Certified Safety-Critical C++ Developer (CSCCD)

Certified Safety-Critical C++ Developer (CSCCD) Covers the standards for C++ Programming and Coding Standards for Safety-Critical Systems. CSCCS focuses on best practices for using C++ in safety-critical systems, where reliability and safety are paramount. Participants will learn about coding standards, best practices, and methodologies tailored to safety-critical applications to ensure that software systems are robust, reliable, and meet stringent safety requirements.

 Learning Objectives:

• Understand Safety-Critical Systems: Gain insight into the specific requirements and challenges associated with safety-critical systems.
• Implement C++ Coding Standards: Learn and apply coding standards that enhance the safety and reliability of C++ programs.
• Apply Best Practices: Utilize best practices for coding, testing, and maintaining safety-critical systems in C++.
• Use Tools and Techniques: Implement tools and techniques for ensuring compliance with safety standards and improving code quality.
• Prepare for Certification: Understand the process for obtaining safety certifications and maintaining compliance.

Audience:

Software engineers, system developers, safety engineers, and quality assurance professionals working on safety-critical systems in industries such as aerospace, automotive, and medical devices.

Program Modules:

Day 1: C++ Programming Standards for Safety-Critical Systems

Session 1: Introduction to Safety-Critical Systems

• Definition and Characteristics
• Importance of Coding Standards in Safety-Critical Systems
• Overview of Safety Standards (e.g., ISO 26262, DO-178C)

Session 2: C++ Coding Standards

• Overview of C++ Standards (e.g., C++11, C++14, C++17, C++20)
• Safe Programming Practices in C++
• Handling Undefined Behavior and Exceptions
• Memory Management and Resource Handling

Session 3: Safety-Critical Coding Practices

• Adhering to MISRA C++ Guidelines
• Static and Dynamic Analysis Tools
• Code Reviews and Inspections

Session 4: Best Practices for Reliability and Maintainability

• Design Patterns for Safety-Critical Systems
• Modular and Structured Programming
• Testing and Verification Techniques

Session 5: Case Studies and Group Exercises

• Review of Real-World Safety-Critical Systems
• Interactive Group Discussions and Problem Solving

Day 2: Advanced Topics and Application

Session 6: Advanced C++ Features and Safety

• Using Templates and Meta-programming Safely
• Concurrency and Multi-threading Considerations
• Handling Real-Time Constraints

Session 7: Safety-Critical System Development Lifecycle

• Integration of Safety-Critical Standards into the Development Lifecycle
• Documentation and Traceability
• Configuration Management

Session 8: Tools and Techniques for Ensuring Compliance

• Automated Static Code Analysis
• Unit Testing and Coverage Analysis
• Safety Certification and Audits

Session 9: Interactive Workshop and Q&A

• Hands-On Coding Exercises
• Q&A Session with Industry Experts
• Final Review and Takeaways

Certification:

Upon successful completion of the workshop, participants will receive a Certified Safety-Critical C++ Developer (CSCCD) certificate, demonstrating their expertise in applying C++ programming and coding standards to safety-critical systems.

 Materials Provided:

• Workshop Handbook
• Coding Standards Documentation
• Access to Relevant Tools and Templates
• Coding Exercises and Case Studies
• Certification Exam

Certified Safety-Critical C++ Developer (CSCCD) Exam

Exam Overview: The Certified Safety-Critical C++ Developer (CSCCD) exam assesses participants’ understanding and application of C++ programming standards and best practices specific to safety-critical systems. The exam covers a range of topics, including coding standards, safety practices, and system lifecycle considerations.

Exam Duration: 2 Hours

Format:

• Multiple Choice Questions (MCQs)
• True/False Questions
• Code Analysis Questions
• Scenario-Based Questions

Exam Domains and Question Types

Domain 1: Safety-Critical Systems Overview

• Topics Covered:
  • Definition and Characteristics
  • Safety Standards (ISO 26262, DO-178C)
  • Importance of Coding Standards
• Question Types:
  • Multiple Choice: Define the key characteristics of safety-critical systems.
  • True/False: Evaluate statements about safety standards and their relevance.
  • Scenario-Based: Determine the appropriate coding practices based on system safety requirements.

Domain 2: C++ Coding Standards

• Topics Covered:
  • C++ Language Features (C++11, C++14, C++17, C++20)
  • Safe Programming Practices
  • Memory Management
  • Exception Handling
• Question Types:
  • Multiple Choice: Identify correct practices for managing memory and exceptions in C++.
  • Code Analysis: Analyze code snippets for compliance with C++ standards and identify potential issues.
  • Scenario-Based: Apply coding standards to resolve specific coding problems.

Domain 3: Safety-Critical Coding Practices

• Topics Covered:
  • MISRA C++ Guidelines
  • Static and Dynamic Analysis
  • Code Reviews
• Question Types:
  • Multiple Choice: Select appropriate coding practices from MISRA C++ guidelines.
  • True/False: Determine the correctness of practices related to static and dynamic analysis.
  • Code Analysis: Evaluate code for adherence to safety-critical coding practices.

Domain 4: Best Practices for Reliability and Maintainability

• Topics Covered:
  • Design Patterns
  • Modular Programming
  • Testing and Verification
• Question Types:
  • Multiple Choice: Choose design patterns suitable for safety-critical systems.
  • Scenario-Based: Apply best practices to ensure reliability and maintainability in specific cases.
  • Code Analysis: Identify issues in code related to modularity and reliability.

Domain 5: Advanced C++ Features and Safety

• Topics Covered:
  • Templates and Meta-programming
  • Concurrency and Multi-threading
  • Real-Time Constraints
• Question Types:
  • Multiple Choice: Assess the safe use of advanced C++ features such as templates and concurrency.
  • True/False: Determine the implications of using specific advanced C++ features in safety-critical systems.
  • Scenario-Based: Resolve problems related to real-time constraints and multi-threading.

Domain 6: Safety-Critical System Development Lifecycle

• Topics Covered:
  • Integration of Standards
  • Documentation and Traceability
  • Configuration Management
• Question Types:
  • Multiple Choice: Identify best practices for integrating safety standards into the development lifecycle.
  • True/False: Evaluate the correctness of statements about documentation and traceability.
  • Scenario-Based: Apply lifecycle management principles to ensure safety and compliance.

Sample Questions:

1. Multiple Choice:
   • What is the primary purpose of the MISRA C++ guidelines?
     • A) Improve code readability
     • B) Ensure safety and reliability
     • C) Simplify code syntax
     • D) Enhance performance

2. True/False:
   • True or False: Dynamic memory allocation is generally avoided in safety-critical systems due to potential runtime errors.
3. Code Analysis:
   • Review the following code snippet for compliance with C++ safety standards and identify any potential issues:

void foo() {

int* p = new int[10];

// Code omitted

delete p;

}

4. Scenario-Based:
   • Given a system with real-time constraints and multi-threaded operations, describe how you would ensure that your C++ code adheres to safety-critical standards.