A Python-based automation workflow for Motor-CAD analysis and thermal simulation.
- motorcad_automation_workflow.ipynb - Jupyter notebook with Motor-CAD automation scripts
- Gen8_3pp.mot - Motor-CAD design file
- Gen8_3pp.txt - Motor-CAD configuration/data export
This project automates Motor-CAD workflows using Python, including:
- Motor design analysis
- Thermal simulation and calculations
- Electromagnetic performance analysis
- Data processing and visualization
- Lab Model Build - Constructs electromagnetic and loss models with configurable saturation methods
- Heat Balance Analysis - Thermal analysis with losses and dissipation calculations
- Efficiency Map - Complete efficiency mapping across speed and current ranges
- Peak Operation - Electromagnetic analysis at peak performance conditions
- Continuous Operation - Steady-state thermal and mechanical performance
- Transient Operation - Dynamic thermal analysis over specified time periods
heat_balance.png- Stacked bar chart of losses vs dissipationaxial_temperatures.png- Axial temperature distributionradial_temperatures.png- Radial temperature distribution
peak_performance.png- Torque and power curvespeak_performance_torque_power.png- Combined torque/power graph
continuous_performance.png- Torque and power vs speedcontinuous_max_temperatures.png- Magnet and winding max temperaturescontinuous_performance_torque_power.png- Combined torque/power graph
efficiency_map.png- 2D efficiency contour map
transient{duration}s_performance.png- Transient torque and powertransient{duration}s_max_temperatures.png- Transient magnet and winding temperaturestransient_{duration}s_torque_power.png- Combined transient torque/power
- Python 3.x
- Motor-CAD 2023.2+
- Jupyter Notebook
- NumPy, SciPy, Matplotlib, Seaborn
Open motorcad_automation_workflow.ipynb in Jupyter Notebook and modify the analysis flags in the "VARIABLE DEFINITION" section to enable/disable specific analyses, then run the cells to execute the automation workflow.