Payman Shakouri

Dr. Payman Shakouri


Research Focus & Metrics

Academic Career Length

17Years (2010-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 2011 in IFAC Proceedings Volumes
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Journal Article
Closed access
PSPayman Shakouri
Payman Shakouri
Andrzej OrdysAndrzej Ordys
Andrzej Ordys
DLDina Shona Laila
Dina Shona Laila
MAMohamad Askari
Mohamad Askari

14 June 2012 in ISA Transactions
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Journal Article
Closed access
PSPayman Shakouri
Payman Shakouri
Andrzej OrdysAndrzej Ordys
Andrzej Ordys
MAMohamad R. Askari
Mohamad R. Askari

1 January 2010
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Conference Paper
Closed access
PSPayman Shakouri
Payman Shakouri
DLD.S. Laila
D.S. Laila
Andrzej OrdysAndrzej Ordys
Andrzej Ordys
MAM. Askari
M. Askari

15 October 2014 in Journal of Intelligent & Robotic Systems
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Journal Article
Closed access
PDF file
PSPayman Shakouri
Payman Shakouri
JCJacek Czeczot
Jacek Czeczot
Andrzej OrdysAndrzej Ordys
Andrzej Ordys

26 August 2013 in International Journal of Vehicular Technology
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Journal Article
Open access
PDF file
PSPayman Shakouri
Payman Shakouri
Andrzej OrdysAndrzej Ordys
Andrzej Ordys
PDPaul Darnell
Paul Darnell
PKPeter Kavanagh
Peter Kavanagh
This paper investigates the possibility of improving the fuel efficiency by decreasing the engine speed during the coasting phase of the vehicle. The proposed approach is stimulated by the fact that the engine losses increase with the engine speed. If the engine speed is retained low, the engine losses will be reduced and subsequently the tractive torque will be increased, enabling the vehicle to remain moving for longer duration while coasting. By increasing the time period of the coasting the fuel efficiency can be increased, especially travelling downhill, since it can benefit from the kinematic energy stored in the vehicle to continue coasting for a longer duration. It is already industry standard practice to cut fuel during coasting and refuel at low engine speed. The substantial difference proposed in this paper is the controlled reduction of engine speed during this phase and thus reduction in the engine losses, resulting in improved fuel economy. The simulation model is tested and the results illustrating an improvement to the fuel efficiency through the proposed method are presented. Some results of the experimental tests with a real vehicle through the proposed strategy are also presented in the paper.