Optimal power allocation for a FCHV based on linear programming and PID controller

Abstract

Hybrid electric vehicles positively influence the transportation industry with regards to reducing the use of fossil fuels and minimizing polluting emissions. A class of such vehicles incorporates fuel cells and energy storage systems as alternatives to internal combustion engines. This paper develops a dynamically efficient energy management system for fuel cell hybrid vehicles for the purpose of achieving an optimal power allocation between the energy sources while adhering to component requirements and maintaining the essential operational performance. The paper addresses a two stage control methodologies, pre-driving optimization using linear programming algorithms and on-line optimization using PID controllers and component mechanisms. The performance criteria are based on the overall operational cost as well as the hydrogen consumption per trip. Comparison against a state control algorithm shows improvements in hydrogen consumption. © 2014 Hydrogen Energy Publications, LLC. Published by Elsevier Ltd. All rights reserved.

Description

Keywords

Energy management system, Fuel cell hybrid vehicles, Linear programming, Optimal control, Algorithms, Controllers, Electric control equipment, Energy management, Fuel cells, Fuel storage, Hybrid vehicles, Hydrogen, Internal combustion engines, Proportional control systems, Three term control systems, Energy storage systems, Fuel cell hybrid vehicle (fchv), Linear programming algorithm, Operational performance, Optimal controls, Optimal power allocation, Performance criterion, Transportation industry, Energy management systems

Citation

Endorsement

Review

Supplemented By

Referenced By