Energy engineering teams face a difficult challenge: develop increasingly complex equipment and systems faster and at lower cost—without compromising performance, reliability, or safety.
Traditional engineering approaches often depend heavily on physical prototypes, testing, and experience-based design. While these methods remain important, they can limit the number of concepts and operating conditions engineers can evaluate before committing to a design.
This eBook explores how multidisciplinary engineering simulation and design exploration can help engineers evaluate complex real-world behavior digitally, compare more design alternatives, and identify potential problems earlier in the development process.
Using multiphysics simulation, engineering teams can investigate fluid flow, heat transfer, structural interaction, multiphase behavior, and other complex physics while using automated design exploration to identify better-performing designs faster.
Learn how multidisciplinary simulation can help engineering teams:
- Explore more design alternatives before committing to expensive physical prototypes
- Predict product and system performance under complex real-world operating conditions
- Combine multiple physics—including fluid flow, heat transfer and fluid-structure interaction—to better understand system behavior
- Identify potential performance, reliability and safety issues earlier in the design cycle
- Optimize equipment and system designs across multiple operating conditions
- Reduce dependence on costly and time-consuming physical testing
- Accelerate engineering development while reducing design costs
- Use simulation-driven design exploration to develop more innovative and optimized solutions
The eBook also provides real-world applications across subsea systems, offshore structures, flow assurance, process equipment and technical safety, demonstrating how simulation can be applied to challenging engineering problems.
Download the eBook
Discover how multidisciplinary simulation and design exploration can help engineering teams evaluate more possibilities, understand product performance earlier, reduce physical testing, and develop better-performing designs faster and with greater confidence.
