2019 |
Addink, Wouter; Koureas, Dimitrios; Casino Rubio, Ana DiSSCo as a New Regional Model for Scientific Collections in Europe Journal Article Biodiversity Information Science and Standards, 3 , pp. e37502, 2019. Abstract | Links | BibTeX | Tags: DiSSCo, Europe, natural history, research infrastructures, RI, scientific collections, specimens @article{10.3897/biss.3.37502, title = {DiSSCo as a New Regional Model for Scientific Collections in Europe}, author = {Wouter Addink and Dimitrios Koureas and Ana Casino Rubio}, url = {https://doi.org/10.3897/biss.3.37502}, doi = {10.3897/biss.3.37502}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e37502}, publisher = {Pensoft Publishers}, abstract = {European Natural Science Collections (NSC) are part of the global natural and cultural capital and represent 80% of the world bio-and geo-diversity. Data derived from these collections underpin thousands of scholarly publications and official reports (used to support legislative and regulatory processes relating to health, food, security, sustainability and environmental change) and let to inventions and products that today play an important role in our bio-economy. In the last decades, the research practice in natural sciences changed dramatically. Advances in digital, genomic and information technologies enable natural science collections to provide new insights but also ask for changing the current operational and business models of individual collections held at local natural history museums and universities. A new business model that provides unified access to collection objects and all scientific data derived from them. Although aggregating infrastructures like the Global Biodiversity Information Facility, GenBank and Catalogue of Life now successfully aggregate data on specific data classes, the landscape remains fragmented with limited capacity to bring together this information in a systematic and robust manner and with scattered access to the physical objects. The Distributed System of Scientific Collections (DiSSCo) represents a pan-European initiative, and the largest ever agreement of natural science museums, to jointly address the fragmentation of European collections. DiSSCo is unifying European natural science collections into a coherent new research infrastructure, able to provide bio- and geo-diversity data at the scale, form and precision required by a multi-disciplinary user base in science. DiSSCo is harmonising digitisation, curation and publication processes and workflows across the scientific collections in Europe and enables linking of occurrence, genomic, chemical and morphological data classes as well as publications and experts to the physical object. In this paper we will present the socio-cultural and governance aspects of this research infrastructure. DiSSCo is receiving political support from 11 countries in Europe and will gradually change its funding model from institutional to national funding, with temporary funding from the EC to support the preparation and development. Solutions to achieve large scale digitisation are currently designed in the EC funded ICEDIG project to underpin the future large scale digitisation carried out by the countries. Unified virtual (digitisation on demand) and transnational physical access to the collections is over the next four years being developed in the EC funded SYNTHESYS+ project. The governance of DiSSCo is designed to gradually change from a steering committee composed of a few large natural history museums contributing in cash to initiate the development into a legal entity in which national consortia are represented, with a central coordination office for daily management. Each country individually decides how its entities (scientific collection facilities, research councils, governmental bodies) are organised in their national consortium. A stakeholder and user forum, Scientific Advisory Board and International Advisory Board will ensure that DiSSCo will be functional in enabling science across disciplines and within the international landscape of infrastructures. Training and short scientific missions are being developed in the MOBILISE COST Action to build capacity in FAIR data production, publication and usage of scientific collection-derived data in Europe and to initiate the socio-cultural changes needed in the collection-holding institutes. A Helpdesk is being constructed in the SYNTHESYS+ and DiSSCo Prepare projects to further facilitate the use and scientific use cases have been collected in ICEDIG to develop and facilitate e-services tailored to scientific needs.}, keywords = {DiSSCo, Europe, natural history, research infrastructures, RI, scientific collections, specimens}, pubstate = {published}, tppubtype = {article} } European Natural Science Collections (NSC) are part of the global natural and cultural capital and represent 80% of the world bio-and geo-diversity. Data derived from these collections underpin thousands of scholarly publications and official reports (used to support legislative and regulatory processes relating to health, food, security, sustainability and environmental change) and let to inventions and products that today play an important role in our bio-economy. In the last decades, the research practice in natural sciences changed dramatically. Advances in digital, genomic and information technologies enable natural science collections to provide new insights but also ask for changing the current operational and business models of individual collections held at local natural history museums and universities. A new business model that provides unified access to collection objects and all scientific data derived from them. Although aggregating infrastructures like the Global Biodiversity Information Facility, GenBank and Catalogue of Life now successfully aggregate data on specific data classes, the landscape remains fragmented with limited capacity to bring together this information in a systematic and robust manner and with scattered access to the physical objects. The Distributed System of Scientific Collections (DiSSCo) represents a pan-European initiative, and the largest ever agreement of natural science museums, to jointly address the fragmentation of European collections. DiSSCo is unifying European natural science collections into a coherent new research infrastructure, able to provide bio- and geo-diversity data at the scale, form and precision required by a multi-disciplinary user base in science. DiSSCo is harmonising digitisation, curation and publication processes and workflows across the scientific collections in Europe and enables linking of occurrence, genomic, chemical and morphological data classes as well as publications and experts to the physical object. In this paper we will present the socio-cultural and governance aspects of this research infrastructure. DiSSCo is receiving political support from 11 countries in Europe and will gradually change its funding model from institutional to national funding, with temporary funding from the EC to support the preparation and development. Solutions to achieve large scale digitisation are currently designed in the EC funded ICEDIG project to underpin the future large scale digitisation carried out by the countries. Unified virtual (digitisation on demand) and transnational physical access to the collections is over the next four years being developed in the EC funded SYNTHESYS+ project. The governance of DiSSCo is designed to gradually change from a steering committee composed of a few large natural history museums contributing in cash to initiate the development into a legal entity in which national consortia are represented, with a central coordination office for daily management. Each country individually decides how its entities (scientific collection facilities, research councils, governmental bodies) are organised in their national consortium. A stakeholder and user forum, Scientific Advisory Board and International Advisory Board will ensure that DiSSCo will be functional in enabling science across disciplines and within the international landscape of infrastructures. Training and short scientific missions are being developed in the MOBILISE COST Action to build capacity in FAIR data production, publication and usage of scientific collection-derived data in Europe and to initiate the socio-cultural changes needed in the collection-holding institutes. A Helpdesk is being constructed in the SYNTHESYS+ and DiSSCo Prepare projects to further facilitate the use and scientific use cases have been collected in ICEDIG to develop and facilitate e-services tailored to scientific needs. |
