Developments in Polar Data Management 2006 – 2019 and Beyond: standardization and community-building in support of enhanced interoperability

Author(s):  
Peter L. Pulsifer ◽  
Sandra McCubbin ◽  
Stein Sandven ◽  
Mark A. Parsons

<p>A consortium of polar data coordinating bodies has recently hosted a number of useful workshops and events to foster collaboration between individuals, institutions, projects and organizations. These events have built on polar data coordination efforts including progress made during the International Polar Year, focused workshops in 2016, 17, and 18, and three Polar Data Forum meetings (2013,15,19).  </p><p> </p><p>These and other activities have identified a need for continued community development and detailed technical collaboration in order to advance Polar Data Management. Technical activity has centred on achieving federated search through the exchange of standardised, well formatted discovery metadata. This is an important first step towards an interconnected polar data system and important gaps and mitigation have been identified at the levels of standardisation, exchange protocols, and eventually semantic annotation of datasets.</p><p> </p><p>These activities have been and will continue to be organized by a group of coordination bodies including the IASC-SAON Arctic Data Committee, the Southern Ocean Observing System, Standing Committee on Antarctic Data Management, GEO Cold Regions Initiative, Polar View, Arctic Portal, ELOKA, Canadian Consortium on Arctic Data Interoperability, U.S. Inter-agency Arctic Research Policy Committee Arctic Data Sub-Team, and the WMO Global Cryosphere Watch.</p><p> </p><p>As a contribution to these international efforts, in January 2020, the European Union Horizon 2020 project CAPARDUS was established as a coordination and support action with the objective to establish a comprehensive framework for development, understanding and implementation of Arctic standards with focus on environmental topics and related data. The framework will integrate standards used by communities active in the Arctic and polar regions including research and services, Indigenous and local communities, commercial operators and governance bodies. Development of standards is important for many technologies and services (e.g. federated search) that can bring broad social and economic benefits within and beyond the Arctic region.</p><p> </p><p>In this presentation we first provide a synthesis of more than a decade and a half of activity and development in polar data management and interoperable data sharing.  Results from this analysis reveal two primary areas of successful developments: i) social and organizational including data policy, building working relationships, and funding cyberinfrastructure ; ii) technical developments in federated search, semantic interoperability, and use of web services.  Patterns, advancements and development gaps are identified and discussed.  Secondly, we present an overview of the first quarter of activity under the CAPARDUS project, including a preliminary model aimed and enhancing appropriate levels of standardization in the polar data community.</p>

Polar Record ◽  
2008 ◽  
Vol 44 (2) ◽  
pp. 107-114 ◽  
Author(s):  
Øystein Jensen

ABSTRACTWith the International Polar Year (IPY) having commenced in March 2007, key issues relating to the polar regions are again in focus. This article reviews one central legal issue re-emerging in the Arctic: global regulation of safety standards for international shipping. The ‘Guidelines for ships operating in Arctic ice-covered waters’ are examined, with a view to the probable expansion of shipping in the Arctic in near future. Following an introduction to navigational issues within the Arctic context, the article describes how the guidelines came into being, and then analyses key elements and structure of the regulations and shortfalls of today's arrangements. The possible relevance of the guidelines to the Antarctic is also discussed briefly. Finally, the article inquires into the key repercussions of introducing binding regulations.


2015 ◽  
Vol 8 (1) ◽  
pp. 447-460
Author(s):  
A. Driemel ◽  
H. Grobe ◽  
M. Diepenbroek ◽  
H. Grüttemeier ◽  
S. Schumacher ◽  
...  

