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Establishment of Terrestrial Reference Frames by New Observational Techniques

Published online by Cambridge University Press:  12 April 2016

Peter L. Bender
Peter L. Bender*
Affiliation:
Joint Institute for Laboratory Astrophysics, National Bureau of Standards and University of Colorado, Boulder, Colorado 80309 USA

Abstract

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The use of space techniques for establishing transcontinental and intercontinental distances is progressing very rapidly. We can think of the set of station locations used in either LAGEOS ranging or VLBI measurements as forming the vertices of a polyhedron. After correcting for tectonic plate motions using an adopted model, we expect the geometry of the polyhedron to be fairly stable over periods of the order of a year. However, after some period of time, a new set of station coordinates will be required because of improved data, unexpected station motions, etc. Methods for maintaining agreement with the previous set of station coordinates in some average sense are discussed in this paper. Some of the contributions expected from other new measurement methods also are described.

Type
Research Article
Information
International Astronomical Union Colloquium , Volume 56: Reference Coordinate Systems for Earth Dynamics , August 1980 , pp. 23 - 36
Copyright
Copyright © Reidel 1981

References

Bender, P.L.: 1974, Reference coordinate system requirements for geodynamics, in IAU Colloquium No. 26, On Reference Coordinate Systems for Earth Dynamics, 26–31 August, 1974, Torun, Poland (Kolaczek, B. and Weiffenbach, G., eds., Polish Academy of Science, Warsaw), pp. 85–92.Google Scholar
Bender, P.L.: 1978, Some U.S. views on scientific opportunities in ocean and earth dynamics, in Space Oceanography, Navigation and Geodynamics, Proceedings, European Space Agency Workshop, Schloss Elmau, Germany (Hieber, S. and Guyenne, T. C., eds., ESA SP-137, Paris), pp. 19–23.Google Scholar
Bender, P.L.: 1980, Improved methods for measuring present crustal movements, in Dynamics of Plate Interiors, Final Report of W.G.7 of the Inter-Union Commission on Geodynamics (Walcott, R.I., Bally, A.W., Bender, P.L., McGetchin, T.R. and Peltier, W.R., eds., American Geophysical Union, Geodynamics Series, Washington, D.C.), in press.Google Scholar
Bender, P.L. and Goad, C.C.: 1979, Probable LAGEOS contributions to a worldwide geodynamics control network, in The Use of Artificial Satellites for Geodesy and Geodynamics, Vol. II (Veis, G. and Livieratos, E., eds., National Technical University, Athens), pp. 145–161.Google Scholar
Bender, P.L., Bertotti, B. and Faller, J.E.: 1980, Laser interferometer method for mapping ultra-short-wavelength structure in the earth’s gravitational field, in preparation.Google Scholar
Boulanger, J.D.: 1979, Certain results of absolute gravity determinations by the instrument of the U.S.S.R. Academy of Sciences, in Publication Dedicated to T. J. Kukkamäki on the Occasion of his 70th Anniversary (Kakkuri, J., ed., Pub. No. 89 of the Finnish Geodetic Institute, Helsinki), pp. 20–26.Google Scholar
Cannizzo, L., Cerutti, G. and ferson, I.: 1978, Absolute-gravity measurements in Europe, Il Nuovo Cimento, 1C, pp. 39–85.Google Scholar
Carter, W.E.: 1980, Project POLARIS: A status report, in Radio Inter-ferometry Techniques for Geodesy (NASA Conf. Pub. 2115, Wash., D.C.), pp. 455-460.Google Scholar