Casino, Ana; Raes, Niels; Addink, Wouter; Woodburn, Matt Collections Digitization and Assessment Dashboard, a Tool for Supporting Informed Decisions Journal Article Biodiversity Information Science and Standards, 3 , pp. e37505, 2019. Abstract | Links | BibTeX | Tags: alignment, biodiversity and geodiversity, dashboard, digitization, DiSSCo, high-level information, informed decision-making, institutional description, mechanisms, natural science collections, research infrastructure, tools, visualization @article{10.3897/biss.3.37505, title = {Collections Digitization and Assessment Dashboard, a Tool for Supporting Informed Decisions}, author = {Ana Casino and Niels Raes and Wouter Addink and Matt Woodburn}, url = {https://doi.org/10.3897/biss.3.37505}, doi = {10.3897/biss.3.37505}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e37505}, publisher = {Pensoft Publishers}, abstract = {Natural Science Collections (NSCs) contain specimen-related data from which we extract valuable information for science and policy. Openness of those collections facilitates development of science. Moreover, virtual accessibility to physical containers by means of their digitization will allow an exponential increase in the level of available information. Digitization of collections will allow us to set a comprehensive registry of reliable, accurate, updated, comparable and interconnected information. Equally, the scope of interested potential users will largely expand and so will the different levels of granularity required by researchers, institutions and governmental bodies. Meeting diverse needs entails a special effort in data management and data analysis to extract, digest and present information on a compressed but still precise and objective-oriented format. The Collections Digitisation Dashboard (CDD) underpins such an attempt. The CDD stands as a practical tool that specifically aims to support high-level decisions with a wide coverage of data, by providing a visual, simplified and structured arrangement that will allow discovery of key indicators concerning digitization of bio- and geodiversity collections. The realm of possible approaches to the CDD covers levels of digitization, collection exceptionality, resourceavailability and many others. Still all those different angles need to be aligned and processed at once to provide an overall overview of the status of NSCs in the digitization process and analyse its further development. The CDD is a powerful mechanism to identify priorities, specialisation lines together with regional development, gaps and niches and future capabilities as well, and strengths and weaknesses across collections, institutions, countries and regions. It can perfectly underpin measurable and comparable assessments, with evolution indexes and progress indicators, all under an overarching homogenous approach. The Distributed System of Scientific Collections (DiSSCo) Research Infrastructure, currently in its preparatory phase, is built on top of the largest ever community of collections-related institutions across Europe and anchored on the Consortium of European Taxonomic Facilities (CETAF). It aims to provide a unique virtual access point to NSCs by facilitating a large and massive digitisation effort throughout Europe. Setting up priorities and specialization areas is pivotal to its success. To that end, the DiSSCo CDD will provide a valuation tool to summarize and showcase NSC's digitization status on a first-hand visualization. Different projects and initiatives will contribute, jointly and on a synergetic basis, to the production of the DiSSCo CDD. The ICEDIG project will address its basics features, terms of classification and tiers of information, and will produce a prototype and a set of recommendations on how to better attempt a massive dashboard by collating specific collections-based information and defining global strategic representations. CETAF working groups on collections and digitization will provide the desired homogeneity in describing and capturing the different implementation requirements from the users’ perspectives, which will be complemented by the contributions made under the umbrella of the COST Action MOBILISE. The Action will use networking activities to identify the right standards and policies to enable enlarging the scope of the DiSSCo CDD and its broader implementation by linking to the TDWG criteria and adopted standards. Complementarily, the ELViS platform to be developed under the SYNTHESYS+ project will provide the right virtual environment. Furthermore, SYNTHESYS+ will address the assessment capabilities of the CDD to enable the visual representation becoming a practical assessment mechanism and endow it with a dynamic feature for analysis over the time. The DiSSCo CDD will thus become an instrumental mechanism for decision-taking that will be embedded into the clustering initiative of products and services provided to the EOSC by the ENVRI-FAIR project in the environmental domain.}, keywords = {alignment, biodiversity and geodiversity, dashboard, digitization, DiSSCo, high-level information, informed decision-making, institutional description, mechanisms, natural science collections, research infrastructure, tools, visualization}, pubstate = {published}, tppubtype = {article} } Natural Science Collections (NSCs) contain specimen-related data from which we extract valuable information for science and policy. Openness of those collections facilitates development of science. Moreover, virtual accessibility to physical containers by means of their digitization will allow an exponential increase in the level of available information. Digitization of collections will allow us to set a comprehensive registry of reliable, accurate, updated, comparable and interconnected information. Equally, the scope of interested potential users will largely expand and so will the different levels of granularity required by researchers, institutions and governmental bodies. Meeting diverse needs entails a special effort in data management and data analysis to extract, digest and present information on a compressed but still precise and objective-oriented format. The Collections Digitisation Dashboard (CDD) underpins such an attempt. The CDD stands as a practical tool that specifically aims to support high-level decisions with a wide coverage of data, by providing a visual, simplified and structured arrangement that will allow discovery of key indicators concerning digitization of bio- and geodiversity collections. The realm of possible approaches to the CDD covers levels of digitization, collection exceptionality, resourceavailability and many others. Still all those different angles need to be aligned and processed at once to provide an overall overview of the status of NSCs in the digitization process and analyse its further development. The CDD is a powerful mechanism to identify priorities, specialisation lines together with regional development, gaps and niches and future capabilities as well, and strengths and weaknesses across collections, institutions, countries and regions. It can perfectly underpin measurable and comparable assessments, with evolution indexes and progress indicators, all under an overarching homogenous approach. The Distributed System of Scientific Collections (DiSSCo) Research Infrastructure, currently in its preparatory phase, is built on top of the largest ever community of collections-related institutions across Europe and anchored on the Consortium of European Taxonomic Facilities (CETAF). It aims to provide a unique virtual access point to NSCs by facilitating a large and massive digitisation effort throughout Europe. Setting up priorities and specialization areas is pivotal to its success. To that end, the DiSSCo CDD will provide a valuation tool to summarize and showcase NSC's digitization status on a first-hand visualization. Different projects and initiatives will contribute, jointly and on a synergetic basis, to the production of the DiSSCo CDD. The ICEDIG project will address its basics features, terms of classification and tiers of information, and will produce a prototype and a set of recommendations on how to better attempt a massive dashboard by collating specific collections-based information and defining global strategic representations. CETAF working groups on collections and digitization will provide the desired homogeneity in describing and capturing the different implementation requirements from the users’ perspectives, which will be complemented by the contributions made under the umbrella of the COST Action MOBILISE. The Action will use networking activities to identify the right standards and policies to enable enlarging the scope of the DiSSCo CDD and its broader implementation by linking to the TDWG criteria and adopted standards. Complementarily, the ELViS platform to be developed under the SYNTHESYS+ project will provide the right virtual environment. Furthermore, SYNTHESYS+ will address the assessment capabilities of the CDD to enable the visual representation becoming a practical assessment mechanism and endow it with a dynamic feature for analysis over the time. The DiSSCo CDD will thus become an instrumental mechanism for decision-taking that will be embedded into the clustering initiative of products and services provided to the EOSC by the ENVRI-FAIR project in the environmental domain. |
