Great products rarely begin with a finished design. They begin with a problem that needs to be understood, a set of requirements that need to be defined, and multiple potential solutions that need to be explored.

The engineering design process provides a structured approach for moving from that initial problem to a solution that can be tested, refined, and ultimately manufactured. Engineers use this process to make better decisions, identify problems earlier, reduce unnecessary rework, and ensure a final design satisfies both technical requirements and customer needs.

While the specific steps vary between organizations and industries, the underlying approach is remarkably consistent: define the problem, gather information, establish requirements, develop possible solutions, evaluate those solutions, create a detailed design, test it, and improve it.

Importantly, the engineering design process isn’t a rigid sequence. Engineers frequently move backward and forward between steps as testing uncovers new information or requirements change.

Understanding how this process works (and how digital engineering tools can support it) helps organizations create a more efficient product development workflow and bring better products to market with greater confidence.

What Is the Engineering Design Process?

The engineering design process is a systematic and iterative method engineers use to solve problems and develop products, systems, or components.

At a high level, the process typically involves:

Each stage helps reduce uncertainty before more time and resources are committed to the solution. The process also provides engineers with a repeatable framework for balancing competing considerations such as performance, cost, quality, manufacturability, safety, sustainability, and customer expectations.

Because every engineering project is different, these steps won’t always happen in exactly the same order. A test failure may send the team back to detailed design. New customer information may require requirements to be reconsidered. A manufacturing constraint may force engineers to evaluate an entirely different concept.

That iteration is a feature of good engineering, not a failure of the process.

Engineering Design Process vs. Product Development Process

The engineering design process and product development process are closely related, but they aren’t the same thing.

Engineering design focuses primarily on solving the technical problem. Product development encompasses the broader business process required to identify an opportunity, create a product, manufacture it, and successfully bring it to market.

For example, market research may identify demand for a new industrial pump. That activity is part of the larger new product development process.

Engineering teams then use the engineering design process to determine how that pump should actually function, which components it needs, what materials it should use, and whether it meets its performance requirements.

In other words, the engineering design process is one critical component of successful product development.

The 8 Steps of the Engineering Design Process

Although organizations may combine, rename, or expand these stages, the following eight steps provide a useful framework for understanding how engineering ideas move toward validated designs.

Step 1: Define the Problem

Before engineers can develop a solution, they need to clearly understand the problem they’re trying to solve. This sounds obvious, but teams can easily begin designing before everyone agrees on the underlying need. A strong problem definition should answer questions such as:

Consider an industrial pump that repeatedly overheats under certain operating conditions. The problem shouldn’t immediately be defined as, “We need a larger cooling system.” That’s already assuming a solution. A better definition might be:

The pump must operate continuously at the required flow rate and temperature without exceeding its safe operating limits.

This leaves engineers free to investigate different potential causes and solutions. Starting with a clearly defined problem helps prevent teams from investing substantial engineering effort in solving the wrong issue.

Step 2: Research and Gather Information

Once the problem is understood, engineers need context.

That may include reviewing:

This stage is particularly important for organizations with years or decades of engineering history. A similar problem may have already been solved somewhere else in the organization. Engineers who can quickly find previous designs, decisions, and lessons learned can avoid unnecessarily recreating existing work.

Effective engineering collaboration and centralized product information make this process significantly easier. When design knowledge lives across personal drives, emails, shared folders, and disconnected databases, engineers may spend more time searching for information than evaluating it.

Step 3: Define Engineering Requirements

The problem must then be translated into measurable requirements. Requirements establish the conditions the final solution must satisfy. Depending on the product, engineering requirements might address:

Returning to the industrial pump example, requirements could include a specific flow rate, allowable operating temperature, maximum weight, service life, environmental rating, and target manufacturing cost. Good requirements should be specific and testable.

A requirement such as “the pump should be durable” leaves substantial room for interpretation. A measurable requirement defining the expected operating life under specified conditions gives engineers something they can actually design and test against.

Requirements management becomes even more important when products include mechanical, electrical, electronic, and software components. Each engineering discipline needs to understand not only its own requirements, but how those requirements relate to the overall system.

Clear requirements establish the foundation for every design decision that follows.

Step 4: Generate Design Concepts

With the problem understood and requirements established, engineers can begin exploring potential solutions. The objective at this stage isn’t to perfect one design immediately. It’s to consider several ways the problem could be solved.

