Abstract
Several possible approaches for airborne vector gravimetry are compared using the spectral analysis technique. The airborne gravimetry equations are reduced to a time-invariant form using a special averaging method. Then the Fourier transform is applied to the equations. The accuracy of each approach is determined as the power spectral density of the gravity Wiener estimate error. Numerical results for the accuracy of each approach are presented given a priori stochastic models for the gravity disturbance vector and measurement errors.
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D. Becker, M. Becker, A. Leinen, and Y. Zhao, “Estimability in strapdown airborne vector gravimetry,” in: Jin S., Barzaghi R., eds., Proc. of the 3rd Int. Gravity Field Service (IGFS), Shanghai, China, June 30 — July 6, 2014, IAG Symposia, Vol. 144, Springer (2015), pp. 11–15.
Yu. V. Bolotin and A. A. Golovan, “Methods of inertial gravimetry,” Moscow Univ. Mech. Bull., No. 5, 117–125 (2013).
Yu. V. Bolotin, A. A. Golovan, and N. A. Parusnikov, Equations of the Airborne Gravimetry. Algorithms and Test Results [in Russian], Appl. Stud. Center of Mech. and Math. Fac., MSU, Moscow (2002).
Yu. V. Bolotin and V. S. Vyazmin, “Gravity anomaly estimation by airborne gravimetry data using LSE and minimax optimization and spherical wavelet expansion,” Gyroscopy Navigation, 6, No. 4, 310–317 (2015).
Yu. V. Bolotin and V. S. Vyazmin, “Gravity anomaly vector determination along flight trajectory and in terms of spherical wavelet coefficients using airborne gravimetry data,” in: Proc. of the 4th IAG Symp. on Terrestrial Gravimetry: Static and Mobile Measurements, CSRI Elektropribor, St. Petersburg (2016), pp. 83–86.
D. Dongkai, W. Xingshu, Z. Dejun, and H. Zongsheng, “An improved method for dynamic measurement of deflections of the vertical based on the maintenance of attitude reference,” Sensors, 14, No. 9, 16322–16342 (2014).
W. Freeden and V. Michel, Multiscale Potential Theory with Applications to Geoscience, Birkhäuser (2004).
R. B. R. von Frese, M. B. Jones, J. W. Kim, and J. K. Kim, “Analysis of anomaly correlations,” J. Geophysics, 62, No. 1, 342–351 (1997).
A. A. Golovan and N. A. Parusnikov, Mathematical Theory of Navigation Systems, Pt. 1 [in Russian], Maks Press, Moscow (2011).
C. Jekeli, “Airborne vector gravimetry using precise, position-aided inertial measurement units,” Bull. Geodesique, 69, 1–11 (1995).
C. Jekeli, “Potential theory and the static gravity field of the Earth,” Treatise on Geophys., 3, 9–35 (2015).
S. K. Jordan, “Self-consistent statistical models for the gravity anomaly, vertical deflections, and undulation of the geoid,” J. Geophys. Res., 77, No. 20, 3660–3670 (1972).
T. Kailath, A. H. Sayed, and B. Hassibi, Linear Estimation, Prentice Hall (2000).
J. H. Kwon and C. Jekeli, “A new approach for airborne vector gravimetry using GPS/INS,” J. Geodesy, 74, 690–700 (2001).
J. H. Kwon and C. Jekeli, “The effect of stochastic gravity models in airborne vector gravimetry,” J. Geophys., 67, No. 3, 770–776 (2002).
V. G. Peshekhonov, O. A. Stepanov, L. I. Avgustov, B. A. Blzhnov et al., Modern Methods and Instruments for Measuring of the Earth Gravitational Field [in Russian], CSRI Elektropribor, St. Petersburg (2017).
K. P. Schwartz, “What can airborne gravimetry contribute to geoid determination?” J. Geophys. Res., 101, 17873–17881 (1996).
C. Shaokun, Z. Kaidong, and W. Meiping, “Improving airborne strapdown vector gravimetry using stabilized horizontal components,” J. Appl. Geophys., 98, 79–89 (2013).
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Translated from Fundamentalnaya i Prikladnaya Matematika, Vol. 22, No. 2, pp. 33–57, 2018.
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Bolotin, Y.V., Vyazmin, V.S. Spectral Analysis of the Airborne Vector Gravimetry Problem. J Math Sci 253, 778–795 (2021). https://doi.org/10.1007/s10958-021-05269-7
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DOI: https://doi.org/10.1007/s10958-021-05269-7