S.P. Hoogendoorn
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67 records found
1
Using Crowd Simulation to Support Experience-Driven Police Decision-Making during Large-Scale Events
Designing and evaluating a decision framework in the Rotterdam Police context
The main challenge is therefore not the absence of simulation models, but the absence of a method that translates simulation outputs into usable decision-support information. This paper presents the Crowd Simulation Decision Framework, developed using Design Science Research at the Rotterdam Police. The framework is a method-type artefact that structures when and how crowd simulation can be used in the risk analysis and advisory phase. It links police risks, simulation questions, scenarios, outputs, interpretation, and possible measures to decision points in the event process.
The framework was demonstrated in the Meent case during a large-scale running event in Rotterdam and evaluated with police professionals. The evaluation focused on interpretability, usefulness, and usability. The findings suggest that the framework can support risk analysis by making assumptions explicit, comparing scenarios, and helping to substantiate police advice. At the same time, simulation outputs require clear explanation, transparent assumptions, a model check with practitioners, feedback loops, and a simulation expert who can translate between police practice and technical modelling. Without these conditions, outputs may be misinterpreted or may suggest more certainty than the model can provide.
The paper contributes design knowledge on how existing crowd simulation outputs can be integrated into experience-driven police decision-making. Simulation-based decision support should start with the decision-making problem, not with the model. The framework should therefore be seen as structured support for professional judgement, not as proof that simulation automatically improves decision-making. ...
The main challenge is therefore not the absence of simulation models, but the absence of a method that translates simulation outputs into usable decision-support information. This paper presents the Crowd Simulation Decision Framework, developed using Design Science Research at the Rotterdam Police. The framework is a method-type artefact that structures when and how crowd simulation can be used in the risk analysis and advisory phase. It links police risks, simulation questions, scenarios, outputs, interpretation, and possible measures to decision points in the event process.
The framework was demonstrated in the Meent case during a large-scale running event in Rotterdam and evaluated with police professionals. The evaluation focused on interpretability, usefulness, and usability. The findings suggest that the framework can support risk analysis by making assumptions explicit, comparing scenarios, and helping to substantiate police advice. At the same time, simulation outputs require clear explanation, transparent assumptions, a model check with practitioners, feedback loops, and a simulation expert who can translate between police practice and technical modelling. Without these conditions, outputs may be misinterpreted or may suggest more certainty than the model can provide.
The paper contributes design knowledge on how existing crowd simulation outputs can be integrated into experience-driven police decision-making. Simulation-based decision support should start with the decision-making problem, not with the model. The framework should therefore be seen as structured support for professional judgement, not as proof that simulation automatically improves decision-making.
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Driving Heterogeneity in Traffic Flow Theory
An Action-based Framework for Identification, Modelling, and Simulation
Designing demand responsive transportation solutions on water to connect urban expansion projects like artificial island to “mainland” cities
A conceptual autonomous demand responsive transportation solution to be deployed on the waters between Copenhagen’s city centre and the urban expansion project and artificial island Lynetteholm, to be constructed in the Northern harbour of Copenhagen by 2070
This thesis situates the Lynetteholm project within the broader context of Copenhagen's historical commitment to sustainable urban development and efficient public transportation systems. It explores the unique challenges and opportunities presented by this ambitious project, particularly in the realm of mobility and transportation. By drawing on comparative analyses with cities like Amsterdam and Venice, which share Copenhagen's characteristic of being intertwined with waterways, the research aims to distill valuable insights into managing urban mobility in water-centric urban environments.
Central to the thesis is the exploration of smart mobility solutions, specifically Autonomous Navigation Systems (ANS) and Demand-Responsive Transportation (DRT), framed within the increasingly popular concept of Mobility as a Service (MaaS). The investigation delves into the potential synergy between these technologies and the existing urban transport framework in Copenhagen, with a particular focus on enhancing the "Harbor Bus" service. The envisioned autonomous demand-responsive ferry service (ADRT) is posited as a sustainable, efficient, and user-centered mobility solution that seamlessly integrates with the city's transport network, thereby facilitating the smooth incorporation of Lynetteholm into Copenhagen's urban tapestry.
