Mill+: An intuitive tool for simulating the milling process, vibration mitigation and surface quality control
Copyright (c) 2024. Mill+ All Rights Reserved. This work is protected by copyright laws and international treaties.
Authors: Gorka Urbikain Pelayo, Daniel Olvera Trejo
Purpose Mill+ is a computational tool created to optimize milling processes by addressing common challenges such as vibration mitigation, productivity improvement, and surface quality control. By leveraging machining dynamics and intuitive simulations, Mill+ enables users to:
- Avoid unstable vibrations through Stability Lobes Diagrams.
- Achieve desired surface finishes by predicting and controlling process variables.
- Analyze and optimize key performance indicators such as cutting forces, power consumption, and material removal rate (MRR).
Designed for professionals and researchers, Mill+ provides an accessible platform for informed decision-making in milling operations, minimizing the need for costly trial-and-error approaches.
Installation To install and start using Mill+, follow these steps:
- Download the Application: Access the latest release from the GitHub repository.
- Extract the Files: Unzip the downloaded package to a local directory on your system.
- Install MATLAB Runtime: If MATLAB is not installed on your computer, download and install the MATLAB Runtime environment compatible with the application version.
- Run the Executable: Locate the
MillPlus.exe
file in the extracted folder and double-click to launch the application.
Features and Workflow Mill+ is designed to assist users in optimizing milling processes through the following key functionalities:
- Input Definition: Users can define critical cutting parameters such as spindle speed, depth of cut, and tool geometry.
- Simulation and Analysis:
- Generate Stability Lobes Diagrams to identify optimal machining conditions.
- Visualize process variables such as cutting forces, material removal rate (MRR), and surface roughness predictions.
- Output Results:
- Review detailed graphical outputs to understand system behavior under different machining scenarios.
- Export results for further analysis or reporting.
Contact Information For support, bug reports, or feature requests, contact the development team:
- Gorka Urbikain-Pelayo (University of the Basque Country), email: [email protected]
- Daniel Olvera-Trejo (Tecnológico de Monterrey), email: [email protected]