B Georgiev, Boyko; Casino, Ana; Voreadou, Catherina Training Taxonomists for the Digital World: Are we prepared? Journal Article Biodiversity Information Science and Standards, 3 , pp. e36106, 2019. Abstract | Links | BibTeX | Tags: capacity building, Digital knowledge, digital skills, DiSSCo, education, MOBILISE, natural history collections, research, taxonomy, training, young researchers @article{10.3897/biss.3.36106, title = {Training Taxonomists for the Digital World: Are we prepared?}, author = {Boyko B Georgiev and Ana Casino and Catherina Voreadou}, url = {https://doi.org/10.3897/biss.3.36106}, doi = {10.3897/biss.3.36106}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e36106}, publisher = {Pensoft Publishers}, abstract = {Digital knowledge and skills are rapidly becoming integral part of the work of the modern taxonomist. Their importance is further increased with the recent recognition of DiSSCo (Distributed System of Scientific Collections, https://dissco.eu). This new pan-European research infrastructure envisions placing European natural science collections at the centre of data-intensive scientific excellence and innovation for taxonomic and environmental research, food security, health and the bioeconomy. The mission of this ambitious project is to mobilise, unify and deliver bio- and geo-diversity information at the scale, form and precision required by scientific communities as well as to transform a fragmented landscape into a coherent and responsive research infrastructure. An important step in improving the capacity of the research community underpinning DiSSCo is the COST Action MOBILISE (Mobilising Data, Policies and Experts in Scientific Collections, https://www.mobilise-action.eu). One of major capacity-building objectives is to facilitate implementation of common standards and newly-developed techniques by training and education. Its achievement is envisaged by standardised training modules such as training courses, workshops, webinars, online tutorials and short-term visits to other research units. The first impression from surveying interests of candidates to be included into training events, demonstrates an uneven distribution of digital knowledge and skills across countries, institutions and generations. We advocate that a massive coordinated training programme may result in more efficient establishment of common standards and, consequently, better implementation of the forthcoming joint efforts in the development of the new pan-European research infrastricture.}, keywords = {capacity building, Digital knowledge, digital skills, DiSSCo, education, MOBILISE, natural history collections, research, taxonomy, training, young researchers}, pubstate = {published}, tppubtype = {article} } Digital knowledge and skills are rapidly becoming integral part of the work of the modern taxonomist. Their importance is further increased with the recent recognition of DiSSCo (Distributed System of Scientific Collections, https://dissco.eu). This new pan-European research infrastructure envisions placing European natural science collections at the centre of data-intensive scientific excellence and innovation for taxonomic and environmental research, food security, health and the bioeconomy. The mission of this ambitious project is to mobilise, unify and deliver bio- and geo-diversity information at the scale, form and precision required by scientific communities as well as to transform a fragmented landscape into a coherent and responsive research infrastructure. An important step in improving the capacity of the research community underpinning DiSSCo is the COST Action MOBILISE (Mobilising Data, Policies and Experts in Scientific Collections, https://www.mobilise-action.eu). One of major capacity-building objectives is to facilitate implementation of common standards and newly-developed techniques by training and education. Its achievement is envisaged by standardised training modules such as training courses, workshops, webinars, online tutorials and short-term visits to other research units. The first impression from surveying interests of candidates to be included into training events, demonstrates an uneven distribution of digital knowledge and skills across countries, institutions and generations. We advocate that a massive coordinated training programme may result in more efficient establishment of common standards and, consequently, better implementation of the forthcoming joint efforts in the development of the new pan-European research infrastricture. |
J. Groom, Quentin; Besombes, Chloé; Brown, Josh; Chagnoux, Simon; Georgiev, Teodor; Kearney, Nicole; Marcer, Arnald; Nicolson, Nicky; Page, Roderic; Phillips, Sarah; Rainer, Heimo; Riccardi, Greg; Röpert, Dominik; Peter Shorthouse, David; Stoev, Pavel; Margaret Haston, Elspeth Progress in Authority Management of People Names for Collections Journal Article Biodiversity Information Science and Standards, 3 , pp. e35074, 2019. Abstract | Links | BibTeX | Tags: authority file, identifer, ORCID, PID, VIAF, Wikidata @article{10.3897/biss.3.35074, title = {Progress in Authority Management of People Names for Collections}, author = {Quentin J. Groom and Chloé Besombes and Josh Brown and Simon Chagnoux and Teodor Georgiev and Nicole Kearney and Arnald Marcer and Nicky Nicolson and Roderic Page and Sarah Phillips and Heimo Rainer and Greg Riccardi and Dominik Röpert and David Peter Shorthouse and Pavel Stoev and Elspeth Margaret Haston}, url = {https://doi.org/10.3897/biss.3.35074}, doi = {10.3897/biss.3.35074}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e35074}, publisher = {Pensoft Publishers}, abstract = {The concept of building a network of relationships between entities, a knowledge graph, is one of the most effective methods to understand the relations between data. By organizing data, we facilitate the discovery of complex patterns not otherwise evident in the raw data. Each datum at the nodes of a knowledge graph needs a persistent identifier (PID) to reference it unambiguously. In the biodiversity knowledge graph, people are key elements (Page 2016). They collect and identify specimens, they publish, observe, work with each other and they name organisms. Yet biodiversity informatics has been slow to adopt PIDs for people and people are currently represented in collection management systems as text strings in various formats. These text strings often do not separate individuals within a collecting team and little biographical information is collected to disambiguate collectors. In March 2019 we organised an international workshop to find solutions to the problem of PIDs for people in collections with the aim of identifying people unambiguously across the world's natural history collections in all of their various roles. Stakeholders were represented from 11 countries, representing libraries, collections, publishers, developers and name registers. We want to identify people for many reasons. Cross-validation of information about a specimen with biographical information on the specimen can be used to clean data. Mapping specimens from individual collectors across multiple herbaria can geolocate specimens accurately. By linking literature to specimens through their authors and collectors we can create collaboration networks leading to a much better understanding of the scientific contribution of collectors and their institutions. For taxonomists, it will be easier to identify nomenclatural type and syntype material, essential for reliable typification. Overall, it will mean that geographically dispersed specimens can be treated much more like a single distributed infrastructure of specimens as is envisaged in the European Distributed Systems of Scientific Collections Infrastructure (DiSSCo). There are several person identifier systems in use. For example, the Virtual International Authority File (VIAF) is a widely used system for published authors. The International Standard Name Identifier (ISNI), has broader scope and incorporates VIAF. The ORCID identifier system provides self-registration of living researchers. Also, Wikidata has identifiers of people, which have the advantage of being easy to add to and correct. There are also national systems, such as the French and German authority files, and considerable sharing of identifiers, particularly on Wikidata. This creates an integrated network of identifiers that could act as a brokerage system. Attendees agreed that no one identifier system should be recommended, however, some are more appropriate for particular circumstances. Some difficulties have still to be resolved to use those identifier schemes for biodiversity : 1) duplicate entries in the same identifier system; 2) handling collector teams and preserving the order of collectors; 3) how we integrate identifiers with standards such as Darwin Core, ABCD and in the Global Biodiversity Information Facility; and 4) many living and dead collectors are only known from their specimens and so they may not pass notability standards required by many authority systems. The participants of the workshop are now working on a number of fronts to make progress on the adoption of PIDs for people in collections. This includes extending pilots that have already been trialed, working with identifier systems to make them more suitable for specimen collectors and talking to service providers to encourage them to use ORCID iDs to identify their users. It was concluded that resolving the problem of person identifiers for collections is largely not a lack of a solution, but a need to implement solutions that already exist.