The wireless vibration sensors transmit data in real-time to a cloud-based data storage and visualization platform where students can log in to view the data from any operating system and without downloading any software. The visualization platform provides historical trend views where students can track and understand changes in sensor data over time and correlate the information with the machine’s health. Additionally, no specialized training is required to use the system.
The sensors are mounted on several of the ABB robotic arms and a HAAS CNC machining center to continuously measure the vibration of machines. Prabhu relates the sensors to a stethoscope; it's like checking a heartbeat. If the vibration signatures of the machine appear to be unusual, the cloud platform system has capabilities to provide predictive information with configured "warning" and "alarm" notifications, which means that the machine is due for maintenance.
The sensor can be easily mounted to any metallic surface via its magnetic base to measure vibration and temperature. The sensor consistently transmits the real-time data to a gateway or a hub, similar to a receiver box, which then pushes all the received data to the cloud platform over the internet.
"The sensors are helping put industrial systems into what we call industry 4.0, otherwise known as the fourth industrial revolution," Prabhu said. "Industry 4.0 is looking at how data, automation, the Industrial Internet of Things and more work together synergistically."
Additionally, the sensors will be used in Rakshith Badarinath's research on polymer additive manufacturing using ABB robots. Polymers have long been used in 3D printing due to the material’s ability to soften and flow when heated but become hardened when cooled.
As a graduate research assistant for the department, Badarinath studies process modeling and real-time control of fused filament fabrication polymer additive manufacturing processes using the ABB industrial robot arm.
"This is the age of connectedness, and the wireless sensors like those of KCF are easier to set up and make data acquisition much easier in research," Badarinath said. "I am able to use these sensors to monitor vibrations in the ABB robots and how much these vibrations affect quality of the printing process. This enables us to closely monitor and control the resulting product quality.”
Jason Joshi, a KCF Technologies partnership development manager and certified vibration technologist, assisted the department with the installation of the new sensors.
Joshi, an IME alumnus, explained that optimal sensor placement is important because sensors need to be as close to critical components as possible to receive data that is good quality.
"IE 470 was a course I enjoyed at Penn State because it was a great introduction to manufacturing and, more specifically, lean manufacturing," Joshi said. "At KCF, I get to travel to manufacturing facilities all over the country, so it's cool to see the principles I learned in class being applied in the real world."
Jeremy Frank, CEO and co-founder of KCF Technologies, stated that he is excited to support the FAME Lab and IME students. Frank believes that hands-on experience is essential to equip students with the necessary skills to succeed professionally.
"We see sensors as an important tool in the Industrial Internet of Things landscape and Penn State is in a position to play a pivotal role in preparing students to transform American manufacturing," Frank said. "We look forward to opportunities to connect Penn State's best and brightest with our technology and customers."