TY - JOUR
T1 - A multi-scale framework for fuel station location
T2 - From highways to street intersections
AU - Zhao, Qunshan
AU - Kelley, Scott B.
AU - Xiao, Fan
AU - Kuby, Michael J.
N1 - Funding Information:
This material is based upon work supported by the Seed Research Grant from Institute for Social Science Research at Arizona State University . The authors would like to thank Dr. Jong-Geun Kim and Mr. Shuyao Hong for the software set up efforts and all the anonymous reviewers for their insightful comments and suggestions on the earlier version of this manuscript. We also thank Joel Reinbold of the Connecticut Fuel Cell Coalition, and Erik Snowden and Ming Zhao of the Capitol Region Council of Governments, for their help obtaining network and trip data. We thank FICO for providing Xpress through their Academic Partnership Program.
Funding Information:
This material is based upon work supported by the Seed Research Grant from Institute for Social Science Research at Arizona State University. The authors would like to thank Dr. Jong-Geun Kim and Mr. Shuyao Hong for the software set up efforts and all the anonymous reviewers for their insightful comments and suggestions on the earlier version of this manuscript. We also thank Joel Reinbold of the Connecticut Fuel Cell Coalition, and Erik Snowden and Ming Zhao of the Capitol Region Council of Governments, for their help obtaining network and trip data. We thank FICO for providing Xpress through their Academic Partnership Program.
Publisher Copyright:
© 2019 Elsevier Ltd
PY - 2019/9
Y1 - 2019/9
N2 - Electric drive vehicles (plug-in electric vehicle or hydrogen fuel cell vehicles) have been promoted by governments to foster a more sustainable transportation future. Wider adoption of these vehicles, however, depends on the availability of a convenient and reliable refueling/recharging infrastructure. This paper introduces a path-based, multi-scale, scenario-planning modeling framework for locating a system of alternative-fuel stations. The approach builds on (1) the Flow Refueling Location Model (FRLM), which assumes that drivers stop along their origin-destination routes to refuel, and checks explicitly whether round trips can be completed without running out of fuel, and (2) the Freeway Traffic Capture Method (FTCM), which assesses the degree to which drivers can conveniently reach sites on the local street network near freeway intersections. This paper extends the FTCM to handle cases involving clusters of nearby freeway intersections, which is a limitation of its previous specification. Then, the cluster-based FTCM (CFTCM) is integrated with the FRLM and the DFRLM (FRLM with Deviations) to better conduct detailed geographic optimization of this multi-scale location planning problem. The main contribution of this research is the introduction of a framework that combines multi-scale planning methods to more effectively inform the early development stage of hydrogen refueling infrastructure planning. The proposed multi-scale modeling framework is applied to the Hartford, Connecticut region, which is one of the next areas targeted for fuel-cell vehicle (FCV) market and infrastructure expansion in the United States. This method is generalizable to other regions or other types of fast-fueling alternative fuel vehicles.
AB - Electric drive vehicles (plug-in electric vehicle or hydrogen fuel cell vehicles) have been promoted by governments to foster a more sustainable transportation future. Wider adoption of these vehicles, however, depends on the availability of a convenient and reliable refueling/recharging infrastructure. This paper introduces a path-based, multi-scale, scenario-planning modeling framework for locating a system of alternative-fuel stations. The approach builds on (1) the Flow Refueling Location Model (FRLM), which assumes that drivers stop along their origin-destination routes to refuel, and checks explicitly whether round trips can be completed without running out of fuel, and (2) the Freeway Traffic Capture Method (FTCM), which assesses the degree to which drivers can conveniently reach sites on the local street network near freeway intersections. This paper extends the FTCM to handle cases involving clusters of nearby freeway intersections, which is a limitation of its previous specification. Then, the cluster-based FTCM (CFTCM) is integrated with the FRLM and the DFRLM (FRLM with Deviations) to better conduct detailed geographic optimization of this multi-scale location planning problem. The main contribution of this research is the introduction of a framework that combines multi-scale planning methods to more effectively inform the early development stage of hydrogen refueling infrastructure planning. The proposed multi-scale modeling framework is applied to the Hartford, Connecticut region, which is one of the next areas targeted for fuel-cell vehicle (FCV) market and infrastructure expansion in the United States. This method is generalizable to other regions or other types of fast-fueling alternative fuel vehicles.
KW - Alternative fuel
KW - Connecticut
KW - Flow
KW - Hydrogen
KW - Infrastructure
KW - Path
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U2 - 10.1016/j.trd.2019.07.018
DO - 10.1016/j.trd.2019.07.018
M3 - Article
AN - SCOPUS:85069641806
SN - 1361-9209
VL - 74
SP - 48
EP - 64
JO - Transportation Research, Part D: Transport and Environment
JF - Transportation Research, Part D: Transport and Environment
ER -