At Lumis Automation, we recently completed a project for the design and development of a PTFE Billeter Machine. This custom machine was engineered to produce high-quality PTFE billets, incorporating precision mechanics, advanced electrical controls, and sophisticated software integration. Below, we provide a technical overview of the machine’s key design elements and capabilities.

Mechanical Design

The mechanical structure of the Billeter Machine was built to withstand the rigorous demands of billet production. Two precision ballscrews formed the core of the machine’s motion system, responsible for driving the billet press. These ballscrews were synchronized and driven by a single high-torque motor to ensure consistent and uniform force distribution during the pressing process.

The linear motion provided by the ballscrews enabled precise control over the billet formation, critical to maintaining the material properties of PTFE. The robust mechanical framework minimized vibration and ensured high repeatability, critical for long production runs.

Electrical Design

The electrical design centered around precise control and real-time monitoring of the pressing process. A load cell was integrated into the system to continuously monitor the pressure exerted during billet formation. This feedback allowed for real-time adjustments, ensuring that the pressure applied to the PTFE billets remained within the required tolerances.

The control system featured a PLC (Programmable Logic Controller) that interfaced with various sensors and the drive system. The PLC ensured precise synchronization between the motor, ballscrews, and load cell, facilitating smooth and consistent operation.

Software Development

Custom software was developed to control and monitor the machine’s performance. The software provided an intuitive user interface, allowing operators to configure the machine settings, monitor pressure, and track billet production in real-time. The load cell data was continuously recorded and analyzed to ensure that each billet met the required specifications.

The software also featured automated safety protocols to protect both the machine and its operators. If any parameters, such as pressure or motor load, deviated from the acceptable range, the system would immediately halt and alert the operator, minimizing downtime and preventing damage to the equipment.

Conclusion

The PTFE Billeter Machine developed by Lumis Automation represents a successful integration of mechanical precision, electrical control, and advanced software. Its design ensures the consistent production of high-quality PTFE billets, with a focus on efficiency, precision, and operator safety. This project demonstrates our ability to deliver custom automation solutions that meet stringent industrial requirements.