Society demands that railways should perform better than they do currently: their product must become more reliable and cheaper, and the railways must be able to react to changes in the market and the environment more flexibly. The starting point of this thesis is that in other industries market forces and innovations are key factors to the improvement of performance and that this must also be possible in the railway industry. The hypothesis is that, in spite of the restructuring of the railways during the nineties of the 20th century in Europe ("separation of infrastructure management and train operations"), the potencies of market forces and innovations are insufficiently exploited and that this to a large extent can be attributed to the fact that the processes within the railway industry are tightly interwoven. "Everything" seems to be connected with "everything", especially in the operational heart of the railways: the rail traffic system. This thesis consists of two parts: the Transport Layer Model and Rail Traffic Management. In the first part, a generic conceptual model for the functional analysis of the traffic and transport system is developed called the Transport Layer Model. In this model, the traffic and transport system is considered as a composition of services and markets. The Transport Layer Model is applied to divide the railways into subsystems, with the objectives of improving the opportunities for market forces and innovations, and structuring the role of the government. In the second part of this thesis, the control of one of these subsystems, the rail traffic system, is analysed. The systematic integration of feedback loops into the control cycle leads to the development of a new control concept called Dynamic Rail Traffic Management the application of which can make the production of rail traffic services more reliable, more flexible and cheaper.
[1]
F. C. Van Westrenen.
The maritime pilot at work: Evaluation and use of a time-to-boundary model of mental workload in human-machine systems
,
1999
.
[2]
S. P. Hoogendoorn,et al.
Multiclass continuum modelling of multilane traffic flow
,
1999
.
[3]
G. Muilerman,et al.
Time-based logistics: An analysis of the relevance, causes and impacts
,
2001
.
[4]
M. Bliemer.
Analytical dynamic traffic assignment with interacting user-classes: Theoretical advances and applications using a variational inequality approach
,
2001
.
[5]
A. J. Van Binsbergen,et al.
Innovation Steps Towards Efficient Goods Distribution Systems for Urban Areas
,
2001
.
[6]
M. M. Minderhoud,et al.
Supported driving: impacts on motorway traffic flow
,
1999
.