Learned how virtual machining can replicate real-world cutting processes, allowing simulation of various tool wear conditions without physical experiments.
Gained insights into generating synthetic yet realistic machining data such as forces, vibration, and wear progression.
Understood the importance of virtual testing in reducing development time and cost.
Discovered how vibration signals are sensitive indicators of tool wear and reflect dynamic tool–workpiece interactions.
Learned how these signals change in amplitude and frequency as wear increases.
Understood the benefits of simulated sensors in capturing high-quality vibration data for analysis.
Gained knowledge on how raw vibration data is filtered and digitized using microcontroller blocks for real-time monitoring.
Learned the significance of preprocessing in enhancing signal clarity and reliability.
Understood the importance of integrating embedded systems for real-time industrial applications.
Understood how FEA helps in analyzing structural changes in the cutting tool due to wear.
Learned how mode shapes and stiffness degradation can be used as indicators of tool health.
Explored the use of modal analysis in identifying dynamic shifts associated with wear progression.
Learned about the key features extracted from vibration data (e.g., stiffness estimate, severity index, mode shape flag) and how they relate to tool condition.
Understood how predictive models use these features to classify the tool state (healthy, worn, critical).
Recognized the importance of early prediction for proactive maintenance and extended tool life.
Gained insight into the development of user-friendly interfaces that display tool condition in real time.
Understood how real-time alerts and logging systems enhance operator awareness and support traceability.