flow Energy Equation
17 ALO 2.1.3-3: Recall the application of Steady Flow process
21 ALO 2.1.3-4:  Recall the comparison of SFEE with Euler and Bernoulli Equations

Session 4

Thermodynamics – Session 4
Session Topics : 4
Active Learning Outcomes : 8
Summary Quiz : 4
Video Play Time : ~4 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Kelvin Planck and Clausius Statement 34 ALO 3.1.1-1: Recall the Quality of Energy
19 ALO 3.1.1-2: Recall the following Statements of Second Law: i. Kelvin Planck Statement ii. Clausius Statement ALO 3.1.1-3: Describe the Perpetual Motion Machine-2
Analysis of Second Law of Thermodynamics 24 ALO 3.1.2-1: Recall the Coefficients of Performance of Heat Pump and Refrigerator
45 ALO 3.1.2-2: Describe the Equivalence of Kelvin Planck and Clausius Statement
Carnot cycle and Clausius Inequality 35 ALO 3.2.1-1: Recall the Carnot cycle
49 ALO 3.2.1-2:  Recall the concept of Clausius Inequality
Second Law Efficiency 32 ALO 3.2.2-1: Recall the Second Law Efficiency
21 ALO 3.2.2-2: Recall the Effect of Temperature on the performance of reversible devices

Session 5

Thermodynamics – Session 5
Session Topics : 5
Active Learning Outcomes : 12
Summary Quiz : 5
Video Play Time : ~6 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Concept of Entropy 50 ALO 4.1.1-1: Define the term Entropy
19 ALO 4.1.1-2: Recall the properties of Entropy
36 ALO 4.1.1-3: Describe the Temperature – Entropy diagram
Analysis of Entropy 26 ALO 4.1.2-1: Recall the Clausius Theorem
8 ALO 4.1.2-2: Describe the Reversible Adiabatic Path Analysis
Irreversibility 32 ALO 4.2.1-1: Define the term Irreversibility
42 ALO 4.2.1-2: Classify Irreversibility
Application of Entropy Principle 14 ALO 4.2.2-1: Recall the Transfer of Heat through a finite Temperature difference
24 ALO 4.2.2-2: Recall the analysis of the Mixing of two Fluids
18 ALO 4.2.2-3: Describe the process of Maximum work obtained from the two finite bodies at Temperatures T<sub>1 </sub>and T<sub>2</sub>
Entropy Calculation 65 ALO 4.2.3-1: Recall the Fixed mass Entropy Analysis
17 ALO 4.2.3-2: Describe the calculation of the change in Entropy for Solid, Liquid, and Gases

Session 6

Thermodynamics – Session 6
Session Topics : 5
Active Learning Outcomes : 11
Summary Quiz : 5
Video Play Time : ~5 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Concept of Pure substances 23 ALO 5.1.1-1: Recall the concept of Phase change phenomena
18 ALO 5.1.1-2: Recall the P-V diagram for Phase change
17 ALO 5.1.1-3: Recall the concept of Latent Heat and Sensible Heat
13 ALO 5.1.1-4: Derive the expression for various regions in the T-S diagram
Measurement of quality of steam 19 ALO 5.1.2-1: Recall the concept of the following:
i. Quality Dryness Fraction ii. Critical Point
19 ALO 5.1.2-2: Derive an expression for Wet region
23 ALO 5.1.2-3: Recall the concept of Triple Point on P-T diagram
Mollier Diagram 19 ALO 5.2.1-1: Recall the concept of H-S diagram
Real Gases 17 ALO 6.1.1-1: Recall the concept of Real Gases
20 ALO 6.1.1-2: Recall the following Laws:
i. Dalton’s Law of Partial Pressure
ii. Amagat’s Law
iii. Boyle’s Law
iv. Charles Law
Thermodynamics Relations 105 ALO 6.1.2-1: Recall the following Thermodynamic Relations: i. Gibbs function ii. Helmholtz function iii. Vender wall’s equation iv. Maxwell equation
v. Joule Thomson coefficient
vi. Clausius Clapeyron equation

Session 1

Production Engineering – Session 1
Session Topics : 3
Active Learning Outcomes : 10
Summary Quiz : 3
Video Play Time : ~2 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Introduction to Manufacturing Process 5 ALO 1.1.1-1: Define the term Manufacturing
3 ALO 1.1.1-2: Recall the Importance of Manufacturing
6 ALO 1.1.1-3: Classify Manufacturing
Introduction to Metal Forming 11 ALO 1.2.1-1: Define the Metal Forming Process
8 ALO 1.2.1-2: Classify the Metal Forming Process
10 ALO 1.2.1-3: Recall the Bulk Forming Process and the Sheet Forming Process
23 ALO 1.2.1-4: Describe the Recrystallization Temperature and the Grain Growth
Hot Working and Cold Working Process 30 ALO 1.2.2-1: Describe the following with its advantages and disadvantages: i. Cold Working Process
ii. Hot Working Process
10 ALO 1.2.2-2: Recall Warm Forming and the Isothermal Forming
15 ALO 1.2.2-3: Define the terms: Annealing and Malleability