Carter, W.E., Robertson, D.S. and Abell, M.D.: 1979, An improved polar motion and Earth rotation monitoring service using radio inter ferometry, in IAU Symp. No. 82, Time and the Earth’s Rotation (McCarthy, D.D. and Pilkington, J.D.H., eds., D. Reidel, Dordrecht, Holland), pp. 191–197.Google Scholar
Carter, W.E., Rogers, A.E.E., Counselman III, C.C. and Shapiro, I.I.: 1980, Comparison of geodetic and radio interferometric measurements of the Haystack-Westford baseline vector, J. Geophys. Res. 85, pp. 2685–2687.Google Scholar
Colombo, O.L.: 1980, A World Vertical Network (Report No. 296, Dept. of Geodetic Science, Ohio State University, Columbus).Google Scholar
Eaves, R.J., Schutz, B.E. and Tapley, B.D.: 1979, Ocean tide perturbations on the LAGEOS orbit (abst.), Trans. AGU 60, p. 808.Google Scholar
Faller, J.E., Rinker, R.L. and Zumberge, M.A.: 1979, Plans for the development of a portable absolute gravimeter with a few parts in 109 accuracy, Tectonophys. 52, pp.107–116.Google Scholar
Fanselow, J.L., Thomas, J.B., Cohen, E.J., MacDoran, P.F., Melbourne, W.G., Hilhall, B.D., Purcell, G.H., Rogstad, D.H., Skjerve, L.J., Spitzmesser, D.J., Urech, J. and Nicholson, G.: 1979, Determination of UT1 and polar motion by the Deep Space Network using very long baseline interferometry, in IAU Symp. No. 82, Time and the Earth’s Rotation, loc. cit., pp. 199–209.Google Scholar
Guiraud, F.O., Howard, J. and Hogg, D.C.: 1979, A dual-channel microwave radiometer for measurement of precipitable water vapor and liquid, IEEE Trans, on Geoscience Elect. GE-17, pp. 129–136.Google Scholar
Hammond, J.A. and Iliff, R.L.: 1978, The AFGL absolute gravity program, in Applications of Geodesy to Geodynamics (Mueller, I.I., ed., Report No. 280, Dept. of Geodetic Science, Ohio State University, Columbus), pp. 245–254.Google Scholar
Herring, T.A., Corey, B.E., Counselman III, C.C., Shapiro, I.I., Rönnäng, B.O., Rydbeck, O.E.H., Clark, T.A., Coates, R.J., Ma, C., Ryan, J.W., Vandenberg, N.R., Hinteregger, H.F., Knight, C.A., Rogers, A.E.E., Whitney, A.R., Robertson, D.S. and Schupler, B.R.: 1980, Geodesy by radio interferometry: Intercontinental distance determinations with subdecimeter precision, J. Geophys. Res., submitted.Google Scholar
Kaula, W.M.: 1975, Absolute plate motions by boundary velocity minimization, J. Geophys. Res. 80, pp. 244–248.Google Scholar
Larden, D.R.: 1980, Monitoring the Earth’s Rotation by Lunar Laser Ranging (Thesis, Univ. of New South Wales, Sydney), in preparation.Google Scholar
Larden, D.R. and Bender, P.L.: 1980, Expected accuracy of geodetic baseline determinations using the GPS reconstructed carrier phase method, Bull. Geod., in preparation.Google Scholar
Minster, J.B. and Jordan, T.H.: 1978, Present-day plate motions, J. Geophys. Res. 83, pp. 5331–5354.CrossRefGoogle Scholar
Moran, J.M. and Rosen, B.R.: 1980, The estimation of the propagation delay through the troposphere from microwave radiometer data, Radio Science, submitted.Google Scholar
Niell, A.E., Ong, K.M., MacDoran, P.F., Resch, G.M., Morabito, D.D., Claflin, E.S. and Dracup, J.F.: 1979, Comparison of a radio interferometric differential baseline measurement with conventional geodesy, Tectonophys. 52, pp. 49–58.Google Scholar
Paik, H.J.: 1980, Superconducting tensor gravity gradiometer for satellite geodesy and inertial navigation, J. Astr. Sci., submitted.Google Scholar
