Accendo Reliability

Your Reliability Engineering Professional Development Site

  • Home
  • About
    • Contributors
    • About Us
    • Colophon
    • Survey
  • Reliability.fm
    • Speaking Of Reliability
    • Rooted in Reliability: The Plant Performance Podcast
    • Quality during Design
    • CMMSradio
    • Way of the Quality Warrior
    • Critical Talks
    • Asset Performance
    • Dare to Know
    • Maintenance Disrupted
    • Metal Conversations
    • The Leadership Connection
    • Practical Reliability Podcast
    • Reliability Hero
    • Reliability Matters
    • Reliability it Matters
    • Maintenance Mavericks Podcast
    • Women in Maintenance
    • Accendo Reliability Webinar Series
  • Articles
    • CRE Preparation Notes
    • NoMTBF
    • on Leadership & Career
      • Advanced Engineering Culture
      • ASQR&R
      • Engineering Leadership
      • Managing in the 2000s
      • Product Development and Process Improvement
    • on Maintenance Reliability
      • Aasan Asset Management
      • AI & Predictive Maintenance
      • Asset Management in the Mining Industry
      • CMMS and Maintenance Management
      • CMMS and Reliability
      • Conscious Asset
      • EAM & CMMS
      • Everyday RCM
      • History of Maintenance Management
      • Life Cycle Asset Management
      • Maintenance and Reliability
      • Maintenance Management
      • Plant Maintenance
      • Process Plant Reliability Engineering
      • RCM Blitz®
      • ReliabilityXperience
      • Rob’s Reliability Project
      • The Intelligent Transformer Blog
      • The People Side of Maintenance
      • The Reliability Mindset
    • on Product Reliability
      • Accelerated Reliability
      • Achieving the Benefits of Reliability
      • Apex Ridge
      • Field Reliability Data Analysis
      • Metals Engineering and Product Reliability
      • Musings on Reliability and Maintenance Topics
      • Product Validation
      • Reliability by Design
      • Reliability Competence
      • Reliability Engineering Insights
      • Reliability in Emerging Technology
      • Reliability Knowledge
    • on Risk & Safety
      • CERM® Risk Insights
      • Equipment Risk and Reliability in Downhole Applications
      • Operational Risk Process Safety
    • on Systems Thinking
      • The RCA
      • Communicating with FINESSE
    • on Tools & Techniques
      • Big Data & Analytics
      • Experimental Design for NPD
      • Innovative Thinking in Reliability and Durability
      • Inside and Beyond HALT
      • Inside FMEA
      • Institute of Quality & Reliability
      • Integral Concepts
      • Learning from Failures
      • Progress in Field Reliability?
      • R for Engineering
      • Reliability Engineering Using Python
      • Reliability Reflections
      • Statistical Methods for Failure-Time Data
      • Testing 1 2 3
      • The Hardware Product Develoment Lifecycle
      • The Manufacturing Academy
  • eBooks
  • Resources
    • Accendo Authors
    • FMEA Resources
    • Glossary
    • Feed Forward Publications
    • Openings
    • Books
    • Webinar Sources
    • Journals
    • Higher Education
    • Podcasts
  • Courses
    • Your Courses
    • 14 Ways to Acquire Reliability Engineering Knowledge
    • Live Courses
      • Introduction to Reliability Engineering & Accelerated Testings Course Landing Page
      • Advanced Accelerated Testing Course Landing Page
    • Integral Concepts Courses
      • Reliability Analysis Methods Course Landing Page
      • Applied Reliability Analysis Course Landing Page
      • Statistics, Hypothesis Testing, & Regression Modeling Course Landing Page
      • Measurement System Assessment Course Landing Page
      • SPC & Process Capability Course Landing Page
      • Design of Experiments Course Landing Page
    • The Manufacturing Academy Courses
      • An Introduction to Reliability Engineering
      • Reliability Engineering Statistics
      • An Introduction to Quality Engineering
      • Quality Engineering Statistics
      • FMEA in Practice
      • Process Capability Analysis course
      • Root Cause Analysis and the 8D Corrective Action Process course
      • Return on Investment online course
    • Industrial Metallurgist Courses
    • FMEA courses Powered by The Luminous Group
      • FMEA Introduction
      • AIAG & VDA FMEA Methodology
    • Barringer Process Reliability Introduction
      • Barringer Process Reliability Introduction Course Landing Page
    • Fault Tree Analysis (FTA)
    • Foundations of RCM online course
    • Reliability Engineering for Heavy Industry
    • How to be an Online Student
    • Quondam Courses
  • Webinars
    • Upcoming Live Events
    • Accendo Reliability Webinar Series
  • Calendar
    • Call for Papers Listing
    • Upcoming Webinars
    • Webinar Calendar
  • Login
    • Member Home
Home » Articles » on Tools & Techniques » The Hardware Product Develoment Lifecycle » 10 Best Practices for Managing Hardware Development Risk