Concept generation might involve:

Teams should avoid becoming overly attached to the first viable solution. Exploring multiple concepts creates opportunities to find better approaches and identify potential problems before significant development resources are committed.

Existing engineering knowledge can also be valuable here. Reusing a proven component or adapting a successful previous design may reduce cost, development time, and technical risk.

Step 5: Evaluate and Select a Solution

Not every design concept will satisfy the project requirements equally well. Engineers therefore evaluate alternatives based on established criteria. These may include:

A decision matrix can help teams objectively compare options by weighting each criterion according to its importance. Simulation can also play an increasingly important role during concept selection. Instead of waiting until physical prototypes are built, engineers can evaluate structural, thermal, fluid, or other performance characteristics digitally.

The strongest concept isn’t necessarily the one with the highest performance in a single category. Engineering design frequently involves balancing competing requirements.

A lighter component may cost more. A stronger material may be harder to manufacture. A more sophisticated mechanism may improve performance while increasing maintenance requirements. The goal is to identify the solution that provides the best overall fit for the product’s requirements.

Step 6: Develop the Detailed Design

Once a concept has been selected, engineers transform it into a complete product definition.

This stage of the engineering design process frequently includes:

Modern engineering software enables teams to evaluate many aspects of product performance before anything is physically manufactured. CAD platforms such as Creo allow engineers to create and refine complex product geometry, while simulation tools help teams evaluate performance earlier in development.

This is also when engineering collaboration becomes increasingly important. A mechanical design decision may affect electronics. An electrical change may alter packaging. Manufacturing may identify a feature that is difficult or expensive to produce. Allowing those disciplines to collaborate before the design is finalized reduces the likelihood that downstream issues will require major redesigns later.

Centralizing engineering information through Product Lifecycle Management (PLM) can also help teams control revisions, manage CAD data, and ensure stakeholders work from the correct product information.

Step 7: Prototype and Test

A design that works in CAD still needs to prove itself. Testing determines whether the solution actually satisfies the requirements established earlier in the engineering design process. Depending on the product, teams may use a combination of:

Physical prototypes remain extremely valuable, but digital simulation increasingly allows engineers to identify problems before prototypes are created. For example, structural simulation could identify excessive stress in a component before it is machined. Thermal analysis could reveal an overheating risk before an assembly reaches the test lab.

When physical testing does take place, the results should be compared directly against the project’s engineering requirements. Did the product perform as expected? Which requirements passed? Which failed? What unexpected behavior occurred?

Each result provides information for the next iteration.

Step 8: Refine and Finalize the Design

Testing rarely produces a perfect result on the first attempt. Engineers use what they learn to improve the design.

Refinement may involve:

Changes then need to be tested again. This cycle continues until the product satisfies its requirements and the design is ready to move into manufacturing preparation and production.

At this point, engineering design connects with the broader product development process, including manufacturing planning, supplier preparation, quality processes, production readiness, and launch.

Why the Engineering Design Process Is Iterative

An eight-step list can make engineering design appear more linear than it really is.

In practice, the process looks more like:

Design → Test → Learn → Modify → Test Again

New information continuously influences engineering decisions. A prototype may fail. A supplier may discontinue a component. Simulation may reveal an unexpected weakness. Manufacturing engineers may identify an expensive production process. A requirement may change.

When this happens, engineers return to earlier steps and evaluate the design again.

A mature product development workflow doesn’t attempt to eliminate iteration. Instead, it makes iteration faster and easier to manage.

The objective is to discover problems as early as possible.

A design issue identified during simulation may require a relatively simple model change. The same issue discovered after tooling and production equipment are prepared can become significantly more disruptive.

Digital engineering tools, traceable requirements, effective change management, and centralized product information all help teams iterate while maintaining control over the design.

Engineering Design Process Example: Designing an Industrial Pump

Consider how the complete process might work for a manufacturer developing a new industrial pump.

1. Define the Problem

Customers need a pump capable of continuous operation in a high-temperature environment without the overheating experienced by the current product.

2. Research

Engineers review field data, existing pump designs, failure reports, competitor solutions, available materials, and previous engineering projects.

3. Establish Requirements

The team defines required flow rate, operating temperature, pressure, expected service life, maximum dimensions, weight, cost, and environmental requirements.

4. Generate Concepts

Engineers develop several possible configurations using different materials, cooling approaches, impeller designs, and housing geometries.

5. Evaluate Concepts

Each option is compared based on performance, cost, manufacturability, reliability, and technical risk.

Simulation eliminates one option because of unacceptable thermal performance.

