TY - JOUR
T1 - Palaeo-sea-level and palaeo-ice-sheet databases
T2 - Problems, strategies, and perspectives
AU - Düsterhus, André
AU - Rovere, Alessio
AU - Carlson, Anders E.
AU - Horton, Benjamin P.
AU - Klemann, Volker
AU - Tarasov, Lev
AU - Barlow, Natasha L.M.
AU - Bradwell, Tom
AU - Clark, Jorie
AU - Dutton, Andrea
AU - Roland Gehrels, W.
AU - Hibbert, Fiona D.
AU - Hijma, Marc P.
AU - Khan, Nicole
AU - Kopp, Robert E.
AU - Sivan, Dorit
AU - Törnqvist, Torbjörn E.
N1 - Publisher Copyright:
© 2016 Author(s).
PY - 2016/4/11
Y1 - 2016/4/11
N2 - Sea-level and ice-sheet databases have driven numerous advances in understanding the Earth system. We describe the challenges and offer best strategies that can be adopted to build self-consistent and standardised databases of geological and geochemical information used to archive palaeo-sea-levels and palaeo-ice-sheets. There are three phases in the development of a database: (i) measurement, (ii) interpretation, and (iii) database creation. Measurement should include the objective description of the position and age of a sample, description of associated geological features, and quantification of uncertainties. Interpretation of the sample may have a subjective component, but it should always include uncertainties and alternative or contrasting interpretations, with any exclusion of existing interpretations requiring a full justification. During the creation of a database, an approach based on accessibility, transparency, trust, availability, continuity, completeness, and communication of content (ATTAC3) must be adopted. It is essential to consider the community that creates and benefits from a database. We conclude that funding agencies should not only consider the creation of original data in specific research-question-oriented projects, but also include the possibility of using part of the funding for IT-related and database creation tasks, which are essential to guarantee accessibility and maintenance of the collected data.
AB - Sea-level and ice-sheet databases have driven numerous advances in understanding the Earth system. We describe the challenges and offer best strategies that can be adopted to build self-consistent and standardised databases of geological and geochemical information used to archive palaeo-sea-levels and palaeo-ice-sheets. There are three phases in the development of a database: (i) measurement, (ii) interpretation, and (iii) database creation. Measurement should include the objective description of the position and age of a sample, description of associated geological features, and quantification of uncertainties. Interpretation of the sample may have a subjective component, but it should always include uncertainties and alternative or contrasting interpretations, with any exclusion of existing interpretations requiring a full justification. During the creation of a database, an approach based on accessibility, transparency, trust, availability, continuity, completeness, and communication of content (ATTAC3) must be adopted. It is essential to consider the community that creates and benefits from a database. We conclude that funding agencies should not only consider the creation of original data in specific research-question-oriented projects, but also include the possibility of using part of the funding for IT-related and database creation tasks, which are essential to guarantee accessibility and maintenance of the collected data.
UR - http://www.scopus.com/inward/record.url?scp=84964647451&partnerID=8YFLogxK
U2 - 10.5194/cp-12-911-2016
DO - 10.5194/cp-12-911-2016
M3 - Article
AN - SCOPUS:84964647451
SN - 1814-9324
VL - 12
SP - 911
EP - 921
JO - Climate of the Past
JF - Climate of the Past
IS - 4
ER -