Paik, H.J., Mapoles, E.R. and Wang, K.Y.: 1978, Superconducting gravity gradiometers, in Proc. Conf. on Future Trends in Superconductive Electronics, Charlottesville, Virginia (Amer. Inst, of Phys. Conf. Proc. No. 44, Deaver, B.S. Jr., Falco, C.M., Harris, J.M., and Wolff, S.A., eds., New York), pp. 166–170.Google Scholar
Resch, G.M. and Claflin, E.S.: 1980, Microwave radiometry as a tool to calibrate tropospheric water-vapor delay, in Radio Interferometry Techniques for Geodesy, loc. cit., pp. 377–384.Google Scholar
Robertson, D.S., Carter, W.E., Corey, B.E., Counselman III, C.C., Shapiro, I.I., Wlttels, J.J., Hinteregger, H.F., Knight, C.A., Rogers, A.E.E., Whitney, A.R., Ryan, J.W., Clark, T.A., Coates, R.J., Ma, C. and Moran, J.M.: 1979, Recent results of radio interferometric determinations of a transcontinental baseline, polar motion, and earth rotation, in IAU Symp. No. 82, Time and the Earth’s Rotation, loc. cit., pp. 217–224.Google Scholar
Robertson, D.S., Clark, T.A., Coates, R.J., Ma, C., Ryan, J.W., Corey, B.E., Counselman III, C.C., King, R.W., Shapiro, I.I., Hinteregger, H.F., Knight, C.A., Rogers, A.E.E., Whitney, A.R., Pigg, J.C. and Schupler, B.R.: 1980, Polar motion and UT1: Comparison of VLBI, lunar laser, satellite laser, satellite Doppler, and conventional astrometric determinations, in Radio Interferometry Techniques for Geodesy, loc. cit., pp. 33–44.Google Scholar
Rogers, A.E.E., Knight, C.A., Hinteregger, H.F., Whitney, A.R., Counselman III, C.C., Shapiro, I.I., Gourevitch, S.A. and Clark, T.A.: 1978, Geodesy by radio interferometry: Determination of a 1.24-km baseline vector with ~5 mm repeatibility, J. Geophys. Res. 83, pp. 325–334.Google Scholar
Sakuma, A.: 1974a, Report on absolute measurement of gravity, in Proceedings of the International Symposium on the Earth’s Gravitational Field and Secular Variations in Position (Dept. of Geodesy, Univ. of New South Wales, Sydney), pp. 674–684.Google Scholar
Sakuma, A.: 1974b, Report on absolute measurements of gravity, in Bull. d’Information No. 35, Bureau Gravimetrique International, pp. I–39–I–42.Google Scholar
Silverberg, E.C.: 1978, Mobile satellite ranging, in Applications of Geodesy to Geodynamics, loc. cit., pp. 41–46.Google Scholar
Smith, D.E. and Dunn, P.J.: 1980, Long term evolution of the LAGEOS orbit, Geophys. Res. Lett. 7, pp. 437–440.Google Scholar
Smith, D.E., Kolenkiewicz, R., Dunn, P.J. and Torrence, M.: 1979a, Determination of polar motion and Earth rotation from laser tracking of satellites, in IAU Symp. No.82, Time and the Earth’s Rotation, loc. cit., pp. 247–255.Google Scholar
Smith, D.E., Kolenkiewicz, R., Dunn, P.J. and Torrence, M.: 1979b, Determination of station coordinates from LAGEOS, in The Use of Artificial Satellites for Geodesy and Geodynamics, Vol. II, loc. cit., pp. 162–172.Google Scholar
Solomon, S.C. and Sleep, N.H.: 1974, Some simple physical models for absolute plate motions, J. Geophys. Res. 79, pp. 2557–2567.Google Scholar
Stolz, A. and Larden, D.R.: 1979, Seasonal displacement and deformation of the earth by the atmosphere, J. Geophys. Res. 84, pp. 6185–6194.Google Scholar
Westwater, E.R.: 1978, The accuracy of water vapor and cloud liquid determination by dual-frequency ground-based microwave radiometry, Radio Science 13, pp. 677–685.Google Scholar
Wu, S.-C.: 1979, Optimum frequencies of a passive microwave radiometer for tropospheric pathlength correction, IEEE Trans. Ant. Prop. AP-27, pp. 233–239.Google Scholar