Erratum to: Netw Spat Econ

DOI 10.1007/s11067-014-9257-3

The original version of this article unfortunately contained mistakes. Its corrected version is presented below. The title has also been amended as shown above.

Dynamic traffic assignment (DTA) is now an established research specialty overlapping several fields of scholarly enquiry: civil engineering, industrial engineering, operations research, statistics, mathematics, computer science, regional science, city planning, complexity science, sustainability science, and economics. Several hundred scientists and engineers around the globe are devoting substantial energy to DTA research. Moreover, the theory and computational methods arising from DTA research continue to move closer to application and decision support in real-world environments.

In 2012 we issued a call for a broad spectrum of DTA research manuscripts in order to provide a snapshot in time of the diverse points of view being pursued by scholars around the world. Presenters at the Fourth International Symposium on Dynamic Traffic Assignment at Martha’s Vineyard, USA, were invited to submit manuscripts for possible publication in Networks and Spatial Economics. From those invitations, we have assembled a collection of 21 papers, each of which has been comprehensively reviewed. Papers 1 through 12 focus on fundamental methodological advances in dynamic traffic assignment modeling and computation, including network loading, continuous time analyses, and day-to-day dynamics. Papers 13 through 21 focus on application of dynamic traffic assignment in the context of transit networks, evacuation modeling, land use modeling, tradable credits, and adaptive control.

The following is a complete list of papers that comprise the Special Issue:

  1. (1)

    J. Ban: Convergence of Time Discretization Schemes for Continuous-Time Dynamic Network Loading Models

  2. (2)

    J. Ban: Approximating Time Delays in Solving Continuous-Time Dynamic User Equilibria

  3. (3)

    S. Boyles: A Continuous DUE Algorithm Using the Link Transmission Model

  4. (4)

    G. E. Cantarella: Day-to-Day Dynamics & Equilibrium Stability in a Two-Mode Transport System with Responsive Bus Operator Strategies

  5. (5)

    M. Carey: Extending the Cell Transmission Model to Multiple Lanes and Lane-Changing

  6. (6)

    X. Di: On the Stability of a Boundedly Rational Day-to-day Dynamics

  7. (7)

    S. Gao: Combining Disaggregate Route Choice Estimation with Aggregate Calibration of a Dynamic Traffic Assignment Model

  8. (8)

    E. Ge: A Comparison of Dynamic User Optimal States with Zero, Fixed and Variable Tolerances

  9. (9)

    T. Iryo: Investigating Factors for Existence of Multiple Equilibria in Dynamic Traffic Network

  10. (10)

    W. Jin: A New Relationship between Wardrop’s User Equilibrium and Nash Equilibrium

  11. (11)

    Khani: Trip-Based Path Algorithms Using the Transit Network Hierarchy

  12. (12)

    M. Levin: Improving the Convergence of Simulation-Based Dynamic Traffic Assignment Methodologies

  13. (13)

    J. Li: Evacuation Planning with Endogenous Transportation Network Degradations: A Stochastic Cell-based Model and Solution Procedure

  14. (14)

    H. Lo: Combined Route Choice and Adaptive Traffic Control in a Day-to-day Dynamical System

  15. (15)

    M. Nie: A New Tradable Credit Scheme for the Morning Commute Problem

  16. (16)

    S. Peeta: Clearance Time Estimation for Incorporating Evacuation Risk in Routing Strategies for Evacuation Operations

  17. (17)

    G. Ramadurai: A Case for Higher-order Traffic Flow Models in DTA

  18. (18)

    W. Szeto: A Sustainable Road Network Design Problem with Land Use Transportation Interaction over Time

  19. (19)

    V. Trozzi: Effects of Countdown Displays in Public Transport Route Choice Under Severe Overcrowding

  20. (20)

    D. P. Watling: Model Representation & Decision-Making in an Ever-Changing World: the Role of Stochastic Process Models of Transportation Systems

  21. (21)

    W. F. Yushimito: Correcting the Market Failure in Work Trips with Work Rescheduling: an Analysis using Bi-level Models for the Firm-workers Interplay