Session 2

Production Engineering – Session 2
Session Topics : 4
Active Learning Outcomes : 17
Summary Quiz : 4
Video Play Time : ~7 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Rolling process 10 ALO 1.3.1-1: Define the term Rolling
13 ALO 1.3.1-2: Recall Hot Rolling and Cold Rolling Process
53 ALO 1.3.1-3: Describe Mechanics associated with Rolling
59 ALO 1.3.1-4: List various types of Rolling Processes
25 ALO 1.3.1-5: Recall various types of Rolling Defects
Forging 9 ALO 1.3.2-1: Define the term Forging and list its Applications
14 ALO 1.3.2-2: Recall the Advantages and Disadvantages of Forging
63 ALO 1.3.2-3: Recall various Forging Operations
8 ALO 1.3.2-4: Recall the Defects of Forging
Extrusion 10 ALO 1.3.3-1: Define Extrusion and list its applications
8 ALO 1.3.3-2: Recall the advantages and disadvantages of Extrusion Process
51 ALO 1.3.3-3: List and explain defects produced during the Extrusion process
15 ALO 1.3.3-4: Recall the Extrusion Defects
Drawing 31 ALO 1.3.4-1: Define Wire Drawing and its Process
5 ALO 1.3.4-2: Recall the Defects of Wire Drawing
26 ALO 1.3.4-3: Describe the following:
i. Tube Drawing
ii. Bundle Drawing
14 ALO 1.3.4-4: Recall the Analysis of Extrusion and Wire drawing

Session 3

Production Engineering – Session 3
Session Topics : 3
Active Learning Outcomes : 13
Summary Quiz : 3
Video Play Time : ~2 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Blanking and Punching 5 ALO 1.4.1-1: Recall Sheet Metal and its Applications
7 ALO 1.4.1-2: Define Press and classify it
7 ALO 1.4.1-3: Recall Die-Punch assembly and its Applications
33 ALO 1.4.1-4: Recall Punching and Blanking Operations
6 ALO 1.4.1-5: Define Shearing
6 ALO 1.4.1-6: List various types of Shearing Operations
13 ALO 1.4.1-7: List and recall different types of Dies
Deep Drawing 15 ALO 1.4.2-1: Define Drawing process
8 ALO 1.4.2-2: Recall the defects in Drawing
13 ALO 1.4.2-3: Recall the terms: i. Ironing
ii. Redrawing
iii. Coining
iv. Embossing
Bending 5 ALO 1.4.3-1: Recall the Bending in Sheet Metal
12 ALO 1.4.3-2: List various types of Bending
5 ALO 1.4.3-3: Recall the Bending Allowance

Session 4

Production Engineering – Session 4
Session Topics : 6
Active Learning Outcomes : 23
Summary Quiz : 6
Video Play Time : ~7 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Mechanics of Metal Cutting and Tool geometry 18 ALO 2.1.1-1: Recall Metal Cutting Process
14 ALO 2.1.1-2: Recall Orthogonal Cutting and Oblique Cutting
51 ALO 2.1.1-3: Describe the Geometry of a Single point Cutting Tool
39 ALO 2.1.1-4: Describe Tool Nomenclature System
Merchant Circle Diagram 15 ALO 2.1.2-1: Recall Merchant Analysis for Chip Thickness Ratio
13 ALO 2.1.2-2: List various type of Cutting Forces
23 ALO 2.1.2-3: Recall Shear Force and Normal Force on Shear Plane
40 ALO 2.1.2-4: Recall the assumptions and limitations of Merchant Circle diagram
Shear Angle and Velocity Triangle 7 ALO 2.1.3-1: Recall the Analysis of Cutting Shear Strain
12 ALO 2.1.3-2: Recall Velocities in Metal Cutting
16 ALO 2.1.3-3: Derive an expression for Metal Removal Rate and Power Consumed during Cutting
14 ALO 2.1.3-4: Recall the Ernest and Merchant Theory
Chip Formation 15 ALO 2.2.1-1: Recall the Distribution of Heat in Metal Cutting
26 ALO 2.2.1-2: List different types of Chips in Metal Cutting Operation
17 ALO 2.2.1-3: Recall the analysis of Turning Operation
Tool Life 17 ALO 2.2.2-1: Recall different Mechanism of Tool Wear
15 ALO 2.2.2-2: Classify Tool Wear
9 ALO 2.2.2-3: Describe Taylor’s Tool Life Equation
9 ALO 2.2.2-4: Recall the effect of parameters on Tool Life
4 ALO 2.2.2-5: Recall the Properties of Cutting Tool Materials
Economics of Metal Cutting 10 ALO 2.2.3-1: Define the term Machinability
5 ALO 2.2.3-2: Recall the Surface Roughness for Turning
12 ALO 2.2.3-3: Describe Economics of Metal Cutting

