See how simulation, automated design exploration and multidisciplinary optimization can help aerospace teams accelerate complex aircraft development while evaluating radically new propulsion systems, structures and technologies.
Compress engineering timelines: Explore how simulation and testing can help teams develop and mature radically new aircraft technologies within increasingly constrained development schedules.
Explore more designs, earlier: Combine systems engineering, system simulation and multidisciplinary optimization to evaluate more design alternatives and identify potential issues earlier in development.
Connect engineering domains: Bring aerodynamics, structures, propulsion, thermal, mechanical, electrical and other disciplines into integrated workflows that capture interactions across the aircraft.
Automate complex engineering workflows: Use connected data, open interfaces, workflow automation and MDO/MDAO orchestration to link specialized engineering tools and accelerate design studies.
Bridge simulation and physical testing: Create greater continuity between virtual development and experimental testing to validate models, mature technologies and support increasingly complex aircraft programs.
Future aircraft introduce tightly connected challenges across propulsion, energy storage, aerodynamics, structures and operations. Discover how integrated simulation, automation and testing can help engineering teams explore these interactions earlier and move promising concepts toward maturity faster.
Evaluate high-dimensional aircraft concepts using systems engineering, simulation and multidisciplinary optimization to identify better trade-offs earlier.
Use integrated simulation and testing to investigate the structural, thermal and multiphase behavior involved in lightweight hydrogen fuel storage.
Explore interactions between hydrogen technologies, fuel cells, gas turbines, electric drives, batteries and other components across multiple physical domains and scales.
Combine aerodynamic, structural and other domain simulations through connected, automated workflows to capture critical aircraft interactions and optimize across multiple attributes.
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“Aircraft teams are being asked to mature radically different technologies within development windows that traditional engineering methods were not designed to support. Integrated simulation, automated design exploration and multidisciplinary optimization provide a path to evaluating more possibilities while maintaining the physical rigor required for aerospace engineering.”
— Director of Engineering Automation & Practice Lead
