Ship Routing Through Altimetry-Derived Ocean Currents

Published Online:https://doi.org/10.1287/trsc.33.1.49

References

  • American Geophysical Union (1996) . Session G31A, Oceanographic and Geophysical Studies using Satellite Altimetry I, Spring Meeting Google Scholar
  • Bellman R. Adaptive Control Processes: A Guided Tour (1961) (Princeton University Press, Princeton, NJ) CrossrefGoogle Scholar
  • Bertsekas D. Dynamic Programming: Deterministic and Stochastic Models (1987) (Prentice-Hall Inc., Englewood Cliffs, NJ) Google Scholar
  • Bishop J. Applied Oceanography (1984) (Wiley, New York, NY) Google Scholar
  • Bleick W. , Faulkner F. Minimum-time ship routing. J. Appl. Meteorol. (1965) 4 217 221 CrossrefGoogle Scholar
  • Bleick W. , Faulkner F. A survey of numerical ship routing. Proc. Naval Oceanographic Conf. (1971) (Monterey, CA) Google Scholar
  • Carnes M. , Mitchell J. , de Witt P. Synthetic temperature profile derived from GEOSAT altimetry: Comparison with air dropped expanded bathythermography profile. J. Geophys. Res. (1990) 95 C10 17979 17992 CrossrefGoogle Scholar
  • Calvert S. Optimal weather routing procedures for vessels on oceanic voyages. (1990) . Ph.D. thesis, Institute of Marine Studies, Polytechnic South West, UK Google Scholar
  • Chen H. A dynamic program for minimum cost ship routing under uncertainty. (1978) . Ph.D. thesis, MIT, Cambridge, MA Google Scholar
  • Cheney R. , Douglass B. , Agreen R. , Miller L. , Porter D. The GEOSAT altimeter mission: A milestone in satellite oceanography. EOS (1986) December Google Scholar
  • Cheney R. , Douglass B. , Agreen R. , Miller L. , Porter D. , Doyle N. GEOSAT altimeter geographical data record user handbook. NOAA Technical Memo (1987) . NOS NGS-46, National Ocean Services, Rockville, MD Google Scholar
  • Denker H. , Rapp R. Geodetic and oceanographic results from the analysis of one year of GEOSAT data. J. Geophys. Res. (1990) 95 C8 13151 13168 CrossrefGoogle Scholar
  • Dooley A. Applied oceanography and ship ocean routing. MTS J. (1984) 19 2 51 55 Google Scholar
  • Frankel E. , Chen H. Optimization of ship routing. (1980) . Technical report, NMRC-KP-189, NMRC, Kings Point, NY Google Scholar
  • Glenn S. , Porter D. , Robinson A. A synthetic geoid validation of GEOSAT mesoscale dynamic topography in the gulf stream region. J. Geophys. Res. (1991) 96 C4 7145 7166 CrossrefGoogle Scholar
  • Hagiwara H. A study on the minimum fuel consumption route-II: Simulation in the North Pacific ocean. J. Japan Inst. Navigation (1985) 72 87 96 CrossrefGoogle Scholar
  • Hagiwara H. Weather routing of (sail-assisted) motor vessels. (1989) . Ph.D. thesis, University of Delft, The Netherlands Google Scholar
  • Hurlburt H. , Fox D. , Metzger E. Statistical inference of weekly correlated subthermocline fields from satellite altimeter data. J. Geophys. Res. (1990) 95 C7 11375 11409 CrossrefGoogle Scholar
  • James R. Application of wave forecasts to marine navigation. (1957) . SP-1, U.S. Oceanographic Office Google Scholar
  • Jansson H. , Shneerson D. Liners Shipping Economics (1987) (Chapman and Hall, New York, NY) CrossrefGoogle Scholar
  • Lee Y. Strategic ship routing with satellite altimeter-based dynamic ocean current information: Impacts of temporal coverage. (1994) . Ph.D. dissertation, The Ohio State University, Columbus, OH Google Scholar
  • Lo H. Dynamic ship routing through stochastic, spatially dependent ocean currents. (1991) . Ph.D. dissertation, The Ohio State University, Columbus, OH Google Scholar
  • Lo H. , McCord M. Altimetric sensing of currents: Spatial averaging and sampling impacts on ocean routing. Transportation Res. Rec. (1991) 1312 177 183 Google Scholar
  • Lo H. , McCord M. Routing through dynamic ocean currents: General heuristics and empirical results in the gulf stream region. Transportation Res. (1995) 29B 2 109 124 CrossrefGoogle Scholar
  • Lo H. , McCord M. Adaptive ship routing through stochastic ocean currents: General formulations and empirical results. Transportation Res. (1998) 32A 7 547 561 Google Scholar