The proposed ADRT system, characterized by its autonomous operation and demand-responsive nature, is designed to double the capacity of the current Harbor Bus fleet, addressing both the anticipated residential influx in Lynetteholm and the broader transportation needs of Copenhagen's residents. This system not only promises enhanced operational efficiency and reduced environmental impact but also aligns with the city's long-term vision of achieving CO2 neutrality and fostering a "green wave" of commuting practices.
Furthermore, the concept of "Ferry Oriented Development" (FOD) is introduced as a strategic urban planning approach that capitalizes on the untapped potential of waterways. By developing ferry terminals as focal points of urban activity, FOD encourages the formation of vibrant, interconnected communities that prioritize sustainable transport modes, thereby reinforcing Copenhagen's commitment to environmental sustainability and efficient urban mobility.
In sum, this thesis offers a comprehensive examination of the interplay between urban expansion, sustainable development, and innovative transport solutions in the context of Copenhagen's Lynetteholm project. It presents the design of a conceptual framework for an ADRT system that embodies the principles of autonomy, responsiveness, and integration, thereby contributing to the discourse on future urban mobility. This research provides a nuanced, evidence-based perspective on the deployment of smart mobility solutions in the face of rapid urban growth, offering valuable insights and recommendations for urban planners, policymakers, and stakeholders engaged in shaping the future of urban living in Copenhagen and beyond. ...
This thesis situates the Lynetteholm project within the broader context of Copenhagen's historical commitment to sustainable urban development and efficient public transportation systems. It explores the unique challenges and opportunities presented by this ambitious project, particularly in the realm of mobility and transportation. By drawing on comparative analyses with cities like Amsterdam and Venice, which share Copenhagen's characteristic of being intertwined with waterways, the research aims to distill valuable insights into managing urban mobility in water-centric urban environments.
Central to the thesis is the exploration of smart mobility solutions, specifically Autonomous Navigation Systems (ANS) and Demand-Responsive Transportation (DRT), framed within the increasingly popular concept of Mobility as a Service (MaaS). The investigation delves into the potential synergy between these technologies and the existing urban transport framework in Copenhagen, with a particular focus on enhancing the "Harbor Bus" service. The envisioned autonomous demand-responsive ferry service (ADRT) is posited as a sustainable, efficient, and user-centered mobility solution that seamlessly integrates with the city's transport network, thereby facilitating the smooth incorporation of Lynetteholm into Copenhagen's urban tapestry.
The proposed ADRT system, characterized by its autonomous operation and demand-responsive nature, is designed to double the capacity of the current Harbor Bus fleet, addressing both the anticipated residential influx in Lynetteholm and the broader transportation needs of Copenhagen's residents. This system not only promises enhanced operational efficiency and reduced environmental impact but also aligns with the city's long-term vision of achieving CO2 neutrality and fostering a "green wave" of commuting practices.
Furthermore, the concept of "Ferry Oriented Development" (FOD) is introduced as a strategic urban planning approach that capitalizes on the untapped potential of waterways. By developing ferry terminals as focal points of urban activity, FOD encourages the formation of vibrant, interconnected communities that prioritize sustainable transport modes, thereby reinforcing Copenhagen's commitment to environmental sustainability and efficient urban mobility.
In sum, this thesis offers a comprehensive examination of the interplay between urban expansion, sustainable development, and innovative transport solutions in the context of Copenhagen's Lynetteholm project. It presents the design of a conceptual framework for an ADRT system that embodies the principles of autonomy, responsiveness, and integration, thereby contributing to the discourse on future urban mobility. This research provides a nuanced, evidence-based perspective on the deployment of smart mobility solutions in the face of rapid urban growth, offering valuable insights and recommendations for urban planners, policymakers, and stakeholders engaged in shaping the future of urban living in Copenhagen and beyond.