}, keywords = {authority file, identifer, ORCID, PID, VIAF, Wikidata}, pubstate = {published}, tppubtype = {article} } The concept of building a network of relationships between entities, a knowledge graph, is one of the most effective methods to understand the relations between data. By organizing data, we facilitate the discovery of complex patterns not otherwise evident in the raw data. Each datum at the nodes of a knowledge graph needs a persistent identifier (PID) to reference it unambiguously. In the biodiversity knowledge graph, people are key elements (Page 2016). They collect and identify specimens, they publish, observe, work with each other and they name organisms. Yet biodiversity informatics has been slow to adopt PIDs for people and people are currently represented in collection management systems as text strings in various formats. These text strings often do not separate individuals within a collecting team and little biographical information is collected to disambiguate collectors. In March 2019 we organised an international workshop to find solutions to the problem of PIDs for people in collections with the aim of identifying people unambiguously across the world's natural history collections in all of their various roles. Stakeholders were represented from 11 countries, representing libraries, collections, publishers, developers and name registers. We want to identify people for many reasons. Cross-validation of information about a specimen with biographical information on the specimen can be used to clean data. Mapping specimens from individual collectors across multiple herbaria can geolocate specimens accurately. By linking literature to specimens through their authors and collectors we can create collaboration networks leading to a much better understanding of the scientific contribution of collectors and their institutions. For taxonomists, it will be easier to identify nomenclatural type and syntype material, essential for reliable typification. Overall, it will mean that geographically dispersed specimens can be treated much more like a single distributed infrastructure of specimens as is envisaged in the European Distributed Systems of Scientific Collections Infrastructure (DiSSCo). There are several person identifier systems in use. For example, the Virtual International Authority File (VIAF) is a widely used system for published authors. The International Standard Name Identifier (ISNI), has broader scope and incorporates VIAF. The ORCID identifier system provides self-registration of living researchers. Also, Wikidata has identifiers of people, which have the advantage of being easy to add to and correct. There are also national systems, such as the French and German authority files, and considerable sharing of identifiers, particularly on Wikidata. This creates an integrated network of identifiers that could act as a brokerage system. Attendees agreed that no one identifier system should be recommended, however, some are more appropriate for particular circumstances. Some difficulties have still to be resolved to use those identifier schemes for biodiversity : 1) duplicate entries in the same identifier system; 2) handling collector teams and preserving the order of collectors; 3) how we integrate identifiers with standards such as Darwin Core, ABCD and in the Global Biodiversity Information Facility; and 4) many living and dead collectors are only known from their specimens and so they may not pass notability standards required by many authority systems. The participants of the workshop are now working on a number of fronts to make progress on the adoption of PIDs for people in collections. This includes extending pilots that have already been trialed, working with identifier systems to make them more suitable for specimen collectors and talking to service providers to encourage them to use ORCID iDs to identify their users. It was concluded that resolving the problem of person identifiers for collections is largely not a lack of a solution, but a need to implement solutions that already exist. |
Frick, Holger; A Stieger, Pia; Scheidegger, Christoph SwissCollNet – A National Initiative for Natural History Collections in Switzerland Journal Article Biodiversity Information Science and Standards, 3 , pp. e37188, 2019. Abstract | Links | BibTeX | Tags: data management, digitisation, educational potential, scientific potential, standards, strategy @article{10.3897/biss.3.37188, title = {SwissCollNet – A National Initiative for Natural History Collections in Switzerland}, author = {Holger Frick and Pia A Stieger and Christoph Scheidegger}, url = {https://doi.org/10.3897/biss.3.37188}, doi = {10.3897/biss.3.37188}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e37188}, publisher = {Pensoft Publishers}, abstract = {More than 60 million specimens are housed in geological and biological collections in numerous museums and botanical gardens located all over Switzerland. They are of national and international origin. Taken together they form an entity with a high scientific value and international recognition for their contribution to scientific research. Due to the federalistic organisation of Switzerland, natural history collections are located and curated in numerous institutions. So far, no common strategy for digitisation, documentation and long-term data archiving has been developed. This shortcoming has been widely identified by concerned parties. Under the lead of the Swiss Academy of Sciences, several organisations have assembled information about Swiss natural history collections. They identified measures to be taken to promote the scientific and educational potential of natural history collections in Switzerland (Beer et al. 2019). With a national initiative, the Swiss Natural History Collections Network (SwissCollNet) aims to unite Swiss natural history collections under a common vision and with a common strategy. The goal is to promote the collections themselves and to harness the scientific and educational potential of these collections for research and training. SwissCollNet consists of representatives of research, teaching, museums and botanical gardens, the data centers for information on the national fauna and flora, the Swiss Systematics Society and the Swiss node of GBIF, the Global Biodiversity Information Facility. The initiative aims to foster research on natural history collections. It will provide a single decentralised data infrastructure framework for Swiss research related to natural history. It will help to harmonise nationwide collection data management, digitisation and long-term data archiving. It will facilitate identification of specimens and revision of taxonomic groups. New research techniques, fast-evolving computer technologies and internet connectivity, create new opportunities for deciphering and using the wealth of information housed in Swiss and international collections. The development of an agreed strategy and research priorities on a national scale will allow fluent, fluid and permanent collaboration across all Swiss natural history collections by promoting interoperability and unified access to collections as well as creating opportunities for scientific collaboration and innovation. This national approach will create an internationally compatible research data infrastructure, while respecting and integrating regional and decentralized conditions and requirements. Thus, it will maximize the impact for science, policy and society.}, keywords = {data management, digitisation, educational potential, scientific potential, standards, strategy}, pubstate = {published}, tppubtype = {article} } More than 60 million specimens are housed in geological and biological collections in numerous museums and botanical gardens located all over Switzerland. They are of national and international origin. Taken together they form an entity with a high scientific value and international recognition for their contribution to scientific research. Due to the federalistic organisation of Switzerland, natural history collections are located and curated in numerous institutions. So far, no common strategy for digitisation, documentation and long-term data archiving has been developed. This shortcoming has been widely identified by concerned parties. Under the lead of the Swiss Academy of Sciences, several organisations have assembled information about Swiss natural history collections. They identified measures to be taken to promote the scientific and educational potential of natural history collections in Switzerland (Beer et al. 2019). With a national initiative, the Swiss Natural History Collections Network (SwissCollNet) aims to unite Swiss natural history collections under a common vision and with a common strategy. The goal is to promote the collections themselves and to harness the scientific and educational potential of these collections for research and training. SwissCollNet consists of representatives of research, teaching, museums and botanical gardens, the data centers for information on the national fauna and flora, the Swiss Systematics Society and the Swiss node of GBIF, the Global Biodiversity Information Facility. The initiative aims to foster research on natural history collections. It will provide a single decentralised data infrastructure framework for Swiss research related to natural history. It will help to harmonise nationwide collection data management, digitisation and long-term data archiving. It will facilitate identification of specimens and revision of taxonomic groups. New research techniques, fast-evolving computer technologies and internet connectivity, create new opportunities for deciphering and using the wealth of information housed in Swiss and international collections. The development of an agreed strategy and research priorities on a national scale will allow fluent, fluid and permanent collaboration across all Swiss natural history collections by promoting interoperability and unified access to collections as well as creating opportunities for scientific collaboration and innovation. This national approach will create an internationally compatible research data infrastructure, while respecting and integrating regional and decentralized conditions and requirements. Thus, it will maximize the impact for science, policy and society. |