  • Lo H. , McCord M. , Wall C. Value of ocean current information for strategic routing. Eur. J. Oper. Res. (1991) 55 124 135 CrossrefGoogle Scholar
  • Marks W. , Goodman T. , Pierson W. , Tick L. , Vassilopoulos L. An automated system for optimum trip routing. Trans. SNAME (1968) 76 22 25 Google Scholar
  • Marsh J. , Koblinsky C. , Lerch F. , Klosko S. , Robbins J. , Williamson R. , Patel G. Dynamic sea surface topography, gravity, and improved orbit accuracies from the direct evaluation of SEASAT altimeter data. J. Geophys. Res. (1990) 95 C8 13129 13150 CrossrefGoogle Scholar
  • McConathy D. , Kilgus C. The navy GEOSAT mission: An overview. Johns Hopkins APL Tech. Digest (1987) 8 2 170 175 Google Scholar
  • McCord M. , Berliner M. Improved ocean routing using remote sensing. NASA Center for the Commercial Development of Space: Real Time Satellite Mapping (1990) 6 9 . Annual report, The Ohio State University, Center for Mapping, Columbus, OH Google Scholar
  • McCord M. , Berliner M. Improved ocean routing using remote sensing. NASA Center for the Commercial Development of Space: Real Time Satellite Mapping (1991) 1 4 . Annual report, The Ohio State University, Center for Mapping, Columbus, OH Google Scholar
  • McCord M. , Lee Y. K. Beneficial voyage characteristics for routing through dynamic currents. Transportation Res. Rec. (1995) 1511 19 25 Google Scholar
  • McCord M. , Lo H. Temporal variability in ocean currents. ASPRS-ACSM Fall Convention: Technical Papers (1989) (American Society of Photogrammetry and Remote Sensing, Cleveland, OH) 83 90 Google Scholar
  • McCord M. , Smith S. Remote sensing of ocean currents for improved routing. Fourteenth Ship Tech. Res. Sympos. Proc. (1989) (Society of Naval Architects and Marine Engineers, Jersey City, NJ) S5-4-1 S5-4-8 Google Scholar
  • Mitchell J. A position paper: Mesoscale oceanography from GEOSAT. NORDA Technical Note 226 (1983) (Naval Ocean Research and Development Activity, Remote Sensing Branch, Bay St. Louis, MS) Google Scholar
  • Papadakis N. , Perakis A. Deterministic minimal time vessel routing. Opns. Res. (1990) 38 3 426 438 LinkGoogle Scholar
  • Perakis A. , Papadakis N. Minimal time vessel routing in a time-dependent environment. Transportation Sci. (1989) 23 266 276 LinkGoogle Scholar
  • Porter D. , Robinson A. , Glenn S. , Dobson E. The synthetic geoid and the estimation of mesoscale absolute topography from altimetry data. Johns Hopkins APL Tech. Digest (1989) 10 4 369 379 Google Scholar
  • Rapp R. Gulf stream characteristics implied by GEOSAT altimeter data and a gravimetric geoid. (1990) . Presentation Material Prepared for the Marine Geoid Workshop at INSMAP 90, University of Miami, FL Google Scholar
  • Robinson A. , Glenn S. , Spall M. , Walstad L. , Gardner G. , Leslie W. Forecasting gulf stream meanders and rings. EOS (1989) 7 1464 1465 CrossrefGoogle Scholar
  • Robinson A. , Walstad L. The harvard open ocean model: Calibration and application to dynamical process, forecasting and data assimilation studies. Appl. Numer. Math. (1987) 3 89 131 CrossrefGoogle Scholar
  • Robinson I. Satellite Oceanography: An Introduction for Oceanographers and Remote Sensing Scientists (1985) (Ellis Horwood Limited, Chichester, UK) Google Scholar
  • Semter A. Modeling ocean circulation. Science (1995) 269 1379 1385 CrossrefGoogle Scholar
  • Stommel H. The Gulf Stream: A Physical and Dynamical Description (1965) 2nd ed. (University of California Press, Berkeley and Los Angeles, CA) Google Scholar
  • Tai C. Estimating the surface transport of meandering oceanic jet streams from satellite altimetry: Surface transport estimates for the gulf stream and kuroshio extension. J. Physical Oceanogr. (1990) 20 860 879 CrossrefGoogle Scholar
  • Tapley B. , Born G. , Parke M. The SEASAT altimeter data and its accuracy assessment. J. Geophys. Res. (1982) 87 3179 3188 CrossrefGoogle Scholar
INFORMS site uses cookies to store information on your computer. Some are essential to make our site work; Others help us improve the user experience. By using this site, you consent to the placement of these cookies. Please read our Privacy Statement to learn more.