Lecture 101: Using the following Maxwell equation, derive the remaining three|| Engineering Thermodynamics-101 ||

Lecture 103: ESE MAINS 10 MARKS 2003 | Thermodynamics Relations || Engineering Thermodynamics-103 ||

Lecture 104: Obtain an expression of isothermal compressibility for vander waal gas Engineering Thermodynamics104

Lecture 105: ESE Previous Year Question | Thermodynamics Relations || Engineering Thermodynamics-105 ||

Lecture 106: Energy Equation | Chapter-11 Thermodynamic Relation || Engineering Thermodynamics-106 ||

Lecture 107: ESE MAINS EXAM 15 MARKS 2006 || Thermodynamic Relation || Engineering Thermodynamic-107 ||

Lecture 108: ESE MAINS EXAM 10 MARKS 2005 || Thermodynamic Relation || Engineering Thermodynamic-108 ||

Lecture 109: ESE MAINS EXAM 2009 15 MARKS | Thermodynamic Relation || Engineering Thermodynamics-109 ||

Lecture 110: ESE MAINS EXAM 2012 15 MARKS || Thermodynamic Relation || Engineering Thermodynamic-110 ||

Lecture 111: Ratio Of Heat Capacities | Thermodynamic Relations || Engineering Thermodynamics-111 ||

Lecture 112: Joule Kelvin Effect | Joule Thomson Effect || Engineering Thermodynamics-112 || Mech Learner

Lecture 113: Conventional Question Based on Joule Kelvin Effect || Engineering Thermodynamics-113 ||

Lecture 114: Clausius Clapeyron Equation || Engineering Thermodynamics -114 ||

Lecture 115: Compressibility Factor | Compressibility Chart |Correction Factor|| Engineering Thermodynamics-115

Lecture 116: Vapor Power Cycles ( Ideal Rankine Cycle ) Ch-12 Pk Nag || Engineering Thermodynamics -116 ||

Lecture 117: Actual Rankine Cycle | Vapour Power Cycle || Engineering Thermodynamics – 117 ||

Lecture 118: Specific Steam Consumption | Steam Rate | Heat Rate || Engineering Thermodynamics – 118 ||

Lecture 119: Reheat Rankine Cycle | Reheat Cycle | Reheating || Engineering Thermodynamics – 119 ||

Lecture 120: Regeneration Rankine Cycle | Feed Water Heater | Regenerators || Engineering Thermodynamics- 120 ||