Ball-Damerow, Joan E; Brenskelle, Laura; Barve, Narayani; Soltis, Pamela S; Sierwald, Petra; Bieler, Rüdiger; LaFrance, Raphael; Ariño, Arturo H; Guralnick, Robert P Research applications of primary biodiversity databases in the digital age Journal Article PLOS ONE, 14 (9), pp. 1-26, 2019. Abstract | Links | BibTeX | Tags: @article{10.1371/journal.pone.0215794, title = {Research applications of primary biodiversity databases in the digital age}, author = {Joan E Ball-Damerow and Laura Brenskelle and Narayani Barve and Pamela S Soltis and Petra Sierwald and Rüdiger Bieler and Raphael LaFrance and Arturo H Ariño and Robert P Guralnick}, url = {https://doi.org/10.1371/journal.pone.0215794}, doi = {10.1371/journal.pone.0215794}, year = {2019}, date = {2019-01-01}, journal = {PLOS ONE}, volume = {14}, number = {9}, pages = {1-26}, publisher = {Public Library of Science}, abstract = {Our world is in the midst of unprecedented change—climate shifts and sustained, widespread habitat degradation have led to dramatic declines in biodiversity rivaling historical extinction events. At the same time, new approaches to publishing and integrating previously disconnected data resources promise to help provide the evidence needed for more efficient and effective conservation and management. Stakeholders have invested considerable resources to contribute to online databases of species occurrences. However, estimates suggest that only 10% of biocollections are available in digital form. The biocollections community must therefore continue to promote digitization efforts, which in part requires demonstrating compelling applications of the data. Our overarching goal is therefore to determine trends in use of mobilized species occurrence data since 2010, as online systems have grown and now provide over one billion records. To do this, we characterized 501 papers that use openly accessible biodiversity databases. Our standardized tagging protocol was based on key topics of interest, including: database(s) used, taxa addressed, general uses of data, other data types linked to species occurrence data, and data quality issues addressed. We found that the most common uses of online biodiversity databases have been to estimate species distribution and richness, to outline data compilation and publication, and to assist in developing species checklists or describing new species. Only 69% of papers in our dataset addressed one or more aspects of data quality, which is low considering common errors and biases known to exist in opportunistic datasets. Globally, we find that biodiversity databases are still in the initial stages of data compilation. Novel and integrative applications are restricted to certain taxonomic groups and regions with higher numbers of quality records. Continued data digitization, publication, enhancement, and quality control efforts are necessary to make biodiversity science more efficient and relevant in our fast-changing environment.}, keywords = {}, pubstate = {published}, tppubtype = {article} } Our world is in the midst of unprecedented change—climate shifts and sustained, widespread habitat degradation have led to dramatic declines in biodiversity rivaling historical extinction events. At the same time, new approaches to publishing and integrating previously disconnected data resources promise to help provide the evidence needed for more efficient and effective conservation and management. Stakeholders have invested considerable resources to contribute to online databases of species occurrences. However, estimates suggest that only 10% of biocollections are available in digital form. The biocollections community must therefore continue to promote digitization efforts, which in part requires demonstrating compelling applications of the data. Our overarching goal is therefore to determine trends in use of mobilized species occurrence data since 2010, as online systems have grown and now provide over one billion records. To do this, we characterized 501 papers that use openly accessible biodiversity databases. Our standardized tagging protocol was based on key topics of interest, including: database(s) used, taxa addressed, general uses of data, other data types linked to species occurrence data, and data quality issues addressed. We found that the most common uses of online biodiversity databases have been to estimate species distribution and richness, to outline data compilation and publication, and to assist in developing species checklists or describing new species. Only 69% of papers in our dataset addressed one or more aspects of data quality, which is low considering common errors and biases known to exist in opportunistic datasets. Globally, we find that biodiversity databases are still in the initial stages of data compilation. Novel and integrative applications are restricted to certain taxonomic groups and regions with higher numbers of quality records. Continued data digitization, publication, enhancement, and quality control efforts are necessary to make biodiversity science more efficient and relevant in our fast-changing environment. |
Galicia, David; Amezcua, Ana; Baquero, Enrique; Cancellario, Tommaso; Chaves, Angel; Biurrun, Gabriel De; Escribano, Nora; Fernández-Eslava, Blanca; González-Alonso, Mónica; Hernández-Soto, Rubén; Ibáñez, Ricardo; Imas, María; Miqueleiz, Imanol; Miranda, Rafael; A Rodeles, Amaia; Valerio, Mercedes; Ariño, Arturo H Investment in the Long-Tail of Biodiversity Data: From local research to global knowledge Journal Article Biodiversity Information Science and Standards, 3 , pp. e37310, 2019. Abstract | Links | BibTeX | Tags: investment, local biodiversity, long-tail biodiversity, resource allocation, staff training @article{10.3897/biss.3.37310, title = {Investment in the Long-Tail of Biodiversity Data: From local research to global knowledge}, author = {David Galicia and Ana Amezcua and Enrique Baquero and Tommaso Cancellario and Angel Chaves and Gabriel De Biurrun and Nora Escribano and Blanca Fernández-Eslava and Mónica González-Alonso and Rubén Hernández-Soto and Ricardo Ibáñez and María Imas and Imanol Miqueleiz and Rafael Miranda and Amaia A Rodeles and Mercedes Valerio and Arturo H Ariño}, url = {https://doi.org/10.3897/biss.3.37310}, doi = {10.3897/biss.3.37310}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e37310}, publisher = {Pensoft Publishers}, abstract = {In business, the “long-tail economy” refers to a market strategy where the gravity center shifts from a few high-demand products to many, varied products focused on small niches. Commercialization of individually low-demand products can be profitable as long as their production cost is low and, all taken together, they aggregate into a big chunk of the market. Similarly, in the “business” of biodiversity data acquisition, we can find several mainstream products that produce zillions of bits of information every year and account for most of the budget allocated to increase our primary data-based knowledge about Earth’s biological diversity. These products play a crucial role in biodiversity research. However, along with these large global projects, there is a constellation of small-scale institutions that work locally, but whose contribution to our understanding of natural processes should not be dismissed. These information datasets can be collectively referred to as the “long-tail biodiversity data”. Here we present the case of the Museum of Sciences University of Navarra, which harbors the research activity of the Museum of Zoology (MZNA) and herbarium (PAMP) of the University of Navarra in Spain. For the last 40 years, its members have been involved in hundreds of research projects, from local to international level—but quantitatively, the vast majority of its biodiversity records come from Navarra, a smallish (10,000 sq. km) administrative region in the north of Spain. Despite its modest area, the available information about the region in the Museum database approaches one million records of thousands of species, including dozens of type series. Fifteen years ago, a series of national research grants enabled boosting digitization and public access to the database records through the Global Biodiversity Information Facility (GBIF). Although those grants were never renewed, the Museum continued its digitizing and standardizing program on vouchered collections, as well as sampling additional raw biodiversity data through long term ecological sites using the Museum’s resources, which annually provide thousands of new records at the local level. Currently, the Museum has already published through GBIF’s IPT (Integrated Publishing Toolkit) 30 datasets, containing more than half-million records of about 5700 taxa. Its records have contributed to more than 60 peer-reviewed publications over the last five years. Institutions that basically harvest biodiversity data at a local scale usually show a high degree of specialization, gathering researchers with strong (albeit often narrow) expertise in the taxonomy and ecology of nearby ecosystems. They are thus an extremely valuable tool when dealing with processes resulting in diversity changes that can be identified rather precisely, especially when their work can be traced back many decades. Making all this fine-scale information accessible and actionable requires, in most of the cases, a rather modest investment in staff training on data management (e.g., standards, database interoperability) or museum curation procedures, and on informatics infrastructure. As in the case of business, it is not a matter of choosing between producing blockbusters or independent cinema--but of leveraging available resources and maximizing output.