Home > Research > Publications & Outputs > Simulation and optimization of one-way car-shar...

Electronic data

View graph of relations

Simulation and optimization of one-way car-sharing systems with variant relocation policies

Research output: Contribution to conference - Without ISBN/ISSN Conference paperpeer-review

Published

Standard

Simulation and optimization of one-way car-sharing systems with variant relocation policies. / Repoux, Martin; Boyacı, Burak; Geroliminis, Nikolas.
2014. Paper presented at hEART 2014 - 3rd Symposium of the European Association for Research in Transportation, Leeds, United Kingdom.

Research output: Contribution to conference - Without ISBN/ISSN Conference paperpeer-review

Harvard

Repoux, M, Boyacı, B & Geroliminis, N 2014, 'Simulation and optimization of one-way car-sharing systems with variant relocation policies', Paper presented at hEART 2014 - 3rd Symposium of the European Association for Research in Transportation, Leeds, United Kingdom, 10/09/14 - 12/09/14.

APA

Repoux, M., Boyacı, B., & Geroliminis, N. (2014). Simulation and optimization of one-way car-sharing systems with variant relocation policies. Paper presented at hEART 2014 - 3rd Symposium of the European Association for Research in Transportation, Leeds, United Kingdom.

Vancouver

Repoux M, Boyacı B, Geroliminis N. Simulation and optimization of one-way car-sharing systems with variant relocation policies. 2014. Paper presented at hEART 2014 - 3rd Symposium of the European Association for Research in Transportation, Leeds, United Kingdom.

Author

Repoux, Martin ; Boyacı, Burak ; Geroliminis, Nikolas. / Simulation and optimization of one-way car-sharing systems with variant relocation policies. Paper presented at hEART 2014 - 3rd Symposium of the European Association for Research in Transportation, Leeds, United Kingdom.18 p.

Bibtex

@conference{45ed46985b2148c09771a82c22523ff9,
title = "Simulation and optimization of one-way car-sharing systems with variant relocation policies",
abstract = "Car-sharing is a transportation service consisting of vehicles distributed over an urban area that any driver registered to the system can use. This paper focuses on one-way electric car-sharing systems. The success of such systems relies strongly on operations management and attractive rental conditions. Immediate availability and possibility of reservation in advance are key points. This induces strong constraints for the operator especially when some stations attract more trips as a destination than as an origin and vice versa. These imbalances must be corrected by performing vehicle relocations in a smart way to maximize vehicle availability and minimize operator{\textquoteright}s costs. In order to understand the demand patterns and explore relocation possibilities, an event-based simulator is built in C#. We develop a new relocation strategy to minimize the demand loss due to vehicle unavailability. Implemented in parallel to rentals, it relies on the regular update of the relocation plans based on an optimization framework which utilizes the current state of the system and partial knowledge of near-future demand. This strategy is compared to three other strategies on a case study based on real data from Nice, France. We show that it maximizes the number of served demand and succeeds in keeping the system in a balanced state contrary to the other strategies considered.",
author = "Martin Repoux and Burak Boyacı and Nikolas Geroliminis",
year = "2014",
month = sep,
day = "14",
language = "English",
note = "hEART 2014 - 3rd Symposium of the European Association for Research in Transportation ; Conference date: 10-09-2014 Through 12-09-2014",

}

RIS

TY - CONF

T1 - Simulation and optimization of one-way car-sharing systems with variant relocation policies

AU - Repoux, Martin

AU - Boyacı, Burak

AU - Geroliminis, Nikolas

PY - 2014/9/14

Y1 - 2014/9/14

N2 - Car-sharing is a transportation service consisting of vehicles distributed over an urban area that any driver registered to the system can use. This paper focuses on one-way electric car-sharing systems. The success of such systems relies strongly on operations management and attractive rental conditions. Immediate availability and possibility of reservation in advance are key points. This induces strong constraints for the operator especially when some stations attract more trips as a destination than as an origin and vice versa. These imbalances must be corrected by performing vehicle relocations in a smart way to maximize vehicle availability and minimize operator’s costs. In order to understand the demand patterns and explore relocation possibilities, an event-based simulator is built in C#. We develop a new relocation strategy to minimize the demand loss due to vehicle unavailability. Implemented in parallel to rentals, it relies on the regular update of the relocation plans based on an optimization framework which utilizes the current state of the system and partial knowledge of near-future demand. This strategy is compared to three other strategies on a case study based on real data from Nice, France. We show that it maximizes the number of served demand and succeeds in keeping the system in a balanced state contrary to the other strategies considered.

AB - Car-sharing is a transportation service consisting of vehicles distributed over an urban area that any driver registered to the system can use. This paper focuses on one-way electric car-sharing systems. The success of such systems relies strongly on operations management and attractive rental conditions. Immediate availability and possibility of reservation in advance are key points. This induces strong constraints for the operator especially when some stations attract more trips as a destination than as an origin and vice versa. These imbalances must be corrected by performing vehicle relocations in a smart way to maximize vehicle availability and minimize operator’s costs. In order to understand the demand patterns and explore relocation possibilities, an event-based simulator is built in C#. We develop a new relocation strategy to minimize the demand loss due to vehicle unavailability. Implemented in parallel to rentals, it relies on the regular update of the relocation plans based on an optimization framework which utilizes the current state of the system and partial knowledge of near-future demand. This strategy is compared to three other strategies on a case study based on real data from Nice, France. We show that it maximizes the number of served demand and succeeds in keeping the system in a balanced state contrary to the other strategies considered.

M3 - Conference paper

T2 - hEART 2014 - 3rd Symposium of the European Association for Research in Transportation

Y2 - 10 September 2014 through 12 September 2014

ER -