Design and Construction of a Hybrid Locomotive using Magnetic Levitation

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Design and Construction of a Hybrid Locomotive using Magnetic Levitation

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Title: Design and Construction of a Hybrid Locomotive using Magnetic Levitation


1
Design and Construction of a Hybrid Locomotive
using Magnetic Levitation
  • Team Number MEM10
  • Advisor Dr. Kimberly Cook
  • Team Members Timothy Dickson
  • William Hearn
  • Eric Mscisz
  • Daniel Trimarco
  • Drexel University Mechanical Engineering and
    Mechanics
  • Presented on December 1, 2005

2
Outline
  • Background
  • Problem Statement
  • Objective
  • Specific Deliverables
  • Design and Constraints
  • Levitation
  • Propulsion
  • Economic Analysis
  • Alternative Solutions
  • Timeline
  • Societal and Environmental Impact
  • Acknowledgements

3
Background
  • Travel and Freight Industry
  • Rejuvenated interest in locomotive travel
  • Conventional Locomotives
  • Diesel or Electric
  • Electro-Diesel Hybrid
  • RailPower and GE
  • High Speed Trains
  • Amtrak Acela Express and French TGV
  • Maglev Trains

4
Existing Maglevs
  • German Transrapid (EMS)
  • High speed (271 mph)
  • Low maintenance
  • Low energy requirement
  • High initial cost (30 Million per mile of track)
  • Japanese Maglev (EDS)
  • Highest speeds (361 mph)
  • Superconducting Magnets
  • Highest initial cost (148 Million per mile of
    track)

Train
Guideway
Undercarriage arm
Transrapid International
Japan Railway and Transport
5
Problem Statement
  • Congestion, energy costs, emissions
  • Long intercity commutes
  • Existing hybrids only a stepping stone
  • U.S. unsuccessful in Maglev implementation
  • High initial costs for Maglev
  • No hybrid with Maglev in the U.S.

6
Objective
  • Hybrid Locomotive
  • Reduce infrastructure costs
  • Passive Track
  • Low Energy
  • Low Maintenance

7
Specific Deliverables
  • Locomotive
  • Weight - 45 lbs
  • Size - 1.25x1.5x1
  • Payload - 50
  • Distance - 50
  • Track
  • Length - 100
  • Elevation - 10

Lawrence Livermore National Laboratory
8
Inductrack
Lawrence Livermore National Laboratory
  • No power needed to levitate
  • Easy and cheaper to manufacture
  • Separate propulsion system needed

9
Inductrack Levitation
  • Uses Neodymium rare earth magnets in Halbach
    array to create magnetic field.
  • Passive track system allows the lifting force to
    be located on the train.
  • Once the transition velocity is reached magnetic
    drag reduces exponentially.

Bradley University Department of Electrical
Engineering
Lawrence Livermore National Laboratory
10
Inductrack Constraints
  • Vertical Lift Force
  • Levitation Frequency
  • Required Velocity

11
Segmented Rail Phase Induction Motor
  • LIM allows for short stator propulsion
  • Passive track
  • Flexible Propulsion Coil Arrangement
  • Flexible Power Options
  • Simple Controller

Sandia National Laboratories
12
SERAPHIM Constraints
  • Marder, Barry

    Marder, Barry

13
SERAPHIM Test Platform
Sandia National Laboratories
  • Sandia National Laboratories

14
Current Work
15
Economic Analysis
16
Alternate Solutions
  • Linear Synchronous Motor (LSM)
  • Greater Acceleration than LIM
  • Climb Steeper Grades than LIM
  • Levitate Sooner
  • High Cost
  • Active Rail
  • Fuel Cells
  • Less Fossil Fuel
  • High Cost due to availability and storage
  • Technology not fully developed

17
Timeline
18
Societal Environmental Impact
  • Less congestion at airports and highways
  • Less fossil fuel consumption
  • Faster and cheaper intercity travel
  • Faster delivery for businesses