Session 5

Production Engineering – Session 5
Session Topics : 6
Active Learning Outcomes : 24
Summary Quiz : 6
Video Play Time : ~6 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Basics of Casting Process 7 ALO 3.1.1-1: Define Casting
4 ALO 3.1.1-2: List various applications of Casting
5 ALO 3.1.1-3: Recall the Principle of Casting Process
15 ALO 3.1.1-4: List the advantages and disadvantages of Casting
38 ALO 3.1.1-5: Recall the Important terms used in Casting Process
Patterns and its Allowances 2 ALO 3.1.2-1: Define Pattern
34 ALO 3.1.2-2: List and differentiate various types of Pattern used in the Casting Process
40 ALO 3.1.2-3: Recall various types of Allowances given to the Patterns
8 ALO 3.1.2-4: Recall the Core and Core Prints
Moulding Sand and its Properties 5 ALO 3.1.3-1: Define Molding Sand ALO 3.1.3-2: Recognize the Composition of Molding Sand
29 ALO 3.1.3-3: Recall the Properties of Moulding Sand
2 ALO 3.1.3-4: Define Mould Wash
4 ALO 3.1.3-5: List various types of Additives used in Moulding Sand
Gating system 18 ALO 3.2.1-1: Describe Gating System ALO 3.2.1-2: Recall working of the Gating System
9 ALO 3.2.1-3: List various objectives of the Gating System
23 ALO 3.2.1-4: Recall the Design Procedure of the Sprue
Types of Gates 7 ALO 3.2.2-1: Recall various types of Gates
12 ALO 3.2.2-2: Describe Top Gate System
21 ALO 3.2.2-3: Describe Bottom Gate System
18 ALO 3.2.2-4: Describe Parting Line Gate System
2 ALO 3.2.2-5: Describe Step Gate System
Pressurized and Unpressurized Gating systems 8 ALO 3.2.3-1: Recall the term Fluidity
12 ALO 3.2.3-2: Describe Pressurized and Unpressurized Gating Systems
9 ALO 3.2.3-3: Differentiate between Pressurized and Unpressurized Gating System

Session 6

Production Engineering – Session 6
Session Topics : 3
Active Learning Outcomes : 12
Summary Quiz : 3
Video Play Time : ~5 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Riser Design 18 ALO 3.3.1-1: Recall Chvorinov’s Principle for Solidification Time of Castings
10 ALO 3.3.1-2: Recall the Purpose of Riser and its Design Parameters
9 ALO 3.3.1-3: Recall Optimum Dimensions for Minimum Surface Area of a Cylindrical Riser
6 ALO 3.3.1-4: List various types of Riser
56 ALO 3.3.1-5: Describe Methods of Riser Design
Classification of casting 5 ALO 3.3.2-1: List various types of Castings
34 ALO 3.3.2-2: Describe various types of Expendable Mould Castings
54 ALO 3.3.2-3: Describe various types of Permanent Mould Casting
9 ALO 3.3.2-4: Describe Continuous and Squeeze Castings
Casting Defects and Types of Furnaces 60 ALO 3.3.3-1: Recall different Casting Defects
12 ALO 3.3.3-2: Recall Chills and Padding
6 ALO 3.3.3-3: Describe Methods of Cleaning of Casting

Session 7

Production Engineering – Session 7
Session Topics : 4
Active Learning Outcomes : 15
Summary Quiz : 4
Video Play Time : ~4 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Basic Concept of Welding 13 ALO 4.1.1-1: Define Welding Process
22 ALO 4.1.1-2: Recall Metallurgy involved in Welding Process
13 ALO 4.1.1-3: Describe the Terminologies used in Welding
4 ALO 4.1.1-4: Describe the Geometry of Bead
6 ALO 4.1.1-5: Recall the Classification of Welding
Arc Welding 17 ALO 4.1.2-1: Recall the Principle and Working of Arc Welding
43 ALO 4.1.2-2: List various types of Arc Welding Machines
10 ALO 4.1.2-3: Recall Arc blow and its Remedies
19 ALO 4.1.2-4: Describe the Function of the Flux Coating
Shielding gas arc welding 20 ALO 4.1.3-1: Recall the Principle and Working of TIG Welding
8 ALO 4.1.3-2: Recall the Principle and Working of MIG Welding
9 ALO 4.1.3-3: Recall the Principle and Working of Plasma Arc Welding
9 ALO 4.1.3-4: Recall the Principle and Working of Submerged Arc Welding
Chemical Reaction welding 2 ALO 4.1.4-1: Classify Chemical Reaction Welding
34 ALO 4.1.4-2: Recall the Principle and Working of:
i. Thermit Welding
ii. Gas Welding
iii. Gas Cutting
iv. Atomic Hydrogen Welding

