The Essential Guide to Requirements Management and Traceability
Chapters
- 1. Requirements Management
- Overview
- 1 What is Requirements Management?
- 2 Why do you need Requirements Management?
- 3 Four Fundamentals of Requirements Management
- 4 Adopting an Agile Approach to Requirements Management
- 5 Status Request Changes
- 6 Conquering the 5 Biggest Challenges of Requirements Management
- 7 Three Reasons You Need a Requirements Management Solution
- 2. Writing Requirements
- Overview
- 1 Functional requirements examples and templates
- 2 Identifying and Measuring Requirements Quality
- 3 How to write system requirement specification (SRS) documents
- 4 The Fundamentals of Business Requirements: Examples of Business Requirements and the Importance of Excellence
- 5 Adopting the EARS Notation to Improve Requirements Engineering
- 6 Jama Connect Advisor™
- 7 Frequently Asked Questions about the EARS Notation and Jama Connect Advisor™
- 8 How to Write an Effective Product Requirements Document (PRD)
- 9 Functional vs. Non-Functional Requirements
- 10 What Are Nonfunctional Requirements and How Do They Impact Product Development?
- 11 Characteristics of Effective Software Requirements and Software Requirements Specifications (SRS)
- 12 8 Do’s and Don’ts for Writing Requirements
- 3. Requirements Gathering and Management Processes
- Overview
- 1 Requirements Engineering
- 2 Requirements Analysis
- 3 A Guide to Requirements Elicitation for Product Teams
- 4 Requirements Gathering Techniques for Agile Product Teams
- 5 What is Requirements Gathering?
- 6 Defining and Implementing a Requirements Baseline
- 7 Managing Project Scope — Why It Matters and Best Practices
- 8 How Long Do Requirements Take?
- 4. Requirements Traceability
- Overview
- 1 What is Traceability?
- 2 Tracing Your Way to Success: The Crucial Role of Traceability in Modern Product and Systems Development
- 3 Change Impact Analysis (CIA): A Short Guide for Effective Implementation
- 4 What is Requirements Traceability and Why Does It Matter for Product Teams?
- 5 Key Traceability Challenges and Tips for Ensuring Accountability and Efficiency
- 6 Unraveling the Digital Thread: Enhancing Connectivity and Efficiency
- 7 The Role of a Data Thread in Product and Software Development
- 8 How to Create and Use a Requirements Traceability Matrix
- 9 Traceability Matrix 101: Why It’s Not the Ultimate Solution for Managing Requirements
- 10 Live Traceability vs. After-the-Fact Traceability
- 11 How to Overcome Organizational Barriers to Live Requirements Traceability
- 12 Requirements Traceability, What Are You Missing?
- 13 Four Best Practices for Requirements Traceability
- 14 Requirements Traceability: Links in the Chain
- 15 What Are the Benefits of End-to-End Traceability During Product Development?
- 5. Requirements Management Tools and Software
- Overview
- 1 Selecting the Right Requirements Management Tools and Software
- 2 Why Investing in Requirements Management Software Makes Business Sense During an Economic Downturn
- 3 Why Word and Excel Alone is Not Enough for Product, Software, and Systems Development
- 4 Application lifecycle management (ALM)
- 5 Is There Life After DOORS®?
- 6 Checklist: Selecting a Requirements Management Tool
- 6. Requirements Validation and Verification
- 7. Meeting Regulatory Compliance and Industry Standards
- Overview
- 1 Understanding ISO Standards
- 2 Understanding ISO/IEC 27001: A Guide to Information Security Management
- 3 What is DevSecOps? A Guide to Building Secure Software
- 4 Compliance Management
- 5 What is FMEA? Failure Modes and Effects Analysis
- 6 TÜV SÜD: Ensuring Safety, Quality, and Sustainability Worldwide
- 8. Systems Engineering
- 9. Automotive Development
- 10. Medical Device & Life Sciences Development
- Overview
- 1 The Importance of Benefit-Risk Analysis in Medical Device Development
- 2 Software as a Medical Device: Revolutionizing Healthcare
- 3 What’s a Design History File, and How Are DHFs Used by Product Teams?
- 4 Navigating the Risks of Software of Unknown Pedigree (SOUP) in the Medical Device & Life Sciences Industry
- 5 What is ISO 13485? Your Comprehensive Guide to Compliant Medical Device Manufacturing
- 6 What You Need to Know: ANSI/AAMI SW96:2023 — Medical Device Security
- 7 ISO 13485 vs ISO 9001: Understanding the Differences and Synergies
- 8 Failure Modes, Effects, and Diagnostic Analysis (FMEDA) for Medical Devices: What You Need to Know
- 9 Embracing the Future of Healthcare: Exploring the Internet of Medical Things (IoMT)
- 11. Aerospace & Defense Development
- 12. Architecture, Engineering, and Construction (AEC industry) Development
- 13. Industrial Manufacturing & Machinery, Automation & Robotics, Consumer Electronics, and Energy
- 14. Semiconductor Development
- Glossary
Chapter 14: Integrating Digital Engineering and the Digital Thread for Semiconductor Design
Chapters
- 1. Requirements Management
- Overview
- 1 What is Requirements Management?
