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MBSE for Electrical and Electronic Design

As companies transform and adopt Digital Engineering practices to improve product development processes, Zuken is also transforming.  With the acquisition of Vitech Corporation, an industry leader in  Model-Based System Engineering technology, Zuken can now combine detailed design with model-based design.

Benefits of Digital Engineering

Increased Confidence

Design data and decisions are traceable providing history and documented variance to plan. Minimize risk

Better Understanding

The model-based design offers multi-discipline requirements, behavior, and architecture defined in a single source of truth

Informed Decisions

Through communication tools, conversations can be associated with technical data packages for signoff and traceability.

Better Communications

A key function of the Digital Thread is to enhance communication through online conversations spanning internal and external organizations.

Digital Engineering Process

The Digital Transformation is being embraced by companies around the globe with the expectation of improving product development.  Zuken’s mission is to deliver on that expectation with a Digital Engineering design process for electrical and electronic subsystems.

Digital Engineering Fundamentals

Model-Based Design

Digital Engineering begins with the construction of a product model by the Systems Engineering team. The model is comprised of architecture, requirements, and behaviors creating a design envelope for the electrical and electronic components of the product.

3D Detailed Design

A major obstacle to model-based design is making the model relevant throughout the product lifecycle. The electrical and electronic design tools need to import the model architecture and expose the requirements to the detailed design team.

Digital Thread

Maintaining a robust digital engineering design process requires a digital thread to capture digital conversations for traceability. The digital conversation can span internal and external organizations and involve procurement, vendors, design, manufacturing and field service.

Model Relevance Through The Product Life Cycle

The model must remain relevant throughout the product life cycle. This is one of today’s biggest challenges. The model typically becomes a Systems Engineering artifact and has limited use through the development and manufacturing process.  A Digital Engineering process keeps the model relevant through the product life cycle providing ROI benefit.

Zuken Digital Engineering for Electrical Design

MBSE transition to detailed design

Creating The Design Envelope

The system-level model is decomposed into electrical and electronic subsystems for implementation.  Each subsystem is composed of sensors, ECU’s, interconnects, etc.  Each of these design elements must be defined in terms of a design envelope which provides the design teams with the implementation parameters.  Verification requirements are made against the design envelope to assure that the implementation fulfills the intent of the model.

Design Verification Gates

The model-based design has verification gates to ensure that the implementation reflects the model definition.  The verification gates are comprised of design reviews, trade-offs, changes and ultimately approval.  The digital conversations behind those activities and approvals become part of the digital thread. Verification gates are placed at critical design phases that include architecture, design, first article, and subsystem.  Each gate requires a status update in the model.

Digital Engineering for Electrical Design

Anark digital thread communication

Digital Thread Communication

Digital Engineering requires a digital communication mechanism to replace paper trails and documentation.  A robust digital thread implementation provides a browser-based communication built on activities, conversations, groups, and data.  All digital activity that can span the product life cycle is captured and can provide traceability.

Digital Engineering eBook

This eBook describes an MBSE based process for Electrical and Electronic design. The eBook begins with model content and structure with the purpose of implementation and the need for a “design envelope”.

The biggest challenge in MBSE gaining broad adoption is making the model relevant through the product life cycle. Learn how you can overcome this daunting hurdle while maintaining the model as the single source of truth.

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Digital Engineering Process

Model Based Design

The process is based on a model built upon relationships. The model replaces a document-based design. The model is typically created by the Systems Engineering team who converts system purpose into structure, behavior, and requirements.  The model is considered the single source of truth.

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Model Relevancy

The model must remain relevant throughout the product life cycle. This is one of today’s biggest challenges. The model typically becomes a Systems Engineering artifact and has limited use through the development and manufacturing process.  A Digital Engineering process keeps the model relevant through the product life cycle and operates as a single source of truth.

Model Decomposition

For the purpose of realizing the model in the electrical and electronic domains, the model must be decomposed into E/E subsystems. These subsystems are further decomposed into functional elements as Electronic Control Units (ECU), sensors, busses, and connections.

Model Creation and Content

Realizing the model in the electrical and electronic domain requires a logical structure of design elements with the associated behavior and requirements. Model creation can be done with Vitech’s GENESYS product with the appropriate guidelines for model content.  For instance, the model does not typically contain specific component identification such as part numbers.

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Design Envelope

When the design transitions from System Engineering to the implementation team, a design envelope must be clearly defined. The design team then knows what are the acceptable parameters in terms of cost, weight, size, power, etc.

Architecture Verification

Architecture verification is a design step prior to a detailed design where a partial detailed design is used to verify model requirements that can be met at high confidence. If a requirement can not be met at this phase, Systems Engineering must alter the model in the context of the entire system to enable a realizable implementation of the mode.

Transitioning to Detailed Design

Once the design is verified at the architecture level meaning the verification requirements are met with high confidence, the design can move to detailed design. At this point domain-specific electronic and electrical design practices and tools are used to design a manufacturable product.  Learn more about transitioning to electrical design.

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Design Verification Gates

The model must remain relevant through the product development process. This is accomplished through verification gates which are comprised of a set of verification requirements. The design can not proceed to the next development phase until the gate requirements are satisfied.  This ensures the product is consistent with the model.

Model Verification Status

As the design moves through each verification gate, the model must be updated to reflect the verification requirement status. This allows Systems Engineering to monitor the design progress in terms of meeting verification requirements. As the design progresses through the implementation process, Systems Engineering has a window into its model consistency.

Digital Thread

Throughout the Digital Engineering process, discussions that lead to decisions must be recorded and retained for traceability. The Digital Thread provides the mechanism to hold those critical digital conversations.

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Resources

  • 2020 Technical Webinars
November 30, 2020
Schema and Metamodels and Ontologies, Oh My!
2020 Technical Webinars, Vitech, Zuken USA
  • Blog
November 23, 2020
Can the Digital Engineering Process Protect Your Product from a Lightning Strike?
Digital Engineering, e3-series, Electrical & Wire Harness, Digital Engineering, Digital Thread, Digital Transformation, E3.series, MBSE, Blog
  • Press Release
November 19, 2020
Zuken and Electro Magnetic Applications Collaborate on Cable Harness Design and EMI Reduction

Zuken and EMA have entered into a partnership to improve the accuracy of cable harness simulation models for complex electrical subsystems in aircraft and vehicles. The recent collaboration enables design teams to assess, simulate, and validate electrical and electronic designs before they reach manufacturing by bringing critical detailed design information to the analysis process.

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Zuken and EMA have entered into a partnership to improve the accuracy of cable harness simulation models for complex electrical subsystems in aircraft...
  • Press Release
November 04, 2020
Vitech’s GENESYS 2020 R2 Brings Enhanced Diagramming Capability for Model-Based Systems Engineering

Vitech has announced the release of GENESYS™ 2020 R2, the latest version of its model-based systems engineering development platform. This release builds on its diagramming capability, making it best-in-class combining autogeneration of diagrams with zero maintenance and rich formatting.

Read now
November 3, 2020 — BLACKSBURG, Va. — Vitech has announced the release of GENESYS™ 2020 R2, the latest version of its model-based systems enginee...

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