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AUTOSAR Architecture Designer

Design AUTOSAR 4.x architectures with automated component mapping and compliance validation

4.0(32 reviews)
500+ downloads
Updated Nov 2026
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What You Can Do

You can design complete AUTOSAR 4.x system architectures by automating component allocation across abstraction layers, modeling port interactions and service interfaces, and validating compliance with AUTOSAR standards. Claude helps you create standardized architecture documentation, detect circular dependencies and interface mismatches, and generate port interaction matrices—accelerating ECU architecture development while ensuring standards adherence.

Features

Automated component-to-layer allocation

intelligently maps software components across application, RTE, and BSW layers based on functional requirements

Port interaction modeling

defines service interfaces, creates port contracts, and visualizes data flow between components

Circular dependency detection

identifies architectural flaws and interface mismatches before RTE code generation

AUTOSAR compliance validation

checks designs against AUTOSAR 4.x standards and generates remediation recommendations

Port interaction matrices

generates comprehensive communication mapping showing all component-to-component interactions

XML schema recommendations

produces standardized schema guidance for architecture export and tool integration

Dependency graph visualization

creates clear architectural diagrams showing component relationships and layer separation

Architecture review documentation

generates structured materials for team reviews and stakeholder sign-off

Example Output

Example 1: Component Layer Allocation

  • Application Layer: FuelInjectionController, EngineSpeedSensor
  • RTE Layer: FuelInjection_Service, SensorData_Interface
  • BSW Layer: CAN_Driver, PWM_Module
  • Validation: ✓ No circular dependencies, ✓ All interfaces mapped, ⚠ 2 unresolved service calls

Example 2: Port Interaction Matrix

Source ComponentTarget ComponentPort TypeData FlowStatus
EngineControllerFuelPumpRequire-ProvideCyclicData✓ Valid
SensorInterfaceEngineControllerRequire-ProvideEventData✓ Valid
DiagnosticServerEngineControllerClient-ServerDiagRequest✓ Compliant

Example 3: Compliance Report

  • Total Components: 12
  • Layer Distribution: APP (6), RTE (3), BSW (3)
  • AUTOSAR 4.3 Compliance: 98%
  • Critical Issues: 0
  • Warnings: 2 (service timeout not specified, port multiplicity mismatch)

What's Included

  • AUTOSAR-Architecture-Designer SKILL.md: Core instruction file for architecture design workflows
  • Layer Allocation Template: Structured worksheet for mapping components to AUTOSAR layers (APP/RTE/BSW)
  • Port Interaction Framework: Template for defining interfaces, contracts, and data flow relationships
  • Compliance Checklist: AUTOSAR 4.x standards validation checklist with remediation guidance
  • Architecture Documentation Template: Structured outline for generating architecture review materials and dependency graphs

Who It's For

  • Automotive Embedded Software Engineers — designing ECU architectures and system components
  • Systems Architects — planning AUTOSAR layer distribution and component interaction patterns
  • Technical Leads — validating architecture coherence before development and RTE code generation
  • Integration Engineers — documenting port contracts and interface requirements for distributed teams
  • Architecture Reviewers — preparing standardized materials for design reviews and compliance audits

Best For

  • Designing architecture for new ECU features or complete systems
  • Refactoring legacy embedded code into AUTOSAR-compliant structures
  • Validating component interactions and port connections before RTE generation
  • Planning service distribution across application, RTE, and BSW layers
  • Documenting architectural decisions and creating design review materials
  • Analyzing communication patterns to optimize signal routing and interfaces

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