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Port planning and management simulation /

Port Planning and Management Simulation examines port planning simulation applications, showing how they supports better port decision-making. Using a clear organizational format based on actual port system structure and operation processes, the book provides practical and theoretical insights on po...

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Detalles Bibliográficos
Clasificación:	Libro Electrónico
Autores principales:	Wang, Wenyuan (Autor), Peng, Yun (Autor)
Formato:	Electrónico eBook
Idioma:	Inglés
Publicado:	Amsterdam ; Oxford, United Kingdom ; Cambridge, MA : Elsevier, [2022]
Temas:	Harbors > Management. Harbors > Planning. Ports > Gestion. Ports > Planification. Harbors > Management Harbors > Planning
Acceso en línea:	Texto completo

Tabla de Contenidos:

Intro
Port Planning and Management Simulation
Copyright
Contents
Contributors
Preface
Part 1: Introduction to port planning and management and simulation application in port
Chapter 1: Introduction to port planning and management
1.1. A port and its components
1.1.1. Water area in port
1.1.2. Land area in port
1.1.3. Port collecting and distributing system
1.2. General problems of port planning and management
1.2.1. General problems of port planning
1.2.2. General problems of port management
1.3. Challenges on port planning and management
References
Chapter 2: Simulation application in port
2.1. Port operation system
2.1.1. Operation system in container terminals
2.1.2. Operation system in bulk cargo ports
2.2. Advantages of simulation
2.2.1. Advantages of simulation on port planning
2.2.2. Advantages of simulation on port management
2.3. Framework of simulation models
2.4. Basic conception of simulation
2.4.1. Overview of development history of simulation technology
2.4.2. Simulation software
2.4.3. Basic components of simulation model
2.4.4. Basic process of simulation modeling
2.5. Simulation-based optimization
References
Part 2: Water area planning, operation, and safe navigation
Chapter 3: Simulation framework for ships navigation operation system
3.1. Ships navigation operation system and its logic model
3.2. The simulation framework
3.2.1. Ship waits at anchorage submodel
3.2.2. Ship enters the port submodel
3.2.3. Ships handling operation submodel
3.2.4. Ship leaves the port submodel
Reference
Chapter 4: Simulation for water area planning
4.1. Waterway
4.1.1. The suitable time to expand the waterway
4.1.2. The impact of navigation duration
4.2. Inner anchorage
4.2.1. Definition of inner anchorage.
4.2.2. Simulation method
4.2.3. Experiments and results
4.3. Avoiding area
4.3.1. Definition of avoiding area
4.3.2. Simulation method
4.3.3. Experiments and results
4.4. Basin
4.4.1. Definition of basin
4.4.2. Simulation method
4.4.3. Experiments and results
References
Chapter 5: Simulation for water area operation
5.1. Traffic rules
5.1.1. Definition of traffic rules
5.1.2. Simulation method
5.1.3. Experiments and results
5.2. Navigation rules
5.2.1. Definition of navigation rules
5.2.2. Simulation method
5.2.3. Experiments and results
5.3. Influences of the flexible berthing scheme
5.3.1. Definition of flexible berthing scheme
5.3.2. Simulation method
5.3.3. Experiments and results
Reference
Chapter 6: Simulation for influences of safe navigation requirements
6.1. Influences of navigation safety level
6.1.1. Definition of navigation safety level
6.1.2. Simulation method
6.1.3. Experiments and results
6.2. Influences of special ships
6.2.1. Definition of special ships
6.2.2. Simulation method
6.2.3. Experiments and results
References
Part 3: Land area planning and operation management
Chapter 7: Simulation framework for land area operation system
7.1. Land area operation system and its logic model
7.2. Universal simulation framework
7.2.1. Framework design
7.2.2. Simulation model establishment
7.2.3. Submodels of simulation system
References
Chapter 8: Simulation for land functional area layout
8.1. Quayside layout
8.1.1. Introduction to quayside operation
8.1.2. Model establishment
8.1.3. Case study
8.2. Storage yard layout
8.2.1. Introduction to yard operation
8.2.2. Model establishment
8.2.3. Case study
8.3. Gate layout
8.3.1. Introduction to gate operation
8.3.2. Model establishment.
8.3.3. Case study
8.4. Inspection area layout
8.4.1. Scale determination simulation
8.4.2. Site selection simulation
References
Chapter 9: Simulation for land area operation management
9.1. Truck configuration in container terminals
9.1.1. Introduction to truck configuration for quayside cranes
9.1.2. Model establishment
9.1.3. Case study
9.2. Scheduling of reversible lanes in container terminals
9.2.1. Introduction to reversible lanes
9.2.2. Model establishment
9.2.3. Case study