by Michael Keer Leave a Comment

10 Best Practices for Managing Hardware Development Risk

10 Best Practices for Managing Hardware Development Risk

In an increasingly competitive market, the need to bring superior products to market swiftly, cost-effectively, and with minimal risk is paramount. This article presents a summary of the top ten best practices for managing risk in hardware development.

Read on to gain insights into navigating the maze of financial, operational, and market challenges that accompany hardware development. Based upon over 100 years of collective experience with hardware development, the Product Realization Group has distilled these insights from real-world experience. Learn how to reduce risk in your New Product Development and Introduction (NPDI) process and bring better products to market faster, at lower cost, and with less risk.

  1. Employ Agile Hardware Development

Agile hardware development takes the best principles and practices from the Agile software development model and applies them to the creation of physical, hardware-based products. Depending on your existing development environment, you may need to adapt these Agile principles to work within your unique product and market constraints.

  • Assign an experienced NPDI project manager who owns driving the project.
  • Assemble a cross-functional NPDI team. All key functions should be involved early on in the product development process.
  • Follow an agile hardware development process leveraging project management, and software and modified-for-hardware sprints to help keep the project on track.
  1. Leverage Modeling, Simulation Tools, and Rapid Development

Modeling, simulation, and rapid prototyping tools enable agile methodologies to be applied more effectively early in the development process for hardware-based products and enable faster innovation cycles. The benefits of leveraging virtual and physical simulations and emulations of hardware designs include:

  • Substantially reducing product development time and cost
  • Improving end-user (and stakeholder) involvement
  • Receiving early market validation and feedback
  • Exploring a range of designs quickly
  • Testing end-part materials early
  1. Develop a Minimum Viable Product

An MVP process is one that you repeat over and over again: identify your riskiest assumption, find the smallest possible experiment to test that assumption, and use the results of the experiment to course correct. When thinking about an MVP, consider whether you are focused on the most basic requirements:

  • Is a feature absolutely necessary for the first product to ship? After all, every additional feature adds complexity to the design.
  • Do the product features address the market need without extra “bells and whistles”?
  • What are the additional features that are important, but not urgent, that can be addressed after the initial market need has been validated using a strategic product roadmap?
  1. Understand and Mitigate Risks Early

Ignore the risks of developing a new hardware product at your peril.

  • Have you clearly defined and validated the business model?
  • Do you have the right people for the product?
  • Have you done the upfront market research and discovery to support creating a clear Marketing Requirements Document (MRD) and Product Requirements Document (PRD)?
  • Have you verified that your technology is viable to support the market needs?
  • Do you have an Agile and/or strong product development process?
  • Do you have a clear understanding of the regulatory/safety requirements that the product must meet?
  • Do you have a supply chain strategy in place prior to engineering development?
  • Have you considered product materials, disposal, and reuse as part of your product lifecycle strategy?
  1. Apply Design for Excellence (DfX)

Design for Excellence (DfX) is the umbrella term for designing high-quality products that can be cost-effectively built, tested, shipped, and supported.

Designs that are done “just” for the prototype may miss many real-world problems such as component obsolescence, technology that can’t scale, unrealistically high costs, features that aren’t wanted by customers, and designs that are difficult to manufacture or test.

DfX typically includes:

  • Design for Reliability
  • Design for Procurement
  • Design for Manufacturing
  • Design for Test
  • Design for Logistics
  • Design for Service
  1. Incorporate Product Reliability, Validation, and Testing

There are numerous implications for the future quality perceptions of your product; product reliability, validation, and testing are ways to assure this quality is built-in.

