click to reveal definition
click to flip back
You know 0 of 32 cards in current set.
Ready to get certified?
Get CertifiedNeed this expertise applied inside your organization?
Explore Our ServicesFull Glossary
Foundations
- SAFe for Hardware
- A course that enables organizations to integrate SAFe principles into hardware development, bridging traditional engineering processes and modern Lean-Agile methods for hardware-reliant solutions.
- Hardware-Reliant Solutions
- Solutions where physical hardware (mechanical, electrical, embedded) is central, creating unique challenges — long lead times, high change cost, and physical constraints — for adopting Agile.
- The Traditional-to-Agile Gap
- The gap between traditional sequential engineering processes and Lean-Agile methods, which SAFe for Hardware is designed to bridge with practical strategies.
- Thriving in the Digital Age
- Recognizing that even hardware organizations must respond faster to change and feedback, applying Lean-Agile thinking to stay competitive.
- Lean-Agile and SAFe Foundation
- The Lean-Agile mindset, values, and SAFe principles that provide the foundation for applying agility to hardware development.
- Why SAFe for Hardware
- It offers practical, immediately implementable strategies tailored to hardware, driving faster results and smoother workflows beyond theory.
Benefits
- Accelerating Development Cycles
- Speeding up learning and delivery to reduce time-to-market, even for hardware, by working iteratively and integrating frequently.
- Rapid Feedback
- Quickly gathering and responding to technical, market, and user feedback to refine products and processes and reduce the cost of late discovery.
- Enhanced Flexibility
- Adapting quickly and efficiently to change so teams can pivot when technical or market conditions shift.
- Improved Collaboration
- Strengthening teamwork and communication between engineers and stakeholders for more effective, integrated workflows.
- Proactive Risk Management
- Detecting and mitigating risks early, which saves money and improves efficiency compared to discovering problems late in hardware development.
- Continuous Compliance
- Integrating compliance into development continuously so regulatory and quality requirements are met without slowing progress.
- Supplier Integration
- Aligning suppliers with Agile workflows for better coordination and delivery across the supply chain.
Designing for Change
- Designing for Change
- Architecting hardware solutions and processes to accommodate change economically, using modularity and preserved options rather than locking in early decisions.
- Set-Based Design
- Exploring multiple design options in parallel and narrowing them using data and learning, leading to better outcomes than committing early to a single point solution.
- Modular Architecture
- Designing hardware in modular, loosely coupled units so changes and integration can happen with less disruption and cost.
- Preserving Options
- Keeping design and requirement options open as long as economically feasible to reduce risk in the face of uncertainty.
Incremental Delivery
- Specifying the Solution Incrementally
- Defining requirements and specifications progressively as understanding grows, rather than fully specifying everything up front.
- Solution Intent
- The evolving source of truth for hardware solution requirements and designs, capturing both fixed and variable specifications as they mature.
- Multiple Horizons of Planning
- Planning across different time horizons — near-term detail and longer-term direction — to manage long hardware lead times while staying adaptive.
- Cadence and Synchronization
- Using a regular development cadence and synchronization points to coordinate hardware, software, and suppliers and to integrate frequently.
Integration
- Frequently Integrating the End-to-End Solution
- Integrating hardware, software, and subsystems often to validate the whole solution early and reduce late, expensive integration surprises.
- Integration Points
- Planned moments where components are brought together and evaluated, providing objective evidence of progress and reducing risk.
- Reducing Cost of Late Integration
- Frequent integration catches interface and design problems early, when they are far cheaper to fix than at the end of a hardware program.
- Model-Based Systems Engineering
- Using models to specify, integrate, and validate complex hardware solutions, improving communication and reducing rework.
Compliance & Supply Chain
- Continually Addressing Compliance
- Building compliance activities into the flow of work continuously so regulatory and safety requirements are satisfied without a late, costly compliance phase.
- Lean Quality Management
- Integrating quality and compliance practices into development so evidence is produced as work proceeds, supporting continuous compliance.
- Managing the Supply Chain
- Coordinating suppliers within Agile workflows — aligning cadence, visibility, and integration — so external partners support flow rather than block it.
- Supplier Cadence Alignment
- Synchronizing supplier deliveries and feedback with the program's cadence to reduce delays and improve end-to-end integration.
Evolving & Leading
- Evolving Deployed Solutions
- Continuing to improve and adapt hardware solutions after deployment, supporting updates, maintenance, and new capabilities over the lifecycle.
- Leading the Change
- Guiding the organizational and cultural change needed to adopt Lean-Agile practices in a hardware engineering environment.
- Engineering Leadership in Lean-Agile
- Engineering leaders model Lean-Agile behaviors, remove impediments, and create the conditions for hardware teams to work iteratively and integrate frequently.