Session 8

Production Engineering – Session 8
Session Topics : 6
Active Learning Outcomes : 15
Summary Quiz : 6
Video Play Time : ~4 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Resistance Welding 3 ALO 4.2.1-1: Classify Resistance Welding
67 ALO 4.2.1-2: Recall the Principle and Working of: i. Spot Welding
ii. Seam Welding iii. Projection Welding
iv. Flash Welding
v. High-Frequency Resistance Welding
Soild state welding 3 ALO 4.2.2-1: Classify Solid-State Welding
40 ALO 4.2.2-2: Recall the Principle and Working of: i. Explosive Welding ii. Ultrasonic Welding iii. Friction  Welding
iv. Forge Welding
v. Diffusion Welding
Soldering and Brazing 14 ALO 4.2.3-1: Describe the Process of Soldering
8 ALO 4.2.3-2: Describe the Process of Brazing
3 ALO 4.2.3-3: Differentiate between Soldering and Brazing
Radient energy welding 41 ALO 4.3.1-1: Recall Principle and Working of:
i. Laser Beam Welding
ii. Electron Beam Welding
iii. Electro Slag Welding
5 ALO 4.3.1-2: Compare Laser Beam Welding and Electron Beam Welding
Welding defects 3 ALO 4.3.2-1: List various types of Welding Defects
25 ALO 4.3.2-2: Recall the Causes and the Remedies of Defects
Welding Techniques and Types of Joints 6 ALO 4.3.3-1: Describe Positions used in Welding Technique
7 ALO 4.3.3-2: Recall different type of Joints Used in the Welding Process
9 ALO 4.3.3-3: Recall various type of Electrodes used in the Welding Process
7 ALO 4.3.3-4: Describe Specifications of the Electrode

Session 9

Production Engineering – Session 9
Session Topics : 8
Active Learning Outcomes : 17
Summary Quiz : 8
Video Play Time : ~5 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Introduction to Non-Conventional Machining 14 ALO 5.1.1-1: Recall Limitations of Conventional Machining Method
2 ALO 5.1.1-2: Define Non-Conventional Machining
8 ALO 5.1.1-3: Classify Non-Conventional Machining Method
Ultrasonic and Abrasive Jet Machining 47 ALO 5.1.2-1: Recall the Working Principle, Merits, Demerits, and Applications of the following: i. Ultrasonic Machining (USM)
ii. Abrasive Jet Machining (AJM)
Electric Discharge Machining and Electro Chemical Machining 89 ALO 5.1.3-1: Recall the Principal and Working:
i. Electric Discharge Machining  ii. Electric Chemical Machining
4 ALO 5.1.3-2: Compare Electric Discharge Machining and Electro-Chemical Machining
Laser Beam, Electron Beam, and Plasma Arc Machining 38 ALO 5.1.4-1: Recall the Working Principle, Merits, Demerits, and Applications of the following: i. Laser Beam Machining (LBM) ii. Electron Beam Machining (EBM) iii. Plasma Arc Machining (PAM)
Basics of Powder Metallurgy 7 ALO 5.2.1-1: Define the term Powder Metallurgy
31 ALO 5.2.1-2: Recall the following stages of the Powder Metallurgy Process:
i. Production of Powder metal
ii. Mixing or blending
iii. Compacting
iv. Sintering
v. Secondary Operations
Advantages and Applications of Powder Metallurgy 5 ALO 5.2.2-1: Recall the advantages and limitations of Powder Metallurgy
2 ALO 5.2.2-2: Define the Powder Flowability
5 ALO 5.2.2-3:  Recall the applications of Powder Metallurgy
Jigs & Fixtures
Manufacturing of Plastic Components 6 ALO 5.3.2-1: Define the terms Monomer and Polymer
2 ALO 5.3.2-2: Recall the Properties of Plastic
5 ALO 5.3.2-3: Recall the types and applications of Plastic
7 ALO 5.3.2-4: Recall the concept of Injection and Blow Moulding
4 ALO 5.3.2-5: Recall the Extrusion of Plastic

Session 10

Production Engineering – Session 10
Session Topics : 6
Active Learning Outcomes : 26
Summary Quiz : 6
Video Play Time : ~5 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Lathe Machine 38 ALO 6.1.1-1: Recall the Principle, Construction, and Working of Lathe Machine
12 ALO 6.1.1-2: Classify Lathe Machine
4 ALO 6.1.1-3: Describe the Specification of Lathe Machine
13 ALO 6.1.1-4: Recall the various types of Operations performed on Lathe Machine
19 ALO 6.1.1-5: List and recall different Methods of Taper Turning
Milling Machine 4 ALO 6.1.2-1: Recall the Principle and Working of Milling Machine
9 ALO 6.1.2-2: Recall Up-Milling and Down-Milling
14 ALO 6.1.2-3: Classify the Milling
16 ALO 6.1.2-4: Describe the Mechanics of Milling
Shaper and Planner Machine 4 ALO 6.1.3-1: Define Shaper Machine
6 ALO 6.1.3-2: Recall the working Principle of Shaper Machine
11 ALO 6.1.3-3: Classify Shapers Machine
12 ALO 6.1.3-4: Describe the various parts of Shaper Machine
Drilling Machine 14 ALO 6.2.1-1: Recall the Construction and Working Principle  of Drilling Machine
16 ALO 6.2.1-2: Classify Drilling Machine
20 ALO 6.2.1-3: Describe the Geometry of Twist Drill
17 ALO 6.2.1-4: Describe the various Operations performed on Drilling Machine
Grinding 6 ALO 6.2.2-1: Recall the Abrasives used in Grinding Wheel
3 ALO 6.2.2-2: List various types of Bond in Grinding Wheel
5 ALO 6.2.2-3: Describe the Specification of Grinding Wheel
8 ALO 6.2.2-4: Recall types of Wear in the Wheel
4 ALO 6.2.2-5: Define the term Dressing and Truing
11 ALO 6.2.2-6: Classify Grinding Process
Super-finishing operations 6 ALO 6.2.3-1: Define Super-finishing Process
3 ALO 6.2.3-2: List various Advantages and Disadvantages of Super-finishing
16 ALO 6.2.3-3: Recall the following processes:
i. Honing ii. Lapping
iii. Polishing