}, keywords = {investment, local biodiversity, long-tail biodiversity, resource allocation, staff training}, pubstate = {published}, tppubtype = {article} } In business, the “long-tail economy” refers to a market strategy where the gravity center shifts from a few high-demand products to many, varied products focused on small niches. Commercialization of individually low-demand products can be profitable as long as their production cost is low and, all taken together, they aggregate into a big chunk of the market. Similarly, in the “business” of biodiversity data acquisition, we can find several mainstream products that produce zillions of bits of information every year and account for most of the budget allocated to increase our primary data-based knowledge about Earth’s biological diversity. These products play a crucial role in biodiversity research. However, along with these large global projects, there is a constellation of small-scale institutions that work locally, but whose contribution to our understanding of natural processes should not be dismissed. These information datasets can be collectively referred to as the “long-tail biodiversity data”. Here we present the case of the Museum of Sciences University of Navarra, which harbors the research activity of the Museum of Zoology (MZNA) and herbarium (PAMP) of the University of Navarra in Spain. For the last 40 years, its members have been involved in hundreds of research projects, from local to international level—but quantitatively, the vast majority of its biodiversity records come from Navarra, a smallish (10,000 sq. km) administrative region in the north of Spain. Despite its modest area, the available information about the region in the Museum database approaches one million records of thousands of species, including dozens of type series. Fifteen years ago, a series of national research grants enabled boosting digitization and public access to the database records through the Global Biodiversity Information Facility (GBIF). Although those grants were never renewed, the Museum continued its digitizing and standardizing program on vouchered collections, as well as sampling additional raw biodiversity data through long term ecological sites using the Museum’s resources, which annually provide thousands of new records at the local level. Currently, the Museum has already published through GBIF’s IPT (Integrated Publishing Toolkit) 30 datasets, containing more than half-million records of about 5700 taxa. Its records have contributed to more than 60 peer-reviewed publications over the last five years. Institutions that basically harvest biodiversity data at a local scale usually show a high degree of specialization, gathering researchers with strong (albeit often narrow) expertise in the taxonomy and ecology of nearby ecosystems. They are thus an extremely valuable tool when dealing with processes resulting in diversity changes that can be identified rather precisely, especially when their work can be traced back many decades. Making all this fine-scale information accessible and actionable requires, in most of the cases, a rather modest investment in staff training on data management (e.g., standards, database interoperability) or museum curation procedures, and on informatics infrastructure. As in the case of business, it is not a matter of choosing between producing blockbusters or independent cinema--but of leveraging available resources and maximizing output. |
Escribano, Nora; Galicia, David; Ariño, Arturo H Game of Tops: Trends in GBIF’s Community of Users Journal Article Biodiversity Information Science and Standards, 3 , pp. e37187, 2019. Abstract | Links | BibTeX | Tags: biodiversity, community structure, data users, GBIF, research trends @article{10.3897/biss.3.37187, title = {Game of Tops: Trends in GBIF’s Community of Users}, author = {Nora Escribano and David Galicia and Arturo H Ariño}, url = {https://doi.org/10.3897/biss.3.37187}, doi = {10.3897/biss.3.37187}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e37187}, publisher = {Pensoft Publishers}, abstract = {Building on the development of Biodiversity Informatics, the Global Biodiversity Information Facility (GBIF) undertook the task of enabling access to the world’s wealth of biodiversity data via the Internet. To date, GBIF has become, in many respects, the most extensive biodiversity information exchange infrastructure in the world, opening up a full range of possibilities for science. Science has benefited from such access to biodiversity data in research areas ranging from the effects of environmental change on biodiversity to the spread of invasive species, among many others. As of this writing, more than 7,000 published items (scientific papers, reviews, conference proceedings) have been indexed in the GBIF Secretariat’s literature tracking programme. On the basis on this database, we will represent trends in GBIF in the users’ behaviour over time regarding openness, social structure, and other features associated to such scientific production: what is the measurable impact of research using GBIF data? How is the GBIF community of users growing? Is the science made with, and enabled by, open data, actually open? Mapping GBIF users’ choices will show how biodiversity research is evolving through time, synthesising past and current priorities of this community in an attempt to forecast whether summer—or winter—is coming.}, keywords = {biodiversity, community structure, data users, GBIF, research trends}, pubstate = {published}, tppubtype = {article} } Building on the development of Biodiversity Informatics, the Global Biodiversity Information Facility (GBIF) undertook the task of enabling access to the world’s wealth of biodiversity data via the Internet. To date, GBIF has become, in many respects, the most extensive biodiversity information exchange infrastructure in the world, opening up a full range of possibilities for science. Science has benefited from such access to biodiversity data in research areas ranging from the effects of environmental change on biodiversity to the spread of invasive species, among many others. As of this writing, more than 7,000 published items (scientific papers, reviews, conference proceedings) have been indexed in the GBIF Secretariat’s literature tracking programme. On the basis on this database, we will represent trends in GBIF in the users’ behaviour over time regarding openness, social structure, and other features associated to such scientific production: what is the measurable impact of research using GBIF data? How is the GBIF community of users growing? Is the science made with, and enabled by, open data, actually open? Mapping GBIF users’ choices will show how biodiversity research is evolving through time, synthesising past and current priorities of this community in an attempt to forecast whether summer—or winter—is coming. |
Theeten, Franck; Adam, Marielle; Vandenberghe, Thomas; Dillen, Mathias; Semal, Patrick; Scory, Serge; Herpers, Jean-Marc; den Spiegel, Didier Van; Mergen, Patricia; Smirnova, Larissa; Engledow, Henry; Casino, Ana; Gödderz, Karsten NaturalHeritage: Bridging Belgian natural history collections Journal Article Biodiversity Information Science and Standards, 3 , pp. e37854, 2019. Abstract | Links | BibTeX | Tags: data analysis, data quality and cleaning, interoperable databases, natural history collections, search portal, standardisation, webservices @article{10.3897/biss.3.37854, title = {NaturalHeritage: Bridging Belgian natural history collections}, author = {Franck Theeten and Marielle Adam and Thomas Vandenberghe and Mathias Dillen and Patrick Semal and Serge Scory and Jean-Marc Herpers and Didier Van den Spiegel and Patricia Mergen and Larissa Smirnova and Henry Engledow and Ana Casino and Karsten Gödderz}, url = {https://doi.org/10.3897/biss.3.37854}, doi = {10.3897/biss.3.37854}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e37854}, publisher = {Pensoft Publishers}, abstract = {The Royal Belgian Institute of Natural Sciences (RBINS), the Royal Museum for Central Africa (RMCA) and Meise Botanic Garden house more than 50 million specimens covering all fields of natural history. While many different research topics have their own specificities, throughout the years it became apparent that with regards to collection data management, data publication and exchange via community standards, collection holding institutions face similar challenges (James et al. 2018, Rocha et al. 2014). In the past, these have been tackled in different ways by Belgian natural history institutions. In addition to local and national collaborations, there is a great need for a joint structure to share data between scientific institutions in Europe and beyond. It is the aim of large networks and infrastructures such as the Global Biodiversity Information Facility (GBIF), the Biodiversity Information Standards (TDWG), the Distributed System of Scientific collections (DiSSCo) and the Consortium of European Taxonomic Facilities (CETAF) to further implement and improve these efforts, thereby gaining ever increasing efficiencies. In this context, the three institutions mentioned above, submitted the NaturalHeritage project (http://www.belspo.be/belspo/brain-be/themes_3_HebrHistoScien_en.stm) granted in 2017 by the Belgian Science Policy Service, which runs from 2017 to 2020. The project provides links among databases and services. The unique qualities of each database are maintained, while the information can be concentrated and exposed in a structured way via one access point. This approach aims also to link data that are unconnected at present (e.g. relationship between soil/substrate, vegetation and associated fauna) and to improve the cross-validation of data. (1) The NaturalHeritage prototype (http://www.naturalheritage.be) is a shared research portal with an open access infrastructure, which is still in the development phase. Its backbone is an ElasticSearch catalogue, with Kibana, and a Python aggregator gathering several types of (re)sources: relational databases, REpresentational State Transfer (REST) services of objects databases and bibliographical data, collections metadata and the