Abstract. The International Polar Year 2007–2008 was a synchronized effort to simultaneously collect data from polar regions. Being the fourth in a row of IPYs, the demand for interdisciplinarity and new data products was high. However, despite of all the research done on land, people, ocean, ice and atmosphere and the large amount of data collected, no central archive or portal was created for IPY data. In order to address these issues, a concerted effort between PANGAEA – Data Publisher for Earth and Environmental Science, the ICSU World Data System (WDS), and the International Council for Scientific and Technical Information (ICSTI) was undertaken to extract data resulting from IPY publications for long-term preservation. 1380 IPY-related references were collected. Out of these, only 450 contained accessible data. All data was extracted, quality checked, annotated with metadata and uploaded to PANGAEA. The 450 articles dealt with a multitude of IPY topics – plankton biomass, water chemistry, ice thickness, whale sightings, Inuit health, alien species introductions by travelers or tundra biomass change – to mention just a few. Both, the Arctic and the Antarctic were investigated in the articles, and all realms (land, people, ocean, ice and atmosphere) and a wide range of countries were covered. The data compilation can now be found with the identifier doi:10.1594/PANGAEA.150150 and individually searched for using the PANGAEA search engine (www.pangaea.de) and adding "+project:ipy". With this effort, we hope to improve the visibility, accessibility and long-term storage of IPY data for future research and new data products.


2020 ◽  
Author(s):  
Leda Pecci ◽  
Michele Fichaut ◽  
Dick Schaap

<p>The pan-European SeaDataNet marine and ocean data infrastructure started in early 2000, by means of a European funded project to create a framework for the management of large and diverse sets of data deriving from in situ measurements. It has been improved thanks to different European projects, it represents the joint efforts of several marine institutes around the European and the Mediterranean seas. The current project that is improving the infrastructure is the SeaDataCloud Horizon 2020 project; it involves a network of 56 partners across 29 countries.</p><p>According to our main objectivest he project designed and implemented actions which can spur a response on an international level, creating the basis to reinforce the pan-European SeaDataCloud community.</p><p> </p><p>Information Technology (IT) has an important impact on how people work together. In the SeaDataCloud project the following web communication tools are used:</p><ul><li>SeaDataNet website and Extranet;</li> <li>Partners’ websites;</li> <li>Mailing lists;</li> <li>Electronic newsletters;</li> <li>On line educational materials;</li> <li>Videos and video tutorials;</li> <li>Twitter;</li> <li>Articles in e-journals;</li> </ul><p> </p><p>Members of the SeaDataCloud and SeaDataNet I and II, have had the opportunity of face to face meetings, the norm is to travel even for meetings of short duration. This investment in time and money allows direct contact between the partners of the projects. This creates an opportunity for people across Europe to meet each other, to work together and to speak openly.</p><p> </p><p>The IMDIS (International Conference on Marine Data and Information Systems) conferences have been organized in the framework of the European funded projects that have allowed the SeaDataNet infrastructure to be developed and upgraded. The meetings started in 2005 with the first conference organised in Brest (France), to share knowledge and best practices on marine data management. IMDIS is a unique platform and has the following goals:</p><ul><li>Raise awareness of the SeaDataNet infrastructure, new development and standards;</li> <li>Share experiences in ocean data management;</li> <li>Enable synergies between data providers and data managers.</li> </ul><p> </p><p>It has been a breeding ground for inspirational ideas, for example the project ODIP (Ocean Data Interoperability Platform) that led to its successor ODIP II project was conceived during one of the conferences. The challenges and objectives of the projects were to find common interoperability solutions to problems in ocean data sharing, in collaboration with institutions from Europe, USA and Australia. In this case the IMDIS series of conferences have represented an opportunity not only for knowledge exchange in ocean data management but they have led to significant results in terms of new synergies that made it possible to find new partners and projects.</p><p>The direct interactions during the meetings as well as the on line tools have had a positive impact on reinforcing the development of a large SeaDataNet community across Europe and beyond.</p><p>The SeaDataCloud project has received funding from the European Union’s Horizon 2020 research and innovation programme under grant agreement Nº 730960.</p>


1957 ◽  
Vol 10 (1) ◽  
pp. 17-30 ◽  
Author(s):  
Harold Spencer Jones

In 1874, the Austrian arctic scientist, Weyprecht, on his return from an Austro-Hungarian polar expedition stated that, though many countries had sent expeditions into the polar regions at great expense and involving appreciable hazards to those participating, no important contributions to knowledge had resulted from them. They had done a certain amount of mapping and obtained a few meteorological observations but the primary object had been, as a matter of national prestige, to plant the flag nearer to the Pole than had been reached before. In his opinion what was needed for the advancement of knowledge about the polar regions was that nations should collaborate in sending expeditions to various parts of the arctic region to make observations throughout the whole of one year. Largely because of his persistent advocacy of this view, the value of the proposal came to be recognized, and as a result the enterprise known as the First International Polar Year was developed. A number of countries combined to send expeditions to establish observing stations at selected points in the arctic region to make observations throughout the year 1882–3 in meteorology and geomagnetism and also of the aurora. The observations made during this Polar Year contributed appreciably to knowledge of geomagnetism and of meteorology.


