Ship Design Overview

Principles

Definition

Ship design is the multidisciplinary academic and professional field dedicated to the systematic conception, planning, and technical specification of marine vessels. It investigates the complex integration of engineering principles, performance requirements, operational functionality, and regulatory standards to achieve optimal vessel characteristics for a defined purpose.

Ontological type

Design Process Stages

Core Methods

Regulatory Frameworks

Key developments

Key Figures

Computer-Aided Systems Integration era

Owen F. Hughes[1], affiliated with UNSW Sydney[3] and Virginia Tech[4] in this era, authored Ship structural design: A rationally based, computer aided, optimization approach[7]. Hughes[1] introduced a rational, computer-aided optimization framework for Ship structural design: A rationally based, computer aided, optimization approach[7], enabling early-stage tradeoffs among safety, weight, and cost that underpinned reproducible model-based workflows in the era. Kevin Cullinane[2], associated with University of Hong Kong[5] and University of Oxford[6], contributed ECONOMIES OF SCALE IN LARGE CONTAINER SHIPS[8]. Cullinane[2] demonstrated how economies of scale in container ships influence design and operations decisions, informing survivability-oriented lifecycle and cost considerations crucial to this era's integrated approach[8].

CFD Validation and Standardization era

Hironori Yasukawa [1], affiliated with Hiroshima University [3] and Hiroshima University of Economics [4], contributed to the CFD Validation and Standardization era. His key contributions in this era include co-authoring Introduction of MMG standard method for ship maneuvering predictions [6], which established a standardized approach for ship maneuvering predictions and underpinned rigorous validation practices. Yasuo Yoshimura [2], affiliated with Hokkaido University [5], contributed to this era as a co-author on the MMG standard method for ship maneuvering predictions [6]. His participation as co-author of the MMG paper [6] helped advance standardization, cross-code benchmarking, and validation practices essential to embedding CFD into design and regulatory processes.

Hybrid Propulsion and Autonomy era

Jean Charpentier[1] is associated with ParisTech[3] and École Navale[4] during the Hybrid Propulsion and Autonomy era. His key contributions, as reflected in the 2021 paper Hybrid power and propulsion systems for ships: Current status and future challenges[6], synthesize current architectures and outline pathways to decarbonization and flexible operation through modular propulsion and integrated energy-management strategies, which were pivotal for this era. Cengiz Deniz[2] is affiliated with Istanbul Technical University[5] during this era. Deniz's contributions, as evidenced by the same 2021 paper Hybrid power and propulsion systems for ships: Current status and future challenges[6], center on consolidating a cross-domain view of hybrid propulsion architectures and energy-management integration, informing design decisions essential for decarbonization and autonomous operation.