• Thermodynamic System and Surrounding
  02:33
• Thermodynamic Properties
  01:15
• Thermodynamic State, Process and Cycle
  05:24
• Path and Point Functions
  03:28
• Reversible and Irreversible Process
  04:03
• Quasi Static Process
  01:56
• Zeroth Law
  02:02
• Temperature Measurement
  06:28
• Ideal Gas
  01:51
• Ideal Gas Equations for Various Processes
  08:51
• Equation of State
  02:01
• Vander Waal's Equation
  02:41
• Dieterici Equations
  02:31
• Generalised Compressibility Chart
  04:31
• Ideal Gas Mixture
  08:54
• Work Transfer
  02:50
• Closed System Work or P-dV Work
  02:37
• P-dV Work in V=C, P=C and T=C Process
  08:39
• Heat Transfer
  04:23
• Internal Energy
  02:18
• Enthalpy
  01:47
• PMM-1
  01:54
• Heat Transfer: Constant Volume Process
  05:48
• Heat Transfer: Constant Pressure Process
  05:18
• Heat Transfer: Isothermal Process
  05:18
• Heat Transfer: Adiabitic Process
  05:22
• Heat Transfer: Polytropic Process
  10:02
• Relation between the Specific Heats and Gas Constants
  06:28
• Free Expansion
  05:22
• Steady Flow Energy Equations
  09:43
• Thermal Reservoir
  02:13
• Kelvin Plank Statement of Second Law
  01:51
• Clausius Statement Of Second Law
  03:24
• Concept of Refrigerator
  05:16
• Concept of Heat Pump
  05:53
• Carnot Cycle
  04:32
• Carnot's Theorem
  06:42
• Thermodynamic Temperature Scale
  08:20
• Efficiency of Reversible Heat Engine
  05:16
• COP of Reversible Refrigerator
  05:16
• COP of Reversible Heat Pump
  04:57
• Concept of Entropy and its Physical Meaning
  02:38
• Clausius Inequality
  08:31
• Change in Entropy for a Cycle
  06:47
• T-dS Relations
  06:35
• Slope of V=C and P=C Process on T-S diagram
  10:06
• Entropy Change for an Ideal Gas
  09:38
• Entropy Change for a Finite Body
  06:12
• Entropy Change for Reservoirs
  05:01
• Available Energy for Closed and Open System
  09:56
• Irreversibility
  08:14
• Gibb's and Helmholtz Function
  03:09
• Thermodynamic Relations(List the TD relations)
  02:33
• T-dS Equation
  08:42
• Coefficient of Volume Expansivity
  01:47
• Joule Thomson Coefficient
  06:38
• Clapiron Equation
  06:38
• Third Law of Thermodynamics
  02:07
• Pure Substance
  02:36
• P-V, T-S, P-T and h-S Diagram for Steam
  06:17
• Latent Heat
  02:05
• Enthalpy at various Points
  08:47
• Entropy at various Points
  10:47
• Steam Tables and Mollier Chart
  09:58
• Steam Tables and Mollier Chart contd.
  04:17
• Basics of Rankine Cycle
  09:40
• What is Heat Engine
  02:01
• Terminologies
  04:27
• Classification of IC Engine based on Various Parameters
  03:00
• Four Stroke Engine
  05:18
• Two Stroke Engine
  03:48
• Four-Stroke vs Two-Stroke Engine
  04:40
• Spark Ignition Engine
  01:50
• Compression Ignition Engine
  02:06
• Diesel Cycle
  11:18
• Dual Cycle
  08:09
• Brayton Cycle
  09:26
• Engineering Material and their Classification
  02:22
• Organic and Inorganic Materials
  00:51
• Composition of Ferrous Materials and their applications
  01:56
• Composition of Non-Ferrous Materials and their applications
  01:31
• Selection Of Engineering Materials
  01:41
• Mechanical Properties of Metal
  10:29
• Introduction to Polymers
  05:16
• Thermoplastic and Thermosettings
  01:53
• Introduction to Caramics Materials
  01:08
• Introduction to Composite Materials
  01:28
• Introduction to Smart Materials
  01:00
• Shape Memory Alloys
  01:03
• Piezoelectric Materials
  02:40
• Classification of Solids
  03:02
• Extrinsic Semiconductors: n Type
  04:32
• Extrinsic Semiconductors: p Type
  04:41
• Semiconductor Conductivity
  02:17
• Introduction to Centroid and Moment of Inertia
  04:40
• Centroid
  01:39
• Use of Axis of Symmetry
  02:40
• Centroid: Rectangular Section
  02:59
• Centroid: I Section
  05:00
• Centroid: Channel Section
  05:00
• Centroid: Composite Bodies
  05:00
• COG: Solid Circular Cone
  01:46
• COG: Solid Hemisphere
  01:54
• COG: Thin Hollow Hemisphere
  02:25
• Moment of Inertia: I Section
  05:00
• Moment of Inertia: U Section
  05:00
• Moment of Inertia: T Section
  05:00
• Mass Moment of Inertia: Circular Ring
  04:45
• Mass Moment of Inertia: Solid Cone
  06:49
• Mass Moment of Inertia: Sphere
  07:41
• Intrinsic Semiconductors
  02:51
• Macroscopic and Microscopic Approach
  02:41
• Closed, Open and Isolated System
  05:25
• Control Volume and Control Surface
  02:05
• Concept of Continuum
  02:16
• Homogenous and Heterogeneous System
  01:37
• Types of Thermodynamic Process
  05:06
• Thermodynamic Equilibrium
  02:40
• Berthelot Equations
  02:31
• Redlick-Kwang Equations
  02:40
• Virial Expansions
  03:20
• P-dV Work in Adiabatic Process
  08:17
• P-dV Work in Polytropic Process (1)
  08:15
• P-dV Work in Polytropic Process (2)
  07:23
• Slope of Isothermal and Adiabatic Process on P-V diagram
  04:57
• Specific Heat and Heat Capacity
  03:58
• Statement of First Law
  03:47
• Application of Steady Flow Energy Equations
  12:06
• Unsteady Flow or Transient State
  05:29
• Concept of Heat Engine
  04:37
• PMM-2
  01:34
• Equivalence of Second Law Statements
  03:37
• Change in Entropy for different Reversible Process
  06:59
• Change in Entropy for Irreversible Process
  08:25
• Available and Unavailable Energy
  05:18
• Maxwell Equation
  10:25
• Isothermal Compressibility
  01:45
• Triple and Critical Points
  03:58
• Degree of Superheat
  02:02
• Degree of Subcooling
  02:12
• Specific Volume
  01:37
• Dryness Fraction
  02:01
• Working of Steam Engine
  03:05
• External Combustion Engine
  01:47
• Internal Combustion Engine
  01:29
• Basic Components
  05:46
• SI Engine vs CI Engine
  04:18
• Otto Cycle
  10:36
• Comparison of Otto, Diesel and Dual Cycles
  06:01
• Centroid: Triangle
  07:29
• Centroid: Sector of a Circle
  06:21
• Centroid: Parabolic Spandral
  06:17
• Moment of Inertia
  01:19
• Perpendicular Axis Theorem
  01:27
• Parallel Axis Theorem
  01:55
• Polar Moment of Inertia
  02:04
• Radius of Gyration
  01:44
• Moment of Inertia from First Principle
  11:47
• Moment of Inertia from First Principle contd.
  09:30
• Moment of Inertia of Composite Sections
  08:20
• Mass Moment of Inertia
  01:09
• Transfer Formula
  06:37
• Mass Moment of Inertia: Rod
  05:41

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