Overall, Simulation Capabilities are essential for handling the multifaceted nature of modern engineering systems, where physical prototypes alone may not suffice. Moreover, complex assemblies often involve multiple subsystems, each with its own set of dynamics, interactions, and performance criteria. Therefore, Simulation offers a way to model these interactions comprehensively, providing insights that are difficult, if not impossible, to obtain through traditional testing methods.

• Design Exploration: Simulation allows for extensive design exploration without the need to physically build every iteration. Consequently, engineers can test various configurations, materials, and parameters in a virtual environment, drastically reducing the time and cost associated with design revisions. Furthermore, this capability is particularly beneficial in the early stages of development, where the impact of design choices on the overall system can be assessed quickly.
• System Behavior Prediction: Predicting how a complex assembly will behave under different conditions is crucial for ensuring reliability and performance. Hence, simulations can model stress, thermal, fluid dynamics, and electromagnetic behaviors, among others, enabling engineers to predict system responses to various operational scenarios.
• Optimization of Integration: By simulating the integration process, engineers can identify potential challenges, such as component misalignments or unexpected interactions, before they occur. In addition, this proactive approach to problem-solving helps in optimizing the integration sequence, reducing the likelihood of costly delays and rework during physical assembly.