15.2.15 Geoid Analysis, Computation, Definition, Vertical Datum

Chapter Contents (Back)
Geoid. Geodetic Calibration. Vertical Datum. The sea level relationship is that elevations are relative to the mean sea level from the geoid.
See also Sea Level Measurement and Change, Satellite Altimetric Data.
See also SAR, Radar Altimetry.
See also Site Model Registration, Georeference, Geo-Registeration.

Vassilaki, D.I.[Dimitra I.],
Matching and Evaluating Free-form Linear Features for Georeferencing Space-borne SAR Imagery,
PFG(2012), No. 4, 2012, pp. 408-419.
WWW Link. 1211
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Vassilaki, D.I., Stamos, A.A.,
The 0.4 Arc-Sec Tandem-X Intermediate DEM with Respect to the SRTM and Aster Global DEMS,
PIA15(253-259).
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Vassilaki, D.I., Stamos, A.A., Ioannidis, C.C.,
Rapid Geometric Correction of SSC TERRASAR-X Images with Direct Georeferencing, Global DEM and Global Geoid Models,
Hannover13(357-362).
DOI Link 1308
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And: A1, A3, A2:
Evaluation of SAR Data as Source of Ground Control Information: First Results,
Hannover13(363-367).
DOI Link 1308
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Earlier: A1, A3, A2:
Georeference of TerraSAR-X Images using Networks of Ground Control Linear Features,
HighRes11(xx-yy).
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See also Enhanced first approximation for ICP-based global matching of free-form curves in side-looking radar geometry. BibRef

Wu, Q.[Qiong], Wang, H.Y.[Hong-Yao], Wang, B.[Bin], Chen, S.B.[Sheng-Bo], Li, H.Q.[Hong-Qing],
Performance Comparison of Geoid Refinement between XGM2016 and EGM2008 Based on the KTH and RCR Methods: Jilin Province, China,
RS(12), No. 2, 2020, pp. xx-yy.
DOI Link 2001
BibRef

Vu, D.T.[Dinh Toan], Bruinsma, S.[Sean], Bonvalot, S.[Sylvain], Remy, D.[Dominique], Vergos, G.S.[Georgios S.],
A Quasigeoid-Derived Transformation Model Accounting for Land Subsidence in the Mekong Delta towards Height System Unification in Vietnam,
RS(12), No. 5, 2020, pp. xx-yy.
DOI Link 2003
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Zhang, P.P.[Pan-Pan], Bao, L.F.[Li-Feng], Guo, D.M.[Dong-Mei], Wu, L.[Lin], Li, Q.Q.[Qian-Qian], Liu, H.[Hui], Xue, Z.X.[Zhi-Xin], Li, Z.C.[Zhi-Cai],
Estimation of Vertical Datum Parameters Using the GBVP Approach Based on the Combined Global Geopotential Models,
RS(12), No. 24, 2020, pp. xx-yy.
DOI Link 2012
BibRef

Erol, S.[Serdar], Özögel, E.[Emrah], Kuçak, R.A.[Ramazan Alper], Erol, B.[Bihter],
Utilizing Airborne LiDAR and UAV Photogrammetry Techniques in Local Geoid Model Determination and Validation,
IJGI(9), No. 9, 2020, pp. xx-yy.
DOI Link 2009
BibRef

He, M.L.[Mei-Lin], Shen, W.B.[Wen-Bin], Jiao, J.H.[Jias-Huang], Pan, Y.J.[Yuan-Jin],
The Interannual Fluctuations in Mass Changes and Hydrological Elasticity on the Tibetan Plateau from Geodetic Measurements,
RS(13), No. 21, 2021, pp. xx-yy.
DOI Link 2112
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Trojanowicz, M.[Marek], Owczarek-Wesolowska, M.[Magdalena], Wang, Y.M.[Yan Ming], Jamroz, O.[Olgierd],
Quasi Geoid and Geoid Modeling with the Use of Terrestrial and Airborne Gravity Data by the GGI Method: A Case Study in the Mountainous Area of Colorado,
RS(13), No. 21, 2021, pp. xx-yy.
DOI Link 2112
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Lyszkowicz, A.[Adam], Nastula, J.[Jolanta], Zielinski, J.B.[Janusz B.], Birylo, M.[Monika],
A New Model of Quasigeoid for the Baltic Sea Area,
RS(13), No. 13, 2021, pp. xx-yy.
DOI Link 2107
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Alcantar-Elizondo, N.[Norberto], Garcia-Lopez, R.V.[Ramon Victorino], Torres-Carillo, X.G.[Xochitl Guadalupe], Vazquez-Becerra, G.E.[Guadalupe Esteban],
Combining Global Geopotential Models, Digital Elevation Models, and GNSS/Leveling for Precise Local Geoid Determination in Some Mexico Urban Areas: Case Study,
IJGI(10), No. 12, 2021, pp. xx-yy.
DOI Link 2112
BibRef

