
Successful product development is more than having a great idea. A lot more. Manufacturers today face increasing pressure to innovate faster, meet evolving customer expectations, navigate complex regulations, and bring higher-quality products to market without driving up costs. Whatever the product (medical devices, industrial equipment, consumer products, or software-enabled systems) success is hard to achieve without following a structured product development process.
A well-defined product development process provides a repeatable framework that guides organizations from initial concept through engineering, validation, manufacturing, and launch. Rather than relying on disconnected spreadsheets, emails, and tribal knowledge, leading companies establish standardized workflows that improve collaboration, reduce risk, and accelerate decision-making.
As products become increasingly connected and multidisciplinary, organizations must also manage mechanical, electrical, software, and systems engineering activities together. This makes effective requirements management, cross-functional collaboration, and digital product data more important than ever.
In this article we’ll explore every stage of the new product development process, compare common product development methodologies, discuss common challenges, and share best practices for building a more efficient and scalable product development strategy.
But first… Is Your Product Development Process Ready to Improve?
Before investing in new tools or process changes, determine where your organization stands today. Use this checklist to identify whether disconnected workflows, limited visibility, or recurring development challenges signal the need for a product development assessment.
What Is the Product Development Process?
The product development process is the structured series of activities organizations follow to transform an idea into a commercially available product. It encompasses everything from identifying market opportunities and gathering customer requirements to engineering design, testing, manufacturing preparation, and product launch.
Although every organization adapts the process to fit its products and industry, most successful companies follow a consistent framework that ensures every product meets technical, business, and customer requirements before reaching the market.
A mature product development framework helps organizations:
- Identify customer and market needs
- Define technical and business requirements
- Improve collaboration across engineering, manufacturing, quality, and supply chain teams
- Reduce costly redesigns
- Improve product quality
- Accelerate time-to-market
- Support continuous improvement after launch
Rather than treating product development as a collection of isolated engineering tasks, modern organizations view it as an integrated business process spanning multiple departments and technologies.
Product Development vs. New Product Development
While the terms are often used interchangeably, there is a subtle distinction between product development and new product development (NPD).
Product development refers to the ongoing creation, improvement, or enhancement of products throughout their lifespan. This may include introducing new features, redesigning components, improving manufacturability, or responding to customer feedback.
New product development, on the other hand, focuses specifically on bringing entirely new products to market, from concept through commercialization. The new product development process typically begins with identifying an opportunity and concludes when the product is successfully launched.
Both processes rely on structured planning, cross-functional collaboration, and disciplined execution to minimize risk and maximize market success.
Product Development vs. Product Lifecycle
Another common point of confusion is the difference between the product development process and the product lifecycle. The product development process focuses on creating and launching a product. It represents only one portion of the broader product lifecycle, which includes:
- Concept
- Development
- Production
- Service
- Maintenance
- Retirement
Understanding this distinction is important because decisions made during development influence every later phase of the product lifecycle. Well-managed product data, design decisions, and engineering documentation continue delivering value long after the product reaches customers.
Why a Structured Product Development Process Matters
Without a standardized process, organizations often experience missed deadlines, duplicated work, inconsistent documentation, communication breakdowns, and expensive engineering changes.
A structured product development workflow creates consistency while enabling teams to move faster with greater confidence.
Faster Time-to-Market
Competitive markets reward organizations that can introduce products quickly without sacrificing quality.
By establishing standardized reviews, clearly defined milestones, and repeatable engineering workflows, teams eliminate unnecessary delays and reduce uncertainty throughout development.
Instead of reinventing the process for every project, engineers can focus on solving technical problems rather than administrative ones.
Better Engineering Collaboration
Today’s products rarely come from a single engineering discipline. Mechanical engineers, electrical engineers, software developers, manufacturing engineers, quality teams, suppliers, and project managers all contribute throughout development.
Strong engineering collaboration ensures everyone works from the same product information while reducing communication gaps that often lead to rework.
Modern collaboration tools provide centralized product data, version control, and shared visibility into requirements, designs, and engineering changes.
Improved Requirements Management
Poorly defined requirements remain one of the leading causes of project delays and redesigns. Effective requirements management establishes clear expectations before design begins while maintaining traceability throughout development.
As requirements evolve, teams can immediately understand how changes affect designs, testing, compliance documentation, manufacturing, and customer deliverables.
For organizations developing regulated products, maintaining complete traceability between requirements, designs, risks, and verification activities is especially critical.
Reduced Engineering Change Costs
Engineering changes become increasingly expensive the later they occur. Finding a design issue during concept development may require only a few hours of engineering effort. Discovering that same issue after tooling, manufacturing, or product launch can cost thousands (or millions) of dollars.
An effective engineering change management process helps organizations evaluate proposed changes, assess downstream impacts, obtain approvals efficiently, and maintain accurate documentation throughout the product lifecycle.
