TY - JOUR
T1 - A next step in disruption management
T2 - combining operations research and complexity science
AU - Dekker, Mark M.
AU - van Lieshout, Rolf N.
AU - Ball, Robin C.
AU - Bouman, Paul C.
AU - Dekker, Stefan C.
AU - Dijkstra, Henk A.
AU - Goverde, Rob M.P.
AU - Huisman, Dennis
AU - Panja, Debabrata
AU - Schaafsma, Alfons A.M.
AU - van den Akker, Marjan
PY - 2021
Y1 - 2021
N2 - Railway systems occasionally get into a state of being out-of-control, meaning that barely any train is running, even though the required resources (infrastructure, rolling stock and crew) are available. Because of the large number of affected resources and the absence of detailed, timely and accurate information, currently existing disruption management techniques cannot be applied in out-of-control situations. Most of the contemporary approaches assume that there is only one single disruption with a known duration, that all information about the resources is available, and that all stakeholders in the operations act as expected. Another limitation is the lack of knowledge about why and how disruptions accumulate and whether this process can be predicted. To tackle these problems, we develop a multidisciplinary framework combining techniques from complexity science and operations research, aiming at reducing the impact of these situations and—if possible—avoiding them. The key elements of this framework are (i) the generation of early warning signals for out-of-control situations, (ii) isolating a specific region such that delay stops propagating, and (iii) the application of decentralized decision making, more suited for information-sparse out-of-control situations.
AB - Railway systems occasionally get into a state of being out-of-control, meaning that barely any train is running, even though the required resources (infrastructure, rolling stock and crew) are available. Because of the large number of affected resources and the absence of detailed, timely and accurate information, currently existing disruption management techniques cannot be applied in out-of-control situations. Most of the contemporary approaches assume that there is only one single disruption with a known duration, that all information about the resources is available, and that all stakeholders in the operations act as expected. Another limitation is the lack of knowledge about why and how disruptions accumulate and whether this process can be predicted. To tackle these problems, we develop a multidisciplinary framework combining techniques from complexity science and operations research, aiming at reducing the impact of these situations and—if possible—avoiding them. The key elements of this framework are (i) the generation of early warning signals for out-of-control situations, (ii) isolating a specific region such that delay stops propagating, and (iii) the application of decentralized decision making, more suited for information-sparse out-of-control situations.
KW - Complexity science
KW - Operations research
KW - Railway disruption management
KW - Rescheduling
UR - http://www.scopus.com/inward/record.url?scp=85100097360&partnerID=8YFLogxK
U2 - 10.1007/s12469-021-00261-5
DO - 10.1007/s12469-021-00261-5
M3 - Article
AN - SCOPUS:85100097360
SN - 1866-749X
VL - 14
SP - 5
EP - 26
JO - Public Transport
JF - Public Transport
IS - 1
ER -