2009 ◽  
Vol 26 (10) ◽  
pp. 2136-2148 ◽  
Author(s):  
Carmen Cordoba-Jabonero ◽  
Manuel Gil ◽  
Margarita Yela ◽  
Marion Maturilli ◽  
Roland Neuber

Abstract The potential of a new improved version of micropulse lidar (MPL-4) on polar stratospheric cloud (PSC) detection is evaluated in the Arctic over Ny-Ålesund (79°N, 12°E), Norway. The campaign took place from January to February 2007 in the frame of the International Polar Year (IPY) activities. Collocated Alfred Wegener Institute (AWI) Koldewey Aerosol Raman Lidar (KARL) devoted to long-term Arctic PSC monitoring is used for validation purposes. PSC detection is based on lidar retrievals of both backscattering ratio R and volume depolarization ratio δV. Two episodes were unequivocally attributed to PSCs: 21–22 January and 5–6 February 2007, showing a good correlation between MPL-4 and KARL backscattering ratio datasets (mean correlation coefficient = 0.92 ± 0.03). PSC layered structures were characterized for four observational periods coincident with KARL measurements. Also, PSC type classification was determined depending on the retrieved R and δV values as compared with those obtained by KARL long-term Arctic PSC measurements. Tropospheric cloud cover from lidar observations and both ECMWF potential vorticity and temperature at 475 K, in addition to temperature profiles from AWI daily radiosoundings, are also reported. Height-resolved and temporal evolution of both PSC episodes obtained from MPL-4 measurements clearly show that MPL-4 is a suitable instrument to provide long-term PSC statistic monitoring in polar regions. These results are the first reported on PSC detection in the Arctic by using a low-energy and highly pulsed lidar operating on autonomous and full-time continuous mode MPL-4.


Polar Record ◽  
1949 ◽  
Vol 5 (37-38) ◽  
pp. 332-334 ◽  
Author(s):  
Brian Roberts

An Austrian polar explorer, Karl Weyprecht, was the first to advance a definite scheme for investigating the polar regions on an international level. Weyprecht's idea was that each interested government should establish one or more stations in the polar regions, and that scientific work should be done simultaneously at all stations according to a previously co-ordinated plan. Weyprecht's plan was discussed by an international conference which met at Hamburg in 1879. The delegates at this conference formed themselves into a permanent International Polar Commission whose task was to make further and more detailed plans. In 1880 a Second International Polar Conference met at Berne, and a Third met at St Petersburg in 1881. As a result of the work done by these conferences the First International Polar Year was organised in 1882–83. Eleven countries—Austria, Denmark, Finland, France, Germany, Great Britain, Holland, Norway, Russia, Sweden and U.S.A.—set up and manned for a year twelve stations in the Arctic and two in the Antarctic. The field work completed, the Fourth* and Fifth5 International Polar Conferences met in Vienna in 1884 and Munich in 1891, and arranged publication of the scientific results, which filled 27 volumes. At the Fifth Conference the International Polar Commission was dissolved, its work being completed.


2020 ◽  
Author(s):  
Rainer Lehmann ◽  
Inga Beck ◽  
Julia Dooley ◽  
Maria Pia Casarini ◽  
Neelu Singh ◽  
...  