6. Develop the Design

The selected concept is developed in CAD. Detailed components, assemblies, tolerances, materials, drawings, and the Bill of Materials are created.

7. Prototype and Test

Engineers use simulation and physical prototypes to evaluate flow, temperature, vibration, and durability.

Testing uncovers excessive vibration under one operating condition.

8. Refine the Design

The team modifies the impeller and bearing configuration, repeats the analysis, and validates the updated design. Once requirements are satisfied, the product can move into manufacturing preparation.

The example illustrates why the process is inherently iterative. Testing doesn’t simply confirm that the design is finished. It provides information engineers use to make the design better.

Tools That Support the Engineering Design Process

Modern engineering teams use multiple technologies throughout the engineering design process.

Computer-Aided Design

CAD is the foundation of detailed engineering design.

It enables engineers to build 3D models, develop assemblies, create drawings, evaluate fit, and maintain accurate product geometry.

Simulation

Simulation allows teams to test assumptions digitally before relying on physical prototypes. Depending on the application, engineers can analyze:

Moving simulation earlier in the engineering design process can help identify issues while designs are still easy to modify.

Product Lifecycle Management

PLM systems manage engineering information throughout the product development process. They help organizations control:

PLM also supports stronger engineering collaboration by giving teams a shared source of product information.

Requirements Management and ALM

Requirements Management and Application Lifecycle Management tools connect customer and engineering requirements with development and testing.

This becomes particularly important for complex products involving hardware, software, or regulated development processes.

Engineering Collaboration Tools

Good design collaboration software allows stakeholders to review information, provide feedback, and make decisions without creating multiple uncontrolled copies of the design.

The objective isn’t simply to add more software. It’s to create an engineering environment where the right information is available to the right people throughout the process.

Common Engineering Design Challenges

Even experienced engineering organizations encounter problems that make the design process less efficient.

Unclear Requirements

When requirements aren’t measurable or agreed upon, teams may produce technically impressive designs that don’t solve the customer’s actual problem.

Poor Engineering Collaboration

Mechanical, electrical, software, manufacturing, and quality teams may optimize their own work without understanding its impact on the broader system.

Version Confusion

Disconnected CAD files and documentation make it difficult to determine which design represents the current approved version.

Late Manufacturing Involvement

A product may perform perfectly but still be expensive or difficult to manufacture.

Bringing manufacturing expertise into the engineering design process earlier helps prevent these issues.

Excessive Late-Stage Changes

Problems found late in development can require extensive redesign and retesting.

Earlier simulation, reviews, and prototyping reduce this risk.

Limited Design Reuse

When engineers can’t find previous work, they may recreate components and solutions the organization has already developed.

Centralized engineering knowledge improves reuse and helps preserve institutional expertise.

Engineering Design Process Best Practices

Organizations can improve their engineering design process without completely reinventing how engineers work.

Define the Problem Before Opening CAD

Beginning with geometry too early can lead teams toward a solution before the problem is fully understood.

Establish the need first.

Make Requirements Measurable

Engineers should be able to determine objectively whether the final design satisfies each important requirement.

Evaluate Multiple Concepts

Don’t assume the first workable idea is the best idea.

Give teams room to explore alternatives before detailed development begins.

Simulate Early

Use virtual analysis to identify performance issues while designs are still easy to modify.

Design for Manufacturing

Include manufacturing, quality, and other downstream stakeholders before the design is finalized.

Create a Single Source of Truth

Centralize engineering data so teams don’t need to determine which email attachment or shared-drive file is current.

Encourage Cross-Functional Engineering Collaboration

Modern products increasingly depend on multiple disciplines working together.

Connect mechanical, electrical, software, systems, manufacturing, and quality teams throughout development.

Capture Engineering Knowledge

Record decisions, test results, changes, and lessons learned so future teams can benefit from previous work.

How Digital Technology Is Changing Engineering Design

The fundamentals of engineering problem-solving remain the same, but the tools supporting the process continue to evolve.

Cloud collaboration allows distributed engineering teams to work together more easily. Real-time simulation enables engineers to evaluate design decisions while creating geometry rather than waiting until later analysis stages. Generative design helps teams evaluate a wider range of possible solutions. Connected requirements improve traceability between customer needs, engineering decisions, and verification activities. PLM establishes a digital thread connecting product data throughout development and manufacturing. Artificial intelligence is also beginning to help engineers search technical information, summarize documentation, find previous designs, and evaluate engineering data.

