We consider a road network represented by a directed graph. We assume to collect many measurements of traffic flows on all the network arcs, or on a subset of them. We assume that the users are divided into different groups. Each group follows a different path. The flows of all user groups are modeled as a set of independent Poisson processes. Our focus is estimating the paths followed by each user group, and the means of the associated Poisson processes. We present a possible solution based on a Dynamic Programming algorithm. The method relies on the knowledge of high-order cumulants. We discuss the theoretical properties of the introduced method. Finally, we present some numerical tests on well-known benchmark networks, using synthetic data.
A Dynamic Programming Approach for Road Traffic Estimation / Laurini, M.; Saccani, I.; Ardizzoni, S.; Consolini, L.; Locatelli, M.. - (2024), pp. 4187-4192. ( 63rd IEEE Conference on Decision and Control, CDC 2024 Allianz MiCo Milano Convention Centre, ita 2024) [10.1109/CDC56724.2024.10886466].
A Dynamic Programming Approach for Road Traffic Estimation
Laurini M.;Saccani I.;Ardizzoni S.;Consolini L.;Locatelli M.
2024-01-01
Abstract
We consider a road network represented by a directed graph. We assume to collect many measurements of traffic flows on all the network arcs, or on a subset of them. We assume that the users are divided into different groups. Each group follows a different path. The flows of all user groups are modeled as a set of independent Poisson processes. Our focus is estimating the paths followed by each user group, and the means of the associated Poisson processes. We present a possible solution based on a Dynamic Programming algorithm. The method relies on the knowledge of high-order cumulants. We discuss the theoretical properties of the introduced method. Finally, we present some numerical tests on well-known benchmark networks, using synthetic data.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.


