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Exergy-based optimal control of a vapor compression system
Neera Jain,
Andrew Alleyne
Research output
:
Contribution to journal
›
Article
›
peer-review
51
Scopus citations
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Dive into the research topics of 'Exergy-based optimal control of a vapor compression system'. Together they form a unique fingerprint.
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Keyphrases
Optimal Control
100%
Exergy
100%
Vapor Compression System
100%
System Efficiency
25%
Exergetic Efficiency
25%
Thermal Systems
25%
Model Predictive Controller
25%
Exergy Destruction
25%
Over 40
12%
Modeling Framework
12%
Variable Effect
12%
Actuator
12%
Energy Consumption
12%
Second Law
12%
Steady-state Conditions
12%
Heat Exchanger
12%
Optimal Controller
12%
Passenger Vehicle
12%
Varying Load
12%
Variable Speed
12%
Lumped Parameter
12%
Online Optimization
12%
Online Control
12%
First Law
12%
Control Actions
12%
Optimization Efficiency
12%
High-frequency Disturbances
12%
Closed-loop Operation
12%
Transport Applications
12%
Cooling Capacity
12%
Exergy Analysis
12%
Refrigerated Transport
12%
Exergy Optimization
12%
Exergetic
12%
Moving Boundary Modeling
12%
Exergy Destruction Minimization
12%
Engineering
Vapor Compression System
100%
Optimal Control
100%
Exergy Destruction
37%
Design Stage
25%
System Efficiency
25%
Thermal System
25%
Exergetic Efficiency
25%
Closed Loop
12%
Simulation Result
12%
State Condition
12%
Exchanger
12%
Passenger Vehicle
12%
Individual Component
12%
Lumped Parameter
12%
Control Action
12%
Optimal Controller
12%
Cooling Capacity
12%
Objective Function
12%
Actuator
12%
Chemical Engineering
Exergy
100%
Model Predictive Controller
28%