These technologies don’t eliminate the engineering design process. They help engineers execute it more efficiently by improving access to information and accelerating feedback.

Frequently Asked Questions About the Engineering Design Process

What is the engineering design process?

The engineering design process is an iterative series of steps engineers use to define a problem, establish requirements, develop potential solutions, create a detailed design, test it, and refine the solution until it meets its objectives.

What are the steps of the engineering design process?

A typical engineering design process includes eight steps: define the problem, research, establish requirements, generate concepts, select a solution, develop the detailed design, prototype and test, and refine the final design.

Why is the engineering design process important?

The engineering design process gives teams a repeatable framework for solving complex problems. It helps engineers understand requirements, compare possible solutions, identify issues earlier, improve collaboration, and reduce development risk.

Is the engineering design process iterative?

Yes. Engineering design is highly iterative. Testing, simulation, customer feedback, manufacturing constraints, and changing requirements frequently cause teams to return to previous stages and refine their work.

What is the difference between engineering design and product development?

Engineering design focuses primarily on creating and validating the technical solution. Product development is the broader process that includes market discovery, engineering design, manufacturing preparation, commercialization, launch, and continuous improvement.

What tools are used in the engineering design process?

Common tools include CAD, simulation software, Product Lifecycle Management (PLM), requirements management software, Application Lifecycle Management (ALM), prototyping technologies, and engineering collaboration tools.

What is an example of the engineering design process?

An engineer developing an industrial pump might first identify a performance problem, establish technical requirements, develop several potential concepts, select and model a design, simulate its performance, build and test a prototype, and refine the product based on test results.

How does CAD support the engineering design process?

CAD software enables engineers to create detailed digital models, develop assemblies, evaluate geometry, create engineering drawings, and prepare designs for downstream manufacturing activities.

Better Engineering Starts with a Better Process

The engineering design process gives engineers a structured framework for transforming a problem into a validated solution.

Its value doesn’t come from rigidly following a checklist. It comes from creating a disciplined way to define problems, establish requirements, explore alternatives, test assumptions, learn from results, and continuously refine a design.

The most effective engineering organizations combine this process with strong engineering collaboration, connected product information, simulation, requirements management, and modern engineering software. That combination helps teams identify problems sooner, make better-informed decisions, reduce unnecessary rework, and create products that are better prepared for manufacturing.

And engineering design is only one part of the journey. Once a design has been validated, product development continues through manufacturing preparation, product introduction, launch, and continuous improvement.

To see how engineering design fits into that broader lifecycle, explore our Product Development Process: A Complete Guide from Idea to Launch.

Improve Your Engineering and Product Development Process

If disconnected engineering information, design revisions, poor collaboration, or inefficient workflows are slowing product development, EAC can help.

We work with engineering and manufacturing organizations to connect product development through solutions for CAD, Product Lifecycle Management, Application Lifecycle Management, simulation, and digital engineering. From Creo for engineering design to Windchill for product data and collaboration and Codebeamer for requirements and lifecycle management, our experts can help create an engineering environment that supports better decisions from initial requirements through validated design.

In today’s world, sustainability is not just a buzzword—it is a business imperative. Conducting a sustainability assessment of your manufactured products through economically sound processes that minimize negative environmental impacts is crucial. Here is why:

Environmental Protection

Safeguarding our planet for future generations is one of the most compelling reasons to conduct a sustainability assessment. By evaluating your company’s environmental footprint, you can identify areas where you can reduce waste, lower emissions, and conserve natural resources. This helps protect ecosystems and also ensures that future generations can enjoy a healthy and sustainable environment.

Regulatory Compliance

Staying ahead of ever-evolving regulations is another critical aspect. Governments around the globe are increasingly implementing stringent environmental laws and regulations. The U.K. has been one of the industry leaders in changing their sustainability standards with many following suit around the world. A thorough sustainability assessment helps you understand and comply with the regulations in your area, avoiding potential fines and legal issues. It also positions your company as a responsible corporate citizen, which can be beneficial in negotiations and partnerships.

Economic Efficiency

Reducing costs and improving resource efficiency are direct benefits of a sustainability assessment. You can implement changes that reduce energy consumption, minimize waste, and optimize resource use by identifying inefficiencies in your production processes. This not only lowers operational costs but also enhances your bottom line, making your business more economically sustainable.

