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Global Positioning System (Polish Wikipedia)

Analysis of information sources in references of the Wikipedia article "Global Positioning System" in Polish language version.

Last modified:

Ref.Un. Ref.Website
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153114web.archive.org
1st place
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11694doi.org
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5930gps.gov
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1511esa.int
1,073rd place
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1010si.edu
256th place
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88skyrocket.de
2,244th place
3,148th place
87uscg.gov
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86nist.gov
708th place
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65spaceforce.mil
6,332nd place
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55gao.gov
3,529th place
8,022nd place
44nasa.gov
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53rd place
44faa.gov
985th place
2,930th place
43books.google.com
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33archives.gov
319th place
1,175th place
22worldcat.org
4th place
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21af.mil
414th place
1,929th place
21fig.net
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11bbc.com
26th place
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11reaganlibrary.gov
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11sandia.gov
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11ion.org
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11unr.edu
9,587th place
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11commerce.gov
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11usgs.gov
119th place
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11igs.org
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11europa.eu
62nd place
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11asgeupos.pl
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11scientificamerican.com
1,110th place
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11fcc.gov
583rd place
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11spaceweather.gov
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11isro.gov.in
6,568th place
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11qzss.go.jp
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af.mil (Global: 414th place; Polish: 1,929th place)

archives.gov (Global: 319th place; Polish: 1,175th place)

clintonwhitehouse4.archives.gov

clintonwhitehouse6.archives.gov

asgeupos.pl (Global: low place; Polish: low place)

  • Opis systemu [online], ASG-EUPOS [dostęp 2026-04-22] [zarchiwizowane z adresu 2026-02-10] (pol.).

bbc.com (Global: 26th place; Polish: 58th place)

books.google.com (Global: 3rd place; Polish: 42nd place)

commerce.gov (Global: low place; Polish: low place)

space.commerce.gov

doi.org (Global: 2nd place; Polish: 5th place)