Liu, Y.S.[Yu-Sheng], Lou, L.Z.[Li-Zhi],
Unified Land-Ocean Quasi-Geoid Computation from Heterogeneous Data Sets Based on Radial Basis Functions,
RS(14), No. 13, 2022, pp. xx-yy.
DOI Link 2208
BibRef

Varbla, S.[Sander], Liibusk, A.[Aive], Ellmann, A.[Artu],
Shipborne GNSS-Determined Sea Surface Heights Using Geoid Model and Realistic Dynamic Topography,
RS(14), No. 10, 2022, pp. xx-yy.
DOI Link 2206
BibRef

Wu, Y.H.[Yi-Hao], He, X.[Xiufeng], Huang, J.[Jia], Shi, H.K.[Hong-Kai], Wang, H.[Haihong], Wu, Y.L.[Yun-Long], Ding, Y.[Yuan],
Comparison of Mean Dynamic Topography Modeling from Multivariate Objective Analysis and Rigorous Least Squares Method,
RS(14), No. 21, 2022, pp. xx-yy.
DOI Link 2212
Sea surface and geoid combination. BibRef

Varbla, S.[Sander], Ĺgren, J.[Jonas], Ellmann, A.[Artu], Poutanen, M.[Markku],
Treatment of Tide Gauge Time Series and Marine GNSS Measurements for Vertical Land Motion with Relevance to the Implementation of the Baltic Sea Chart Datum 2000,
RS(14), No. 4, 2022, pp. xx-yy.
DOI Link 2202
BibRef

Guo, D.M.[Dong-Mei], Xue, Z.X.[Zhi-Xin],
Analysis of a Relative Offset between the North American and the Global Vertical Datum in Gravity Potential Space,
RS(15), No. 14, 2023, pp. 3610.
DOI Link 2307
BibRef

Wu, Q.[Qiong], Zhang, G.Y.[Guo-Yu], Wang, B.[Bin], Zhong, L.S.[Lin-Shan], Xiao, F.[Feng],
Performance Comparison of Deterministic and Stochastic Modifications in Stokes's and Hotine's Formulas: The Case of Jilin Province, China,
RS(15), No. 2, 2023, pp. xx-yy.
DOI Link 2301
Geoid model. BibRef

Natsiopoulos, D.A.[Dimitrios A.], Mamagiannou, E.G.[Elisavet G.], Pitenis, E.A.[Eleftherios A.], Vergos, G.S.[Georgios S.], Tziavos, I.N.[Ilias N.],
GOCE Downward Continuation to the Earth's Surface and Improvements to Local Geoid Modeling by FFT and LSC,
RS(15), No. 4, 2023, pp. xx-yy.
DOI Link 2303
BibRef

Liu, X.Y.[Xin-Yu], Li, S.S.[Shan-Shan], Yuan, J.J.[Jia-Jia], Fan, D.[Diao], Tan, X.L.[Xu-Li],
Estimation of Geopotential Value W0 for the Geoid and Local Vertical Datum Parameters,
RS(15), No. 4, 2023, pp. xx-yy.
DOI Link 2303
Geoid determination. BibRef

Liang, S.H.[Sheng-Hao], Zhang, C.Y.[Chuan-Yin], Jiang, T.[Tao], Wang, W.[Wei],
Research and Evaluation on Dynamic Maintenance of an Elevation Datum Based on CORS Network Deformation,
RS(15), No. 11, 2023, pp. 2935.
DOI Link 2306
BibRef

Lin, M.[Miao], Yang, M.[Meng], Zhu, J.J.[Jian-Jun],
Experiences with the RTM Method in Local Quasi-Geoid Modeling,
RS(15), No. 14, 2023, pp. 3594.
DOI Link 2307
BibRef

Bauer-Marschallinger, B.[Bernhard], Falkner, K.[Konstantin],
Wasting petabytes: A survey of the Sentinel-2 UTM tiling grid and its spatial overhead,
PandRS(202), 2023, pp. 682-690.
Elsevier DOI 2308
Universal Transversal Mercator (UTM), Military Grid Reference System (MGRS), Sentinel-2, Analysis-Ready-Data BibRef

Mai, G.C.[Geng-Chen], Xuan, Y.[Yao], Zuo, W.[Wenyun], He, Y.T.[Yu-Tong], Song, J.[JiaMing], Ermon, S.[Stefano], Janowicz, K.[Krzysztof], Lao, N.[Ni],
Sphere2Vec: A general-purpose location representation learning over a spherical surface for large-scale geospatial predictions,
PandRS(202), 2023, pp. 439-462.
Elsevier DOI 2308

WWW Link. representation of points on sphere (i.e. the earth) to use in learning. Spherical location encoding, Spatially explicit artificial intelligence, Remote sensing image classification BibRef

Yu, H.P.[Hai-Peng], Chang, G.B.[Guo-Bin], Zhang, S.[Shubi], Zhu, Y.H.[Yu-Hua], Yu, Y.J.[Ya-Jie],
Application of Sparse Regularization in Spherical Radial Basis Functions-Based Regional Geoid Modeling in Colorado,
RS(15), No. 19, 2023, pp. 4870.
DOI Link 2310
BibRef

