A summary of U.S. Geological Survey marine geological data collected in the Beaufort Sea, Alaska, 1982

1983 ◽  
Author(s):  
Edward W. Kempema ◽  
P.W. Barnes ◽  
Erk Reimnitz ◽  
J.L. Asbury ◽  
D.M. Rearic
Author(s):  
Jørgen Tulstrup ◽  
Mikael Pedersen

Geology does not respect national borders. Hence, in order to get geological overviews of Europe, input from geological surveys in more than 35 countries is required. European policy makers have several times been forced to rely on the US Geological Survey to provide e.g. resource estimates from the European continent, but for obvious reasons there is a wish to base European decision making on European knowledge. Consequently, the European Commission and the European Parliament have formulated a request for the establishment of a ‘Geological Service for Europe’. In its strategy towards 2020, EuroGeoSurveys (EGS) addresses the creation of such a service through three pillars. EGS is an umbrella organisation through which national geological survey organisations of 36 European countries cooperate, referred to below as national surveys. The three pillars are designed to integrate input from all national surveys into a system that can swiftly act on urgent needs for knowledge-based decision support. The three pillars relate to joint research, data integration and sharing of facilities (Fig. 1). Whilst the third pillar has only recently been dealt with, the two first have already advanced through a number of recent initiatives. Having been a key player in numerous EU projects for many years, the Geological Survey of Denmark and Greenland (GEUS) has attained a central role in the implementation of these two pillars of the strategy, both as coordinator of the European Geological Data Infrastructure (EGDI, www.europe-geology.eu) and as one of the biggest players in the so-called GeoERA programme. GEUS participates in ten projects and is a partner in the secretariat and the coordinator of the GeoERA Information Platform. The present paper outlines the main steps towards the current situation and provides a background for GEUS’ role in this.


2020 ◽  
Author(s):  
Anker Lajer Hojberg ◽  
Ida Bjørnholt Karlsson ◽  
Klaus Hinsby ◽  
Jacob Kidmose ◽  
Hélène Bessiere ◽  
...  

<p>Climate change (CC) already have widespread and significant impacts in Europe, which is expected to increase in the future. Groundwater plays a vital role for the land phase of the freshwater cycle and have the capability of buffering or enhancing the impact from extreme climate events causing droughts or floods, depending on the subsurface properties and the status of the system (dry/wet) prior to the climate event. Understanding and taking the hydrogeology into account is therefore essential in the assessment of climate change impacts.</p><p>The Geological Survey Organisations (GSOs) in Europe compile the necessary data and knowledge of the groundwater systems across Europe. The overall vision of the project “Tools for Assessment of ClimaTe change ImpacT on Groundwater and Adaptation Strategies – TACTIC” is to enhance the utilisation of these data and knowledge of the subsurface system in CC impact assessments, and the identification and analyses of potential adaptation strategies. To reach this vision, the objective of TACTIC is to contribute to the development of coherent and transparent assessments of CC impacts on groundwater and surface water, supporting improved EU policy making, and providing decision support for stakeholders and decision makers. To accomplish this, an infra-structure among European Geological Survey Organisations are developed in TACTIC to foster advancement and harmonisation of CC assessments, made up by: 1) The TACTIC Toolbox, consisting of relevant tools and methods for CC impact assessments, 2) TACTIC guidelines that will guide GSOs and other relevant stakeholders on the selection of appropriate tools and their use for producing comparable results, 3) The European Geological Data Infrastructure (EGDI) where data, reports and open-access papers will be stored  and made freely available  </p><p>The project is centred around 40 pilot studies covering a variety of CC challenges as well as different hydrogeological settings and different management systems found in Europe. The pilot activities are coordinated centrally in the project, to ensure that assessments, to the extent possible, are harmonised and can be compared across pilots. Synthesizing the experiences and results from the pilots will enable the development of a guideline and future roadmap, with the aim of 1) encouraging more GSOs to contribute in CC impact assessments 2) providing guidance to make the learning curve less steep and 3)ensuring that new assessments are comparable with assessments conducted in TACTIC.</p><p>TACTIC is part of the Horizon 2020 ERA-NET on Applied Geoscience (GeoERA) and together with the three other GeoERA groundwater projects, TACTIC will provide new and important data for further development of the European Geological Data Infrastructure (EGDI) with publicly available data enabling the development of EU-wide decision support systems for sustainable management of subsurface resources in a changing climate.</p><p>This project has received funding from the European Union's Horizon 2020 research and innovation programme under grant agreement No 731166.</p>


1969 ◽  
Vol 23 ◽  
pp. 53-56 ◽  
Author(s):  
Martin Hansen ◽  
Bjarni Pjetursson

Geological data at the Geological Survey of Denmark and Greenland (GEUS) have been available on the internet for more than 10 years. The first step in making geological data available online was the launch of web access to data from water supply wells (Tulstrup 2004). The database is called Jupiter, and currently data from more than 260 000 shallow wells are available to the public. Figure 1 shows an example of a map from the Jupiter database available in a web-browser.


1993 ◽  
Vol 159 ◽  
pp. 18-21
Author(s):  
P.R Dawes ◽  
H.K Schønwandt ◽  
B Thomassen

The year 1992 has seen an expansion in the scope of the Geological Survey of Greenland's (GGU) information service to the mining industry. In the preceding few years this part of GGU's work has been improved by a number of facilities, ranging from the establishment in Copenhagen of a Mineralisation Data Bank and Core Library to a new publication policy aimed at streamlining the processing time and availability of in-house geological data, as well as ensuring improved public access to released company data stemming from concessionary exploration work in Greenland (see Ghisler 1990, 1992; Schønwandt, 1991). A more recent venture has been the introduction of a newsletter – reported on elsewhere in this report (Dawes & Thomsen).


2014 ◽  
Vol 33 (3) ◽  
pp. 7-15 ◽  
Author(s):  
Zygmunt Babiński ◽  
Michał Habel ◽  
Sergey Chalov

Abstract The aim of this paper is to present the geological structure of the Vistula river valley floor as the modifying factor of fluvial processes and present the development conditions of the contemporary Vistula river channel, which underwent marked transformation due to bed erosion and lateral erosion below the Włocławek reservoir. The analysis of the geological data and the geological survey conducted at the study reach of the Vistula between Włocławek and Toruń resulted in an image of the geological structure of the channel bed along the longitudinal profile


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