  • C.J. Hegarty, E. Chatre, Evolution of the Global Navigation Satellite System (GNSS), „Proceedings of the IEEE”, 96 (12), 2008, s. 1902–1917, DOI: 10.1109/jproc.2008.2006090 (ang.).
    1. 1 2 s. 1902
    2. Francis W. Mooney, Terrestrial Evaluation of the GPS Standard Positioning Service, „Navigation”, 32 (4), 1985, s. 351–369, DOI: 10.1002/j.2161-4296.1985.tb00916.x (ang.).
      1. ↑ s. 361
      2. Zhiren Wang i inni, Multipath mitigation based on trend surface analysis applied to dual-antenna receiver with common clock, „GPS Solutions”, 23 (4), 2019, s. 104, DOI: 10.1007/s10291-019-0897-0 (ang.).
        1. ↑ s. 2
        2. Duncan Carr Agnew, Kristine M. Larson, Finding the repeat times of the GPS constellation, „GPS Solutions”, 11 (1), 2007, s. 71–76, DOI: 10.1007/s10291-006-0038-4 (ang.).
          1. ↑ s. 71
          2. Fan Zhang i inni, Improving GNSS triple-frequency cycle slip repair using ACMRI algorithm, „Advances in Space Research”, 69 (1), 2022, s. 347–358, DOI: 10.1016/j.asr.2021.10.005 (ang.).
            1. 1 2 s. 348
            2. T. Hadas i inni, Impact and Implementation of Higher-Order Ionospheric Effects on Precise GNSS Applications, „Journal of Geophysical Research: Solid Earth”, 122 (11), 2017, s. 9420–9436, DOI: 10.1002/2017jb014750 (ang.).
            3. Neil Ashby, Relativity in the Global Positioning System, „Living Reviews in Relativity”, 6 (1), 2003, DOI: 10.12942/lrr-2003-1 (ang.).
            4. Oliver Montenbruck, Urs Hugentobler, Rolf Dach, Peter Steigenberger, André Hauschild, Apparent clock variations of the Block IIF-1 (SVN62) GPS satellite, „GPS Solutions”, 16 (3), 2012, s. 303–313, DOI: 10.1007/s10291-011-0232-x (ang.).
            5. Stephen Bancroft, An Algebraic Solution of the GPS Equations, „IEEE Transactions on Aerospace and Electronic Systems”, AES-21 (1), 1985, s. 56–59, DOI: 10.1109/taes.1985.310538 (ang.).
            6. Bertrand T. Fang, Comments on "Existence and uniqueness of GPS solutions", „IEEE Transactions on Aerospace and Electronic Systems”, 28 (4), 1992, s. 1163, DOI: 10.1109/7.165379 (ang.).
              1. 1 2 s. 1163
              2. Niilo Sirola, Closed-form algorithms in mobile positioning: Myths and misconceptions, „7th Workshop on Positioning, Navigation and Communication”, 2010, s. 38–44, DOI: 10.1109/WPNC.2010.5653789 (ang.).
                1. ↑ s. 38, 40
                2. J. Hoshen, The GPS equations and the Problem of Apollonius, „IEEE Transactions on Aerospace and Electronic Systems”, 32 (3), 1996, s. 1116–1124, DOI: 10.1109/7.532270 (ang.).
                  1. ↑ s. 1116–1117
                  2. J. Chaffee, J. Abel, On the exact solutions of pseudorange equations, „IEEE Transactions on Aerospace and Electronic Systems”, 30 (4), 1994, s. 1021–1030, DOI: 10.1109/7.328767 (ang.).
                    1. ↑ s. 1021
                    2. Analytical GPS Navigation Solution, [w:] Alfred Kleusberg, Geodesy – The Challenge of the 3rd Millennium, Berlin: Springer, 2003, s. 93–96, DOI: 10.1007/978-3-662-05296-9_7 (ang.).
                    3. Majdi K. Qabalin, Muawya Naser, Wafa M. Hawajreh, Saja Abu-Zaideh, GPS Week Number Rollover Timestamp Complement, „Sensors”, 21 (23), 2021, s. 7826, DOI: 10.3390/s21237826 (ang.).
                    4. Thomas Janssen, Axel Koppert, Rafael Berkvens, Maarten Weyn, A Survey on IoT Positioning Leveraging LPWAN, GNSS, and LEO-PNT, „IEEE Internet of Things Journal”, 10 (13), 2023, s. 11135–11159, DOI: 10.1109/JIOT.2023.3243207, ISSN 2327-4662 (ang.).
                      1. ↑ s. 11135
                      2. Seng S. Boey, Lucinda J. Coombe, George P. Gerdan, Craig D. Hill, Assessing the Accuracy of Real Time Kinematic GPS Positions for the Purposes of Cadastral Surveying, „Australian Surveyor”, 41 (2), 1996, s. 109–120, DOI: 10.1080/00050337.1996.10558612 (ang.).
                        1. 1 2 s. 111
                        2. P.J.G. Teunissen, Integer least-squares theory for the GNSS compass, „Journal of Geodesy”, 84 (7), 2010, s. 433–447, DOI: 10.1007/s00190-010-0380-8 (ang.).
                        3. Bofeng Li, Yunzhong Shen, Yanming Feng, Weiguang Gao, Ling Yang, GNSS ambiguity resolution with controllable failure rate for long baseline network RTK, „Journal of Geodesy”, 88 (2), 2014, s. 99–112, DOI: 10.1007/s00190-013-0670-z (ang.).
                          1. ↑ s. 104
                          2. Liang Li, Zishen Li, Hong Yuan, Liang Wang, Yanqing Hou, Integrity monitoring-based ratio test for GNSS integer ambiguity validation, „GPS Solutions”, 20 (3), 2016, s. 573–585, DOI: 10.1007/s10291-015-0468-y (ang.).
                          3. John A. Klobuchar, Ionospheric Time-Delay Algorithm for Single-Frequency GPS Users, „IEEE Transactions on Aerospace and Electronic Systems”, AES-23 (3), 1987, s. 325–331, DOI: 10.1109/taes.1987.310829 (ang.).
                            1. ↑ s. 325
                            2. B. Bidaine, R. Warnant, Assessment of the NeQuick model at mid-latitudes using GNSS TEC and ionosonde data, „Advances in Space Research”, 45 (9), 2010, s. 1122–1128, DOI: 10.1016/j.asr.2009.10.010 (ang.).
                            3. Philip G. Mattos, Fabio Pisoni, GPS-III L1C signal reception demonstrated on QZSS, „Proceedings of the 2012 IEEE/ION Position, Location and Navigation Symposium”, 2012, s. 1162–1168, DOI: 10.1109/plans.2012.6236971 (ang.).
                              1. ↑ s. 1162, 1165