Session 1

Theory of Machines – Session 1
Session Topics : 8
Active Learning Outcomes : 20
Summary Quiz : 8
Video Play Time : ~5 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Basics of Kinematics of Machine 4 ALO 1.1.1-1: Recall the term Kinematics of Machine
10 ALO 1.1.1-2: Define the key terms such as kinematics, kinetics, dynamics etc
Kinematic Links, Motion, and Pair 25 ALO 1.1.2-1: Define and classify the Kinematic Link
14 ALO 1.1.2-2: Recall various types of Relative motion
31 ALO 1.1.2-3: Define and classify Kinematic Pair
Kinematic chain 5 ALO 1.1.3-1: the term Kinematic chain
24 ALO 1.1.3-2: Describe the relationship between Number of Links and Number of Pairs
23 ALO 1.1.3-3: Recall the types of joints used in a Chain
Mechanism and Degree-of-Freedom 12 ALO 1.2.1-1: Define the term Mechanism
14 ALO 1.2.1-2: Recall Degree-of-Freedom or Mobility
23 ALO 1.2.1-3: Describe the Kutzbach criterion and its applications
9 ALO 1.2.1-4: Describe Grubler’s criterion for plane mechanism
Inversion of Mechanism 8 ALO 1.2.2-1: Define the term Inversion of Mechanism
8 ALO 1.2.2-2: List and recall types of Kinematic chain
Four bar chain 12 ALO 1.2.3-1: State Grashof’s Law
15 ALO 1.2.3-2: Describe the practical inversions of Four bar chain
Single slider crank chain 7 ALO 1.2.4-1: Recall the Inversions of Single slider crank chain in various cases such as cylinder is fixed, the crank is fixed, etc
7 ALO 1.2.4-2: Recall the Inversions of Single slider crank chain Pendulum pump and Gnome engine etc
24 ALO 1.2.4-3: Describe different Quick return motion mechanisms
Double slider crank chain 15 ALO 1.2.5-1: Recall the Inversions of Double slider crank chainsuch as Elliptical trammel etc

Session 2

Theory of Machines – Session 2
Session Topics : 9
Active Learning Outcomes : 24
Summary Quiz : 9
Video Play Time : ~8 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Instantaneous Centre method 25 ALO 2.1.1-1: Define Instantaneous Centre of rotation
34 ALO 2.1.1-2: Define the key points such as centrode, axode, types of instantaneous centres etc
8 ALO 2.1.1-3: State the Kennedy’s theorem
35 ALO 2.1.1-4: Recall the method to find and locate the Instantaneous centres in mechanism
13 ALO 2.1.1-5: State the theorem of Angular velocity ratio
Relative Velocity method 19 ALO 2.1.2-1: Recall the concept of Relative motion
38 ALO 2.1.2-2: Draw the Velocity diagram through Relative velocity method
4 ALO 2.1.2-3: Describe the Rubbing velocity of a pin-joint
15 ALO 2.1.2-4: Recall the term Mechanical advantage
Acceleration Analysis 9 ALO 2.2.1-1: Recall the Accelerations in circular motion
7 ALO 2.2.1-2: Describe the Acceleration diagram for a link
12 ALO 2.2.1-3: Recall the Acceleration of a point on a link
12 ALO 2.2.1-4: Describe Coriolis component of acceleration
15 ALO 2.2.1-5: Describe Klein’s construction for a Single slider crank mechanism
Basics of Cam and Follower 7 ALO 3.1.1-1: Define the following terms:  i. Cam ii. Follower
4 ALO 3.1.1-2: Recall the uses of Cam
Classification of Follower 36 ALO 3.1.2-1: Recall the Classification of Followers according to: i. the Surface in Contact ii. the Motion of Follower iii.Path of the Motion of the Follower
Classification of Cam 14 ALO 3.1.3-1: Recall the Classification of Cams: i. Radial or Disc Cam ii.Cylindrical Cam
Terminology used in Radial Cams 37 ALO 3.1.4-1: Recall the Following terms used in Radial Cams:  i. Base circle ii. Trace point iii. Pressure angle iv. Pitch point and Pitch circle v. Pitch curve vi. Prime circle vii. Lift or stroke
Cam and Follower Motions 7 ALO 3.2.1-1: Define following terms for Followers displacement: i. Rise and Return ii. Dwell
17 ALO 3.2.1-2: Define following angles for Cam Rotation: i. Angle of ascent and Descent ii. Angle of dwell and action
13 ALO 3.2.1-3: Recall the Follower derivatives
10 ALO 3.2.1-4: Recall Mean Average Velocity of Follower
Motion diagrams (Displacement, Velocity, and Acceleration diagrams) 101 ALO 3.2.2-1: Draw Cam Profile for the following Followermotions: i. When moves with Uniform Velocity ii. When moves with Uniform Accelerationand Retardation iii. When moves with Single Harmonic Motion iv. When moves with Cycloidal Motion

