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Lecture 11 : Heat and Work : Representative Problems, by Suman Chakraborty

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Lecture 11 : Point Collocation Method, the Galerkin’s Method & the ‘M’ Form, by S. Chakraborty

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Lecture 11 : Reynolds Transport Theorem: Arbitrarily Moving Control Volume, by S. Chakraborty

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Lecture 11-Economic Equivalence: Meaning and Principles of Equivalence, by Pradeep K. Jha

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Lecture 11: Physics of Welding-3, by Pankaj Biswas

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Lecture 11: Problems and Solutions, by Suman Chakraborty

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Lecture 12 : Finite Element Method (FEM) of Discretization, by S. Chakraborty

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Lecture 12 : Heat and Work : Representative Problems (Contd.), by Suman Chakraborty

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Lecture 12 : Reynolds Transport Theorem: Angular Momentum Conservation, by S. Chakraborty

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Lecture 12-Equivalence Calculations Involving Cash Flows, by Pradeep K. Jha

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Lecture 12: Physics of Welding-4 (Arc Stability and Arc Blow), by Pankaj Biswas

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Lecture 12: Surface Tension (Part I), by Suman Chakraborty

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Lecture 13 : Finite Element Method of Discretization (contd.), by S. Chakraborty

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Lecture 13 : Heat and Work : Representative Problems (Contd.), by Suman Chakraborty

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Lecture 13 : Introduction to Traction Vector and Stress Tensor, by S. Chakraborty

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Lecture 13-Methods of Comparison of Alternatives: Present Worth, Annual Equivalent, Future Worth, Internal Rate of Return, by Pradeep K. Jha

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Lecture 13: Physics of Welding-5 (Metal Transfer-1), by Pankaj Biswas

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Lecture 13: Surface Tension (Part II), by Suman Chakraborty

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Lecture 14 : Cauchy/Navier Equation, by S. Chakraborty

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Lecture 14 : Finite Difference Method (FDM) of Discretization, by S. Chakraborty

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Lecture 14 : First Law of Thermodynamics for a Control Mass System, by Suman Chakraborty

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Lecture 14-Comparison of Alternatives: Capitalized Equivalent Amount, Capital Recovery with Return, by Pradeep K. Jha

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Lecture 14: Governing Equation of Fluid Statics, by Suman Chakraborty

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Lecture 14: Physics of Welding-6 (Metal Transfer-2), by Pankaj Biswas

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Lecture 15 : Enthalpy and Specific Heats, by Suman Chakraborty

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Lecture 15 : Navier Stokes Equation, by S. Chakraborty

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Lecture 15 : Well Posed Boundary Value Problem, by S. Chakraborty

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Lecture 15-Problem Solving on Equivalence and Comparison of Alternatives, by Pradeep K. Jha

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Lecture 15: Manometers, by Suman Chakraborty

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Lecture 15: Physics of Welding-7 (Metal Transfer-3), by Pankaj Biswas

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Lecture 16 : Finite Volume Method (FVM) of Discretization, by S. Chakraborty

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Lecture 16 : First Law for a Control Mass System : Representative Examples, by Suman Chakraborty

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Lecture 16 : Navier Stokes Equation (Continued), by S. Chakraborty

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Lecture 16-Replacement Analysis: Reason, Concept of Defender and Challenger, by Pradeep K. Jha

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Lecture 16: Enhancement of Heat Transfer Compact Heat Exchangers, by Prasanta Kr Das

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Lecture 16: Force on a Surface Immersed in Fluid (Part I), by Suman Chakraborty

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Lecture 16:Physics of Welding-8 (Metal Transfer-4), by Pankaj Biswas

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Lecture 17 : First Law for a Control Mass System : Representative Examples (Contd.), by Suman Chakraborty

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Lecture 17 : Illustrative Examples of Finite Volume Method, by S. Chakraborty

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Lecture 17-Proper Treatment of Sunk Cost in Replacement, by Pradeep K. Jha

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Lecture 17: Extended Surface Heat Transfer, by Prasanta Kr Das

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Lecture 17: Force on a Surface Immersed in Fluid (Part II), by Suman Chakraborty

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Lecture 17: Some Exact Solutions of the Navier Stokes Equation, by S. Chakraborty

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Lecture 17:Physics of Welding-9 (Metal Transfer-5), by Pankaj Biswas

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Lecture 18 : First Law for a Control Mass System : Representative Examples (Contd.), by Suman Chakraborty

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Lecture 18 : Illustrative Examples of Finite Volume Method (contd.), by S. Chakraborty

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Lecture 18-Replacement because of Improved Efficiency, Inadequacy, Demand etc., by Pradeep K. Jha

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Lecture 18: Extended Surface Heat Transfer: Some Example, by Prasanta Kr Das

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Lecture 18: Force on a Surface Immersed in Fluid (Part III) , Stability of Solid Bodies in Fluid (Part I), by Suman Chakraborty

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Lecture 18: Interfacial Boundary Conditions and Example of Thin Film Flows, by S. Chakraborty

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