Time-Dependent Route Planning on Maps: A User Study

Routing through a dynamic environment is mostly carried out by using maps that integrate information about time-dependent parameters, such as traffic conditions and spatial constraints, which is a challenging and cumbersome task. We address the complex scenario where a user has to plan a route on a network that is dynamic with respect to edges that change their congestion through time. We perform an experimental user study where we compare interactive and non-interactive interfaces, the complexity levels of the map structures (number of nodes and edges) and of the paths (number of nodes that need to be visited), and the effects of familiarity with the map. The results of our study indicate that an interactive interface is more beneficial than a non-interactive interface for more complex paths, while a non-interactive interface is more beneficial than an interactive interface for less complex paths. In detail, while the number of nodes and edges of the network had no effect on the performance, we observed that (not surprisingly) the more complex the path, the longer the processing time and the lower the correctness. We tested the familiarity with a test–retest design, where we organized a second session of tests, labeled T2, after the first session T1. We observed a familiarization effect in T2, that is, the participants’ performance improved for the networks known from T1.

Authors

Publication Details

Journal
Journal of Perceptual Imaging
Published
2025-02-01
DOI
https://doi.org/10.2352/j.percept.imaging.2025.8.000401
Primary Topic
Geographic Information Systems Studies
Type
article
Field-Weighted Citation Impact
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article

Time-Dependent Route Planning on Maps: A User Study

Alessandra Tappini, Silvia Miksch, Maurizio Patrignani, Claus‐Christian Carbon et al.
Journal of Perceptual Imaging
Geographic Information Systems Studies
article

Time-Dependent Route Planning on Maps: A User Study

Alessandra Tappini, Silvia Miksch, Maurizio Patrignani, Claus‐Christian Carbon, Annika Bonerath
article en

Abstract

Routing through a dynamic environment is mostly carried out by using maps that integrate information about time-dependent parameters, such as traffic conditions and spatial constraints, which is a challenging and cumbersome task. We address the complex scenario where a user has to plan a route on a network that is dynamic with respect to edges that change their congestion through time. We perform an experimental user study where we compare interactive and non-interactive interfaces, the complexity levels of the map structures (number of nodes and edges) and of the paths (number of nodes that need to be visited), and the effects of familiarity with the map. The results of our study indicate that an interactive interface is more beneficial than a non-interactive interface for more complex paths, while a non-interactive interface is more beneficial than an interactive interface for less complex paths. In detail, while the number of nodes and edges of the network had no effect on the performance, we observed that (not surprisingly) the more complex the path, the longer the processing time and the lower the correctness. We tested the familiarity with a test–retest design, where we organized a second session of tests, labeled T2, after the first session T1. We observed a familiarization effect in T2, that is, the participants’ performance improved for the networks known from T1.

Journal of Perceptual ImagingVol. 8(0)
Sustainable cities and communities
Openalex Percentile: Top 97%
Geographic Information Systems Studies
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