Stronger Regulatory Compliance
Manufacturers operating in industries such as medical devices, aerospace, defense, and automotive face strict documentation and traceability requirements.
A structured product development process helps organizations demonstrate compliance by ensuring engineering decisions, requirements, testing activities, risk analyses, and approvals are properly documented and linked together.
This level of visibility simplifies audits while reducing compliance risk.
Better Business Outcomes
Ultimately, a disciplined product development strategy delivers measurable business benefits beyond engineering efficiency.
Organizations with mature development processes often experience:
- Faster product launches
- Higher product quality
- Lower development costs
- Fewer engineering changes
- Improved customer satisfaction
- Better collaboration between departments
- Increased product innovation
- Greater scalability across engineering teams
The Eight Stages of the Product Development Process
While organizations may use different terminology, most successful new product development processes follow eight major stages. Each stage builds upon the previous one while reducing uncertainty before additional investments are made.
Stage 1: Idea Generation
Every successful product begins with identifying a meaningful opportunity. Ideas may originate from customers, internal innovation initiatives, market research, competitive analysis, supplier partnerships, or emerging technologies.
During this stage, organizations focus on answering questions such as:
- What customer problems exist?
- Which market opportunities are underserved?
- What competitive advantages could we create?
- Which emerging technologies could enable innovation?
Rather than evaluating every idea equally, many organizations use structured scoring criteria based on customer value, technical feasibility, business potential, and strategic alignment.
The objective isn’t simply to generate ideas, it’s to identify ideas worth pursuing.
Stage 2: Product Discovery and Requirements Definition
Once an opportunity has been identified, teams begin defining exactly what the product must accomplish. This stage establishes the foundation for the entire project through comprehensive requirements management.
Typical activities include:
- Gathering customer requirements
- Defining functional requirements
- Identifying performance expectations
- Assessing regulatory obligations
- Conducting risk analyses
- Developing preliminary system architectures
- Establishing success criteria
Organizations practicing systems engineering often develop requirements hierarchies that connect business objectives to system requirements, subsystem requirements, and component-level specifications.
This traceability significantly reduces ambiguity during later engineering phases while improving communication between stakeholders.
Stage 3: Product Planning and Strategy
Before engineering begins in earnest, organizations must validate that the project is technically, financially, and operationally viable. This planning phase transforms concepts into executable projects.
Typical deliverables include:
- Business case
- Product roadmap
- Resource planning
- Budget estimates
- Development timeline
- Risk assessment
- Technology evaluation
- Manufacturing considerations
A comprehensive product development strategy aligns engineering priorities with broader business objectives while establishing measurable milestones throughout the project.
This is also where organizations define the product development methodology they’ll use, whether that’s Stage-Gate, Agile, Waterfall, or a hybrid approach tailored to the complexity of the product.
Stage 4: Engineering and Product Design
With requirements defined and project plans in place, engineering teams begin transforming concepts into detailed product designs. This is often the longest and most collaborative stage of the product development process, involving multiple disciplines working together to ensure the product meets functional, manufacturing, quality, and business objectives.
Activities during this stage typically include:
- Mechanical design
- Electrical system design
- Software development
- System architecture
- Computer-aided design (CAD)
- Simulation and analysis
- Design reviews
- Bill of Materials (BOM) creation
The engineering design process is highly iterative. Early concepts evolve through multiple revisions as engineers validate performance, manufacturability, cost targets, and customer requirements.
Cross-functional engineering collaboration becomes especially important during this phase. Design decisions made by one team often impact manufacturing, procurement, quality, service, and regulatory compliance. Maintaining a single source of product data helps teams avoid version conflicts and ensures everyone is working from the latest information.
Many organizations leverage Product Lifecycle Management (PLM) solutions to centralize engineering data, manage revisions, and improve collaboration across distributed teams.
Stage 5: Prototype and Validation
Before committing to full-scale production, organizations build prototypes to verify that the product performs as intended.
Modern prototyping methods (additive manufacturing, CNC machining, virtual simulation) allow engineering teams to identify issues early, when changes are less expensive and easier to implement.
Prototype validation may include:
- Functional testing
- User evaluations
- Ergonomic assessments
- Design verification
- Performance benchmarking
- Reliability testing
- Environmental testing
Rather than viewing prototypes as finished products, organizations should treat them as learning tools. Each iteration provides valuable feedback that helps refine the design and reduce uncertainty before production.
Rapid prototyping technologies have significantly shortened this phase of the new product development process, enabling teams to evaluate multiple design options in days instead of weeks.
Stage 6: Product Testing and Verification
Once the design has matured, products undergo rigorous testing to ensure they satisfy all functional, safety, regulatory, and customer requirements.
Testing activities vary by industry but often include:
- Functional verification
- Performance testing
- Stress testing
- Environmental testing
- Reliability testing
- Compliance validation
- Software verification
- User acceptance testing
Organizations developing regulated products must also demonstrate complete traceability between requirements, risks, design outputs, and verification activities. This is where strong requirements management practices become invaluable.
