Increasingly stringent emission standards and regulations are forcing improvement in all aspects of ship performance. Successfully achieving performance targets requires innovative designs to be effectively delivered in short time frames. Our solutions enable you to examine almost every aspect of ship design and meet and exceed required design standards.
Increasingly stringent emission standards and regulations are forcing improvement in all aspects of ship performance. Successfully achieving performance targets requires innovative designs to be effectively delivered in short time frames. Our solutions enable you to examine almost every aspect of ship design and meet and exceed required design standards.
The marine industry faces a number of major challenges including new regulations aimed at reducing environmental footprint, an over-supplied market leading to low margins and tight competition, and design methods that are no longer fit for purpose, making rapid innovation difficult to achieve. Overcoming the latter is vital to success in the other challenges.
Developing the next generation of ships and improving the efficiency of the existing fleet requires an integrated approach to design. Traditional design-test-build methodologies are expensive, time-consuming, and fail to predict accurately how the complete vessel and its systems will behave under real-world operating conditions. Naval architects need to deliver large efficiency improvements in short time frames, which cannot be realized with existing design methodologies.
Innovative companies are using simulation-driven design methods to rapidly test multiple options and explore the complete vessel operating space. We help you achieve your design goals faster by providing an unparalleled portfolio of solutions for predictive engineering analytics: the application of multidisciplinary simulation, supported by testing and benchmarking, combined with intelligent reporting and data analytics. Our solutions include software, physical testing, and engineering services, enabling you to meet and exceed efficiency requirements. Use these solutions as part of your complete product lifecycle management system.
Explore the key areas of this solution.
Examine propulsion system performance from propeller in isolation to sub-systems to full system performance.
Reduce superstructure drag and ensure passenger comfort and safety by simulating aerodynamic interaction with our flexible multiphysics solutions.
Improve engine design and fuel consumption, noise and vibration for onboard machinery, and complete system and subsystem integration.
Simulate and optimize vessel performance at full scale under real operation conditions, including self-propulsion in a sea state to ensure safe and efficient performance.
Deliver stronger and more durable designs by predicting fatigue life and structural integrity, and acquiring and analyzing noise and vibration data.
Analyze system performance and controls early in the design process, from multi-systems architecture to systems and components design and integration.
Learn how co-simulation can predict ship emissions and required engine power
Utiliser l'automatisation des processus et l'exploration intelligente de l'espace pour atteindre les objectifs de conception des navires
Le jumeau numérique est-il en train de devenir une réalité pour la conception des navires ? Quel est son impact sur les conceptions ?
Guest Speaker: Claudio Cairoli, American Bureau of Shipping
On-Demand Webinar
This webinar introduces the use of system simulation for ship internal combustion engine design. Learn how 1D simulation is used to frontload ship main engine designs. This means you can understand marine engine performance, consider complex systems, and assess alternative fuel types and configurations from your early planning stages.