                              2. H.A.S. Marques, J.F.G. Monico, H.A. Marques, Performance of the L2C civil GPS signal under various ionospheric scintillation effects, „GPS Solutions”, 20 (2), 2016, s. 139–149, DOI: 10.1007/s10291-015-0472-2 (ang.).
                              3. D. Haerr, L. Harmon, A. Bokelman, Transitioning the GPS Operational Control Segment to a Modern Architecture, „Navigation”, 44 (2), 1997, s. 153–162, DOI: 10.1002/j.2161-4296.1997.tb02339.x (ang.).
                                1. 1 2 3 s. 153
                                2. Alessandro Caporali, Joaquin Zurutuza, Broadcast Ephemeris with Centimetric Accuracy: Test Results for GPS, Galileo, BeiDou and GLONASS, „Remote Sensing”, 13 (20), 2021, s. 4185, DOI: 10.3390/rs13204185 (ang.).
                                3. Oliver Montenbruck, Peter Steigenberger, Moritz Aicher, A long-term broadcast ephemeris model for extended operation of GNSS satellites, „NAVIGATION”, 68 (1), 2020, s. 199–215, DOI: 10.1002/navi.404 (ang.).
                                4. Xinghan Chen, Zhiguo Deng, Kyoung-Min Roh, Maorong Ge, Harald Schuh, Adaptive orbit recovery without navigation message and clock support for challenging satellite missions, „GPS Solutions”, 30 (2), 2026, s. 104, DOI: 10.1007/s10291-026-02072-2 (ang.).
                                5. Seung-Hyun Kong, High Sensitivity and Fast Acquisition Signal Processing Techniques for GNSS Receivers, „IEEE Signal Processing Magazine”, 34 (5), 2017, s. 59–71, DOI: 10.1109/msp.2017.2714201 (ang.).
                                  1. ↑ s. 59
                                  2. Chun Yang, Sharpen the Correlation Peak: A Novel GNSS Receiver Architecture with Variable IF Correlation, „Navigation”, 63 (3), 2016, s. 249–265, DOI: 10.1002/navi.147 (ang.).
                                    1. ↑ s. 249
                                    2. Vincenzo Capuano, Paul Blunt, Cyril Botteron, Pierre-André Farine, Orbital Filter Aiding of a High Sensitivity GPS Receiver for Lunar Missions, „Navigation”, 64 (3), 2017, s. 323–338, DOI: 10.1002/navi.185 (ang.).
                                    3. Xiaoxing He i inni, Multilevel-teaching/training practice on GNSS principle and application for undergraduate educations: A case study in China, „Advances in Space Research”, 69 (1), 2022, s. 778–793, DOI: 10.1016/j.asr.2021.11.021 (ang.).
                                      1. ↑ s. 783–784
                                      2. Muneendra Kumar, World geodetic system 1984: A modern and accurate global reference frame, „Marine Geodesy”, 12 (2), 1988, s. 117–126, DOI: 10.1080/15210608809379580 (ang.).
                                        1. ↑ s. 117
                                        2. Min Li, Tianhe Xu, Biao Lu, Kaifei He, Multi-GNSS precise orbit positioning for airborne gravimetry over Antarctica, „GPS Solutions”, 23 (2), 2019, s. 53, DOI: 10.1007/s10291-019-0848-9 (ang.).
                                          1. ↑ s. 2
                                          2. Xiangdong An, Xiaolin Meng, Weiping Jiang, Multi-constellation GNSS precise point positioning with multi-frequency raw observations and dual-frequency observations of ionospheric-free linear combination, „Satellite Navigation”, 1 (1), 2020, s. 7, DOI: 10.1186/s43020-020-0009-x (ang.).
                                          3. Qin Li, Wanqiang Yao, Rui Tu, Yanjun Du, Mingyue Liu, Performance Assessment of Multi-GNSS PPP Ambiguity Resolution with LEO-Augmentation, „Remote Sensing”, 15 (12), 2023, s. 2958, DOI: 10.3390/rs15122958, ISSN 2072-4292 (ang.).
                                            1. ↑ s. 2
                                            2. Weixing Zhang i inni, Initial assessment of BDS-3 precise point positioning service on GEO B2b signal, „Advances in Space Research”, 69 (1), 2022, s. 690–700, DOI: 10.1016/j.asr.2021.09.006 (ang.).
                                              1. ↑ s. 696
                                              2. Xuewei Huang, Wanqing Li, Zhiqiang Dai, Xiangwei Zhu, Improving smartphone GNSS positioning in challenging urban environments using GA-BPNN, „GPS Solutions”, 29 (1), 2025, s. 3, DOI: 10.1007/s10291-024-01756-x (ang.).
                                                1. ↑ s. 4
                                                2. R. Santerre, A. Geiger, S. Banville, Geometry of GPS dilution of precision: revisited, „GPS Solutions”, 21 (4), 2017, s. 1747–1763, DOI: 10.1007/s10291-017-0649-y (ang.).
                                                  1. ↑ s. 1747
                                                  2. Tyler G.R. Reid, Andrew M. Neish, Todd Walter, Per K. Enge, Broadband LEO Constellations for Navigation, „Navigation”, 65 (2), 2018, s. 205–220, DOI: 10.1002/navi.234 (ang.).
                                                  3. Mark L. Psiaki, Tunc Ertan, Brady W. O'Hanlon, Steven P. Powell, GNSS Multipath Mitigation using Antenna Motion, „Navigation”, 62 (1), 2015, s. 1–22, DOI: 10.1002/navi.79 (ang.).
                                                  4. Runzhi Hu i inni, Fisheye Image/GNSS Based Multimodal Learning for GNSS NLOS/Multipath Correction: Enhancing Vehicle Positioning in Urban Canyons for Autonomous Driving, „IEEE Transactions on Vehicular Technology”, 75 (6), 2026, s. 9103–9117, DOI: 10.1109/tvt.2025.3639402 (ang.).
                                                    1. ↑ s. 9104
                                                    2. Lawrence Lau, Investigations into the residual multipath errors of choke-ring geodetic antennas on GNSS carrier-phase measurements, „GPS Solutions”, 29 (1), 2025, s. 42, DOI: 10.1007/s10291-024-01801-9 (ang.).