Consumer Demand

Meeting the growing demand for sustainable products is essential in today’s market. Consumers are increasingly aware of the environmental impact of their purchases and prefer to buy from companies that prioritize sustainability. A sustainability assessment helps you align your products with consumer expectations, enhancing your brand’s reputation and customer loyalty.

Innovation and Competitiveness

Driving innovation and staying competitive is crucial for long-term success. Sustainability assessments often reveal opportunities for innovation, such as developing new, eco-friendly products or adopting innovative technologies that reduce environmental impact. By staying ahead of the curve, you can differentiate your company from competitors and capture new market opportunities.

Risk Management

Mitigating risks and enhancing business resilience are vital for navigating the uncertainties of the modern business landscape. Environmental risks, such as resource scarcity and climate change, can have significant impacts on your operations. A sustainability assessment helps you identify and address these risks proactively, ensuring that your business remains resilient and adaptable in the face of challenges.

Sustainability assessments are not just about minimizing environmental impact—they are about creating a comprehensive approach to business that considers economic efficiency, regulatory compliance, consumer demand, innovation, and risk management. By conducting a comprehensive sustainability assessment, your company can enhance its reputation, drive innovation, and ensure long-term success and resilience.

Investing in sustainability is investing in the future. Start your sustainability assessment today and take the first step towards a more sustainable and prosperous tomorrow.

The majority of businesses aspire to achieve sustainability but often lack clarity on where to begin. Many perceive adopting sustainable practices as a daunting task, believing it necessitates a complete overhaul of their production processes to make a significant impact. However, let me assure you that this is not the case.

So, where should you start your journey towards creating more sustainable product design and manufacturing processes?

To genuinely embrace sustainability, focus on making design decisions at the outset. Designing for repair, reducing material usage, refurbishment, remanufacturing, recovery, reuse, and recycling is crucial. It requires a holistic approach that considers a product’s environmental impact throughout its lifecycle.

Over 80% of a product’s environmental impact stems from design decisions made early on.

Here are three ways design changes can drive sustainability:

Sustainability in Design for Dematerialization

Dematerialization, or material usage reduction, emerges as a crucial strategy for sustainability, aiming to reduce material consumption and weight without sacrificing strength and durability. Leveraging cutting-edge technologies like Generative Design, engineers can optimize designs to use only the necessary amount of material, tailored to specific loads and constraints of each application.

Creo Simulation Live offers a seamless platform for quickly assessing how different materials or reduced material usage affect design performance, enabling adjustments earlier in the design process.

Moreover, with solutions like Creo AMX, designers leverage additive manufacturing capabilities to build structures in the most efficient direction, generating automated supports, and showcasing the potential of lattice structures.

These innovations not only allow for a material reduction but pave the way for lighter, more sustainable products that maintain the required level of performance. As we continue to prioritize dematerialization in manufacturing, we edge closer to a future where sustainability and efficiency are seamlessly integrated into every aspect of product development.

Sustainability in Design for Waste Reduction

Designing for manufacturability and minimizing material waste, such as through minimal stock allowance, ensures efficient use of resources from the outset. By leveraging die casting for near-net shape production throughout the manufacturing process, material waste is significantly reduced to maximize material utilization and minimize scrap generation.

Additionally, utilizing numerically controlled (NC) strategies optimized for fast machining and lower energy consumption, such as high-speed machining (HSM) roughing and finishing, contributes to waste reduction and energy efficiency.

Moreover, designing for ease of service and assembly extends product lifespan and reduces the demand for new products. While some parts of a product may wear faster than others, creating products for easy disassembly eliminates waste because you do not have to throw away the entire product to extend the lifespan.

Accurate documentation of assembly and disassembly instructions empowers users to maintain and repair products, minimizing waste and promoting a more sustainable approach to product lifecycle management.

Sustainability in Design for Energy Efficiency

Engineers globally actively address questions such as, “Can we reduce noise and unneeded energy consumption in design?” and “Can we make our design more thermally efficient?” to pave the way for eco-friendly innovation.

Their goal is to pinpoint areas where energy is wasted, but don’t have the most efficient tools to accomplish that task. Modal analysis and thermal analysis enable more streamlined and environmentally conscious designs. Additionally, tools like Creo Flow Analysis optimizes flow efficiency to ensure that products operate with maximum efficiency, minimizing energy requirements without sacrificing performance.

Furthermore, selecting materials that demand less energy to manufacture and recycle adds another layer of sustainability to the design process and reduces the overall environmental impact from production to end-of-life disposal. Through these proactive measures, energy-efficient product design becomes a tangible pathway towards a more sustainable future.

