Analysis of real-time energy transfer possibilities at intersections with consideration of energy storage

Issues related to braking and acceleration in vehicles represent both technical and environmental challenges, regardless of the type of drive, whether combustion or electric. In conventional vehicles, the emission of particulate matter is a problem associated with the friction between brake pads an...

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Main Authors: Marcin Koniak, Piotr Jaskowski, Radovan Madleňák, Jurijus Zaranka
Format: Article
Language:English
Published: Faculty of Transport, Warsaw University of Technology 2025-06-01
Series:Archives of Transport
Subjects:
Online Access:https://www.archivesoftransport.com/index.php/aot/article/view/757
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author Marcin Koniak
Piotr Jaskowski
Radovan Madleňák
Jurijus Zaranka
author_facet Marcin Koniak
Piotr Jaskowski
Radovan Madleňák
Jurijus Zaranka
author_sort Marcin Koniak
collection DOAJ
description Issues related to braking and acceleration in vehicles represent both technical and environmental challenges, regardless of the type of drive, whether combustion or electric. In conventional vehicles, the emission of particulate matter is a problem associated with the friction between brake pads and discs, leading to air pollution and health hazards. Brake dust contributes to up to 55% of particulate matter in urban environments. In electric vehicles, the processes of braking and rapid acceleration affect battery wear; however, thanks to energy recovery technology, it is possible to recuperate up to 70% of the kinetic energy. This paper proposes a solution involving the placement of induction loops before intersections with traffic lights to enable the recovery and storage of energy, which could be used to power vehicles waiting at intersections, as well as placement behind intersections to supply power to vehicles accelerating when leaving the intersection. The study considers the application of various energy storage technologies, such as flow batteries, supercapacitors, and flywheels. Each of these technologies offers unique benefits and limitations, such as long operational life, a high number of charge/discharge cycles, and environmental friendliness. Simulations performed using AIMSUN.Next software made it possible to analyze energy consumption and pollutant emissions in various scenarios, indicating the potential benefits of traffic optimization, the use of electric vehicles, and energy recovery. The research results highlight the importance of traffic smoothness and the use of energy storage technologies to reduce pollutant emissions (possible reduction: CO2 by over 40%, NOx by 48%, PM by 73%, and VOC by 40%) and energy consumption (lack of smooth traffic flow leads to approximately 159% higher energy use). The proposed use of energy storage technologies at intersections may significantly decrease particulate and carbon dioxide emissions. The final choice of energy storage technology will depend on local conditions, such as space availability, investment costs, and market availability.
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institution Kabale University
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spelling doaj-art-1a8d1b74cb724db18b2b1b343c95c2ba2025-08-20T03:44:55ZengFaculty of Transport, Warsaw University of TechnologyArchives of Transport0866-95462300-88302025-06-0173110.61089/aot2025.5dtybt57Analysis of real-time energy transfer possibilities at intersections with consideration of energy storageMarcin Koniak0https://orcid.org/0000-0003-0556-2814Piotr Jaskowski1https://orcid.org/0000-0002-6563-1917Radovan Madleňák2https://orcid.org/0009-0006-4479-5986Jurijus Zaranka3https://orcid.org/0000-0002-7642-5705Faculty of Transport, Warsaw University of Technology, Warsaw, PolandFaculty of Transport, Warsaw University of Technology, Warsaw, PolandFaculty of Operation and Economics of Transport and Telecomunications, University of Zilina, Zilina, SlovakiaDepartment of Automotive Engineering, Vilnius Gediminas Technical University, Plytinės Str. 25, LT-10105 Vilnius, Lithuania Issues related to braking and acceleration in vehicles represent both technical and environmental challenges, regardless of the type of drive, whether combustion or electric. In conventional vehicles, the emission of particulate matter is a problem associated with the friction between brake pads and discs, leading to air pollution and health hazards. Brake dust contributes to up to 55% of particulate matter in urban environments. In electric vehicles, the processes of braking and rapid acceleration affect battery wear; however, thanks to energy recovery technology, it is possible to recuperate up to 70% of the kinetic energy. This paper proposes a solution involving the placement of induction loops before intersections with traffic lights to enable the recovery and storage of energy, which could be used to power vehicles waiting at intersections, as well as placement behind intersections to supply power to vehicles accelerating when leaving the intersection. The study considers the application of various energy storage technologies, such as flow batteries, supercapacitors, and flywheels. Each of these technologies offers unique benefits and limitations, such as long operational life, a high number of charge/discharge cycles, and environmental friendliness. Simulations performed using AIMSUN.Next software made it possible to analyze energy consumption and pollutant emissions in various scenarios, indicating the potential benefits of traffic optimization, the use of electric vehicles, and energy recovery. The research results highlight the importance of traffic smoothness and the use of energy storage technologies to reduce pollutant emissions (possible reduction: CO2 by over 40%, NOx by 48%, PM by 73%, and VOC by 40%) and energy consumption (lack of smooth traffic flow leads to approximately 159% higher energy use). The proposed use of energy storage technologies at intersections may significantly decrease particulate and carbon dioxide emissions. The final choice of energy storage technology will depend on local conditions, such as space availability, investment costs, and market availability. https://www.archivesoftransport.com/index.php/aot/article/view/757braking emissionsregenerative brakingenergy storagetraffic optimizationdecarbonization
spellingShingle Marcin Koniak
Piotr Jaskowski
Radovan Madleňák
Jurijus Zaranka
Analysis of real-time energy transfer possibilities at intersections with consideration of energy storage
Archives of Transport
braking emissions
regenerative braking
energy storage
traffic optimization
decarbonization
title Analysis of real-time energy transfer possibilities at intersections with consideration of energy storage
title_full Analysis of real-time energy transfer possibilities at intersections with consideration of energy storage
title_fullStr Analysis of real-time energy transfer possibilities at intersections with consideration of energy storage
title_full_unstemmed Analysis of real-time energy transfer possibilities at intersections with consideration of energy storage
title_short Analysis of real-time energy transfer possibilities at intersections with consideration of energy storage
title_sort analysis of real time energy transfer possibilities at intersections with consideration of energy storage
topic braking emissions
regenerative braking
energy storage
traffic optimization
decarbonization
url https://www.archivesoftransport.com/index.php/aot/article/view/757
work_keys_str_mv AT marcinkoniak analysisofrealtimeenergytransferpossibilitiesatintersectionswithconsiderationofenergystorage
AT piotrjaskowski analysisofrealtimeenergytransferpossibilitiesatintersectionswithconsiderationofenergystorage
AT radovanmadlenak analysisofrealtimeenergytransferpossibilitiesatintersectionswithconsiderationofenergystorage
AT jurijuszaranka analysisofrealtimeenergytransferpossibilitiesatintersectionswithconsiderationofenergystorage