GBIF Internet Publishing Toolkit (IPT) for observational and taxonomical data. Semi-structured data in English are semantically analysed and linked to a rich autocomplete mechanism. Keywords and identifiers are indexed and grouped in four categories (“what”, “who”, “where”, “when”). The portal can act also as an Open Archives Initiatives Protocol for Metadata Harvesting (OAI-PMH) service and ease indexing of the original webpage on the internet with microdata enrichment. (2) The collection data management system of DaRWIN (Data Research Warehouse Information Network) of RBINS and RMCA has been improved as well. External (meta)data requirements, i.e. foremost publication into or according to the practices and standards of GBIF and OBIS (Ocean Biogeographic Information System: https://obis.org) for biodiversity data, and INSPIRE (https://inspire.ec.europa.eu) for geological data, have been identified and evaluated. New and extended data structures have been created to be compliant with these standards, as well as the necessary procedures developed to expose the data. Quality control tools for taxonomic and geographic names have been developed. Geographic names can be hard to confirm as their lack of context often requires human validation. To address this a similarity measure is used to help map the result. Species, locations, sampling devices and other properties have been mapped to the World Register of Marine Species and DarwinCore (http://www.marinespecies.org), Marine Regions and GeoNames, the AGRO Agronomy and Vertebrate trait ontologies and the British Oceanographic Data Centre (BODC) vocabularies (http://www.obofoundry.org/ontology/agro.html). Extensive mapping is necessary to make use of the ExtendedMeasurementOrFact Extension of DarwinCore (https://tools.gbif.org/dwca-validator/extensions.do).}, keywords = {data analysis, data quality and cleaning, interoperable databases, natural history collections, search portal, standardisation, webservices}, pubstate = {published}, tppubtype = {article} } The Royal Belgian Institute of Natural Sciences (RBINS), the Royal Museum for Central Africa (RMCA) and Meise Botanic Garden house more than 50 million specimens covering all fields of natural history. While many different research topics have their own specificities, throughout the years it became apparent that with regards to collection data management, data publication and exchange via community standards, collection holding institutions face similar challenges (James et al. 2018, Rocha et al. 2014). In the past, these have been tackled in different ways by Belgian natural history institutions. In addition to local and national collaborations, there is a great need for a joint structure to share data between scientific institutions in Europe and beyond. It is the aim of large networks and infrastructures such as the Global Biodiversity Information Facility (GBIF), the Biodiversity Information Standards (TDWG), the Distributed System of Scientific collections (DiSSCo) and the Consortium of European Taxonomic Facilities (CETAF) to further implement and improve these efforts, thereby gaining ever increasing efficiencies. In this context, the three institutions mentioned above, submitted the NaturalHeritage project (http://www.belspo.be/belspo/brain-be/themes_3_HebrHistoScien_en.stm) granted in 2017 by the Belgian Science Policy Service, which runs from 2017 to 2020. The project provides links among databases and services. The unique qualities of each database are maintained, while the information can be concentrated and exposed in a structured way via one access point. This approach aims also to link data that are unconnected at present (e.g. relationship between soil/substrate, vegetation and associated fauna) and to improve the cross-validation of data. (1) The NaturalHeritage prototype (http://www.naturalheritage.be) is a shared research portal with an open access infrastructure, which is still in the development phase. Its backbone is an ElasticSearch catalogue, with Kibana, and a Python aggregator gathering several types of (re)sources: relational databases, REpresentational State Transfer (REST) services of objects databases and bibliographical data, collections metadata and the GBIF Internet Publishing Toolkit (IPT) for observational and taxonomical data. Semi-structured data in English are semantically analysed and linked to a rich autocomplete mechanism. Keywords and identifiers are indexed and grouped in four categories (“what”, “who”, “where”, “when”). The portal can act also as an Open Archives Initiatives Protocol for Metadata Harvesting (OAI-PMH) service and ease indexing of the original webpage on the internet with microdata enrichment. (2) The collection data management system of DaRWIN (Data Research Warehouse Information Network) of RBINS and RMCA has been improved as well. External (meta)data requirements, i.e. foremost publication into or according to the practices and standards of GBIF and OBIS (Ocean Biogeographic Information System: https://obis.org) for biodiversity data, and INSPIRE (https://inspire.ec.europa.eu) for geological data, have been identified and evaluated. New and extended data structures have been created to be compliant with these standards, as well as the necessary procedures developed to expose the data. Quality control tools for taxonomic and geographic names have been developed. Geographic names can be hard to confirm as their lack of context often requires human validation. To address this a similarity measure is used to help map the result. Species, locations, sampling devices and other properties have been mapped to the World Register of Marine Species and DarwinCore (http://www.marinespecies.org), Marine Regions and GeoNames, the AGRO Agronomy and Vertebrate trait ontologies and the British Oceanographic Data Centre (BODC) vocabularies (http://www.obofoundry.org/ontology/agro.html). Extensive mapping is necessary to make use of the ExtendedMeasurementOrFact Extension of DarwinCore (https://tools.gbif.org/dwca-validator/extensions.do). |
Huybrechts, Pieter; Alonso-Sánchez, Felix; Böttinger, Petra; Dillen, Mathias; Groom, Quentin; Hanquart, Nicole; Koch, Walter; Gordon, Martin; Mergen, Patricia LinBi: Linking biodiversity and culture information Journal Article Biodiversity Information Science and Standards, 3 , pp. e37407, 2019. Abstract | Links | BibTeX | Tags: biodiversity, citizen science, crowdsourcing, digital heritage, Europeana, metadata enrichment @article{10.3897/biss.3.37407, title = {LinBi: Linking biodiversity and culture information}, author = {Pieter Huybrechts and Felix Alonso-Sánchez and Petra Böttinger and Mathias Dillen and Quentin Groom and Nicole Hanquart and Walter Koch and Martin Gordon and Patricia Mergen}, url = {https://doi.org/10.3897/biss.3.37407}, doi = {10.3897/biss.3.37407}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e37407}, publisher = {Pensoft Publishers}, abstract = {The LinBi project aims to enhance the discoverability of digitized objects from natural history collections hosted by institutes all over Europe. This enhancement is achieved by publishing new and enriched content to the Europeana collections platform. The use of simple vocabularies and machine-readable metadata encourages reuse and has the additional advantage of facilitating the clustering of interesting content for user groups beyond biodiversity and natural history researchers. Linking the collections of Europe together in an openly-available platform and sharing our common cultural and natural heritage with a broad audience will increase the public’s awareness of biodiversity collections. Furthermore, it will help us reach out to new user groups such as teachers, journalists and artists, who were previously unaware of, or distant from, our collections. Suitable content was selected and harmonized for interlinking with Europeana. Contributions include a large quantity of herbarium sheets, digitized glass plate negatives taken between 1880 and 1930 and a portrait collection dating from the late 19th and early 20th century. With the help of the DoeDat crowdsourcing platform, existing metadata were enriched and mobilized to allow for publication in the form of open linked data. The integration of geographical data and common names allows the Europeana platform to link scientific specimens with literature and fine art from different collections and to guide users to interesting and inspiring content via themed virtual exhibitions. One such theme is composed of content from the "Wild Roses of Crépin" collection, which will be enriched by pictures of living plants, herbarium specimens and illustrations old and modern. A second content cluster consists of an enriched and curated collection of botanical illustrations originating from a corpus of special and rare books ranging from the 15th to 19th centuries. Careful curation increases the potential for re-use and provides additional oppertunities for the general public to interact with this collection. The LinBi platform has the long-term ambition of forming a sustainable and open source solution integrated into the Europeana Core Service. This will further improve cooperation between institutes by building international infrastructure and networks, thus contributing to a more open cross-border society.