Session 3

Theory of Machines – Session 3
Session Topics : 3
Active Learning Outcomes : 11
Summary Quiz : 3
Video Play Time : ~9 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Gear and its types 41 ALO 4.1.1-1: Define the term Gear
12 ALO 4.1.1-2: List Advantages and Disadvantage of the Gear
91 ALO 4.1.1-3: Classify the Toothed Wheels (Gears)
78 ALO 4.1.1-4: Recall different terms used in the Gears
Law of Gearing and Forms of Teeth 63 ALO 4.1.2-1: State the Law of Gearing
25 ALO 4.1.2-2: Describe the Velocity of the Sliding Teeth
39 ALO 4.1.2-3: Define the following terms: i. Cycloidal Teeth Profile ii. Involute Teeth Profile
Analysis of Involute Profile 68 ALO 4.1.3-1: Describe the following terms: i. Line of Action ii. Length of Path of Contact iii. Arc of Contact
iv. Contact Ratio
18 ALO 4.1.3-2: Define the term Interference
36 ALO 4.1.3-3: Recall the Methods to Prevent the Interference
48 ALO 4.1.3-4: Recall the Minimum number of Teeth to Prevent the Interference

Session 4

Theory of Machines – Session 4
Session Topics : 4
Active Learning Outcomes : 11
Summary Quiz : 4
Video Play Time : ~4 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Involute Vs Cycloidal Teeth 20 ALO 4.2.1-1: Recall the effect of Variation in centre distance
12 ALO 4.2.1-2: Recall the comparison between Involute and Cycloidal Teeth
Helical Gears and Spiral Gears 11 ALO 4.2.2-1: Recall the Terminology used in Helical Gears
4 ALO 4.2.2-2: Recall the Shaft Angle in Spiral Gears
25 ALO 4.2.2-3: Describe the following: i. velocity Ratio and Centre distance For Spiral and Helical Gears ii Forces and efficiency for Spiral and Helical Gears
Worm and Worm Gears 22 ALO 4.2.3-1: Recall the Terminology used in Worm Gear
14 ALO 4.2.3-2: Describe the Velocity Ratio and Center distance for Worm Gear
8 ALO 4.2.3-3: Recall and calculate the Efficiency of Worm Gear
Gear Train and its Types 8 ALO 4.3.1-1: Define the term Gear Trains
10 ALO 4.3.1-2: Classify Gear Trains
121 ALO 4.3.1-3: Describe the following Gear Trains: i. Simple Gear Train ii. Compound Gear Train iii. Reverted Gear Train iv. Epicyclical Gear Train v. Sun and Planet Gear Train

Session 5

Theory of Machines – Session 5
Session Topics : 8
Active Learning Outcomes : 22
Summary Quiz : 8
Video Play Time : ~10 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Types and Laws of Friction 11 ALO 5.1.1-1: Define and classify Friction
13 ALO 5.1.1-2: Recall the Laws of Friction
26 ALO 5.1.1-3: Recall the following terms: i. Coefficient of Friction ii. Limiting Angle of Friction iii. Angle of Repose
Friction in Inclined Plane 38 ALO 5.1.2-1: Recall the Friction of a body on an Inclined Plane  i. Body is at Rest ii. Motion of the body is up the Plane iii. Motion of the body is down the Plane
15 ALO 5.1.2-2: Recall and calculate the Efficiency of Inclined Plane
Basics of Power Screw 31 ALO 5.2.1-1: Recall the concept of Screw Friction
45 ALO 5.2.1-2: Recall and calculate the Torque required to Lift and Lower the Load by Power Screw
Efficiency of Power Screw 40 ALO 5.2.2-1: Describe and calculate Efficiency and Maximum efficiency in the Power screw
15 ALO 5.2.2-2: Recall the terms Overhauling and Self-locking screw
Belt Drive and its types 12 ALO 5.3.1-1: Define and Classify Belt Drive
44 ALO 5.3.1-2: Recall the Material used for Belts
Analysis of Belt Drive 26 ALO 5.3.2-1: Describe the Velocity Ratio for Belt Drive
46 ALO 5.3.2-2: Recall the Slip and Creep of Belt
43 ALO 5.3.2-3: Describe the Length of Open and Cross Belt Drive
10 ALO 5.3.2-4: Describe and Calculate the Power Transmitted byBelt Drive
Flat Belt Drive 43 ALO 5.3.3-1: Describe the Ratio of Driving Tensions for Flat Belt Drive
22 ALO 5.3.3-2: Recall the Centrifugal Tension and its effect on Power Transmission
34 ALO 5.3.3-3: Describe the Maximum Tension in Flat Belt Drive
41 ALO 5.3.3-4: Describe the Initial Tension in Belt Drive
ALO 5.3.3-5: Recall the Determination of width in Flat Belt Drive
V-Belt Drive 11 ALO 5.3.4-1: Recall the types of Belt used in Flat Belt drive andV-Belt Drive
8 ALO 5.3.4-2: Recall the Advantages and Disadvantages of V-BeltDrive
4 ALO 5.3.4-3: Describe the Ratio of driving tensions for V-Belt