Instead of manually documenting relationships across spreadsheets, leading organizations establish digital traceability throughout development. This enables teams to quickly answer questions such as:
- Which requirements have been verified?
- Which tests support each requirement?
- What risks remain open?
- How would a design change affect validation activities?
Maintaining these relationships improves engineering confidence while simplifying audits and regulatory submissions.
Stage 7: Manufacturing Preparation
After engineering validation is complete, attention shifts toward preparing the organization for production. Successful manufacturing preparation requires close coordination between engineering, operations, procurement, suppliers, quality, and production teams.
Typical activities include:
- Finalizing Bills of Materials
- Manufacturing process planning
- Supplier qualification
- Tooling development
- Work instruction creation
- Quality planning
- Production scheduling
- ERP integration
This phase is often referred to as New Product Introduction (NPI). A well-managed new product introduction process ensures manufacturing teams receive complete, accurate product information before production begins.
Poor communication during NPI frequently leads to production delays, quality issues, engineering change requests, and increased manufacturing costs.
Organizations that integrate engineering systems with manufacturing and ERP platforms reduce manual data entry while improving consistency across departments.
Stage 8: Product Launch and Continuous Improvement
Product launch marks an important milestone, but it isn’t the end of the product development process. Successful organizations continuously monitor product performance after release, collecting feedback from customers, manufacturing teams, service technicians, and sales organizations.
Common post-launch activities include:
- Customer feedback collection
- Product performance monitoring
- Engineering change requests
- Feature enhancements
- Cost reduction initiatives
- Supplier improvements
- Product updates
Continuous improvement allows organizations to respond quickly to market changes while extending product value throughout its lifecycle.
A mature engineering change management process helps evaluate improvement opportunities while ensuring updates are properly reviewed, documented, and communicated across the organization.
See What a Product Development Assessment Looks Like
Understanding the stages of product development is one thing. Knowing where your current process breaks down (and how to prioritize improvements) is another. Explore the roadmap of a successful product development process assessment, from initial discovery through actionable recommendations.
Product Development Methodologies
While every organization follows similar development stages, the way those stages are managed varies considerably. Selecting the right product development methodology depends on factors such as product complexity, regulatory requirements, organizational culture, and project risk.
Waterfall
The Waterfall methodology follows a sequential approach where each phase is completed before the next begins.
Advantages include:
- Clear milestones
- Well-defined documentation
- Predictable planning
- Strong governance
Waterfall works well for highly regulated industries where extensive documentation and formal approvals are required.
However, its structured nature makes adapting to changing requirements more difficult later in the project.
Stage-Gate
Stage-Gate builds on the traditional development process by introducing decision points, or “gates,” between major phases. At each gate, stakeholders review project progress before authorizing additional investment.
Benefits include:
- Better risk management
- Improved executive visibility
- Consistent project evaluation
- Resource prioritization
Many manufacturing organizations combine Stage-Gate with Agile engineering practices to balance governance with flexibility.
Agile Product Development
Originally developed for software, Agile principles are increasingly being applied to physical product development. Rather than delivering one final design, Agile emphasizes:
- Short development iterations
- Continuous customer feedback
- Cross-functional collaboration
- Rapid adaptation
- Incremental improvements
Agile is particularly effective for software-enabled products where customer needs evolve rapidly.
Hybrid Development
Most manufacturers ultimately adopt a hybrid product development framework.
For example:
- Stage-Gate governs executive decision making.
- Agile manages software development.
- Traditional engineering processes guide hardware design.
- Systems engineering connects multidisciplinary teams.
Hybrid approaches allow organizations to maintain governance without sacrificing innovation or responsiveness.
Product Development Process vs. Product Lifecycle
Although closely related, the product development process and the product lifecycle represent different concepts. The product development process focuses specifically on creating and launching a product.
The product lifecycle encompasses everything that happens before, during, and after development, from initial concept through retirement.
| Product Development Process | Product Lifecycle |
| Focuses on creating new products | Covers the product’s entire lifespan |
| Ends after launch and transition to production | Continues through service, maintenance, upgrades, and retirement |
| Emphasizes engineering activities | Includes engineering, manufacturing, service, operations, and end-of-life management |
| Primary goal is successful product introduction | Primary goal is maximizing product value over time |
Understanding this distinction helps organizations recognize why Product Lifecycle Management (PLM) systems are so valuable.
Rather than supporting engineering alone, PLM platforms connect product data across every lifecycle stage, from concept through manufacturing, service, and eventual retirement.
As products become more complex and software-driven, organizations increasingly rely on digital product data to maintain traceability, manage engineering changes, improve collaboration, and support continuous innovation throughout the entire product lifecycle.
Common Product Development Challenges
Even organizations with experienced engineering teams can struggle to consistently deliver products on time and within budget. As products become more complex, the number of stakeholders, systems, and dependencies continues to grow, making a structured product development process more important than ever.