This research proposes an innovative framework to learn shippers’ preferences in synchromodal transport operations and optimize transport services accordingly. A preference learning method is developed to capture shippers' preferences through pairwise comparisons of transport plans. In order to model the underlying complex nonlinear relationships and detect heterogeneity in preferences, artificial neural networks are employed to approximate shippers' utility for a specific plan. Based on the learned preference information, a synchromodal transport planning model with shippers’ preferences (STPM-SP) is proposed, with the objectives of minimizing the total transportation cost and maximizing shippers’ satisfaction. An Adaptive Large Neighborhood Search algorithm is developed for solving this optimization problem. This algorithm takes into account the two different objective functions and searches for Pareto solutions to the planning problem.
A case study is conducted based on the European Rhine-Alpine corridor to demonstrate the feasibility and effectiveness of the proposed methodological framework. Basic discrete choice models, binary logit models, are used as benchmarks for preference learning and the synchromodal transport planning model without preferences (STPM) is used as the benchmark for planning. The results show that the proposed preference learning method has better predictive power than the baseline model, achieving higher accuracy and lower variation. With the consideration of shippers’ preferences, STPM-SP can significantly increase shippers' satisfaction with transport services. Scenarios with different types of preferences are tested and results show that the average of maximum improvements in satisfaction reached 37.76%. This research contributes to learning shippers' preferences in the transport operation process and highlights the importance of incorporating these preferences into the decision-making process of synchromodal transport planning. ...
This research proposes an innovative framework to learn shippers’ preferences in synchromodal transport operations and optimize transport services accordingly. A preference learning method is developed to capture shippers' preferences through pairwise comparisons of transport plans. In order to model the underlying complex nonlinear relationships and detect heterogeneity in preferences, artificial neural networks are employed to approximate shippers' utility for a specific plan. Based on the learned preference information, a synchromodal transport planning model with shippers’ preferences (STPM-SP) is proposed, with the objectives of minimizing the total transportation cost and maximizing shippers’ satisfaction. An Adaptive Large Neighborhood Search algorithm is developed for solving this optimization problem. This algorithm takes into account the two different objective functions and searches for Pareto solutions to the planning problem.
A case study is conducted based on the European Rhine-Alpine corridor to demonstrate the feasibility and effectiveness of the proposed methodological framework. Basic discrete choice models, binary logit models, are used as benchmarks for preference learning and the synchromodal transport planning model without preferences (STPM) is used as the benchmark for planning. The results show that the proposed preference learning method has better predictive power than the baseline model, achieving higher accuracy and lower variation. With the consideration of shippers’ preferences, STPM-SP can significantly increase shippers' satisfaction with transport services. Scenarios with different types of preferences are tested and results show that the average of maximum improvements in satisfaction reached 37.76%. This research contributes to learning shippers' preferences in the transport operation process and highlights the importance of incorporating these preferences into the decision-making process of synchromodal transport planning.
Preferences of visitors of mass events towards travel information messages
Identifying visitor profiles using Latent Class Cluster Analysis
convenient bicycle networks. Since a systematic approach to bicycle infrastructure evaluation and planning is lacking we formulate the following research goal:
To gain empirical knowledge on bicycle infrastructure networks and develop methodological tools to assess infrastructure-related bikeability. ...
convenient bicycle networks. Since a systematic approach to bicycle infrastructure evaluation and planning is lacking we formulate the following research goal:
To gain empirical knowledge on bicycle infrastructure networks and develop methodological tools to assess infrastructure-related bikeability.
Mind your passenger!
The passenger capacity of platforms at railway stations in the Netherlands
to gain empirical knowledge of ship behavior in real-life sailing environments and to empirically investigate the influencing mechanisms of intrinsic and external factors. ...
to gain empirical knowledge of ship behavior in real-life sailing environments and to empirically investigate the influencing mechanisms of intrinsic and external factors.
Potential for sustainable mode usage amongst car users in mid-sized cities
A case study in The Hague, the Netherlands
Improving the Service of E-bike Sharing by Demand Pattern Analysis
A Data-driven Approach