Best Practices for End-to-End Manufacturing
End-to-end manufacturers oversee every stage of product development, from design to delivery, ensuring complete control over production. This unique position allows them to influence product quality, speed, and cost-effectiveness. But how can they ensure that quality remains consistently high throughout the process? And how can quality data from one stage enhance the next? Let’s explore the best practices for automating quality control in end-to-end manufacturing.
The Challenges for End-to-End Manufacturers
In today’s competitive landscape, consumers demand top-quality products at competitive prices. Products must not only be flawless but also continuously improved, leaving manufacturers with immense pressure to balance quality, cost, and time to market.
For manufacturers producing large or complex parts over long cycles, inefficiency and rework can be significant concerns. How do you ensure that each stage of production builds on the quality of the last, especially when dealing with intricate components that require multiple iterations?
The answer lies in utilising precise measurements and scan data to fine-tune prototypes and production processes. By integrating feedback from each stage, manufacturers can make real-time adjustments, improving efficiency and reducing the need for costly rework.

Quality Control Solutions to Enhance Product Development and Manufacturing
To keep up with market demands, end-to-end manufacturers need advanced quality control technologies. Automated quality control (AQC) tools are crucial for inspecting part dimensions, collecting accurate data, and optimising the production process. These solutions help ensure that high-quality parts are delivered on time, every time.
But what are the key requirements for these tools to optimise production and meet customer expectations?

Quality Control Automation Tools
For maximum efficiency, automated measuring tools must account for part type, size, and geometry. Ideally, these tools can integrate seamlessly into production lines without disrupting workflow.
Speed is also critical. Tools like 3D scanners, particularly those mounted on robots, allow manufacturers to capture vast amounts of data quickly—even for complex geometries and challenging surfaces. This ensures that quality control keeps up with production timelines, without sacrificing accuracy.
Automated Quality Control Software
A robust offline simulation platform is essential to mimic real-world environments and scanner behaviour. This allows manufacturers to evaluate cycle times, assess robot paths, and identify potential collision risks before deploying on the factory floor.
Moreover, integrating the data collected with metrology software, such as Polyworks or Metrolog, enables manufacturers to improve subsequent production stages by refining data accuracy.
A comprehensive acquisition platform ensures high-resolution scanning, even for large or difficult surfaces. With optimised algorithms, manufacturers can be confident they’re capturing the finest details to meet quality standards.

Implementing Automated Quality Control Processes
Implementing AQC is a multi-step process that requires careful planning. To ensure success, it’s important to choose the right tools, software, and partners.
Below are some best practices to guide you.
Best Practices for Automated Quality Control

1 Conduct a Financial Analysis
Before selecting an AQC system, conduct a cost-benefit analysis. Determine if the system will reduce labour costs, limit rework, or improve space efficiency. Also, evaluate whether the new system will increase productivity, leading to higher customer satisfaction and demand.
2 Use Offline Programming Software
A digital twin environment allows you to simulate robot and scanner configurations, ensuring that the system meets reachability and cycle time requirements. This virtual evaluation helps determine whether the investment makes financial sense before implementation.
3 Validate the Technology
Once you’ve conducted a virtual evaluation, it’s time to test the AQC technology in a real-world environment. Ensure the system meets performance requirements, such as accuracy and resolution. It’s often a good idea to validate the technology using handheld devices first, before integrating it into a fully automated solution.
4 Choose the Right Robot Integrator
A successful AQC implementation requires a skilled partner. Finding the right robot integrator can make or break the process, ensuring that everything from technology integration to system performance is executed flawlessly. If an integrator is difficult to find, a turnkey solution may be a suitable alternative.
5 Build a Business Case
Once all analyses and simulations are complete, create a business case to evaluate the return on investment (ROI). This final step will confirm whether the project is viable and worth pursuing.

Automated Quality Control: The Way Forward for End-to-End Manufacturers
End-to-end manufacturers are uniquely positioned to benefit from automated quality control systems. By using quality data from each stage to enhance the next, they can achieve greater efficiency, reduce rework, and consistently deliver high-quality products.
Measurement Solutions offers the tools, software, and expertise needed to help manufacturers implement AQC systems successfully.
Contact us to learn more about our solutions and how they can help optimise your quality control processes.