Here are some of the most common challenges organizations face, and how leading manufacturers address them.
Poor Communication Between Teams
Product development requires collaboration across engineering, manufacturing, quality, supply chain, purchasing, service, and executive leadership. When each department works in its own systems, critical information is often delayed or lost.
Improving engineering collaboration through centralized product data and standardized workflows helps ensure every stakeholder is working from the same information.
Changing Requirements
Customer needs, market conditions, and regulatory expectations often evolve during development. Without effective requirements management, teams may struggle to understand how changing requirements impact designs, testing, manufacturing, and compliance.
Maintaining end-to-end traceability enables organizations to evaluate changes quickly and confidently.
Engineering Change Management
Engineering changes are inevitable, but unmanaged changes can create costly downstream problems. Without a formal engineering change management process, organizations risk:
- Manufacturing obsolete revisions
- Ordering incorrect parts
- Introducing quality issues
- Delaying product launches
- Increasing development costs
Structured review and approval workflows help ensure changes are evaluated, documented, and communicated before implementation.
Siloed Product Data
Many organizations still rely on disconnected spreadsheets, shared drives, email attachments, and individual desktops to manage product information. This fragmented approach creates version control issues and makes it difficult to locate accurate product data.
Modern Product Lifecycle Management (PLM) platforms eliminate these silos by providing a single source of truth for product information.
Balancing Speed and Quality
Organizations are constantly challenged to accelerate innovation while maintaining product quality. Skipping design reviews, testing, or documentation may shorten schedules temporarily, but it often results in expensive rework later in the project.
A mature product development workflow balances speed with governance by standardizing critical processes while enabling teams to collaborate efficiently.
Best Practices for a Successful Product Development Process
Although every organization develops products differently, the most successful manufacturers share several common practices.
Establish Clear Requirements Early
Clearly defining customer, business, regulatory, and technical requirements reduces ambiguity throughout development. Investing time in early planning helps prevent expensive redesigns later.
Create a Cross-Functional Development Team
Product development should never occur in isolation.
Include representatives from:
- Engineering
- Manufacturing
- Quality
- Supply Chain
- Regulatory
- Service
- Sales
- Product Management
Early involvement helps identify downstream issues before they become costly problems.
Standardize Your Development Framework
Using a consistent product development framework improves predictability while making it easier to onboard new team members and scale engineering operations.
Standardized review processes also improve governance and executive visibility.
Maintain Complete Traceability
Connecting requirements, designs, risks, tests, engineering changes, and manufacturing information provides a complete digital thread throughout development.
Traceability not only supports regulatory compliance but also accelerates decision-making when changes occur.
Embrace Continuous Improvement
Every completed project provides valuable lessons. Conduct post-launch reviews to identify:
- What worked well
- Where delays occurred
- Process improvements
- Customer feedback
- Opportunities for automation
Organizations that continuously refine their product development strategy become more efficient with every new product.
Technology That Enables Modern Product Development
Today’s products are more connected, software-driven, and complex than ever before. Managing that complexity requires more than spreadsheets and disconnected engineering tools.
Several technologies play a key role in supporting a modern product development process.
Computer-Aided Design (CAD)
CAD software enables engineers to create detailed 3D models, simulate performance, and iterate designs more quickly than traditional drafting methods.
Modern CAD platforms also support collaboration, design reuse, and integration with downstream engineering systems.
Product Lifecycle Management (PLM)
PLM serves as the digital backbone of product development. Rather than storing engineering files in multiple locations, PLM centralizes product data while managing:
- CAD files
- Bills of Materials
- Document control
- Engineering changes
- Workflows
- Product configurations
By creating a single source of truth, PLM improves engineering collaboration and reduces errors caused by outdated information.
Application Lifecycle Management (ALM)
As products become increasingly software-enabled, engineering teams must coordinate mechanical, electrical, and software development. ALM platforms help manage:
- Software requirements
- User stories
- Test cases
- Defects
- Version control
- Traceability
When integrated with PLM, ALM creates a more complete digital thread across hardware and software development.
Systems Engineering
Many organizations are adopting systems engineering practices to manage increasingly complex products.
Systems engineering connects requirements, architecture, design, verification, validation, and risk management across multiple engineering disciplines, improving consistency and reducing development risk.
Artificial Intelligence
Artificial intelligence is beginning to transform product development by helping engineers:
- Analyze engineering data faster
- Generate design concepts
- Identify potential risks
- Improve requirements quality
- Automate documentation
- Surface engineering knowledge
However, AI is only as effective as the quality of the underlying product data. Organizations with standardized processes, strong data governance, and integrated PLM and ALM environments are best positioned to realize the full value of AI-assisted engineering.
Frequently Asked Questions
What is the product development process?
The product development process is the structured sequence of activities used to transform an idea into a market-ready product. It typically includes idea generation, requirements definition, design, prototyping, testing, manufacturing preparation, and product launch.