Session 6

Theory of Machines – Session 6
Session Topics : 4
Active Learning Outcomes : 13
Summary Quiz : 4
Video Play Time : ~3 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Transmission angle in Four-bar Mechanism 18 ALO 6.1.1-1: Recall the key terms: Transmission angle and Toggle positions
Straight Line Mechanisms 14 ALO 6.1.2-1: Define and classify Straight Line Mechanism
32 ALO 6.1.2-2: Recall Exact Straight Line Motion Mechanism
19 ALO 6.1.2-3: Describe Approximate Straight Line Motion Mechanism
Steering Gear Mechanism 14 ALO 6.2.1-1: Define Steering Gear Mechanism
4 ALO 6.2.1-2: Recall Davis Steering Gear
9 ALO 6.2.1-3: Describe Ackerman Steering Gear
Universal or Hooke’s Joint 7 ALO 6.2.2-1: Define Universal or Hooke’s Joint
24 ALO 6.2.2-2: Derive an expression for the Ratio of shafts velocities for Hooke’s Joint
7 ALO 6.2.2-3: Describe Maximum and Minimum speed of driven shaft
6 ALO 6.2.2-4: Describe the Condition of equal speeds
6 ALO 6.2.2-5: Recall Angular acceleration of driven shaft and Maximum fluctuation of speed
7 ALO 6.2.2-6 Define Double Hooke’s Joint

Session 7

Theory of Machines – Session 7
Session Topics : 9
Active Learning Outcomes : 22
Summary Quiz : 9
Video Play Time : ~6 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Governor and its application 8 ALO 7.1.1-1: Define the term Governors
4 ALO 7.1.1-2: List various applications of Governors
10 ALO 7.1.1-3: Recall the following types of Governors: i. Centrifugal Governors ii. Inertia Governors
Centrifugal Governors 20 ALO 7.1.2-1: Recall the Functions of Centrifugal Governor
16 ALO 7.1.2-2: Recall the working principle of Centrifugal Governor
26 ALO 7.1.2-3: List and recall various terms used in the CentrifugalGovernors
Inertia Governors 5 ALO 7.1.3-1: Define the term Inertia Governor
14 ALO 7.1.3-2: Recall the working principle of Inertia Governor
4 ALO 7.1.3-3: List Advantages and Disadvantages of InertiaGovernor
Watt Governor 4 ALO 7.2.1-1: Recall the Functions of Watt Governor
24 ALO 7.2.1-2: Recall the working principle of Watt Governor: ALO 7.2.1-3: Derive an expression for the height in case of WattGovernor ALO 7.2.1-4: Recall the Limitations of Watt Governor
Porter Governor 17 ALO 7.2.2-1: Recall the Functions of Porter Governor
23 ALO 7.2.2-2: Recall the working principle of Porter Governor
4 ALO 7.2.2-3: Compare Porter Governor and Watt Governor
14 ALO 7.2.2-4: List the merits of Porter Governor
Proell Governor 7 ALO 7.2.3-1: Define the term Proell Governor: ALO 7.2.3-2: Recall the working principle of Proell Governor
19 ALO 7.2.3-3: Derive an expression for the relation between h and ω² for the Proell Governor
24 ALO 7.2.3-4: Compare Porter and Proell Governors
Hartnell Governor 54 ALO 7.3.1-1: Recall the Functions of Hartnell Governor ALO 7.3.1-2: Recall the working principle of Hartnell Governor
Hartung and Pickering Governor 10 ALO 7.3.2-1: Recall the working principle of Hartung Governor
17 ALO 7.3.2-2: Recall the Pickering Governor and list itsapplications ALO 7.3.2-3: Recall the working principle of Pickering governor
Wilson-Hartnell Governor 31 ALO 7.3.3-1: Recall the Functions of Hartnell Governor ALO 7.3.3-2: Recall the working principle of Hartnell Governor

Session 8

Theory of Machines – Session 8
Session Topics : 5
Active Learning Outcomes : 12
Summary Quiz : 5
Video Play Time : ~4 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Kinematic analysis of Single-slider Crank Mechanism 29 ALO 8.1.1-1: Define the key terms such as Displacement Velocity, and acceleration of slider
9 ALO 8.1.1-2: Recall Angular displacement, Velocity, and Acceleration of connecting rod
Dynamic (Force) analysis of Single-slider Crank Mechanism 12 ALO 8.1.2-1: State D-Alember’s Principle
27 ALO 8.1.2-2: Recall different forces in a Single-Slider crank mechanism like Inertia forces etc
Equivalent Dynamical system 16 ALO 8.1.3-1: Recall the Equivalent Dynamical system
6 ALO 8.1.3-2: Calculate the Equivalent Dynamical system of Two masses by graphical method
Turning Moment diagram 47 ALO 8.2.1-1: Draw turning moment diagrams for various engines like Single-cylinder, Multicylinder etc
16 ALO 8.2.1-2: Define the key terms such as Fluctuation of energy and Fluctuation of speed
Flywheel 7 ALO 8.2.2-1: Define Flywheel and its uses
17 ALO 8.2.2-2: Recall the energy stored in Flywheel
15 ALO 8.2.2-3: Describe the design procedure for Flywheel Rim
22 ALO 8.2.2-4: Recall the use of Flywheel in a punching press