                                                    3. S.A.M. Younes, Improved dry tropospheric propagation delay mapping function for GPS measurements in Egypt, „Journal of Spatial Science”, 59 (2), 2014, s. 181–190, DOI: 10.1080/14498596.2014.899932 (ang.).
                                                      1. ↑ s. 181
                                                      2. Knut Stanley Jacobsen, Michael Dähnn, Statistics of ionospheric disturbances and their correlation with GNSS positioning errors at high latitudes, „Journal of Space Weather and Space Climate”, 4, 2014, A27, DOI: 10.1051/swsc/2014024 (ang.).
                                                      3. Steve Hewitson, Jinling Wang, GNSS receiver autonomous integrity monitoring (RAIM) performance analysis, „GPS Solutions”, 10 (3), 2006, s. 155–170, DOI: 10.1007/s10291-005-0016-2 (ang.).
                                                        1. ↑ s. 155
                                                        2. Thomas Bell, Automatic tractor guidance using carrier-phase differential GPS, „Computers and Electronics in Agriculture”, 25 (1–2), 2000, s. 53–66, DOI: 10.1016/s0168-1699(99)00055-1 (ang.).
                                                          1. ↑ s. 53
                                                          2. Jan Van Sickle, GPS for Land Surveyors, wyd. 3, Boca Raton: CRC Press, 2008, DOI: 10.4324/9780203305225 (ang.).
                                                          3. Ian A.R. Hulbert, John French, The accuracy of GPS for wildlife telemetry and habitat mapping, „Journal of Applied Ecology”, 38 (4), 2001, s. 869–878, DOI: 10.1046/j.1365-2664.2001.00624.x (ang.).
                                                          4. Nevin B. Avsar, Shuanggen Jin, Hakan Kutoglu, Gokhan Gurbuz, Sea level change along the Black Sea coast from satellite altimetry, tide gauge and GPS observations, „Geodesy and Geodynamics”, 7 (1), 2016, s. 50–55, DOI: 10.1016/j.geog.2016.03.005 (ang.).
                                                          5. Jianfei Zang, Caijun Xu, Xingxing Li, Scaling earthquake magnitude in real time with high-rate GNSS peak ground displacement from variometric approach, „GPS Solutions”, 24 (4), 2020, s. 101, DOI: 10.1007/s10291-020-01013-x (ang.).
                                                          6. Xinpeng Wang i inni, Review of Bridge Structural Health Monitoring Based on GNSS: From Displacement Monitoring to Dynamic Characteristic Identification, „IEEE Access”, 9, 2021, s. 80043–80065, DOI: 10.1109/access.2021.3083749 (ang.).
                                                          7. J. Rene Vazquez-Ontiveros i inni, Monitoring of local deformations and reservoir water level for a gravity type dam based on GPS observations, „Advances in Space Research”, 69 (1), 2022, s. 319–330, DOI: 10.1016/j.asr.2021.09.018 (ang.).
                                                            1. ↑ s. 320
                                                            2. Krzysztof Sośnica i inni, Satellite laser ranging to GPS and GLONASS, „Journal of Geodesy”, 89 (7), 2015, s. 725–743, DOI: 10.1007/s00190-015-0810-8 (ang.).
                                                            3. Radosław Zajdel i inni, Sub-daily polar motion from GPS, GLONASS, and Galileo, „Journal of Geodesy”, 95 (1), 2020, s. 3, DOI: 10.1007/s00190-020-01453-w (ang.).
                                                            4. Krzysztof Sośnica, Grzegorz Bury, Radosław Zajdel, Contribution of Multi-GNSS Constellation to SLR-Derived Terrestrial Reference Frame, „Geophysical Research Letters”, 45 (5), 2018, s. 2339–2348, DOI: 10.1002/2017gl076850 (ang.).
                                                            5. Grzegorz Bury, Krzysztof Sośnica, Radosław Zajdel, Multi-GNSS orbit determination using satellite laser ranging, „Journal of Geodesy”, 93 (12), 2019, s. 2447–2463, DOI: 10.1007/s00190-018-1143-1 (ang.).
                                                            6. Susanne Glaser i inni, A consistent combination of GNSS and SLR with minimum constraints, „Journal of Geodesy”, 89 (12), 2015, s. 1165–1180, DOI: 10.1007/s00190-015-0842-0 (ang.).
                                                            7. Radosław Zajdel i inni, Network Effects and Handling of the Geocenter Motion in Multi-GNSS Processing, „Journal of Geophysical Research: Solid Earth”, 124 (6), 2019, s. 5970–5989, DOI: 10.1029/2019jb017443 (ang.).
                                                            8. Xinghan Chen, Maorong Ge, Yang Liu, Lina He, Harald Schuh, Adapting empirical solar radiation pressure model for BDS-3 medium Earth orbit satellites, „GPS Solutions”, 27 (4), 2023, s. 183, DOI: 10.1007/s10291-023-01524-3 (ang.).
                                                            9. Adam Cegla, Witold Rohm, Elżbieta Lasota, Riccardo Biondi, Detecting volcanic plume signatures on GNSS signal, Based on the 2014 Sakurajima Eruption, „Advances in Space Research”, 69 (1), 2022, s. 292–307, DOI: 10.1016/j.asr.2021.08.034 (ang.).
                                                              1. ↑ s. 292–293
                                                              2. Michael Bevis i inni, GPS meteorology: Remote sensing of atmospheric water vapor using the global positioning system, „Journal of Geophysical Research: Atmospheres”, 97 (D14), 1992, s. 15787–15801, DOI: 10.1029/92JD01517 (ang.).