What are the stages of product development?
Most organizations follow eight stages:
- Idea Generation
- Requirements Definition
- Product Planning
- Engineering Design
- Prototyping
- Testing and Verification
- Manufacturing Preparation
- Product Launch and Continuous Improvement
What is the difference between product development and new product development?
Product development encompasses creating and improving products throughout their lifecycle, while new product development focuses specifically on bringing entirely new products to market.
What is a product development methodology?
A product development methodology defines how organizations manage development activities. Common methodologies include Waterfall, Stage-Gate, Agile, Lean, and hybrid approaches.
Why is requirements management important?
Requirements management ensures engineering teams clearly understand what the product must accomplish. Maintaining traceability between requirements, design, testing, and validation reduces errors, supports compliance, and simplifies change management.
How does engineering change management improve product development?
An effective engineering change management process ensures design changes are reviewed, approved, documented, and communicated before implementation. This reduces manufacturing errors, prevents quality issues, and minimizes costly rework.
What role does PLM play in product development?
PLM centralizes product data, manages engineering workflows, supports collaboration, and connects information across the entire product lifecycle. It helps organizations improve visibility, reduce development time, and maintain product quality.
Bringing It All Together
The most successful products don’t happen by chance. They’re the result of a disciplined, collaborative, and repeatable product development process.
From capturing customer requirements to engineering design, validation, manufacturing, and launch, every stage builds on the one before it. Organizations that establish clear workflows, improve engineering collaboration, maintain complete requirements management, and adopt modern digital tools are better equipped to deliver innovative products faster while reducing cost and risk.
As products continue to grow in complexity, manufacturers that connect people, processes, and product data through technologies like CAD, PLM, ALM, and AI will be best positioned to compete in an increasingly digital marketplace.
Whether you’re looking to improve your new product development process, strengthen your product development strategy, or modernize engineering operations, investing in the right processes and technologies today will pay dividends across the entire product lifecycle.
Ready to Modernize Your Product Development Process?
If your engineering teams are struggling with disconnected systems, inefficient workflows, or limited visibility across the product lifecycle, now is the time to evaluate how your product development environment can better support innovation.
At EAC, we help manufacturers streamline product development through integrated solutions for CAD, PLM, ALM, systems engineering, digital manufacturing, and AI readiness. Whether you’re optimizing existing processes or building a digital engineering strategy from the ground up, our experts can help you connect people, processes, and product data to accelerate innovation.
Turn product development challenges into a clear improvement plan. A structured product development process requires more than isolated technology upgrades. Learn how an assessment can uncover process gaps, align teams, prioritize opportunities, and create a practical roadmap for improving how products move from idea to launch.

In today’s world, it’s not uncommon for companies to be rich in data but poor in insights. Despite having access to a wealth of information, organizations struggle to properly analyze performance and drive transformational improvements. This is where ThingWorx Digital Performance Management (DPM) steps in to bridge the gap.
This week in your factory, you’ve applied maximum effort, pouring countless hours into perfecting your product. As the work week ends, a feeling of slight disappointment remains.
Could you have accomplished more? Where did it go awry? You may not be able to find the answers on your own, leaving your factory inefficient and operating below its full potential.
If this is you, look no further. With the capabilities of Thingworx Digital Performance Management, you will unleash an untapped potential of data and boost your manufacturing processes.
What is Digital Performance Management?
ThingWorx Digital Performance Management (DPM) is a cutting-edge solution designed to help organizations identify, prioritize, and improve production issues.
By capturing lost production hours and their causes, DPM indicates where to focus for the most critical impact. Also, it optimizes the finite time available, allowing organizations to reclaim lost hours and increase effective time by 20% or more. Thus, directly impacting the bottom line.
How Does DPM Work?
Consider a manufacturing facility that can produce one unit per hour. In a week with 88 hours worked, the facility manages to manufacture only 44 units. Let’s say 12 hours are lost through planned downtime and 14 hours are lost due to changeovers.
That leaves about 18 hours unaccounted for. Where did those come from? With ThingWorx DPM, you can quickly identify issues, and why they happened, and then take appropriate actions to fix them.
Moreover, DPM calculates and analyzes discrepancies, providing valuable insights to improve productivity. DPM is a comprehensive toolset that propels organizations towards peak performance by tracking performance, conducting in-depth analysis, planning, and validating improvements.
The Production Dashboard
One feature included with DPM is the Production Dashboard. The visual dashboard is a crucial tool for supervising shift performance and gathering vital data to inform reporting and analysis. It is designed for supervisors and line managers to track productivity across various production lines.

Some key features of the Production Dashboard include:
Provides insights into shift progress at the production block level
Allows for automated and manual data entry, including reason codes to capture all losses
And offers a simplified interface to minimize disruption
Bottleneck Analysis
The Bottleneck Analysis tool is designed to automatically detect and monitor the most significant bottlenecks in your factory, providing valuable analysis and insights into OEE and OLE.
