Road safety assessment in preferential bus lanes through field analysis and microsimulation of traffic conflicts

Authors

  • Julián Darío Otero-Niño National University of Colombia
  • Juan David Heredia-Castiblanco National University of Colombia
  • Paula Daniela Fonseca-Agudelo National University of Colombia
  • Sebastián Cabrera-Pinzón National University of Colombia
  • Alejandro Gómez-Mosquera National University of Colombia
  • Luis David López-Buitrago National University of Colombia
  • Francisco Julián Sandoval-Ávila National University of Colombia https://orcid.org/0000-0003-4666-0293
  • Miguel Ángel Ospina-Serrano National University of Colombia
  • Jhon Alexander González-Mendoza National University of Colombia
  • Liliana Lyons-Barrera National University of Colombia https://orcid.org/0000-0003-1589-4492
  • Lenin Alexander Bulla-Cruz National University of Colombia https://orcid.org/0000-0002-3476-9067

DOI:

https://doi.org/10.17533/udea.redin.n90a10

Keywords:

driving behavior, urban traffic, surrogate measures, VISSIM, SSAM

Abstract

Preferential bus lanes are a widely use strategy to promote travelers to use public transport instead of private cars. Considering its relevance in the urban transportation planning and operation, it is crucial to evaluate them in terms of the operation and safety externality. We performed a road safety assessment in preferential public transport lanes with complex driving environment using a preventive approach on the 7th Avenue, in Bogota (Colombia), between 39th Street and 45th Street. A detailed study of traffic conflicts was carried out under the guidelines of the Swedish technique, which uses the Time to accident and Conflicting speed to establish the severity of a conflict. A traffic conflict is defined as an incident where, if two road users on collision course maintain their speed and trajectory constant, the crash between them will be imminent. With the field information, we calibrated a VISSIM microsimulation model that correctly replicates its traffic operation. Using the SSAM tool, we validated the base model to identify the simulated traffic conflicts in VISSIM and compared them with the observed conflicts. Under the calibrated environment, we developed and assessed three different scenarios of countermeasures to reduce the number of conflicts observed. As a result, we found that the safest scenario is the one established in the regulations that normalize the operation in preferential lanes, currently not obeyed by most users. Based on our results, we recommend an adjustment in the normative measures, including regulating the stopping time and stopping zones of private vehicles and taxis.

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Author Biographies

Julián Darío Otero-Niño, National University of Colombia

Infrastructure and Mobility Research Seedbed - SIMUN, Research Group in Logistics for Sustainable Transport and Safety - TRANSLOGYT, Faculty of Engineering.

Juan David Heredia-Castiblanco, National University of Colombia

Infrastructure and Mobility Research Seedbed - SIMUN, Research Group in Logistics for Sustainable Transport and Safety - TRANSLOGYT, Faculty of Engineering.

Paula Daniela Fonseca-Agudelo, National University of Colombia

Infrastructure and Mobility Research Seedbed - SIMUN, Research Group in Logistics for Sustainable Transport and Safety - TRANSLOGYT, Faculty of Engineering.

Sebastián Cabrera-Pinzón, National University of Colombia

Infrastructure and Mobility Research Seedbed - SIMUN, Research Group in Logistics for Sustainable Transport and Safety - TRANSLOGYT, Faculty of Engineering.

Alejandro Gómez-Mosquera, National University of Colombia

Infrastructure and Mobility Research Seedbed - SIMUN, Research Group in Logistics for Sustainable Transport and Safety - TRANSLOGYT, Faculty of Engineering.

Luis David López-Buitrago, National University of Colombia

Infrastructure and Mobility Research Seedbed - SIMUN, Research Group in Logistics for Sustainable Transport and Safety - TRANSLOGYT, Faculty of Engineering.

Francisco Julián Sandoval-Ávila, National University of Colombia

Infrastructure and Mobility Research Seedbed - SIMUN, Research Group in Logistics for Sustainable Transport and Safety - TRANSLOGYT, Faculty of Engineering.

Miguel Ángel Ospina-Serrano, National University of Colombia

Infrastructure and Mobility Research Seedbed - SIMUN, Research Group in Logistics for Sustainable Transport and Safety - TRANSLOGYT, Faculty of Engineering.

Jhon Alexander González-Mendoza, National University of Colombia

Infrastructure and Mobility Research Seedbed - SIMUN, Research Group in Logistics for Sustainable Transport and Safety - TRANSLOGYT, Faculty of Engineering.

Liliana Lyons-Barrera, National University of Colombia

Infrastructure and Mobility Research Seedbed - SIMUN, Research Group in Logistics for Sustainable Transport and Safety - TRANSLOGYT, Faculty of Engineering.

Lenin Alexander Bulla-Cruz, National University of Colombia

Infrastructure and Mobility Research Seedbed - SIMUN, Research Group in Logistics for Sustainable Transport and Safety - TRANSLOGYT, Faculty of Engineering.

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Published

2019-02-07

How to Cite

Otero-Niño, J. D., Heredia-Castiblanco, J. D., Fonseca-Agudelo, P. D., Cabrera-Pinzón, S., Gómez-Mosquera, A., López-Buitrago, L. D., Sandoval-Ávila, F. J., Ospina-Serrano, M. Ángel, González-Mendoza, J. A., Lyons-Barrera, L., & Bulla-Cruz, L. A. (2019). Road safety assessment in preferential bus lanes through field analysis and microsimulation of traffic conflicts. Revista Facultad De Ingeniería Universidad De Antioquia, (90), 87–100. https://doi.org/10.17533/udea.redin.n90a10