Sustainable Design Solutions

Our suite of Creo design tools supports sustainable practices:

Designing for sustainability benefits both the environment and businesses. Companies can significantly reduce their environmental footprint by considering dematerialization, disassembly, and behavioral modeling.

By partnering with EAC for solution identification and utilizing PTC’s comprehensive Creo design tools, companies can pave the way for a sustainable future while improving their bottom line. Let’s talk about how EAC can help you identify solutions to help your company embrace sustainable design practices today!

Developing complex products in CAD (computer-aided design) with a distributed team can be a challenging task. However, with Creo Parametric’s Advanced Assembly Extension [AAX], managing distributed development becomes a seamless process even on a global scale.

This powerful extension facilitates and automates the exploration of product assembly variations and adds intelligence to your CAD design assembly so it reacts correctly in any situation.

Clearly Defining and Communicating Complex Design Intent

To kickstart any complex design project within CAD, it is vital to have a clearly defined source of design intent. This serves as the backbone of the development process and enables smooth collaboration among team members.

Furthermore, Creo Parametric AAX has tools for creating and managing space claims, assembly interfaces, and location points. These features help define design intent and make sharing information easy. With a clear and structured design intent, it becomes much easier for team members to understand their tasks and contribute effectively.

Distribution and Communication of Design Intent

Once the design intent is defined, the next crucial step is to distribute and communicate this intent to team members efficiently. Creo Parametric AAX allows team members to focus on their relevant tasks by providing options to copy relevant geometry or use published geometry in their subsystem. This ensures that each team member can work on what’s relevant to their task without any confusion or delays.

Controlling Inter-Dependencies

Intelligent inter-dependency management within a complex product design is essential to ensure flexibility and adaptability. Advanced Assembly offers powerful tools to create and track desired interdependencies, preventing the creation of unwanted relationships that can hinder design flexibility.

By allowing users to control inter-dependencies effectively, teams can confidently make changes and reuse design components while maintaining the integrity of the complex product.

Leave No Rock Unturned with Complex Designs

The path to innovation often involves exploring multiple iterations and variations of a design. This Creo extension empowers designers to leave no stone unturned by offering efficient tools to create and manage assembly variations.

Families of Assembly Designs

Creating new assemblies for minor variations or component substitutions can be time-consuming and unnecessary. Creo Parametric AAX simplifies this process by allowing designers to define variations in assembly dimensions or switch out components without the need for separate assemblies.

By identifying what differs from the original design, designers can switch family instances of component family tables or subassembly family tables effortlessly, with automation taking care of the rest.

Interchange Parts and Assemblies

The ability to interchange functionally equivalent components is a valuable feature when exploring design variations. This CAD extension enables designers to relate independent components, making it easy to switch them within an assembly. Additionally, simplified exchange members can be substituted into a design to streamline the display while retaining accurate mass property information.

Raising the IQ of your Complex Design

Dealing with constant change is a fundamental aspect of design. Creo Parametric AAX allows designers to enhance their complex models with intelligent logic, automating component sizing based on calculations or user input.

This intelligence extends to switching out components or subassemblies automatically for Family Table or Interchange instances when specific conditions are met. By raising the IQ of your design, you can navigate design changes faster and more efficiently.

How to Put it Together or Take it Apart

Ensuring smooth communication of assembly procedures is crucial for efficient manufacturing and engineering processes. This extension for complex designs offers intuitive process planning functionality to disseminate process information effectively throughout the organization.

Easily Create Assembly Process Sequences

With user-friendly tools, users can define assembly processes step by step. With intuitive drag-and-drop techniques, exploded views, and jogged explode offset lines, AAX provides a clear and accurate representation of each process step, making it easy for all stakeholders to understand the assembly process.

Create Alternate Bills of Materials (BOMs)

Creo Parametric AAX empowers users to create alternative BOMs that reflect specific assembly stages or grouping of design components based on the assembly process. These alternative BOMs, such as manufactured BOMs or fabrication BOMs, enable clear communication of the assembly process and facilitate efficient manufacturing operations.

Creo Parametric Advanced Assembly Extension [AAX] offers a comprehensive suite of tools and functionalities to manage the distributed development of complex designs.

From clearly defining and communicating design intent to exploring design variations and enhancing design intelligence, AAX ensures that no aspect of the design process goes untouched. By leveraging this extension, design teams can collaborate effectively, respond to changes efficiently, and create flexible and reusable complex products