                                                                1. ↑ s. 15787
                                                                2. Chen Liu, Yibin Yao, Chaoqian Xu, Conventional and neural network-based water vapor density model for GNSS troposphere tomography, „GPS Solutions”, 26 (1), 2022, s. 4, DOI: 10.1007/s10291-021-01188-x (ang.).
                                                                3. E.R. Kursinski, G.A. Hajj, J.T. Schofield, R.P. Linfield, K.R. Hardy, Observing Earth's atmosphere with radio occultation measurements using the Global Positioning System, „Journal of Geophysical Research: Atmospheres”, 102 (D19), 1997, s. 23429–23465, DOI: 10.1029/97JD01569 (ang.).
                                                                4. Sandip Tukaram Aghav, Shashikala Achyut Gangal, Simplified Orbit Determination Algorithm for Low Earth Orbit Satellites Using Spaceborne GPS Navigation Sensor, „Artificial Satellites”, 49 (2), 2014, s. 81–99, DOI: 10.2478/arsa-2014-0007 (ang.).
                                                                5. Komi Edokossi, Andres Calabia, Shuanggen Jin, Iñigo Molina, GNSS-Reflectometry and Remote Sensing of Soil Moisture: A Review of Measurement Techniques, Methods, and Applications, „Remote Sensing”, 12 (4), 2020, s. 614, DOI: 10.3390/rs12040614 (ang.).
                                                                6. Kristine M. Larson, GPS interferometric reflectometry: applications to surface soil moisture, snow depth, and vegetation water content in the western United States, „WIREs Water”, 3 (6), 2016, s. 775–787, DOI: 10.1002/wat2.1167 (ang.).
                                                                  1. ↑ s. 775
                                                                  2. Maria Paola Clarizia, Christopher S. Ruf, Wind Speed Retrieval Algorithm for the Cyclone Global Navigation Satellite System (CYGNSS) Mission, „IEEE Transactions on Geoscience and Remote Sensing”, 54 (8), 2016, s. 4419–4432, DOI: 10.1109/tgrs.2016.2541343 (ang.).
                                                                    1. ↑ s. 4419
                                                                    2. Hui Qiu, Shuanggen Jin, Global Mean Sea Surface Height Estimated from Spaceborne Cyclone-GNSS Reflectometry, „Remote Sensing”, 12 (3), 2020, s. 356, DOI: 10.3390/rs12030356 (ang.).
                                                                    3. Mark L. Psiaki, Todd E. Humphreys, Civilian GNSS Spoofing, Detection, and Recovery, [w:] Y.T. Jade Morton i inni red., Position, Navigation, and Timing Technologies in the 21st Century: Integrated Satellite Navigation, Sensor Systems, and Civil Applications, t. 1, Wiley-IEEE Press, 2020, s. 655–680, DOI: 10.1002/9781119458449.ch25 (ang.).
                                                                      1. ↑ s. 656
                                                                      2. Pengfei Zhang, Rui Tu, Yuping Gao, Rui Zhang, Junqiang Han, Performance of Galileo precise time and frequency transfer models using quad-frequency carrier phase observations, „GPS Solutions”, 24 (2), 2020, s. 40, DOI: 10.1007/s10291-020-0955-7 (ang.).
                                                                        1. ↑ s. 40
                                                                        2. Yubin Yuan, Lucas Holden, Allison Kealy, Suelynn Choy, Paweł Hordyniec, Assessment of forecast Vienna Mapping Function 1 for real-time tropospheric delay modeling in GNSS, „Journal of Geodesy”, 93 (9), 2019, s. 1501–1514, DOI: 10.1007/s00190-019-01263-9 (ang.).
                                                                        3. Daniel Willi, Michael Meindl, Hui Xu, Markus Rothacher, GNSS antenna phase center variation calibration for attitude determination on short baselines, „Navigation”, 65 (4), 2018, s. 643–654, DOI: 10.1002/navi.273 (ang.).
                                                                          1. ↑ s. 643
                                                                          2. Renyu Zhou, Zhigang Hu, Qile Zhao, Guo Chen, Jun Tao, Absolute field calibration of receiver antenna phase center models for GPS/BDS-3 signals, „Journal of Geodesy”, 97 (9), 2023, s. 83, DOI: 10.1007/s00190-023-01773-7 (ang.).
                                                                          3. Günther Retscher, Accuracy Performance of Virtual Reference Station (VRS) Networks, „Journal of Global Positioning Systems”, 1 (1), 2002, s. 40–47, DOI: 10.5081/jgps.1.1.40 (ang.).
                                                                            1. ↑ s. 40
                                                                            2. Dashuai Chai i inni, A novel method of ambiguity resolution and cycle slip processing for single-frequency GNSS/INS tightly coupled integration system, „Advances in Space Research”, 69 (1), 2022, s. 359–375, DOI: 10.1016/j.asr.2021.10.007 (ang.).
                                                                              1. ↑ s. 359
                                                                              2. Jan Kouba, Pierre Héroux, Precise Point Positioning Using IGS Orbit and Clock Products, „GPS Solutions”, 5 (2), 2001, s. 12–28, DOI: 10.1007/pl00012883 (ang.).
                                                                                1. 1 2 s. 12–13