- 2 Why do you need Requirements Management?
- 3 Four Fundamentals of Requirements Management
- 4 Adopting an Agile Approach to Requirements Management
- 5 Status Request Changes
- 6 Conquering the 5 Biggest Challenges of Requirements Management
- 7 Three Reasons You Need a Requirements Management Solution
- 2. Writing Requirements
- Overview
- 1 Functional requirements examples and templates
- 2 Identifying and Measuring Requirements Quality
- 3 How to write system requirement specification (SRS) documents
- 4 The Fundamentals of Business Requirements: Examples of Business Requirements and the Importance of Excellence
- 5 Adopting the EARS Notation to Improve Requirements Engineering
- 6 Jama Connect Advisor™
- 7 Frequently Asked Questions about the EARS Notation and Jama Connect Advisor™
- 8 How to Write an Effective Product Requirements Document (PRD)
- 9 Functional vs. Non-Functional Requirements
- 10 What Are Nonfunctional Requirements and How Do They Impact Product Development?
- 11 Characteristics of Effective Software Requirements and Software Requirements Specifications (SRS)
- 12 8 Do’s and Don’ts for Writing Requirements
- 3. Requirements Gathering and Management Processes
- Overview
- 1 Requirements Engineering
- 2 Requirements Analysis
- 3 A Guide to Requirements Elicitation for Product Teams
- 4 Requirements Gathering Techniques for Agile Product Teams
- 5 What is Requirements Gathering?
- 6 Defining and Implementing a Requirements Baseline
- 7 Managing Project Scope — Why It Matters and Best Practices
- 8 How Long Do Requirements Take?
- 4. Requirements Traceability
- Overview
- 1 What is Traceability?
- 2 Tracing Your Way to Success: The Crucial Role of Traceability in Modern Product and Systems Development
- 3 Change Impact Analysis (CIA): A Short Guide for Effective Implementation
- 4 What is Requirements Traceability and Why Does It Matter for Product Teams?
- 5 Key Traceability Challenges and Tips for Ensuring Accountability and Efficiency
- 6 Unraveling the Digital Thread: Enhancing Connectivity and Efficiency
- 7 The Role of a Data Thread in Product and Software Development
- 8 How to Create and Use a Requirements Traceability Matrix
- 9 Traceability Matrix 101: Why It’s Not the Ultimate Solution for Managing Requirements
- 10 Live Traceability vs. After-the-Fact Traceability
- 11 How to Overcome Organizational Barriers to Live Requirements Traceability
- 12 Requirements Traceability, What Are You Missing?
- 13 Four Best Practices for Requirements Traceability
- 14 Requirements Traceability: Links in the Chain
- 15 What Are the Benefits of End-to-End Traceability During Product Development?
- 5. Requirements Management Tools and Software
- Overview
- 1 Selecting the Right Requirements Management Tools and Software
- 2 Why Investing in Requirements Management Software Makes Business Sense During an Economic Downturn
- 3 Why Word and Excel Alone is Not Enough for Product, Software, and Systems Development
- 4 Application lifecycle management (ALM)
- 5 Is There Life After DOORS®?
- 6 Checklist: Selecting a Requirements Management Tool
- 6. Requirements Validation and Verification
- 7. Meeting Regulatory Compliance and Industry Standards
- Overview
- 1 Understanding ISO Standards
- 2 Understanding ISO/IEC 27001: A Guide to Information Security Management
- 3 What is DevSecOps? A Guide to Building Secure Software
- 4 Compliance Management
- 5 What is FMEA? Failure Modes and Effects Analysis
- 6 TÜV SÜD: Ensuring Safety, Quality, and Sustainability Worldwide
- 8. Systems Engineering
- 9. Automotive Development
- 10. Medical Device & Life Sciences Development
- Overview
- 1 The Importance of Benefit-Risk Analysis in Medical Device Development
- 2 Software as a Medical Device: Revolutionizing Healthcare
- 3 What’s a Design History File, and How Are DHFs Used by Product Teams?
- 4 Navigating the Risks of Software of Unknown Pedigree (SOUP) in the Medical Device & Life Sciences Industry
- 5 What is ISO 13485? Your Comprehensive Guide to Compliant Medical Device Manufacturing
- 6 What You Need to Know: ANSI/AAMI SW96:2023 — Medical Device Security
- 7 ISO 13485 vs ISO 9001: Understanding the Differences and Synergies
- 8 Failure Modes, Effects, and Diagnostic Analysis (FMEDA) for Medical Devices: What You Need to Know
- 9 Embracing the Future of Healthcare: Exploring the Internet of Medical Things (IoMT)
- 11. Aerospace & Defense Development
- 12. Architecture, Engineering, and Construction (AEC industry) Development
- 13. Industrial Manufacturing & Machinery, Automation & Robotics, Consumer Electronics, and Energy
- 14. Semiconductor Development
- Glossary
Integrating Digital Engineering and the Digital Thread for Semiconductor Design
In Marc Osofsky’s original post, “What is the Definition of a Digital Thread?”, he introduced Singh and Willcox from MIT’s definition of a Digital Thread and broke down each component of their definition. Building on that foundation, this post explores the application of the digital thread within semiconductor design — a field where the stakes are high and the need for integration has not only emerged as a strategic differentiator; but well… a requirement.
