Verifying functional features helps ensure your parts meet quality standards consistently, avoiding costly defects and ensuring customer satisfaction. This process creates reliability and trust in the parts you’re producing.
One key feature is the rotating torque on pivoting joints. Accurate torque control is crucial for components that need precise movement, helping to maintain product integrity and functionality over time.
Look at the machine’s configuration, how securely it holds parts, and how it manages friction. It’s also worth considering whether the machine can perform additional processes, such as marking parts, to streamline production and reduce the chance of downstream quality issues.
The spindle must align precisely with the pivot part’s axis for accurate results. This alignment prevents inconsistencies that could impact the reliability of your test data.
To achieve accurate results, parts should be clamped firmly using standard datums from engineering drawings. Proper positioning minimizes movement and distortion, protecting the integrity of test outcomes.
Rotational friction can affect test accuracy, so measuring and accounting for it is essential. This ensures the test results reflect the part’s true performance without interference from the test equipment.
Combining part assembly or marking within the same machine can streamline your workflow and reduce the risk of quality issues later in production. This approach also saves time by consolidating steps, boosting efficiency.
The fixture must maintain the accuracy of test data without compromising other aspects. Accurate fixturing ensures reliable data that reflects real-world performance, which is crucial for quality assurance.
The pivot joint needs direct support aligned with its rotational axis to avoid unwanted friction or misalignment. Proper support enhances test reliability by ensuring the joint moves as it would in actual use.
External components should be clamped firmly to prevent shifting without adding extra load to the pivot joint. Using datum locations related to the pivot’s centerline helps maintain alignment and accuracy.
Reducing friction allows the system to measure torque directly, providing more accurate data about the pivot joint’s performance. This helps avoid extra calculations and simplifies the testing process.
The testing system should include calibration tools to ensure ongoing accuracy. Regular checks help maintain consistent results over time so you can be confident in the data your system provides.
Control methodology determines how the machine operates and collects data, making it fundamental to achieving reliable and accurate measurements. With a strong control approach, your test results will consistently reflect real-world performance.
Break-in cycles allow parts to distribute lubrication and reduce internal stress, achieving smooth motion. This can be essential to meet specific application requirements and improve the accuracy of torque measurements.
Breakaway torque: This is the force needed to start movement, often the highest point in the cycle. It’s critical for products that rely on a specific “feel” for operation.
Min and max torque: Measures tight or loose spots across full motion, indicating part consistency and quality.
Average torque: Taken over the entire range shows the overall effort needed to move the part, reflecting user experience and function.*
Effective control systems govern how measurements are taken and processed, ensuring that even a well-built machine produces valuable, consistent data. This underpins the reliability of your testing outcomes.
The testing machine delivers precise, actionable results when each element functions in sync. This synergy prevents delays and inaccuracies, supporting an efficient production process.