Grigoriadis, V.N.[Vassilios N.], Andritsanos, V.D.[Vassilios D.], Natsiopoulos, D.A.[Dimitrios A.], Vergos, G.S.[Georgios S.], Tziavos, I.N.[Ilias N.],
Geoid Studies in Two Test Areas in Greece Using Different Geopotential Models towards the Estimation of a Reference Geopotential Value,
RS(15), No. 17, 2023, pp. 4282.
DOI Link 2310
BibRef

Guo, D.M.[Dong-Mei], Chen, X.D.[Xiao-Dong], Xue, Z.X.[Zhi-Xin], He, H.[Huiyou], Xing, L.[Lelin], Ma, X.[Xian], Niu, X.W.[Xiao-Wei],
High-Accuracy Quasi-Geoid Determination Using Molodensky's Series Solutions and Integrated Gravity/GNSS/Leveling Data,
RS(15), No. 22, 2023, pp. 5414.
DOI Link 2311
BibRef

Lapaine, M.[Miljenko],
On the Definition of Standard Parallels in Map Projections,
IJGI(12), No. 12, 2023, pp. 490.
DOI Link 2312
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Kerkovits, K.[Krisztián],
Secant Cylinders Are Evil: A Case Study on the Standard Lines of the Universal Transverse Mercator and Universal Polar Stereographic Projections,
IJGI(13), No. 2, 2024, pp. 56.
DOI Link 2402
BibRef

Trojanowicz, M.[Marek], Owczarek-Wesolowska, M.[Magdalena], Wang, Y.M.[Yan Ming],
Determination of the Geoid-Quasigeoid Separation Using GGI Method,
RS(16), No. 5, 2024, pp. 816.
DOI Link 2403
BibRef

Cheng, M.K.[Min-Kang],
An Updated Estimate of Geocenter Variation from Analysis of SLR Data,
RS(16), No. 7, 2024, pp. 1189.
DOI Link 2404
Earth center. BibRef


Ferrara, G., Parente, C.,
Adaptation of the Global Geoid Model EGM2008 on Campania Region (Italy) Based on Geodetic Network Points,
GeoInfo21(145-150).
DOI Link 2201
BibRef

Yazid, N.M., Din, A.H.M., Abdullah, N.M., Omar, A.H.,
The Implementation of Modern Geocentric Datum: a Review,
GGT19(685-690).
DOI Link 1912
BibRef

Jaffar, N.J., Musa, T.A., Aris, W.A.W.,
Assessment of Geocentric Datum of Malaysia 2000 (GDM2000),
GGT19(271-276).
DOI Link 1912
BibRef

Pa'suya, M.F., Din, A.H.M., McCubbine, J.C., Omar, A.H., Amin, Z.M., Yahaya, N.A.Z.,
Gravimetric Geoid Modelling Over Peninsular Malaysia Using Two Different Gridding Approaches for Combining Free Air Anomaly,
GGT19(515-522).
DOI Link 1912
BibRef

Ismail, M.K., Din, A.H.M., Uti, M.N., Omar, A.H.,
Establishment of New Fitted Geoid Model In Universiti Teknologi Malaysia,
GeoDisast18(27-33).
DOI Link 1901
BibRef

Faizuddin, A.R.M., Razali, M.M.,
Variation of Chart Datum Towards Maritime Delimitation Due to Rising Sea Level,
GeoDisast17(73-80).
DOI Link 1805
BibRef

Gill, J., Shariff, N.S., Omar, K.M., Din, A.H.M., Amin, Z.M.,
Development of a Time-Dependent 3-Parameter Helmert Datum Transformation Model: A Case Study for Malaysia,
GGT16(181-189).
DOI Link 1612
BibRef

Din, A.H.M., Abazu, I.C., Pa'suya, M.F., Omar, K.M., Hamid, A.I.A.,
The Impact of Sea Level Rise on Geodetic Vertical Datum of Peninsular Malaysia,
GGT16(237-245).
DOI Link 1612
BibRef

Yazid, N.M., Din, A.H.M., Omar, K.M., Som, Z.A.M., Omar, A.H., Yahaya, N.A.Z., Tugi, A.,
Marine Geoid Undulation Assessment over South China Sea Using Global Geopotential Models and Airborne Gravity Data,
GGT16(253-263).
DOI Link 1612
BibRef

Lee, S., Kim, J., Jung, Y., Choi, J., Choi, C.,
Implementation of The Distributed Parallel Program for Geoid Heights Computation Using MPI and Openmp,
ISPRS12(XXXIX-B4:225-229).
DOI Link 1209
BibRef

Hilger, K.B., Nielsen, A.A., Knudsen, P.,
Aspects of Remote Sensing in the GEOid and Sea level of the North Atlantic Region (GEOSONAR) Project,
SCIA99(Remote Sensing). BibRef 9900

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Last update:Apr 27, 2024 at 11:46:35