One of the challenges that customers face is a lack of visibility into bottlenecks, which leads to a disconnect between continuous improvement efforts and their impact on the business. However, bottlenecks are often dynamic and complex.
To address these challenges, DPM offers key capabilities to help identify and resolve:
Automatically identifying and tracking bottlenecks.
Systematic identification of the top constraints, which can significantly increase factory efficiency by 5-20%.
Management of the dynamic nature of competing bottlenecks.
Overall, DPM works relentlessly, making up for lost time by tracing the root cause of issues and providing precise remedies to ensure smooth and efficient functionality. Consider DPM an invaluable employee, working tirelessly around the clock without additional overtime costs!
Accelerate Problem Solving with DPM
DPM’s capabilities extend beyond surface-level analysis. By combining Pareto analysis and time loss analytics, DPM users can uncover and address a significant percentage of production problems.
Additionally, with the further integration of AI and machine learning, DPM streamlines the identification of patterns in data, resulting in faster problem-solving and decision-making.
For instance, a DPM user noticed quality losses between 3 p.m. and 4 p.m. Thanks to DPM’s automated analysis, the manufacturing team quickly determined that the issue was caused by a glare from the sunset, making the inspection camera unreliable.
All in all, DPM helped accelerate the problem-solving process saving valuable time and resources.
Reap the Benefits
Digital Performance Management is as remarkable as it sounds. DPM holds the secret to your production improvements and is ready to share them with you. Discover the plethora of benefits that are tied to DPM:
Standardized Measurement: DPM provides a consistent and standardized approach to measure losses, ensuring accurate evaluation of bottlenecks, and their impact on performance.
Efficient Root Cause Analysis: Leveraging AI technology, DPM identifies the root causes of bottlenecks and facilitates their permanent resolution, eliminating recurring issues.
Automated Problem Identification: DPM’s powerful AI algorithms automate the process of surfacing common issues, exponentially reducing the time spent on problem-solving.
Real-time Insights: What once took months to identify critical insights now becomes easily accessible through DPM’s intuitive interface, providing teams with immediate access to actionable insights.
Get Started with DPM Today!
In conclusion, if you want to revolutionize your performance management and take your organization to new heights, it’s time to embrace Digital Performance Management.
Remember, in today’s fast-paced world, those who leverage technology to gain insights and make data-driven decisions are the ones who thrive.
Are you ready to unlock the true potential of your organization with Digital Performance Management? Talk with an expert now to take your first steps toward success.
What is the Digital Thread?
The Digital Thread is a system of interconnected data, processes and applications that create a closed loop between the digital and physical worlds. It enables a flow of data between these two worlds, creating a critical capability in model-based systems engineering (MBSE).
The Digital Thread is part of an overall MBSE approach that helps organizations:
- Design better products faster by using models as the basis for decisions rather than documents
- Reduce costs by eliminating rework caused by changes made after initial design stages
- Avoid errors by ensuring all stakeholders always have access to up-to-date information about product status
Why Use the Digital Thread
The Digital Thread utilizes a communication framework that links previously disconnected elements within the manufacturing process, providing a unified view of an asset throughout its entire lifecycle. It is a fundamental aspect of model-based systems engineering and forms the foundation for a Digital Twin. Business processes, including daily tasks, activities, and decisions, are digitized and integrated into the Digital Twin through the Digital Thread. The Digital Thread also supports standardization, traceability, and automation initiatives.
This enterprise connective solution optimizes products by bringing people, processes and places together to provide traceability of the Digital Twin back to requirements and parts. The Digital Thread also provides an end-to-end view of control systems that make up physical assets across their lifecycle. This benefits a company by transforming how products are engineered, manufactured and serviced.
Enterprise Application
The Digital Thread is a powerful tool that is used to improve business processes and enhance customer satisfaction. The applications of this technology are numerous, including:
- Product lifecycle management (PLM)
- Supply chain management (SCM)
- Quality management
- Risk management
- Service and maintenance
The Digital Thread in Action
The Digital Thread is a concept that’s been around for a while, but it has only recently started to gain traction. It isn’t something that you can just jump into and expect to understand immediately. Instead, it’s best to look at the ways in which companies have utilized this idea in order to get a picture of what they’ve done with it and how they’ve used it successfully. Here are some examples of companies who have made use of their own Digital Threads:
A retail company uses its Digital Thread to improve customer service by connecting customers directly with product experts via chatbot technology. This allows them access information on products before making purchases so they can make informed decisions about what they buy and why they buy it. It also gives them an opportunity to ask questions if anything comes up later on down the line (i.e., when they’re actually using products).
Another retailer uses its own version of this concept as part of its online store where shoppers can find information about any given item without having access beforehand. Instead, everything from sizing charts down through reviews from other buyers will pop up automatically once someone clicks “add” on any given product listing page (and even before then!).
