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Preface | |
Organization | |
Twenty years of marine simulator (CAORF) operations: Lessons learned during these years | p. 3 |
Effective representation of light aids to navigation in ship handling simulator | p. 13 |
Safety analysis for the Port of Barcelona (flammable products basin) using a real time manoeuvring simulator | p. 21 |
The simulation of tug operations in a multiple simulator environment | p. 29 |
The potential application of virtual reality based simulators to shiphandling and marine operations | p. 39 |
A study on a support of decision-making for collision avoidance in INS | p. 49 |
A multi vessel training system for high speed craft | p. 59 |
The need for improved curriculum development in marine simulation training | p. 77 |
Inland waterways training using simulation piloting | p. 89 |
A study of trainees' learning attitudes towards shiphandling simulator training | p. 97 |
Simulator time and its sea time equivalence (phase I and II) | p. 109 |
Instruction, training and expertise advancement of pilots: The key elements in obtaining the highest possible quality of certified pilots in the Netherlands | p. 125 |
Methodology for bridge simulator skills assessment | p. 145 |
Keynote lecture: Human factors and ergonomics for maritime safety | p. 155 |
Development of harbor capability assessment simulation system by the application of fuzzy algorithm | p. 161 |
A statistical study of mariners' behaviour in collision avoidance at sea | p. 169 |
Cognitive aspects of the captain's work in a critical situation | p. 177 |
Beyond bridge resource management: The risk management culture of the U.S. Coast Guard | p. 191 |
Insurance and simulation: The next accident that does not happen could be yours | p. 203 |
Computer system of simulation of ship's motion | p. 213 |
Full integration simulation using both engine room and bridge simulators, design and experiences | p. 221 |
Applying prototype ship transit data to simulator validation | p. 225 |
The selection and training of simulator instructors | p. 237 |
Simulation and the revised 1978 STCW Convention | p. 245 |
The revised STCW Convention and the new simulator performance standards: Some implications for simulator designers, operators and instructors | p. 257 |
An analysis of marine simulator instructors qualifications and training needs | p. 267 |
The role of simulators and the qualifications of instructors and assessors under the STCW Convention | p. 275 |
STCW 1995 redemption or receivership | p. 285 |
Assessment of ship manoeuvrability based on IMO resolution No. A. 751 | p. 293 |
On ship manoeuvrability estimation based on IMO resolution No. A. 751(18) | p. 303 |
A classification society's experience with IMO resolution No. A. 751(18) | p. 309 |
Shiphandling at low speed in deep and shallow water | p. 321 |
New manoeuvring sea trial system using DGPS | p. 333 |
Development of a collision avoidance system considering the navigation plan | p. 341 |
Ability of berthing assisted by joy stick controller | p. 349 |
A study of supporting system for berthing maneuver | p. 357 |
Keynote lecture: Prediction of ship manoeuvrability: State of the art | p. 371 |
Measurements of stern flow field of a ship in oblique towing motion | p. 389 |
Non-linear hydrodynamic hull forces derived from segmented model tests | p. 399 |
On a prediction method of hydrodynamic forces acting on ship hull including the effect of hull form | p. 411 |
Calculation of manoeuvring hydrodynamic force including the effect of viscosity | p. 419 |
Performance of an enhanced rudder force prediction model in a ship manoeuvring simulator | p. 425 |
Hydrodynamic forces on a ship moving with constant rudder angle: A theoretical treatment of rudder angle test | p. 435 |
Experimental determination and modelling of restricted water effects on bulkcarriers | p. 451 |
Squat predictions for manoeuvring applications | p. 467 |
Hydrodynamic analysis of a ship collision accident: A triple-play scenario | p. 497 |
A neural network to identify ship hydrodynamic coefficients | p. 509 |
On the influence of speed on the manoeuvring behaviour of a container carrier | p. 515 |
Further notes on the dynamic stability parameter and the prediction of manoeuvring characteristics | p. 527 |
Systematic approach for ship manoeuvrability prediction | p. 535 |
A study on the accuracy of the recent prediction technique of ship's manoeuvrability at early design stage | p. 547 |
Applications of the manoeuvring prediction program SIMSUP to meet the new IMO standards | p. 563 |
Neural networks applied on identification of ship motions | p. 577 |
A generalized math model for manoeuvring | p. 593 |
Study on ship manoeuvring mathematical model in shiphandling simulator | p. 607 |
An advanced physical-mathematical model of ship-hull hydrodynamic forces deduced from simplified vortex model during manoeuvring motion in slow speed | p. 617 |
Hydrodynamic modelling for ship manoeuvring simulation | p. 625 |
Full scale measurements of a set of yaw/sway manoeuvring Q-indices | p. 635 |
Author index | p. 643 |
Table of Contents provided by Blackwell. All Rights Reserved. |
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