Session 9

Theory of Machines – Session 9
Session Topics : 5
Active Learning Outcomes : 15
Summary Quiz : 5
Video Play Time : ~4 Hours
Suggested Completion : 1 Topic Per Day
Topic Name Video Play Time (min) Learning Outcomes
Brake and its classification 8 ALO 9.1.1-1: Define Brake and materials for brake lining
42 ALO 9.1.1-2: List and recall types of brake such as shoe brake, band brake, block brake, etc
31 ALO 9.1.1-3: Recall the Braking phenomena of a vehicle
Dynamometer and its classification 8 ALO 9.2.1-1: Define and classify Dynamometer
17 ALO 9.2.1-2: List and recall types of Absorption dynamometers
17 ALO 9.2.1-3: Recall types of Transmission dynamometers
Balancing of Rotating Masses 11 ALO 10.1.1-1: Define Balancing and its types
17 ALO 10.1.1-2: Recall the Balancing of Single mass by static and dynamic balancing
45 ALO 10.1.1-3: Recall the Balancing of Several masses in same anddifferent planes
Partial Balancing of Forces 6 ALO 10.2.1-1: Define Primary and Secondary unbalanced forces ofreciprocating masses
21 ALO 10.2.1-2: Recall the Partial balancing of Unbalanced Primaryforce
21 ALO 10.2.1-3: Recall the Partial balancing of Locomotives
Balancing of different Engines 4 ALO 10.2.2-1: Describe the Balancing of Multi-cylinder in-line Engines
5 ALO 10.2.2-2: Recall the Balancing of Radial Engines
9 ALO 10.2.2-3: Describe the Balancing of V-engines

Session 10

Theory of Machines – Session 10
Session Topics : 9
Active Learning Outcomes : 30
Summary Quiz : 9
Video Play Time : ~7 Hours
Suggested Completion : 2 Topics Per Day
Topic Name Video Play Time (min) Learning Outcomes
Basics of Lubrication 3 ALO 11.1.1-1: Define the term Lubrication
4 ALO 11.1.1-2: Recall various properties of Lubrication
4 ALO 11.1.1-3: Recall the types of viscosity
3 ALO 11.1.1-4: List and recall types of lubrication
Friction Clutches 5 ALO 11.1.2-1: Recall the function of clutch
4 ALO 11.1.2-2: List and recall various types of clutch
13 ALO 11.1.2-3: Recall the working principle of following: a. Single plate clutch b. Multi-plate clutch c. Cone clutch d. Centrifugal clutch
15 ALO 11.1.2-4: Recall torque transmitting capacity of clutch
Introduction to Gyroscope 7 ALO 12.1.1-1: Define the term Gyroscope
30 ALO 12.1.1-2: Recall Precessional Angular Motion
10 ALO 12.1.1-3: Define the term Gyroscopic couple
Applications of Gyroscope 35 ALO 12.1.2-1: Recall the effect of Gyroscopic couple on an Aeroplane
20 ALO 12.1.2-2: Differentiate the Stability of Two-wheelers andFour-wheelers
13 ALO 12.1.2-3: Recall the effect of Gyroscope on Ships
Introduction to Synthesis of Mechanism 8 ALO 13.1.1-1: Recall synthesis of mechanism
4 ALO 13.1.1-2: Recall classification of synthesis problem
11 ALO 13.1.1-3: Recall synthesis of function generation: a. Precision point b. Structural error
Graphical synthesis 12 ALO 13.1.2-1: Recall the Freudenstein’s equation
6 ALO 13.1.2-2: Recall the graphical synthesis of four barmechanism
5 ALO 13.1.2-3: Recall the graphical synthesis of single slider crankmechanism
Basics of Vibration 10 ALO 14.1.1-1: Define the term Vibrations
12 ALO 14.1.1-2: Recall the important terms used in vibratory motions
14 ALO 14.1.1-3: List and recall types of Vibrations
Free Vibration 42 ALO 14.1.2-1: Define Longitudinal vibration and derive anexpression for the natural frequency of freetransverse andlongitudinal vibrations
39 ALO 14.1.2-2: Define transverse vibration and derive anexpression for natural frequency of transversevibration
7 ALO 14.1.2-3: Recall Torsional vibrations
Forced damped Vibrations 36 ALO 14.2.1-1: Define Free damped vibration and recall itsfrequency
20 ALO 14.2.1-2: Recall ‘Logarithmic decrement’ as applied to damped vibrations
30 ALO 14.2.1-3: Recall Forced damped vibration
14 ALO 14.2.1-4: Recall vibration isolation