                                                                                2. Xingyu Chen, An alternative integer recovery clock method for precise point positioning with ambiguity resolution, „Satellite Navigation”, 1 (1), 2020, s. 28, DOI: 10.1186/s43020-020-00028-6 (ang.).
                                                                                3. Kan Wang, Amir Khodabandeh, Peter Teunissen, A study on predicting network corrections in PPP-RTK processing, „Advances in Space Research”, 60 (7), 2017, s. 1463–1477, DOI: 10.1016/j.asr.2017.06.043 (ang.).
                                                                                4. Guorui Xiao, Pan Li, Yang Gao, Bernhard Heck, A Unified Model for Multi-Frequency PPP Ambiguity Resolution and Test Results with Galileo and BeiDou Triple-Frequency Observations, „Remote Sensing”, 11 (2), 2019, s. 116, DOI: 10.3390/rs11020116 (ang.).
                                                                                5. Kerem Özsoy, Ayhan Bozkurt, İbrahim Tekin, 2D Indoor positioning system using GPS signals, „2010 International Conference on Indoor Positioning and Indoor Navigation”, 2010, s. 1–6, DOI: 10.1109/IPIN.2010.5647644 (ang.).
                                                                                  1. ↑ s. 1
                                                                                  2. Marcin Uradziński, Mieczysław Bakuła, Assessment of Static Positioning Accuracy Using Low-Cost Smartphone GPS Devices for Geodetic Survey Points' Determination and Monitoring, „Applied Sciences”, 10 (15), 2020, s. 5308, DOI: 10.3390/app10155308 (ang.).
                                                                                  3. Mounir Adjrad, Paul D. Groves, Intelligent Urban Positioning: Integration of Shadow Matching with 3D-Mapping-Aided GNSS Ranging, „Journal of Navigation”, 71 (1), 2018, s. 1–20, DOI: 10.1017/s0373463317000509 (ang.).
                                                                                  4. Kamil Kazmierski, Radosław Zajdel, Krzysztof Sośnica, Evolution of orbit and clock quality for real-time multi-GNSS solutions, „GPS Solutions”, 24 (4), 2020, s. 111, DOI: 10.1007/s10291-020-01026-6 (ang.).
                                                                                  5. Tomasz Hadaś, Kamil Kazmierski, Krzysztof Sośnica, Performance of Galileo-only dual-frequency absolute positioning using the fully serviceable Galileo constellation, „GPS Solutions”, 23 (4), 2019, s. 108, DOI: 10.1007/s10291-019-0900-9 (ang.).
                                                                                  6. Damian Kiliszek, Marcin Szołucha, Krzysztof Kroszczyński, Accuracy of Precise Point Positioning (PPP) with the use of different International GNSS Service (IGS) products and stochastic modelling, „Geodesy and Cartography”, 67 (2), 2018, s. 207–238, DOI: 10.24425/gac.2018.125472 (ang.).
                                                                                  7. Xiang Zuo i inni, A square root information filter for multi-GNSS real-time precise clock estimation, „Satellite Navigation”, 2 (1), 2021, s. 28, DOI: 10.1186/s43020-021-00060-0 (ang.).
                                                                                  8. Zhe Yan, Laura Ruotsalainen, GNSS jammer localization in urban areas based on prediction/optimization and ray-tracing, „GPS Solutions”, 29 (1), 2025, s. 47, DOI: 10.1007/s10291-024-01787-4 (ang.).
                                                                                  9. Jae-Gon Lee, Taek-Sun Kwon, Bo-Hee Choi, Jeong-Hae Lee, Compact Controlled Reception Pattern Antenna (CRPA) Array Based on Mu-Zero Resonance (MZR) Antenna, „IEICE Transactions on Communications”, E101.B (6), 2018, s. 1427–1433, DOI: 10.1587/transcom.2017ebp3311 (ang.).
                                                                                  10. Kyle Wesson, Mark Rothlisberger, Todd Humphreys, Practical Cryptographic Civil GPS Signal Authentication, „Navigation”, 59 (3), 2012, s. 177–193, DOI: 10.1002/navi.14 (ang.).
                                                                                    1. ↑ s. 177
                                                                                    2. Ali Broumandan, Ali Jafarnia-Jahromi, Gérard Lachapelle, Spoofing detection, classification and cancelation (SDCC) receiver architecture for a moving GNSS receiver, „GPS Solutions”, 19 (3), 2015, s. 475–487, DOI: 10.1007/s10291-014-0407-3 (ang.).
                                                                                      1. ↑ s. 475
                                                                                      2. Claudio Mastracci, Hans-Hermann Fromm, European GNSS/GALILEO Status, „Acta Astronautica”, 54 (11–12), 2004, s. 957–959, DOI: 10.1016/j.actaastro.2004.01.038 (ang.).
                                                                                        1. ↑ s. 957–958
                                                                                        2. Gerald L. Cook, GLONASS Performance, 1995-1997, and GPS-GLONASS Interoperability Issues, „Navigation”, 44 (3), 1997, s. 291–300, DOI: 10.1002/j.2161-4296.1997.tb02348.x (ang.).
                                                                                          1. ↑ s. 291
                                                                                          2. P. Daly, Navstar GPS and GLONASS: global satellite navigation systems, „Electronics & Communication Engineering Journal”, 5 (6), 1993, s. 349–358, DOI: 10.1049/ecej:19930069 (ang.).