Creating a Digital Thread
The Digital Thread is a new way of thinking about your business. It’s more than just data connection or enterprise collaboration, it’s an integrated approach to connecting with the product lifecycle, employees and customers in real time.
The first step in creating a Digital Thread is understanding the production journey – how your employees or customers interact with your product at each stage of the production process. You need to know what information they should be consuming and how you can provide it through all stages of the product lifecycle. Once you have this information, it’s time to put together a plan for how the data will be distributed across all departments. This could be through IoT initiatives and product lifecycle management software.
The Future of the Digital Thread
The Digital Thread is the idea that every product interaction you have, whether it’s before, during or after the creation of the product should be connected through shared data. This means when a product is designed, built and put on the field with the customer, all the information is connected together. This sort of enterprise connection minimizes process disruptions and creates a cohesive product lifecycle.
The concept has been around for years but it’s only recently started to gain traction among businesses as more of them embrace breaking down data silos and integrating technology into every aspect of the product lifecycle.
It’s easy enough to see how this could benefit both consumers and businesses: Consumers get better service because service technicians are alerted early and accurately about the performance of their products and when they need to be serviced. Customer service improves greatly when a company can minimize downtime for customers with real-time monitoring and preventative maintenance.
The Impact
The impact of the Digital Thread is not only changing the way we design and manufacture products, but also how we service them. This shift has significant implications for businesses.
The ability to track a product through its life cycle has huge potential for companies looking to improve operations and customer experience. It’s no longer enough to simply make sure that your product works when it leaves the factory; now you need to ensure that it will continue working throughout its entire life cycle and be able to respond quickly if something goes wrong along the way.
The Challenges
There are challenges to the Digital Thread, however. Data security, privacy and integrity are all important considerations when it comes to data sharing. These issues are addressed by industry best practices such as encryption and authentication protocols that protect information from unauthorized access or tampering.
The Benefits of the Digital Thread
The benefits of the Digital Thread include:
Cost savings. The Digital Thread allows you to reduce costs by eliminating excess inventory and reducing waste. For example, if a product is out of stock at one store, it’s not available for purchase in any other stores or online either. This means that customers won’t be able to buy it unless they go directly to the manufacturer’s website–and many will simply give up and look elsewhere instead.
Improved efficiency. With the Digital Thread in place, manufacturers quickly identify where there are problems with production or distribution so they can fix them immediately rather than waiting until after an entire batch is produced before finding out about any issues (and having already paid for those products). By being able to identify problems before they occur, companies save money on wasted materials while also ensuring better customer satisfaction because their products will always be available when needed most!
The Digital Thread is beneficial to manufacturers because it enables automation, traceability, and standardization efforts. It allows manufacturers to access data quickly and easily, and to make decisions based on real-time data. Additionally, it helps to reduce costs associated with product development and production, and to ensure that products are manufactured to the highest quality standards.
The Digital Thread also helps to improve the customer experience by providing them with access to real-time data, allowing them to make informed decisions about their purchases. It also improves the efficiency of the supply chain, as manufacturers track their products from start to finish, ensuring that they are delivered on time and to the correct specifications.
Overall, the Digital Thread for Manufacturing is a powerful tool that can help manufacturers to improve their operations, reduce costs, and provide a better customer experience.
Conclusion
The Digital Thread is the concept that all of your customer interactions are connected, and that your business uses this to its advantage. The Digital Thread has many applications, including:
Providing a better user experience for customers by connecting all of their interactions with you in one place
Enabling companies to provide better support through real-time communication with customers
Helping businesses understand their customers better by analyzing data from various channels
If you want to learn more about how the Digital Thread could impact your organization, chat with one of our experts!
![]()
Often times we can find ourselves knowing where we want to go but not knowing where to start. This is a common theme when it comes to digital transformation. Not surprisingly, we have seen many of our customers use EAC assessments as the first step to open up a world of opportunities for their company to grow and evolve its processes.
JR Automation has been an EAC customer for over a decade, and when we first started working with them, the first action was an EAC assessment. We were able to provide them a customized roadmap for success and prove how JR was going to achieve it. EAC has helped JR Automation find ways to save time, save money and increase efficiency – with savings over $1.4 million every year. JR took the first step with EAC helping them to find that starting point. Today JR continues to find new ways to innovate and evolve with growing customer demands in a highly competitive marketplace.
What to Expect from an EAC Assessment
Assessments can seem daunting at first. You may be asking yourself questions like, “Are they going to come in and tell us all the things we are doing wrong?”
In reality, our goal with assessments is to identify your current state and production and manufacturing processes, assess the maturity of your operational technologies, and work with your team to pinpoint an ideal future state. Making transformational changes to a company can be a sizable cultural shift and we help companies prepare to make that change. There are risks you take when you don’t assess your current situation, and we want to help you minimize those risks.