19
Acknowledgements
  • Dr. Kimberly Cook MEM10 Advisor
  • Drexel University MEM Department

20
References
  • 1. 20 Oct. 2005 7/2422/05dec20031700/edocket.access.gpo.gov/cfr_20
    03/octqtr/pdf/49cfr213.9.pdf.
  • 2. "Acela Express." Wikipedia. 8 Nov. 2005
    .
  • 3. "Aluminum Structural Angle." Metals Depot. 19
    Oct. 2005 m2.phtml?pagesangleLimAccLimAcc.
  • 4. "Amtrak." Wikipedia. 8 Nov. 2005
    .
  • 5. Dauwalter, C. R., W. S. Brown, F. Heger, and
    M. S. Weinberg. Federal Railroad Administration.
    Department of Transportation. Comparison of Major
    Parameters in Electrodynamic and Electromagnetic
    Levitation Transport Systems. 1992.
  • 6. Edminister, Joseph A. Schaum's Outline Series
    Theory and Problems of Electromagnets. New York
    McGraw-Hill, INC, 1979.
  • 7. Halliday, David, Robert Resnick, and Jearl
    Walker. Fundamentals of Physics. 6th ed. Vol. 2.
    New York John Wiley Sons, 2001.
  • 8. "Hybrid Locomotive." GE Transportation. 2005.
    18 Oct. 2005 eral/locomotives/hybrid/hybrid_default.asp?SMSESSI
    ONNO.
  • 9. Leahy, Stephen. "Hybrid Locomotive Gains
    Traction." Wired News. 25 Mar. 2005. 18 Oct. 2005
    .
  • 10.Marder, Barry, comp. The Physics of SERAPHIM.
    Oct. 2001. Sandia National Laboratories. 2 Nov.
    2005 01401.pdf.
  • 11. "Metric Neodymium Rare Earth Magnets." Indigo
    Instruments. 18 Oct. 2005 agnets/gphmgnts/metric-neodymium-rare-earth-magnet
    s.html.
  • 12. Post, Richard E., comp. Inductrack Passive
    Magnetic Levitation. 2003. Lawrence Livermore
    National Laboratory. 19 Oct. 2005
    .
  • 13. "Primary Airport Boardings." Federal Aviation
    Administration. 8 Nov. 2005. 10 Nov. 2005
    rimary_boardings.pdf.

21
References (cont.)
  • 14. Rennie, Gabriele. "Magnetically Levitated
    Train Takes Flight." Science and Technology. Oct.
    2004. 19 Oct. 2005
    .
  • 15. Sawada, Kazuo. "Japan Railway and Transport
    Review." Magnetic Levitation Technologies. 25
    Oct. 2000. 20 Oct. 2005 5/pdf/f58_tec1.pdf.
  • 16. Secarescu, Daniel. "Electric Diesel Hauling."
    The Railway Journal. 2 Nov. 2005
    .
  • 17. "SERAPHIM." Sandia National Laboratories.
    Feb. 2002. 2 Nov. 2005 phim/About/info.htm.
  • 18. Stodolsky, Frank. U.S. Office of Scientific
    and Technical Information. Department of Energy.
    Railroad and Locomotive Technology Roadmap. 25
    Oct. 2005 ilroads/pdfs/roadmap.pdf.
  • 19. "TGV Basics." TGV Web. 7 Nov. 2005
    d.html.
  • 20. Thornton, Richard D., David Perreault, and
    Tracy Clark. Federal Railroad Administration.
    Department of Transportation. Linear Synchronous
    Motors for Maglev. 1993.
  • 21. Transrapid International. 25 Sept. 2005
    .
  • 22. United States. Federal Railroad
    Administration. Department of Transportation.
    Assessment of the Potential for Magnetic
    Levitation Transportation Systems in the United
    States. 1990.
  • 23. U.S. Bureau of Transportation Statistics.
    National Transportation Statistics. 7 Nov. 2005
    tation_statistics/2005.
  • 24. U.S. Energy Information Administration.
    Department of Energy. Gasoline and Diesel Fuel
    Update. 17 Oct. 2005 .
  • 25. U.S. Environmental Protection Agency. Nonroad
    Engines, Equipment and Vehicles. 11 Aug. 2005. 18
    Oct. 2005 PRM.
  • 26. U.S. Federal Railroad Administration.
    Department of Transportation. High-Speed Rail
    Technology Development. 21 Oct. 2003. 2 Nov. 2005
    .

22
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