esa.int (Global: 1,073rd place; Polish: 774th place)

gssc.esa.int

europa.eu (Global: 62nd place; Polish: 50th place)

euspa.europa.eu

  • EGNOS [online], EU Agency for the Space Programme [dostęp 2026-04-27] [zarchiwizowane z adresu 2026-03-15] (ang.).

faa.gov (Global: 985th place; Polish: 2,930th place)

fcc.gov (Global: 583rd place; Polish: low place)

fig.net (Global: low place; Polish: low place)

gao.gov (Global: 3,529th place; Polish: 8,022nd place)

gps.gov (Global: low place; Polish: low place)

igs.org (Global: low place; Polish: low place)

  • Products [online], International GNSS Service [dostęp 2026-04-27] [zarchiwizowane z adresu 2026-05-09] (ang.).

ion.org (Global: low place; Polish: low place)

isro.gov.in (Global: 6,568th place; Polish: low place)

  • Navigation [online], ISRO [dostęp 2026-04-22] [zarchiwizowane z adresu 2026-05-21] (ang.).

nasa.gov (Global: 12th place; Polish: 53rd place)

nist.gov (Global: 708th place; Polish: 1,040th place)

qzss.go.jp (Global: low place; Polish: low place)

reaganlibrary.gov (Global: low place; Polish: low place)

sandia.gov (Global: low place; Polish: low place)

newsreleases.sandia.gov

scientificamerican.com (Global: 1,110th place; Polish: 1,501st place)

si.edu (Global: 256th place; Polish: 166th place)

