An approach to geometry-based dynamic location referencing

Abstract Introduction An important requirement for knowledge infrastructures in smart cities is the continuous updating of location-based information. Protocols for dynamic location referencing like e.g. OpenLR or AGORA-C tackle the problem of accurately matching locations between dissimilar digital...

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Main Authors: Rüdiger Ebendt, Louis Calvin Touko Tcheumadjeu
Format: Article
Language:English
Published: SpringerOpen 2017-07-01
Series:European Transport Research Review
Subjects:
Online Access:http://link.springer.com/article/10.1007/s12544-017-0254-8
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spelling doaj-12530223928d4f8581492547c90fa3532020-11-24T20:55:15ZengSpringerOpenEuropean Transport Research Review1867-07171866-88872017-07-019313010.1007/s12544-017-0254-8An approach to geometry-based dynamic location referencingRüdiger Ebendt0Louis Calvin Touko Tcheumadjeu1German Aerospace Center, Institute of Transportation SystemsGerman Aerospace Center, Institute of Transportation SystemsAbstract Introduction An important requirement for knowledge infrastructures in smart cities is the continuous updating of location-based information. Protocols for dynamic location referencing like e.g. OpenLR or AGORA-C tackle the problem of accurately matching locations between dissimilar digital maps. They are map-agnostic and aim at limiting the amount of descriptive data to reduce bandwidth. However, there are applications for which the weaker requirement of map-independence is completely adequate, and for some there are even no restrictions in bandwidth (e.g. in the EC-funded project ROSATTE, and in the DLR projects MobiLind and KeepMoving), and with relaxed constraints it is possible to learn from methods in similar areas like road network matching and map conflation, in order to achieve a more accurate solution. Following this path, this paper presents a map-independent approach developed in the ongoing DLR project I.MoVe, which can be combined with a bandwidth-efficient dynamic location referencing method like e.g. OpenLR to target applications with bandwidth restrictions. Methods The proposed new approach works line-oriented and is guided by a measure of geometric dissimilarity. It is a top-down approach, recursively splitting up the source route into parts, thereby following a divide-and-conquer strategy to reduce the problem until it can be solved trivially. Results It is currently capable of mapping closed line locations (i.e. circular routes, representing either the boundaries of areas or the tours of e.g. delivery trucks) from a TeleAtlas map to a NAVTEQ map on-the-fly with a success rate of 97.5% (OpenLR: only 82.5%), and also capable of mapping short line locations (i.e. linear routes) on-the-fly between the same maps, with a success rate of 99.7% (OpenLR: 91.9% Conclusion In conclusion, the new approach to match linear or circular routes between two dissimilar maps is highly accurate and map-independent, but access to both involved maps is required. The approach can also be combined with a bandwidth-efficient dynamic location referencing method like e.g. OpenLR to obtain a compact format before the descriptive data is transmitted.http://link.springer.com/article/10.1007/s12544-017-0254-8Location based servicesDigital road mapsDynamic location referencingOpenLRRoad network matching
collection DOAJ
language English
format Article
sources DOAJ
author Rüdiger Ebendt
Louis Calvin Touko Tcheumadjeu
spellingShingle Rüdiger Ebendt
Louis Calvin Touko Tcheumadjeu
An approach to geometry-based dynamic location referencing
European Transport Research Review
Location based services
Digital road maps
Dynamic location referencing
OpenLR
Road network matching
author_facet Rüdiger Ebendt
Louis Calvin Touko Tcheumadjeu
author_sort Rüdiger Ebendt
title An approach to geometry-based dynamic location referencing
title_short An approach to geometry-based dynamic location referencing
title_full An approach to geometry-based dynamic location referencing
title_fullStr An approach to geometry-based dynamic location referencing
title_full_unstemmed An approach to geometry-based dynamic location referencing
title_sort approach to geometry-based dynamic location referencing
publisher SpringerOpen
series European Transport Research Review
issn 1867-0717
1866-8887
publishDate 2017-07-01
description Abstract Introduction An important requirement for knowledge infrastructures in smart cities is the continuous updating of location-based information. Protocols for dynamic location referencing like e.g. OpenLR or AGORA-C tackle the problem of accurately matching locations between dissimilar digital maps. They are map-agnostic and aim at limiting the amount of descriptive data to reduce bandwidth. However, there are applications for which the weaker requirement of map-independence is completely adequate, and for some there are even no restrictions in bandwidth (e.g. in the EC-funded project ROSATTE, and in the DLR projects MobiLind and KeepMoving), and with relaxed constraints it is possible to learn from methods in similar areas like road network matching and map conflation, in order to achieve a more accurate solution. Following this path, this paper presents a map-independent approach developed in the ongoing DLR project I.MoVe, which can be combined with a bandwidth-efficient dynamic location referencing method like e.g. OpenLR to target applications with bandwidth restrictions. Methods The proposed new approach works line-oriented and is guided by a measure of geometric dissimilarity. It is a top-down approach, recursively splitting up the source route into parts, thereby following a divide-and-conquer strategy to reduce the problem until it can be solved trivially. Results It is currently capable of mapping closed line locations (i.e. circular routes, representing either the boundaries of areas or the tours of e.g. delivery trucks) from a TeleAtlas map to a NAVTEQ map on-the-fly with a success rate of 97.5% (OpenLR: only 82.5%), and also capable of mapping short line locations (i.e. linear routes) on-the-fly between the same maps, with a success rate of 99.7% (OpenLR: 91.9% Conclusion In conclusion, the new approach to match linear or circular routes between two dissimilar maps is highly accurate and map-independent, but access to both involved maps is required. The approach can also be combined with a bandwidth-efficient dynamic location referencing method like e.g. OpenLR to obtain a compact format before the descriptive data is transmitted.
topic Location based services
Digital road maps
Dynamic location referencing
OpenLR
Road network matching
url http://link.springer.com/article/10.1007/s12544-017-0254-8
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