Publication detail

Model Based Design of Fuel Pump Control

ANDRŠ, O. VETIŠKA, J. HOLUB, M. KOVÁŘ, J.

Czech title

Návrh řízení palivového čerpadla

English title

Model Based Design of Fuel Pump Control

Type

journal article - other

Language

en

Original abstract

This paper presents a co-simulation method to design of speed controller for turbojet fuel pump. Expected fuel pump is used for small turbine engine concept with reducer driven by free turbine. The amount of injected fuel into the combustion chamber is based on the speed of the fuel pump which is controlled by the engine control unit. The final flow of fuel into the combustion chamber is restricted by fuel bypass which constricts the return fuel according to pressure in the nozzles. This back fuel bypass has nonlinear and fixed characteristic determined by its structure. The only way how to control the amount of incoming fuel to the engine is the pump speed control. Effect of the bypass represents a variable component in the fuel pump load and from the view of the speed controller it is a disturbance variable. This paper describes the co-simulation model based on the use of MATLAB/Simulink and MSC Adams environment. This simulation uses interconnection of Simulink controller design and simplified model of the fuel pump dynamics in Adams (without hydraulic modelling).

Czech abstract

This paper presents a co-simulation method to design of speed controller for turbojet fuel pump. Expected fuel pump is used for small turbine engine concept with reducer driven by free turbine. The amount of injected fuel into the combustion chamber is based on the speed of the fuel pump which is controlled by the engine control unit. The final flow of fuel into the combustion chamber is restricted by fuel bypass which constricts the return fuel according to pressure in the nozzles. This back fuel bypass has nonlinear and fixed characteristic determined by its structure. The only way how to control the amount of incoming fuel to the engine is the pump speed control. Effect of the bypass represents a variable component in the fuel pump load and from the view of the speed controller it is a disturbance variable. This paper describes the co-simulation model based on the use of MATLAB/Simulink and MSC Adams environment. This simulation uses interconnection of Simulink controller design and simplified model of the fuel pump dynamics in Adams (without hydraulic modelling).

English abstract

This paper presents a co-simulation method to design of speed controller for turbojet fuel pump. Expected fuel pump is used for small turbine engine concept with reducer driven by free turbine. The amount of injected fuel into the combustion chamber is based on the speed of the fuel pump which is controlled by the engine control unit. The final flow of fuel into the combustion chamber is restricted by fuel bypass which constricts the return fuel according to pressure in the nozzles. This back fuel bypass has nonlinear and fixed characteristic determined by its structure. The only way how to control the amount of incoming fuel to the engine is the pump speed control. Effect of the bypass represents a variable component in the fuel pump load and from the view of the speed controller it is a disturbance variable. This paper describes the co-simulation model based on the use of MATLAB/Simulink and MSC Adams environment. This simulation uses interconnection of Simulink controller design and simplified model of the fuel pump dynamics in Adams (without hydraulic modelling).

Keywords in Czech

Co-Simulation ADAMS/MATLAB, Fuel Pump, Model Based Design, Motor Control

Keywords in English

Co-Simulation ADAMS/MATLAB, Fuel Pump, Model Based Design, Motor Control

Released

11.01.2016

Publisher

Trans Tech Publications

Location

Switzerland

ISSN

1662-7482

Volume

2016

Number

821

Pages from–to

601–607

Pages count

7

BIBTEX


@article{BUT120620,
  author="Ondřej {Andrš} and Jan {Vetiška} and Michal {Holub} and Jiří {Kovář},
  title="Model Based Design of Fuel Pump Control",
  year="2016",
  volume="2016",
  number="821",
  month="January",
  pages="601--607",
  publisher="Trans Tech Publications",
  address="Switzerland",
  issn="1662-7482"
}