  • Product Reliability: products are expected to work while in use, but there is an inherent tradeoff among time, cost, and product reliability that you will need to balance to meet your launch goals as well as product cost targets. Typically, the more you invest in product reliability, the more the product costs and the longer time to market.
  • For most hardware-based products, production tests are the largest investment and biggest bottleneck to scaling your business. Product validation is important because it gives you a measurable way to verify that your product meets the intended specifications in the development process.
  1. Meet Agency and Environmental Compliance Requirements

You can’t get around standards and regulations. These requirements are critical for shipping products in volume but are often overlooked or minimized by entrepreneurs and folks new to product design. Define your strategy for compliance with directives based on your industry. Common agency and environmental compliance for high-tech hardware products include (there are many more):

  • Food and Drug Administration (FDA)
  • Underwriters Laboratory (UL)
  • European Conformity (CE)
  • Restriction of Hazardous Substances (RoHS)
  • Waste Electrical and Electronic Equipment (WEEE)
  1. Deploy Scalable Business Systems and Processes

Engineers who work in “silos” communicate poorly with other areas and miss critical information from other teams. This can increase development costs and the risk that designs are not manufacturable, have high product costs, or do not meet regulatory requirements.

Deploy systems early to support rapid development, from customer relationships to outside partners. Systems include (again, there are many more):

  • Computer Aided Design (CAD) for Electrical, Mechanical
  • Customer Relationship Management (CRM)
  • Product Lifecycle Management (PLM)/Quality Management Systems (QMS)
  • Enterprise Resource Planning (ERP)
  1. Develop a Resilient Supply Chain

Companies that do not consider key materials and supply chain decisions it takes to get their product into volume manufacturing risk the trap of “designing for prototype.” This trap prevents companies from scaling into volume because parts are not available, materials costs are too high, quality is lowered, and customer shipments are missed.

Here are some examples of supply chain considerations:

  • Understand end-user market location, capabilities, politics, and tariffs
  • Utilize standard and short lead time parts in design
  • Stabilize your product design prior to scaling into volume
  • Carefully select your suppliers and manage them strategically
  1. Verify Readiness for Volume Manufacturing

Some companies speed product development and fail to follow a solid industry-best-practice “phase-gate” process.

The risks of bringing products to market without a few iterations deprive your team of important lessons that can result in serious marketability, quality, functional, and scalability problems.

Costs for mistakes escalate rapidly from feasibility to prototype to pilot to full production. By implementing best practices, and actively reviewing and mitigating issues found as the result of feasibility, prototype, and pilot builds, design issues can be reduced or eliminated and manufacturing processes optimized for volume production.

Final Thoughts

While the best practices are shown in numerical order, and roughly follow the product development flow, they should be considered highly integrated and complementary activities that should be implemented holistically and in a parallel fashion to best support your business goals.

This is a high-level summary of the depth of knowledge PRG has on this subject. If you would like more information or a free chat about your NPDI process or your readiness for volume manufacturing, then contact us through our website.  Or, if you’d like to test your product readiness for yourself, take one of our easy-to-use assessments which can also be found on our website.

Filed Under: Articles, on Tools & Techniques, The Hardware Product Develoment Lifecycle

About Michael Keer

Founder & Managing Partner, Product Realization Group
Michael Keer has over 30 years of high technology New Product Introduction experience in development and manufacturing. As founder of the Product Realization Group (PRG), Michael created a solutions based team of consultants that help companies make the leap from concept to full market scale.

« Why Do a Parts Count Prediction?

Leave a Reply Cancel reply

Your email address will not be published. Required fields are marked *

The Hardware Product Development Lifecyle series logo Photo of Michael KeerArticles Edited by Michael Keer
in the The Hardware Product Development Lifecycle article series

Recent Posts

  • 10 Best Practices for Managing Hardware Development Risk
  • Why Do a Parts Count Prediction?
  • Burn-in Testing?
  • 14 Ways to Keep Maintenance Costs Low
  • Improving Your Operations Through the Use of Collaboration

Join Accendo

Receive information and updates about articles and many other resources offered by Accendo Reliability by becoming a member.

It’s free and only takes a minute.

Join Today

© 2025 FMS Reliability · Privacy Policy · Terms of Service · Cookies Policy

Book the Course with John
  Ask a question or send along a comment. Please login to view and use the contact form.
This site uses cookies to give you a better experience, analyze site traffic, and gain insight to products or offers that may interest you. By continuing, you consent to the use of cookies. Learn how we use cookies, how they work, and how to set your browser preferences by reading our Cookies Policy.