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ESL377: Difference between revisions

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| credit_structure = 3-0-0
| credit_structure = 3-0-0
| pre_requisites =  
| pre_requisites =  
| overlaps = Some overlap with ESL743, CLL782, CLL784,
| overlaps = Some overlap with [[ESL743]], [[CLL782]], [[CLL784]],
}}
}}


== ESL377 : Optimization of Energy Systems ==
== ESL377 : Optimization of Energy Systems ==
CLL785, MTL103 Engineering design and optimization definitions, Trends analysis of multiple physical parameters involving in energy systems, Mathematical model for optimal energy system design, Representative methods for the solution of the optimization problem, Optimization techniques- curve fitting, Lagrange multipliers, Search methods, Modelling of energy systems, Steady-state and transient simulation for optimization of energy systems, Components optimization for maximum efficiency, case studies.
[[CLL785]], [[MTL103]] Engineering design and optimization definitions, Trends analysis of multiple physical parameters involving in energy systems, Mathematical model for optimal energy system design, Representative methods for the solution of the optimization problem, Optimization techniques- curve fitting, Lagrange multipliers, Search methods, Modelling of energy systems, Steady-state and transient simulation for optimization of energy systems, Components optimization for maximum efficiency, case studies.

Latest revision as of 16:33, 14 April 2026

ESL377
Optimization of Energy Systems
Credits 3
Structure 3-0-0
Pre-requisites
Overlaps Some overlap with ESL743, CLL782, CLL784,

ESL377 : Optimization of Energy Systems

CLL785, MTL103 Engineering design and optimization definitions, Trends analysis of multiple physical parameters involving in energy systems, Mathematical model for optimal energy system design, Representative methods for the solution of the optimization problem, Optimization techniques- curve fitting, Lagrange multipliers, Search methods, Modelling of energy systems, Steady-state and transient simulation for optimization of energy systems, Components optimization for maximum efficiency, case studies.