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Systems engineering

What is Systems Engineering?

Systems engineering primarily focuses on defining requirements, controlling risks, and providing structure and technical coordination for multidisciplinary project teams. This ensures that all aspects of a system are considered and integrated from the very beginning, leading to more efficient and effective solutions, reduced costs, and improved overall system performance.

The methodology emphasizes the importance of understanding the entire system rather than focusing on individual components. By adopting a holistic view, systems engineers can identify potential issues early in the development process and ensure that the final product is reliable, efficient, and adaptable.

The role of systems engineering

Systems engineering ensures that complex systems are designed, integrated, and managed effectively. It originated in industries such as aerospace and defense, where the development of highly complex products required precise requirement fulfillment. Systems engineers translate these requirements into systems models that guide software development and hardware integration.

It’s central to the management of multidisciplinary interdependencies within complex product development projects. By adopting a systems-level approach, engineering teams can ensure that all components (mechanical, electrical, and software) work harmoniously together. This approach not only optimizes resources but also aligns solutions with stakeholder needs, promoting innovation and adaptability.

What does systems engineering involve?

Through structured processes that span from requirement definition to verification and validation, systems engineering integrates technical, human, and organizational elements to create reliable, efficient, and sustainable systems.

  • Risk management: Identification, assessment, and minimization of potential risks of a system throughout its life cycle.
  • Requirements: Analyze, define, validate, and manage functional and non-functional requirements and constraints.
  • Human factor: Analysis of physical, cognitive, social and organizational human interactions in systems.
  • Software: Design, development, testing, and maintenance of software components and systems within larger systems.
  • Project management: Implementation of projects from start to finish, including planning, organization, coordination, management, and control of activities and resources.
  • Integration: Combining different subsystems, assignment of requirements, interface definition, testing, and verification.
  • Verification and validation: Simulating, evaluating and analyzing systems and components to ensure that they meet the requirements of the system and the actors involved.
  • Hardware: Design, development, testing, and maintenance of physical components and systems within larger systems.

 

What are the benefits of systems engineering?

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Increase system and product outcomes

By simulating system behavior under various conditions, systems engineering helps optimize designs for enhanced performance and reliability. This ensures that final products meet both technical specifications and user expectations.

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Reduce design lead time

With early identification of issues through modeling, systems engineering minimizes the need for design changes later in the process. Streamline the development process using integrated models and simulations to reduce the time required to bring a product from concept to production.

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Enhance reliability

Higher product quality and reliability lead to fewer warranty claims from customers, which can significantly reduce after-sales costs for manufacturers. Ensure that all components are tested thoroughly before integration, resulting in more reliable products that perform consistently over time.

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Improve risk management

Higher product quality and reliability lead to fewer warranty claims from customers, which can significantly reduce after-sales costs for manufacturers. Ensure that all components are tested thoroughly before integration, resulting in more reliable products that perform consistently over time.

What’s the best way to get started with systems engineering?

Implementing systems engineering within an organization requires a structured approach that begins with defining clear objectives and selecting appropriate tools for systems modeling and simulation.

Gather input from all stakeholders (engineers, business leaders, and end-users) to define what the system needs to achieve. These requirements should be clear, measurable, and aligned with business objectives.

Create an overarching architecture that outlines how different subsystems will interact with each other. This architecture serves as a blueprint for detailed design activities later in the process.

Create digital models of each subsystem along with simulations that predict how they will perform under various conditions. This allows teams to test different configurations without building physical prototypes.

After subsystems have been designed individually, they are integrated into a complete system model, where interactions between components can be tested thoroughly before moving into production.

Need help with Systems engineering?

Alessandro Picarelli and team are on-hand to provide tailored guidance and support with a deep knowledge of the full Dassault Systèmes portfolio. Reach out for a free consultation today.

alessandro picarelli technia engineering director mbse and systems engineering

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