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Permanent Magnet Motor Modeling Kaila Krieser, EE Dan Montgomery, EE Craig Christofferson, EE Mark Wisted, EE Dr. Mani Mina, Advisor Dr. David Jiles, Advisor.

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Presentation on theme: "Permanent Magnet Motor Modeling Kaila Krieser, EE Dan Montgomery, EE Craig Christofferson, EE Mark Wisted, EE Dr. Mani Mina, Advisor Dr. David Jiles, Advisor."— Presentation transcript:

1 Permanent Magnet Motor Modeling Kaila Krieser, EE Dan Montgomery, EE Craig Christofferson, EE Mark Wisted, EE Dr. Mani Mina, Advisor Dr. David Jiles, Advisor Dave Sowders, Kansas City Plant Client

2 Problem Objective  The team will select, use and assess an electromagnetic modeling software tool to simulate Permanent Magnet Motor operation in variable magnet and environmental configurations.  Key Steps: 1. Selection of Tool 2. Selection of Model 3. Modeling Execution 4. Experimental Validation

3 Conceptual Sketch Modeling Software Tool Evaluation Industry Research Design Motors Magnet Material Experiments Other Electromagnetic Modeling Problems

4 System Block Diagram Research PMM Function PMM Modeling Fundamentals Performance Characteristics Magnetic Material Characteristics Selection Software PMM CAD File Simulation FEMM Opera-2D ANSYS EM MagNet Software Evaluation Accuracy (Stretch Goal: Physical Testing Cost Usability Magnet Materials Performance Characteristics

5 Functional Requirements  Modeling Tool for Permanent Magnet Motor  Various modeling tools will be evaluated for accuracy, available measurement parameters, usability and cost.  Motor Model Selection  The selection of the motor model will be based on complexity and obtainable matching CAD files  Motor Simulation  Following the selection of the tool and the model, the simulation of the chosen motor will be executed with the software.  Stretch Goal: Motor Evaluation and Test Results  In order to validate the modeling software’s efficiency, torque, and power output data for a permanent magnet motor, the motor must be tested in a real-world situation.

6 Constraint Considerations  Matching CAD File and Software  Modeling Software Tool Training  Cost  Time  Stretch Goal: Matching Motor and CAD File

7 Deliverables  Software Evaluation Report  Software Overview  Software Usability  Demonstration of CAD simulation  Evaluation of PMM testing  Validation of simulation results

8 Technology Consideration  Modeling Tool  Cost and Availability  Usability and Training Resources  Measurement Parameters  Magnet Material Library  Stretch Goal: Simulation Environmental Dependencies  PMM Model  Cost and Availability  Compatibility to Modeling Software Tool  Stretch Goal: Physical PMM  Cost  Size and Complexity  Matching Motor and CAD File

9 Risks & Mitigation  Change in Client’s Expectations  Lack of Expertise

10 Cost Estimate

11 Market Survey  A comparative analysis from a prospective engineering graduate is not readily available to the client, software companies, and research community.  The research and development style of this project produces intellectual deliverables. As such, similar projects are uncommon.

12 Research  PMM Function  Components  Rotor  Stator  Air gap  Brushless DC  AC Motor Operation Stator Rotor Permanent Magnets Air Gap Stator Windings

13 Research  Modeling Fundamentals  Finite Element Analysis  Polygonal Mesh Modeling  2D versus 3D Analysis  Solvers  Static,  Transient  Time Harmonic

14 Research  Performance Characteristics  Magnetomotive Force  Reluctance  Permeance  Flux Linkage  Cogging Torque  Output Torque  Efficiency and Loss  Electrical or Copper Losses  Core Losses  Mechanical Losses  Stray Losses

15 Research  Magnet Material Characteristics  Permeability  Retentivity  Hysteresis  Maximum Energy Product  Remanence or Residual Magnetizaion  Coercivity  Curie Temperature

16 Research  Magnetic Materials  Ferromagnets  Alnico  Ceramic  Samarium Cobalt  Neodymium-Iron-Boron (NdFeB)  Comparison of Materials

17 Modeling Software Tools  Finite Element Method Magnetics (FEMM)  Simple, free software  Cobham Opera-2D  Advanced, free 30 day trial  ANSYS Electromagnetics Solutions  Advanced, department provided  Infolytica MagNet  Dr. Jiles (Department Chair) recommended, Dr. Jiles provided

18 Evaluation Criteria  Cost  Usability  Performance Characteristics Variability  Magnetic Material Variability  Environmental Variability  Interpretation of Simulation Results  Output Data Accuracy

19 Stretch Goal: Physical Testing  Magnetomotive Force  Gaussmeter and Fluxmeter  Flux Linkage  Back EMF  Cogging Torque  Specific experimental apparatus  Output Torque  Dynamometer  Efficiency  Electrical power in versus mechanical power out

20 Current Project Status  Modeling Software Tool Status  FEMM Modeling  Research Evaluation Motor Options  Project Contacts  Dr. David Jiles  Dr. Faris Al-naemi  Dr. Mani Mina  David M. Sowders  Dr. William McCallum

21 Project Milestones & Schedule

22 Member Contributions  Kaila Krieser  Weekly Reports  Magnetic Material Research  Mark Wisted  FEMM Modeling  Software Research  Website  Dan Montgomery  Communicator  Motor Research  Craig Christofferson  Contacted Software Companies  FEMM Modeling

23 Future Plan  Remaining questions  Narrow modeling software tool options for client by middle of February  Acquire evaluation motor by the beginning of February with magnetic variation  Stretch Goal: Start physical testing by March

24 Questions?


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