timeandnavigation.si.edu

  • GPS Begins [online], Smithsonian National Air and Space Museum [dostęp 2026-04-28] [zarchiwizowane z adresu 2026-01-14] (ang.).
  • The First Satellite Navigation System [online], Smithsonian National Air and Space Museum [dostęp 2026-04-28] [zarchiwizowane z adresu 2026-02-15] (ang.).
  • Navigating a Submarine [online], Smithsonian National Air and Space Museum [dostęp 2026-04-28] [zarchiwizowane z adresu 2026-01-14] (ang.).
  • Clocks in Space [online], Smithsonian National Air and Space Museum [dostęp 2026-04-28] [zarchiwizowane z adresu 2025-11-14] (ang.).
  • Risks to the System [online], Smithsonian National Air and Space Museum [dostęp 2026-04-28] [zarchiwizowane z adresu 2026-01-14] (ang.).
  • The Satellite Constellation [online], Smithsonian National Air and Space Museum [dostęp 2026-04-28] [zarchiwizowane z adresu 2026-02-13] (ang.).
  • Synchronized Accurate Time [online], Smithsonian National Air and Space Museum [dostęp 2026-04-28] [zarchiwizowane z adresu 2026-01-14] (ang.).
  • The Commercial Market [online], Smithsonian National Air and Space Museum [dostęp 2026-04-28] [zarchiwizowane z adresu 2026-01-14] (ang.).
  • Improving Accuracy [online], Smithsonian National Air and Space Museum [dostęp 2026-04-28] [zarchiwizowane z adresu 2026-01-14] (ang.).
  • Military Applications [online], Smithsonian National Air and Space Museum [dostęp 2026-04-28] [zarchiwizowane z adresu 2026-01-17] (ang.).

skyrocket.de (Global: 2,244th place; Polish: 3,148th place)

space.skyrocket.de

  • Gunter Krebs, GPS (Navstar) [online], Gunter’s Space Page, 11 lipca 2025 [dostęp 2026-09-25] [zarchiwizowane z adresu 2026-06-06] (ang.).
  • Gunter Krebs, GPS-2 (Navstar-2) [online], Gunter’s Space Page, 2 września 2025 [dostęp 2026-09-25] [zarchiwizowane z adresu 2025-12-18] (ang.).
  • Gunter Krebs, GPS-2A (Navstar-2A) [online], Gunter’s Space Page, 4 września 2025 [dostęp 2026-09-25] [zarchiwizowane z adresu 2026-02-23] (ang.).
  • Gunter Krebs, GPS-2R (Navstar-2R) [online], Gunter’s Space Page, 4 września 2025 [dostęp 2026-09-25] [zarchiwizowane z adresu 2025-12-26] (ang.).
  • Gunter Krebs, GPS-2RM (Navstar-2RM) [online], Gunter’s Space Page, 4 września 2025 [dostęp 2026-09-25] [zarchiwizowane z adresu 2025-12-26] (ang.).
  • Gunter Krebs, GPS-2F (Navstar-2F) [online], Gunter’s Space Page, 11 listopada 2025 [dostęp 2026-09-25] [zarchiwizowane z adresu 2025-12-26] (ang.).
  • Gunter Krebs, GPS-3 (Navstar-3) [online], Gunter’s Space Page, 29 kwietnia 2026 [dostęp 2026-09-25] [zarchiwizowane z adresu 2026-08-14] (ang.).
  • Gunter Krebs, GPS-3F (Navstar-3F) [online], Gunter’s Space Page, 11 listopada 2025 [dostęp 2026-09-25] [zarchiwizowane z adresu 2026-02-02] (ang.).

spaceforce.mil (Global: 6,332nd place; Polish: low place)

spaceforce.mil

ssc.spaceforce.mil

spaceweather.gov (Global: low place; Polish: low place)

unr.edu (Global: 9,587th place; Polish: low place)

nbmg.unr.edu

uscg.gov (Global: low place; Polish: low place)

navcen.uscg.gov

usgs.gov (Global: 119th place; Polish: 344th place)

earthquake.usgs.gov

  • GPS Data [online], U.S. Geological Survey Earthquake Hazards Program [dostęp 2026-04-28] [zarchiwizowane z adresu 2026-01-25] (ang.).

web.archive.org (Global: 1st place; Polish: 1st place)

worldcat.org (Global: 4th place; Polish: 2nd place)

  • Thomas Janssen, Axel Koppert, Rafael Berkvens, Maarten Weyn, A Survey on IoT Positioning Leveraging LPWAN, GNSS, and LEO-PNT, „IEEE Internet of Things Journal”, 10 (13), 2023, s. 11135–11159, DOI: 10.1109/JIOT.2023.3243207, ISSN 2327-4662 (ang.).
    1. ↑ s. 11135
    2. Qin Li, Wanqiang Yao, Rui Tu, Yanjun Du, Mingyue Liu, Performance Assessment of Multi-GNSS PPP Ambiguity Resolution with LEO-Augmentation, „Remote Sensing”, 15 (12), 2023, s. 2958, DOI: 10.3390/rs15122958, ISSN 2072-4292 (ang.).
      1. ↑ s. 2