Functional Group Assessment (FGA)
The EAC Functional Group Assessment provides an objective format for your functional groups to truly understand their creation, consumption, and delivery of product data. These groups could consist of any cross-sectional team members from engineering, design, manufacturing, sales, marketing, or management.
During an FGA, our team of subject-matter experts will work to understand how your key team members work daily to complete the product development process. After the evaluation is complete and our experts have uncovered your current processes and technology usage, we will help you establish a roadmap that will lead your company to higher productivity and savings across the board.
After our findings have been documented and studied, we will lay out new possible methods and functions to improve overall productivity. These recommendations could include ways to improve capability gaps, business policy improvements, procedures that ensure efficiency and alignment, or strategies for training to maintain efficiency.
The benefits of an FGA could span from understanding your Functional Group alignment to business objectives and initiatives and their use of existing toolsets to examining processes and daily tasks that reflect your current state. We also uncover overall awareness of opportunities for improvement and bring alignment to Functional Vision for your desired future state.
Ultimately, we help you create a plan to achieve that desired state so you can spend less time wondering how to grow and more time-saving money through innovation. Companies like ITW Paslode and Nordco have taken advantage of the FGA and have seen the financial value in getting started on the transformational journey.
Digital Transformation Assessment (DTA)
Similar to the FGA, a Digital Transformation Assessment is an EAC-provided service that explores an organization’s product development system functionality. Our experts look at an organization’s operations and provide broad insight into improvement initiatives and establish a strategy for achieving operational improvement of a product development system.
When working through this assessment, our team has candid one-on-one discussions with your team members where we uncover what is working well, any occurred costs, and evaluate optimization opportunities.
The results that stem from an EAC Assessment are unmatched. Companies are discovering data they never knew were siloed, teams that were frustrated with processes, and many other disruptions in production. After uprooting and addressing these issues, companies like JR Automation, HyrdaForce, DRS, Merrick, and Systems Control are able quote more business and respond to customers faster – increasing their profit as well as employee and customer satisfaction.
Streamlined Digital Transformation Assessment (SDTA)
Similar to the functional DTA, the Streamlined Digital Transformation Assessment focuses on the interviews and direct inputs from your team members. However, it does not include an online survey and corresponding metric output. This assessment is offered as one variation of the Digital Transformation Assessment to fit your specific needs.
This assessment is a great fit for companies that have the desire to optimize their product development system, have the approval to move forward with the optimization, but are unsure where to start or what to focus on first.
While there are a few exclusions from the full DTA in this assessment, our team still coordinates select participants to plan and schedule the execution of individual interviews with participants involved in the assessment. This process will be a higher level approach than a full DTA, and may not include as many details or metrics. This assessment is still an excellent tool to explore your current business functions and define a roadmap to success.
Digital Manufacturing Assessment (DMA)
The Digital Manufacturing Assessment evaluates the overall state of your current product development systems regarding IoT initiatives, provides broad organizational visibility to improvement initiatives and identifies an IoT solution roadmap to help you determine the very first steps you should take on your digital transformational journey.
After evaluating your current manufacturing practices and operations, our experts will identify the best opportunities for growth that align with your corporate goals. When Kimray did a DMA with our team, they were able to recognize technology and solutions that would integrate with their current processes and also propel them to the next level in production. Together we developed a strategic roadmap that enhanced their processes.
The opportunities and pathways are endless to how your company can achieve digital transformation in the same way – a DMA is a great place to start.
Value Stream Mapping Assessment (VSMA)
A Value Stream Mapping Assessment consists of documenting the key action steps during production, gathering information from inputs and outputs, examining the systems used to manage that information, and pinpointing key optimization opportunities at each step. After, our experts work with your team to define an ideal future state of your product development process. The future process documentation outlines key improvements needed in business principles, policies, processes, and procedures utilizing the latest systems available to you to facilitate those improvements. Our EAC experts then defines a high-level roadmap and guidance on how to achieve those improvements.
During a VSMA, your team can expect to receive an important strategy that documents your current state including process documentation, pains, and what those pains are costing your business. With this information, together we will curate the vision of your future state – what your development could be – and create a roadmap on how to get there.
The company MEANS had EAC come in for a VSMA and was able to get a roadmap on system integrations that opened up the opportunities for better processes to connect their company. With an EAC roadmap, MEANS was able to realize a future state of streamlined processes to get their product to market faster and with less downtime.
When to Start
Now that we’ve answered the “what” and “why” of EAC assessments, the next question is “when.” Knowing you want to take your business to the next level, but feeling like you don’t how or where to start is the perfect time to invest in an assessment. Our ultimate goal is to understand your unique enterprise, your corporate strategic goals, and its current state, define your ideal future state, and plan an achievable way to get there together. EAC’s Assessment services can be the stepping stones for long-term company success and Digital Transformation.
Want to hear more testimonials or see which assessment would fit your company best and see how we could transform the way you do business? Connect with one of our experts!