Draft:GeoDin

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  • Comment: This isn't ready at this point, there are too many "citations needed". To get notability under either the company or the software will require independent reliable sources. See for example WP:SIRS. ChrysGalley (talk) 15:57, 11 March 2026 (UTC)

Initial release1994; 32 years ago (1994)
Available in8 languages
Quick facts GeoDin, Developer ...
GeoDin
DeveloperFugro
Initial release1994; 32 years ago (1994)
Operating systemWindows
Available in8 languages
List of languages
English, German, Russian, French, Italian, Portuguese, Turkish, Spanish
TypeGeotechnical software
LicenseSoftware as a service
Websitewww.geodin.com
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About

GeoDin is a geological and geotechnical data management software developed in Germany. It is used in geological surveys, civil engineering, environmental investigations, and the architecture, engineering, and construction (AEC) industry to manage subsurface information, including soil and rock boring logs, laboratory and in-situ test results, and other field measurements collected during site and infrastructure projects.[citation needed] First released in 1994, the software provides tools for managing, validating, and visualizing geoscientific and geotechnical datasets and supports interoperability with design and modeling environments.[citation needed] GeoDin is owned and distributed by Fugro B.V.[citation needed]

History

Cross section generated in GeoDin in the early 2000s

GeoDin first appeared in the late 1980s under the name ODIN.[citation needed] It was originally conceived as a tool for digitizing the geological archive of the Central Geological Institute (Zentrales Geologisches Institut, ZGI) in Berlin, Germany, for internal use and was not initially intended as a commercial product.[citation needed] The software was developed by Thomas Anders and Jörg Donat while working at the ZGI, with Tim Fyfe and later Elena Donat joining the development team.[citation needed]

As other geological institutions expressed interest in the program, the decision was made to release it commercially.[citation needed] The first public release appeared in 1994 for Microsoft Windows, focusing on digital acquisition of geological data and standardized borehole documentation.[citation needed] The name was later changed from ODIN to GeoDin to reflect an expanded focus on geodata management.[citation needed]

Following German reunification, the ZGI became the UWG (Umweltgeologie GmbH), which was subsequently acquired by Fugro on June 17, 2004.[citation needed] The software was retained and further developed within Fugro’s geoinformatics department.[citation needed] Early development priorities under Fugro included creating a new object type according to Dutch technical standards, developed in collaboration with Hans Link, followed by an object type designed specifically for geotechnical engineers, incorporating laboratory analyses and reporting documents compliant with various international standards.[citation needed]

Software

Screenshot from GeoDin showing how to create a database
Ground model generated in Civil 3D by GeoDin Ground

GeoDin Suite

In 2025, GeoDin released the GeoDin Suite, consisting of three applications:[citation needed]

GeoDin is the core geodatabase application for storing, managing, reporting, and analyzing geological and geotechnical data. It manages project records and location/identification data for investigation points (e.g., boreholes), supports lithological descriptions in line with established classification standards, integrates field and laboratory test results and samples, and handles monitoring time series such as groundwater levels. The software includes tools for visualization, reporting, and GIS-based mapping through a dedicated module.

GeoDin Ground is an integration plugin for Autodesk Civil 3D that displays geotechnical and subsurface data within the design environment. It is available through the Autodesk Marketplace.[citation needed]

GeoDin Onsite is a field data capture application for recording borehole data, samples, and measurements during site investigations, with synchronization to the GeoDin geodatabase.[citation needed]

Features

GeoDin provides tools for the capture, management, and analysis of geological and geotechnical information. It manages project records and location and identification data for investigation points (such as boreholes), supports lithological descriptions consistent with established classification standards, and handles samples taken from boreholes together with their metadata. Monitoring data and time series (for example, groundwater levels) can be recorded, validated, and visualized, and sequential, depth-indexed investigation data, such as CPT profiles, can be imported and displayed.[citation needed]

Visualization and reporting functionality includes graphical borehole logs and geological cross-sections, plan-view site plans, and well construction artifacts, comprising both well design specifications and well/borehole completion (as-built) diagrams. The software provides parameter and results tables, charts for time-series and depth-profile data, and template-based reporting. A mapping module (GeoDin Maps) offers GIS-style displays of investigation points using basemaps (e.g., OpenStreetMap) and external GIS layers, and supports the creation of derived surfaces such as contour maps and heat maps.[citation needed]

GeoDin also includes a library of configurable laboratory and field geological geotechnical tests, including classification tests, chemical analyses, and advanced geotechnical investigations.[citation needed] The feature set varies by configuration, modules, and version; the foregoing is a non-exhaustive description of available functionality.

Standards support

The software supports geological and geotechnical standards including:[citation needed]

  • DIN 4022/4032
  • EN ISO 14688/14689
  • BS 5930
  • ASTM D2487
  • SEP3
  • Bodenkundliche Kartieranleitung (KA5)
  • GOST 25100-95
  • ABNT NBR 6502/2022

Interoperability and integrations

GeoDin provides several interfaces for data exchange and interoperability with third-party systems.[citation needed]

Data exchange formats: Import and export to XLSX, CSV, PDF, and various GIS formats.[citation needed]

AGS standard: Support for the AGS geotechnical data exchange standard (versions 4.0.4 and 4.1.1).[citation needed]

GIS and basemaps: Mapping workflows with OpenStreetMap basemaps and ingestion of external GIS layers; creation of contour and heat maps.[citation needed]

3D subsurface modeling: GeoDin supports data transfer to Seequent Leapfrog for subsurface modeling and visualization.[citation needed]

CAD environments: GeoDin Ground provides integration with Autodesk Civil 3D for in-CAD visualization and interaction.[citation needed]

Environmental information systems: Interfaces to systems such as the environmental information system (UIS) of the Saxon State Office for Environment, Agriculture and Geology (LfULG).[citation needed]

Database backends: Integration with Microsoft Access, Oracle, Microsoft SQL Server, PostgreSQL, and MySQL.[citation needed]

Third-party extensions: Additional modules and connectors by external vendors for data exchange and publishing.[citation needed]

Applications

GeoDin has been used in geotechnical surveys and site investigations for infrastructure and energy projects. In the SuedLink project, a 700 km underground high-voltage direct current (HVDC) power line in Germany, GeoDin was used to process and evaluate thermal conductivity laboratory results from soil samples, with a specific plugin developed for the project.Hendler, K.; Meier, C.; Kleiber, S.; Stegner, J.; Drefke, C.; Boley, C. (2024). Thermal soil properties as a basis for design of underground high voltage cables. Proceedings of the XVIII ECSMGE 2024. Taylor & Francis. pp. 2964–2969. doi:10.1201/9781003431749-579. ISBN 978-1-032-54816-6.

The software has also been used for geotechnical data storage and presentation in nuclear power plant safety assessments, including liquefaction hazard analysis at the Paks Nuclear Power Plant in Hungary.Katona, Tamás János; Bán, Zoltán; Győri, Erzsébet; Tóth, László; Mahler, András (2015). "Safety Assessment of Nuclear Power Plants for Liquefaction Consequences". Science and Technology of Nuclear Installations. 2015: 727291. doi:10.1155/2015/727291.{{cite journal}}: CS1 maint: article number as page number (link)

Commercial distribution

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