International geomagnetic reference field: the thirteenth generation - Alken, P.; Thébault, E.; Beggan, C.; Amit, H.; Aubert, J.; Baerenzung, J.; Bondar, T.; Brown, W.; Califf, S.; Chambout, A.; Chulliat, A.; Cox, G.; et al. (Earth Planets Space, 2021)

A comparison between three IMUs for strapdown airborne gravimetry - Ayres-Sampaio, D.; Deurloo, R.; Bos, M.; Magalhães, A.; Bastos, L. (Surv Geophys, 2015)

An investigation of the effects of magnetic variations on inertial/magnetic orientation sensors - Bachmann, E. R.; Yun, X.; Peterson, C. W. (Proc IEEE Int Conf Robot Automa, 2004)

Becker D (2016) Advanced calibration methods for strapdown airborne gravimetry. PhD thesis, Technische Universität Darmstadt, Darmstadt. http://tuprints.ulb.tu-darmstadt.de/5691/

Drift reduction in strapdown airborne gravimetry using a simple thermal correction - Becker, D.; Nielsen, J. E.; Ayres-Sampaio, D.; Forsberg, R.; Becker, M.; Bastos, L. (J Geod, 2015)

Arctic airborne gravity measurement program - Brozena, J. M.; Peters, M. F.; Salman, R. (Springer, 1997)

Einführung in die Geophysik: Globale physikalische Felder und Prozesse in der Erde - Clauser, C. (Springer, 2014)

Magnetic distortion in motion labs, implications for validating inertial magnetic sensors - Vries, W. H.; Veeger, H. E.; Baten, C. T.; Helm, F. C. (Gait Posture, 2009)

Airborne gravity field determination - Forsberg, R.; Olesen, A. V. (Springer, 2010)

Förste C, Ince ES, Johann F, Schwabe J, Liebsch G (2020) Marine Gravimetry Activities on the Baltic Sea in the Framework of the EU Project FAMOS. Zeitschrift für Geodäsie, Geoinformation und Landmanagement 145(5):287–294. https://doi.org/10.12902/zfv-0317-2020

A comparison of stable platform and strapdown airborne gravity - Glennie, C. L.; Schwarz, K. P.; Bruton, A. M.; Forsberg, R.; Olesen, A. V.; Keller, K. (J Geod, 2000)

Honeywell International Inc (2005) Q-Flex® QA-2000 accelerometer. Tech. rep, Redmond

IMAR Navigation (2012) iNAV-RQH-1003: inertial measurement system for advanced applications. Tech. rep., St. Ingbert. http://www.imar-navigation.de/downloads/NAV_RQH_1003_en.pdf

IMAR Navigation (2016) iTAHS: tactical alignment & heading sensor: 3D magnetometer with integrated inertial sensors. Tech. rep., St. Ingbert. https://www.imar-navigation.de/downloads/TAHS_Magnetometer.pdf

Navigation IMAR (2019) iCORUS: high accurate iNAT for gravity measurements. Tech rep, St Ingbert. https://www.imar-navigation.de/downloads/iCORUS.pdf

Gravity measurements along commercial ferry lines in the Baltic sea and their use for geodetic purposes - Ince, E. S.; Barthelmes, F.; Pflug, H.; Li, M.; Kaminskis, J.; Neumayer, K. H.; Michalak, G. (Mar Geod, 2020)

Jacobs ED (1972) Accelerometer. U.S. Patent 3 702 073, 7 Nov 1972

Johann F, Becker D, Becker M, Forsberg R, Kadir M (2019) The direct method in strapdown airborne gravimetry—a review. Zeitschrift für Geodäsie, Geoinformation und Landmanagement 144(5):323–333. https://doi.org/10.12902/zfv-0263-2019

Johann F, Becker D, Becker M, Ince ES (2020) Multi-scenario evaluation of the direct method in strapdown airborne and shipborne gravimetry. In: International association of geodesy symposia. Springer, Berlin, pp 1–8. https://doi.org/10.1007/1345_2020_127

A modern software system of a mobile Chekan-AM gravimeter - Krasnov, A. A.; Sokolov, A. V. (Gyroscopy Navig, 2015)

A new approach for airborne vector gravimetry using GPS/INS - Kwon, J. H.; Jekeli, C. (J Geod, 2001)

Lanza R, Meloni A (2006) The Earth’s magnetism. Springer, Berlin

Lawrence A (1993) The pendulous accelerometer. In: Modern inertial technology, 1st edn. Springer, New York, pp 57–71. https://doi.org/10.1007/978-1-4684-0444-9_5

Strahlen, Wellen, Felder - Leitgeb, N. (Thieme, 1990)

An estimate of the errors of the IGRF/DGRF fields 1945–2000 - Lowes, F. J. (Earth Planets Space, 2000)

Airborne gravimetry of GEOHALO mission: data processing and gravity field modeling - Lu, B.; Barthelmes, F.; Petrovic, S.; Förste, C.; Flechtner, F.; Luo, Z.; He, K.; Li, M. (J Geophys Res Solid Earth, 2017)

Shipborne gravimetry in the Baltic Sea: data processing strategies, crucial findings and preliminary geoid determination tests - Lu, B.; Barthelmes, F.; Li, M.; Förste, C.; Ince, E. S.; Petrovic, S.; Flechtner, F.; Schwabe, J.; Luo, Z.; Zhong, B.; He, K. (J Geod, 2019)

Tests of an airborne gravity meter - Nettleton, L. L.; LaCoste, L.; Harrison, J. C. (Geophysics, 1960)

Comparison of global geomagnetic field models and evaluation using marine datasets in the north-eastern Atlantic Ocean and western Mediterranean Sea - Oehler, J. F.; Rouxel, D.; Lequentrec-Lalancette, M. F. (Earth Planets Space, 2018)

Impact of temperature stabilization on the strapdown airborne gravimetry: a case study in Central Turkey - Simav, M.; Becker, D.; Yildiz, H.; Hoss, M. (J Geod, 2020)

Spectrum and intensity of environmental electromagnetic fields from natural and man-made sources - Tenforde, T. S. (Adv Chem Ser, 1995)

Geodesy - Torge, W.; Müller, J. (de Gruyter, 2012)

Gravitation and geodesy with inertial sensors, from ground to space - Touboul, P.; Métris, G.; Sélig, H.; Traon, O.; Bresson, A.; Zahzam, N.; Christophe, B.; Rodrigues, M. (Aerospace Lab J, 2016)

Flight test results from a strapdown airborne gravity system - Wei, M.; Schwarz, K. P. (J Geod, 1998)

Performance estimate of some prototypes of inertial platform and strapdown marine gravimeters - Yuan, Y.; Gao, J.; Wu, Z.; Shen, Z.; Wu, G. (Earth Planets Space, 2020)