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ICMAR NAV 2023: Keyword IndexKeyword | Papers |
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a | activity system | Future Shipping Operations and Transitioning Maritime Higher Education: An Activity System Perspective | AI | The Role of USVs for the Australian Navy | AMC Test | The AMC Test for Maritime Autonomous Navigation Systems | Autonomous | A Case Study in the Application of Trusted Autonomous Systems (TAS) Australian Code of Practice to the Design, Construction, Survey, and Operation of New Build Autonomous & Remotely Operated Vessels | autonomous navigation | The AMC Test for Maritime Autonomous Navigation Systems | Autonomous ship | Autonomous Shipping and the Future Workplace of Marine Engineers | Autonomous Shipping | Developing and Implementing a Skills and Competency Framework for MASS Operators: Opportunities and Challenges Skills and Competency Framework for Future Autonomous Ship Operators: A Feasibility Study for STCW Code Revision Human-Technology Coexistence in the Industry 4.0: The Role of Advanced Simulation Technology in Training | Autonomous ships | Dynamic Windowing Algorithm to Improve Ship Response Prediction in Transitory Conditions | Autonomous Surface Vessels (ASV) | A Case Study in the Application of Trusted Autonomous Systems (TAS) Australian Code of Practice to the Design, Construction, Survey, and Operation of New Build Autonomous & Remotely Operated Vessels | b | boundary object | Future Shipping Operations and Transitioning Maritime Higher Education: An Activity System Perspective | business case | Factors Influencing the Business Case for Autonomous Ships | c | chat | Future Shipping Operations and Transitioning Maritime Higher Education: An Activity System Perspective | ColRegs Compliance | The AMC Test for Maritime Autonomous Navigation Systems | competency framework | Developing and Implementing a Skills and Competency Framework for MASS Operators: Opportunities and Challenges | d | Defence | Survey of Autonomous Drone Hangars – Opportunities and Challenges for Maritime Platforms | Drones | Survey of Autonomous Drone Hangars – Opportunities and Challenges for Maritime Platforms | e | Equipment/machinery breakdown | Factors Influencing the Business Case for Autonomous Ships | f | Future Ready | Developing and Implementing a Skills and Competency Framework for MASS Operators: Opportunities and Challenges Skills and Competency Framework for Future Autonomous Ship Operators: A Feasibility Study for STCW Code Revision | h | Human-Technology coexistence | Human-Technology Coexistence in the Industry 4.0: The Role of Advanced Simulation Technology in Training | Hydro Regeneration | A Case Study in the Application of Trusted Autonomous Systems (TAS) Australian Code of Practice to the Design, Construction, Survey, and Operation of New Build Autonomous & Remotely Operated Vessels | i | Industry 4.0 | Human-Technology Coexistence in the Industry 4.0: The Role of Advanced Simulation Technology in Training Future Shipping Operations and Transitioning Maritime Higher Education: An Activity System Perspective Social Mindset Restructuring: A Critical Requirement for Implementing Maritime Autonomy | Intelligent Systems | Dynamic Windowing Algorithm to Improve Ship Response Prediction in Transitory Conditions | m | Maintenance | Factors Influencing the Business Case for Autonomous Ships | Marine Engineer | Autonomous Shipping and the Future Workplace of Marine Engineers | Maritime Autonomous Surface Ship (MASS) | Factors Influencing the Business Case for Autonomous Ships Social Mindset Restructuring: A Critical Requirement for Implementing Maritime Autonomy | Maritime Autonomy | Social Mindset Restructuring: A Critical Requirement for Implementing Maritime Autonomy | maritime education | Developing and Implementing a Skills and Competency Framework for MASS Operators: Opportunities and Challenges | Maritime Education and Training | Skills and Competency Framework for Future Autonomous Ship Operators: A Feasibility Study for STCW Code Revision | Maritime Policy | Social Mindset Restructuring: A Critical Requirement for Implementing Maritime Autonomy | maritime safety | The AMC Test for Maritime Autonomous Navigation Systems | Maritime workforce | Human-Technology Coexistence in the Industry 4.0: The Role of Advanced Simulation Technology in Training | mass | Developing and Implementing a Skills and Competency Framework for MASS Operators: Opportunities and Challenges Skills and Competency Framework for Future Autonomous Ship Operators: A Feasibility Study for STCW Code Revision Future Shipping Operations and Transitioning Maritime Higher Education: An Activity System Perspective Autonomous Shipping and the Future Workplace of Marine Engineers | MET | Future Shipping Operations and Transitioning Maritime Higher Education: An Activity System Perspective | modular | A Case Study in the Application of Trusted Autonomous Systems (TAS) Australian Code of Practice to the Design, Construction, Survey, and Operation of New Build Autonomous & Remotely Operated Vessels | mooring | Autonomous Shipping and the Future Workplace of Marine Engineers | n | naval missions | The Role of USVs for the Australian Navy | p | Payloads | A Case Study in the Application of Trusted Autonomous Systems (TAS) Australian Code of Practice to the Design, Construction, Survey, and Operation of New Build Autonomous & Remotely Operated Vessels | r | Reliability | Factors Influencing the Business Case for Autonomous Ships | s | Safe Return to Port | Autonomous Shipping and the Future Workplace of Marine Engineers | Seakeeping | Dynamic Windowing Algorithm to Improve Ship Response Prediction in Transitory Conditions | Ship Landing | Survey of Autonomous Drone Hangars – Opportunities and Challenges for Maritime Platforms | short-term prediction | Dynamic Windowing Algorithm to Improve Ship Response Prediction in Transitory Conditions | simulation | Human-Technology Coexistence in the Industry 4.0: The Role of Advanced Simulation Technology in Training | Simulator Evaluation | The AMC Test for Maritime Autonomous Navigation Systems | skills and competency framework | Skills and Competency Framework for Future Autonomous Ship Operators: A Feasibility Study for STCW Code Revision | sociocultural perspective | Social Mindset Restructuring: A Critical Requirement for Implementing Maritime Autonomy | Solar Powered | A Case Study in the Application of Trusted Autonomous Systems (TAS) Australian Code of Practice to the Design, Construction, Survey, and Operation of New Build Autonomous & Remotely Operated Vessels | STCW | Future Shipping Operations and Transitioning Maritime Higher Education: An Activity System Perspective | STCW Code | Skills and Competency Framework for Future Autonomous Ship Operators: A Feasibility Study for STCW Code Revision | t | The Royal Australian Navy | The Role of USVs for the Australian Navy | time series analysis | Dynamic Windowing Algorithm to Improve Ship Response Prediction in Transitory Conditions | training | Human-Technology Coexistence in the Industry 4.0: The Role of Advanced Simulation Technology in Training | u | Unattended engine room | Autonomous Shipping and the Future Workplace of Marine Engineers | USV | The Role of USVs for the Australian Navy |
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