<p>Polar Educators International (PEI) is an outcome of the 4<sup>th</sup> International Polar Year. During this period (2001 – 2009) educators firstly were highly involved in a scientific initiative and a first bridge between scientists and educators was built. Since then PEI grew rapidly and nowadays has almost 200 members coming from all over the world.</p><p>The mission of PEI is to highlight and share the global relevance of the Polar Regions with the broader community. Therefore a vital network of educators and researchers are strongly cooperating together with relevant polar organizations such as IASC or SCAR. Thus PEI is able to provide up-to-date educational material for schools, workshop for teachers and many more. PEI Educators are bridging the gap between the scientists and community at large.</p><p>All information is available on a robust, flexible, and useful web presence.</p><p>PEI is a network that is open to everybody interested in outreach and education with a special focus on the Arctic, the Antarctic and Mountain Regions.</p><p>PEI is a common network where educators, scientists and general public can easily access the educative material especially focus on the Arctic, Antarctic and mountainous regions.  </p>


2020 ◽  
Author(s):  
Emanuele Pica ◽  
Vincenzo Romano ◽  
Carlo Marcocci ◽  
Claudio Cesaroni ◽  
Ingrid Hunstad

<p>The Space Weather effects on the ionosphere considerably affect several modern technology infrastructures, such as telecommunication systems, power networks and in general systems relying on satellite navigation. The polar regions have always been a natural laboratory for the analysis of these phenomena and regular observations are required to gain better knowledge about the relationships between the ionized atmosphere and the others atmospheric layers as well as to provide support to civil aviation and maritime for the safety of the polar routes.</p><p>The Istituto Nazionale di Geofisica e Vulcanologia (INGV) has a long history in acquiring ionospheric data in the polar regions and currently operates in the Arctic two permanent observatories in Svalbard (Ny-Ålesund and Longyearbyen), Norway, equipped with three GNSS receivers for scintillation and TEC measurement. An additional receiver will be installed soon at the Thule Air Base (Greenland).</p><p>The uninterrupted data production from these instruments and the necessity to provide near real-time access to this information makes it necessary to develop suited procedures and ad-hoc IT infrastructures. To address these needs the INGV designed the SWIT system (Space Weather Information Technology) for data management and the web-platform eSWua (electronic Space Weather upper atmosphere) for data dissemination. With regard to the Arctic region, the information-flow from Svalbard stations is provided by optical fibre connections and the SWIT-DBMS operates the ingestion of this data at the INGV central repository within 15 minutes or less. The eSWua website offers a GUI for near real-time and historical data visualization, while web-based tools and a RESTful web-service will provide free access to the data at different processing levels. The planning and design of this infrastructure takes advantage of the experience gained from ongoing projects like the NADC (the Italian National Antarctic Data Center).</p><p>In this paper the state of the art of the INGV Arctic and Antarctic data management system for the Ionospheric and space weather data and the efforts undertaken to improve the access and availability of these information are presented and discussed.</p>


2015 ◽  
Vol 7 (2) ◽  
pp. 239-244
Author(s):  
A. Driemel ◽  
H. Grobe ◽  
M. Diepenbroek ◽  
H. Grüttemeier ◽  
S. Schumacher ◽  
...  

Abstract. The International Polar Year (IPY) 2007–2008 was a synchronized effort to simultaneously collect data from polar regions. Being the fourth in a series of IPYs, the demand for interdisciplinarity and new data products was high. However, despite all the research done on land, people, ocean, ice and atmosphere and the large amount of data collected, no central archive or portal was created for IPY data. In order to improve the availability and visibility of IPY data, a concerted effort between PANGAEA – Data Publisher for Earth and Environmental Science, the International Council for Science (ICSU) World Data System (WDS), and the International Council for Scientific and Technical Information (ICSTI) was undertaken to extract data resulting from IPY publications for long-term preservation. Overall, 1380 IPY-related references were collected. Of these, only 450 contained accessible data. All data were extracted, quality checked, annotated with metadata and uploaded to PANGAEA. The 450 articles dealt with a multitude of IPY topics – plankton biomass, water chemistry, ice thickness, whale sightings, Inuit health, alien species introductions by travellers or tundra biomass change, to mention just a few. Both the Arctic and the Antarctic were investigated in the articles, and all realms (land, people, ocean, ice and atmosphere) and a wide range of countries were covered. The data compilation can now be found with the identifier doi:10.1594/PANGAEA.150150, and individual parts can be searched using the PANGAEA search engine (www.pangaea.de) and adding "+project:ipy". With this effort, we hope to improve the visibility, accessibility and long-term storage of IPY data for future research and new data products.


Sign in / Sign up

Export Citation Format

Share Document