The semiconductor industry is at another crossroads, again. As Integrated Circuits (ICs) become increasingly advanced, the design process continues to grow more complex. Engineers and product teams wrestle with challenges ranging from ensuring power efficiency, manufacturability, meeting time-to-market demands, integrating diverse IP blocks, and adhering to stringent functional safety and cybersecurity standards. Within these challenges lie opportunities for those who adapt and innovate.
The Digital Thread: Connecting the Design Lifecycle
One of the most pressing issues facing semiconductor companies today is how to architect and deploy seamless software integration across the entire design lifecycle. Best-in-breed software tools are common within certain pockets of the IC development flow. The EDA titans do a great job on the front end of the design cycle and help their users create a firm handshake between a designer and their foundry and fabrication partners. However, end-to-end integration across the entire product development lifecycle continues to be highly sought after, but oftentimes difficult to obtain.
From initial requirements through design, simulation, verification, post-silicon validation, and production – the concept of the digital thread ensures that both internal and external stakeholders have access to a single source of truth for design and test information.
The Role of EDA in Chip Design
Electronic Design Automation (EDA) tools are essential for managing the growing complexity of semiconductor design. They enable designers to automate time-consuming and error-prone tasks involved in chip design, such as synthesis, verification, and physical design.
When EDA tools become integrated with the digital thread, it unlocks the capability for front-end design data to flow seamlessly with the middle and latter stages of development; from concept to final tape-out. This EDA tool/digital thread integration not only improves efficiency but also enhances collaboration between different teams, reduces the likelihood of design errors leading to costly response, and ensures that ICs are ready for production faster.
The digital thread helps semiconductor teams manage the increasing complexity of chip design by providing a holistic view of the entire product lifecycle. Advanced process nodes introduce new constraints, including challenges related to thermal management, signal integrity, and power consumption. Design houses must manage these competing priorities with a robust design process while trying to ensure that nothing falls through the cracks. Even with the best processes and prioritization methods from the leading fabless chip designers and Integrated Device Manufacturers – there are often gaps.
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The Role of Digital Engineering
Digital engineering is more than just adopting new software tools — it’s a cultural shift towards integrated, model-based approaches that ensure stakeholders across the product lifecycle have constant access to the information they need. The digital thread and a “single source of truth” are at the core of this transformation, providing continuous connectivity that bridges requirements throughout design, verification, and validation. Designers adopting these approaches are finding they can pivot more easily to implement design changes and minimize rework, resulting in measurable cost savings and faster development cycles.
Managing Requirements Effectively
Requirements management has become a critical success factor in semiconductor design. As designs grow more complex, so do the needs and specifications they must meet. A robust requirements management solution, integrated into the digital thread, helps ensure every requirement is tracked from conception through to production, allowing engineers to maintain clear visibility into design intent. Moving away from spreadsheets and adopting requirements management tools that are purpose-built for the semiconductor industry reduces errors, streamlines collaboration, and enables folks to produce better products.
Opportunities in a Shifting Landscape
Semiconductor design is a dog-eat-dog world and not for the faint of heart. Technological advancements — such as the adoption of AI in design automation, the exploration of new materials, and advanced packaging techniques — are opening new frontiers. But capitalizing on these advancements requires strong foundations: an emphasis on effective communication, adaptable tools, and a focus on managing complexity holistically.
The digital thread concept is dual purpose and conveniently provides organizations with the foundation needed to monetize tangential opportunities around generative AI, data lake and delta lake development, and agential model development for IC design and manufacturing. Pairing digital engineering and digital thread concepts with a modern requirements management system will not only alleviate many current challenges – but it also builds resilience for future innovations and will help identify and capture currently unrealized revenue streams.
The Bottom Line
The semiconductor industry is evolving rapidly. Those who embrace new methodologies and tools with end-to-end capabilities are well-positioned to succeed. Adopting a digital engineering approach that marries the concept of a digital thread with a formal requirements management platform is likely a key focus area for your competition. If it isn’t yet a key focus area or cornerstone of your organization, check out www.jamasoftware.com and contact us today for a no-cost consultation with our experts.
In this Video, Learn How To Manage Cybersecurity in Jama Connect® for Automotive & Semiconductor
A Digital Thread is a data-driven architecture that links together information generated from across the product lifecycle and is envisioned to be the primary or authoritative data and communication platform for a company’s products at any instance of time.
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