![]() Giorgione, Giulio ![]() ![]() in Sustainability (2020), 12(17), Detailed reference viewed: 104 (7 UL)![]() ; Laskaris, Georgios ![]() ![]() in IEEE Transactions on Intelligent Transportation Systems (2020), 21(5), 1929-1940 Detailed reference viewed: 97 (2 UL)![]() ; ; Viti, Francesco ![]() in IEEE Transactions on Intelligent Transportation Systems (2020), 21(4), 1767-1778 Detailed reference viewed: 49 (2 UL)![]() ; ; Viti, Francesco ![]() in IEEE Transactions on Intelligent Transportation Systems (2020), 21(4), 1631-1634 Detailed reference viewed: 53 (0 UL)![]() ; ; et al in Transportation Research. Part B, Methodological (2020), 132 Detailed reference viewed: 58 (3 UL)![]() Laskaris, Georgios ![]() Poster (2020, January 12) We introduce a rule based multiline holding criterion for regularity in branch and trunk networks accounting for all passenger groups. On the shared transit corridor, we consider synchronization at the ... [more ▼] We introduce a rule based multiline holding criterion for regularity in branch and trunk networks accounting for all passenger groups. On the shared transit corridor, we consider synchronization at the merging or the diverging stop. The decision between holding for regularity or synchronization is taken by comparing the expected passenger cost of each control action. The proposed criterion is tested through simulation in a synthetic double fork network with different shares of transferring passengers, control schemes for regularity and synchronization. The results show that multiline control outperforms the state of the art schemes at the network level, stemming from benefits occurring at the first part of the route and the shared transit corridor and a 3.5% more stable joint headway compared to the other schemes. Additionally, it is advised to perform the synchronization at the diverging stop, as it proves to result in a more stable transferring time equal to the joint frequency of the corridor while reducing the transfer time variability up to -42.7%. [less ▲] Detailed reference viewed: 188 (14 UL)![]() ; Vitello, Piergiorgio ![]() in Transportation Research Procedia (2020, January), 47 Detailed reference viewed: 91 (11 UL)![]() ; Vitello, Piergiorgio ![]() in Transportation Research Procedia (2020, January), 47 Detailed reference viewed: 91 (11 UL)![]() Giorgione, Giulio ![]() ![]() Scientific Conference (2020, January) Detailed reference viewed: 47 (6 UL)![]() Rinaldi, Marco ![]() ![]() Poster (2020, January) Detailed reference viewed: 49 (3 UL)![]() Viti, Francesco ![]() ![]() Scientific Conference (2020, January) Detailed reference viewed: 68 (10 UL)![]() ; Rinaldi, Marco ![]() in Transportation Research Procedia (2020, January), 47 Detailed reference viewed: 68 (5 UL)![]() Scheffer, Ariane Hélène Marie ![]() ![]() ![]() in Transportation Research Procedia (2020), 52 Detailed reference viewed: 76 (11 UL)![]() Mazur, Xavier ![]() ![]() ![]() in Transportation Research Procedia (2020), 52 Detailed reference viewed: 116 (0 UL)![]() Giorgione, Giulio ![]() ![]() ![]() in Transportation Research Procedia (2020), 52 Detailed reference viewed: 82 (14 UL)![]() Bordas, Stéphane ![]() ![]() ![]() Report (2019) https://www.cambridge.org/core/journals/data-centric-engineering Detailed reference viewed: 127 (7 UL)![]() Seredynski, Marcin ![]() ![]() Scientific Conference (2019, November) Detailed reference viewed: 68 (8 UL)![]() Rinaldi, Marco ![]() ![]() Scientific Conference (2019, September) Detailed reference viewed: 33 (1 UL)![]() Cisterna, Carolina ![]() ![]() ![]() Scientific Conference (2019, September) Detailed reference viewed: 54 (9 UL)![]() Laskaris, Georgios ![]() Scientific Conference (2019, September) Detailed reference viewed: 35 (3 UL) |
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