Energy flow of a 2018 FIA F1 racing car and proposed changes to the powertrain rules

In the last few years, the different teams have dramatically improved the directly injected, electrically assisted turbocharged, internal combustion engine of FIA F1 hybrid electric cars. With limited fuel flow rate, but unlimited boost, the engine is now delivering peak power at fuel conversion eff...

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Main Author: Boretti Albert
Format: Article
Language:English
Published: De Gruyter 2019-08-01
Series:Nonlinear Engineering
Subjects:
Online Access:https://doi.org/10.1515/nleng-2018-0171
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spelling doaj-868b6422c5af4034957ff8d511820fa52021-09-06T19:21:07ZengDe GruyterNonlinear Engineering2192-80102192-80292019-08-0191283410.1515/nleng-2018-0171nleng-2018-0171Energy flow of a 2018 FIA F1 racing car and proposed changes to the powertrain rulesBoretti Albert0Department for Management of Science and Technology Development, Ton Duc Thang University, Ho Chi Minh City, VietnamIn the last few years, the different teams have dramatically improved the directly injected, electrically assisted turbocharged, internal combustion engine of FIA F1 hybrid electric cars. With limited fuel flow rate, but unlimited boost, the engine is now delivering peak power at fuel conversion efficiencies about 45% running lean stratified with the help of some sort of jet ignition. The paper analyses the energy flow of a FIA F1 hybrid electric car covering one lap of the Monte Carlo race track of length 3.370 km. The amount of energy recovered is minimal, at the most 2 of the 9.77 MJ of braking energy, or 20.6%. The fuel consumption per lap, 1.16 kg of fuel, or 50.34 MJ of fuel energy, needed to deliver the 16.28-18.28 MJ of propulsive energy, at an outstanding average efficiency of 32 to 36%, may still be dramatically reduced. New rules are thus proposed to promote the development of technical features that could be beneficial to passenger car applications, from advanced turbo-compounding, to enhanced thermal and mechanical energy recovery, and better hybridization.https://doi.org/10.1515/nleng-2018-0171internal combustion enginesturbochargingelectric hybrid vehiclesenergy conversionenergy efficiencyracing carsfia f1monte carlo
collection DOAJ
language English
format Article
sources DOAJ
author Boretti Albert
spellingShingle Boretti Albert
Energy flow of a 2018 FIA F1 racing car and proposed changes to the powertrain rules
Nonlinear Engineering
internal combustion engines
turbocharging
electric hybrid vehicles
energy conversion
energy efficiency
racing cars
fia f1
monte carlo
author_facet Boretti Albert
author_sort Boretti Albert
title Energy flow of a 2018 FIA F1 racing car and proposed changes to the powertrain rules
title_short Energy flow of a 2018 FIA F1 racing car and proposed changes to the powertrain rules
title_full Energy flow of a 2018 FIA F1 racing car and proposed changes to the powertrain rules
title_fullStr Energy flow of a 2018 FIA F1 racing car and proposed changes to the powertrain rules
title_full_unstemmed Energy flow of a 2018 FIA F1 racing car and proposed changes to the powertrain rules
title_sort energy flow of a 2018 fia f1 racing car and proposed changes to the powertrain rules
publisher De Gruyter
series Nonlinear Engineering
issn 2192-8010
2192-8029
publishDate 2019-08-01
description In the last few years, the different teams have dramatically improved the directly injected, electrically assisted turbocharged, internal combustion engine of FIA F1 hybrid electric cars. With limited fuel flow rate, but unlimited boost, the engine is now delivering peak power at fuel conversion efficiencies about 45% running lean stratified with the help of some sort of jet ignition. The paper analyses the energy flow of a FIA F1 hybrid electric car covering one lap of the Monte Carlo race track of length 3.370 km. The amount of energy recovered is minimal, at the most 2 of the 9.77 MJ of braking energy, or 20.6%. The fuel consumption per lap, 1.16 kg of fuel, or 50.34 MJ of fuel energy, needed to deliver the 16.28-18.28 MJ of propulsive energy, at an outstanding average efficiency of 32 to 36%, may still be dramatically reduced. New rules are thus proposed to promote the development of technical features that could be beneficial to passenger car applications, from advanced turbo-compounding, to enhanced thermal and mechanical energy recovery, and better hybridization.
topic internal combustion engines
turbocharging
electric hybrid vehicles
energy conversion
energy efficiency
racing cars
fia f1
monte carlo
url https://doi.org/10.1515/nleng-2018-0171
work_keys_str_mv AT borettialbert energyflowofa2018fiaf1racingcarandproposedchangestothepowertrainrules
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