9.3. Impact of truck arrival rules on port gate
9.3.1. Introduction to port gate operation management
9.3.2. Model establishment
9.3.3. Case study
9.4. Impact of traffic rules on inspection area road network
9.4.1. Introduction to traffic situation of the inspection area
9.4.2. Model establishment
9.4.3. Case study
References
Part 4: PRCDS: Planning and management
Chapter 10: Introduction to PRCDS and simulation framework
10.1. Port-centric road collecting and distributing system
10.1.1. Overview
10.1.2. Composition and function
10.1.3. Operation process
10.2. General simulation framework
10.2.1. Entity and parameter
10.2.2. Construction and logic of simulation model
Chapter 11: Simulation application in PRCDS planning
11.1. Time-varying characteristic analysis of freight traffic flow
11.1.1. Description of the characteristic of container freight traffic
11.1.2. Simulation model of container port freight traffic
11.1.3. Simulation analysis on traffic characteristic in port-centric road collecting and distributing system
11.1.4. Conclusion
11.2. Interchange construction planning
11.2.1. Interchange construction planning multistage decision problem
11.2.2. Simulation-based dynamic programming model.
11.2.3. Case study: Application of SDPM in interchange construction planning
11.2.4. Conclusion
11.3. Layout planning of drop-and-pull station
11.3.1. Description of port drop-and-pull transport station
11.3.2. Traffic simulation model of port drop-and-pull station
11.3.3. Case study: Layout planning of drop-and pull station in a Ro/Ro port
11.3.4. Conclusion
References
Chapter 12: Simulation application in PRCDS management
12.1. Freight traffic routing
12.1.1. Description of freight traffic routing problem in port-centric road collecting and distributing system
12.1.2. Traffic simulation model of port-centric road collecting and distributing system
12.1.3. Case study: Freight traffic routing in port-centric road collecting and distributing system of a container port
12.1.4. Conclusion
12.2. Traffic management with real-time information provision
12.2.1. Background of simulation analysis
12.2.2. Traffic simulation model for port-centric road collecting and distributing system with varying information provision
12.2.3. Case study: Impact analysis of real-time information provision on traffic management of port-centric road collect ...
12.2.4. Conclusion
12.3. Traffic analysis and management in signalized intersection
12.3.1. Traffic capacity of signalized intersections
12.3.2. Microscopic traffic simulation model of signalized intersection
12.3.3. Traffic capacity analysis of signalized intersection
12.3.4. Case study: Decussation intersection of port-centric road collecting and distributing system in a container port
12.3.5. Conclusion
References
Part 5: Emission reduction and renewable energy applications
Chapter 13: Introduction to emission reduction methods and renewable energy applications
13.1. Emission assessment method in port.
13.1.1. Energy consumption of ships
13.1.2. Energy consumption from quay cranes
13.1.3. Energy consumption from yard cranes
13.1.4. Energy consumption from trucks
13.2. Emission reduction methods
13.2.1. Emission reduction methods for visiting ships
13.2.2. Emission reduction methods for port facilities
13.3. Renewable energy applications
References
Chapter 14: Simulation analysis on emission reduction methods
14.1. Simulation analysis on emission reduction methods for ships
14.1.1. Emission reduction methods for ships
14.1.2. Simulation method
14.1.3. Experiments and results
14.2. Simulation analysis on allocation strategies of on-shore power system
14.2.1. Adopting pattern of on-shore power system
14.2.2. Model formulation for on-shore power system
14.2.3. Simulation-based solution algorithm
14.2.4. Experiments and results
14.3. Simulation analysis on emission reduction methods for port facilities
14.3.1. Emission reduction methods for port facilities
14.3.2. Simulation method
14.3.3. Experiments and results
References
Chapter 15: Simulation-based optimization methods for renewable energy applications
15.1. Optimal design of a hybrid renewable energy system for ports considering economic benefits
15.1.1. Hybrid renewable energy systems
15.1.2. Optimal model for designing hybrid energy system
15.1.3. Simulation-based optimization method for hybrid energy system
15.1.4. Experiments and results
15.2. Optimal allocation and operation strategies of hybrid renewable energy systems considering environmental benefits
15.2.1. Adopted patterns of hybrid renewable energy systems
15.2.2. Evaluation strategy for designing a hybrid renewable energy system
15.2.3. Model formulation
15.2.4. Simulation-based optimization algorithm
15.2.5. Experiments and results.

Port planning and management simulation /

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