}, keywords = {biodiversity, citizen science, crowdsourcing, digital heritage, Europeana, metadata enrichment}, pubstate = {published}, tppubtype = {article} } The LinBi project aims to enhance the discoverability of digitized objects from natural history collections hosted by institutes all over Europe. This enhancement is achieved by publishing new and enriched content to the Europeana collections platform. The use of simple vocabularies and machine-readable metadata encourages reuse and has the additional advantage of facilitating the clustering of interesting content for user groups beyond biodiversity and natural history researchers. Linking the collections of Europe together in an openly-available platform and sharing our common cultural and natural heritage with a broad audience will increase the public’s awareness of biodiversity collections. Furthermore, it will help us reach out to new user groups such as teachers, journalists and artists, who were previously unaware of, or distant from, our collections. Suitable content was selected and harmonized for interlinking with Europeana. Contributions include a large quantity of herbarium sheets, digitized glass plate negatives taken between 1880 and 1930 and a portrait collection dating from the late 19th and early 20th century. With the help of the DoeDat crowdsourcing platform, existing metadata were enriched and mobilized to allow for publication in the form of open linked data. The integration of geographical data and common names allows the Europeana platform to link scientific specimens with literature and fine art from different collections and to guide users to interesting and inspiring content via themed virtual exhibitions. One such theme is composed of content from the "Wild Roses of Crépin" collection, which will be enriched by pictures of living plants, herbarium specimens and illustrations old and modern. A second content cluster consists of an enriched and curated collection of botanical illustrations originating from a corpus of special and rare books ranging from the 15th to 19th centuries. Careful curation increases the potential for re-use and provides additional oppertunities for the general public to interact with this collection. The LinBi platform has the long-term ambition of forming a sustainable and open source solution integrated into the Europeana Core Service. This will further improve cooperation between institutes by building international infrastructure and networks, thus contributing to a more open cross-border society. |
Arvanitidis, Christos; Hollingsworth, Peter; Mergen, Patricia; Semal, Patrick; Keklikoglou, Kleoniki; Chatzinikolaou, Eva; Addnik, Wouter; Smith, Vincent; Koureas, Dimitrios Combined High-Throughput Imaging and Sequencing: Addressing the collections on demand requirement in SYNTHESYS+ project Journal Article Biodiversity Information Science and Standards, 3 , pp. e37290, 2019. Abstract | Links | BibTeX | Tags: DiSCCo, high-throughput imaging, high-throughput sequencing, LifeWatch ERIC, research infrastructures, SYNTHESYS+, virtual laboratories (vLabs), virtual research environments (VREs) @article{10.3897/biss.3.37290, title = {Combined High-Throughput Imaging and Sequencing: Addressing the collections on demand requirement in SYNTHESYS+ project}, author = {Christos Arvanitidis and Peter Hollingsworth and Patricia Mergen and Patrick Semal and Kleoniki Keklikoglou and Eva Chatzinikolaou and Wouter Addnik and Vincent Smith and Dimitrios Koureas}, url = {https://doi.org/10.3897/biss.3.37290}, doi = {10.3897/biss.3.37290}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e37290}, publisher = {Pensoft Publishers}, abstract = {Imagine you are a scientist, working on collections. You have your pet taxon and you need information which is distributed in a number of books and publications but also in the specimens deposited in Museums or Herbaria. Instead of paying visits to these establishments, around the world, you wish there was a means to transform all the information you need into a digitized form of the physical objects, you can reach from the screen of your laptop, tablet or cell phone. You dream you were able to watch, inspect and even dissect the type material you need online but also to compare it with others they way sequences are blasted against large databases, these days. You plan to make global research on this taxon and try to derive patterns from both the molecular and organismal level of the biological organization and to link the patterns resulting to the drivers of change for this taxon. This is the vision of the Virtual Museum of Natural History and one of the ways to achieve this vision is to address the “collections on demand” requirement. One of the possible means to address this requirement is the digitization through the use of the micro-ct technology. The micro-CT virtual laboratory (vLab), developed by LifeWatchGreece research infrastructure (RI), makes it possible the online exploration and dissemination of micro-CT datasets, which are only rarely made available to the public due to their large size and a lack of dedicated online platforms for the interactive manipulation of 3D data. This presentation shows the development of such a “collections on demand” function, implemented by the SYNTHESYS+ project (DiSSCo RI), which combines such high-throughput technologies, that is micro-ct and genomics, to address the scientific community’s requirements. We show that this approach to combine patterns deriving from the application of novel techniques, which represent different kinds of observations is possible and we propose certain case studies as examples. The innovation aspects of this function include: Expansion and development of cost models for Collections on Demand; Development of standards and guidelines for exchange of collection-derived imaging data; Construction of new data pipelines and standard workflows, enabling access to complex digital content such as 3D scans; Development of novel molecular lab protocols, workflows and informatics pipelines, to enable large scale; DNA sequencing of NH collections.}, keywords = {DiSCCo, high-throughput imaging, high-throughput sequencing, LifeWatch ERIC, research infrastructures, SYNTHESYS+, virtual laboratories (vLabs), virtual research environments (VREs)}, pubstate = {published}, tppubtype = {article} } Imagine you are a scientist, working on collections. You have your pet taxon and you need information which is distributed in a number of books and publications but also in the specimens deposited in Museums or Herbaria. Instead of paying visits to these establishments, around the world, you wish there was a means to transform all the information you need into a digitized form of the physical objects, you can reach from the screen of your laptop, tablet or cell phone. You dream you were able to watch, inspect and even dissect the type material you need online but also to compare it with others they way sequences are blasted against large databases, these days. You plan to make global research on this taxon and try to derive patterns from both the molecular and organismal level of the biological organization and to link the patterns resulting to the drivers of change for this taxon. This is the vision of the Virtual Museum of Natural History and one of the ways to achieve this vision is to address the “collections on demand” requirement. One of the possible means to address this requirement is the digitization through the use of the micro-ct technology. The micro-CT virtual laboratory (vLab), developed by LifeWatchGreece research infrastructure (RI), makes it possible the online exploration and dissemination of micro-CT datasets, which are only rarely made available to the public due to their large size and a lack of dedicated online platforms for the interactive manipulation of 3D data. This presentation shows the development of such a “collections on demand” function, implemented by the SYNTHESYS+ project (DiSSCo RI), which combines such high-throughput technologies, that is micro-ct and genomics, to address the scientific community’s requirements. We show that this approach to combine patterns deriving from the application of novel techniques, which represent different kinds of observations is possible and we propose certain case studies as examples. The innovation aspects of this function include: Expansion and development of cost models for Collections on Demand; Development of standards and guidelines for exchange of collection-derived imaging data; Construction of new data pipelines and standard workflows, enabling access to complex digital content such as 3D scans; Development of novel molecular lab protocols, workflows and informatics pipelines, to enable large scale; DNA sequencing of NH collections. |
Knapp, Sandra; Vincent, Sarah; Arvanitidis, Christos; Dixey, Katherine; Mergen, Patricia Access to Natural History Collections – from SYNTHESYS to DiSSCo Journal Article Biodiversity Information Science and Standards, 3 , pp. e37149, 2019. Abstract | Links | BibTeX | Tags: access, collections, DiSSCo, physical access, SYNTHESYS+, virtual access @article{10.3897/biss.3.37149, title = {Access to Natural History Collections – from SYNTHESYS to DiSSCo}, author = {Sandra Knapp and Sarah Vincent and Christos Arvanitidis and Katherine Dixey and Patricia Mergen}, url = {https://doi.org/10.3897/biss.3.37149}, doi = {10.3897/biss.3.37149}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e37149}, publisher = {Pensoft Publishers}, abstract = {Any one collection of objects never tells the whole story. Enabling access to natural history collections by users external to a given institution, has a long history–even that great stay-at-home, Linnaeus, relied on specimens in the hands of others. Neglecting collections outside one’s institution results in duplication and inefficiency, as can be seen in the history of synonymy. Physical access had always been the norm, but difficult for the single individual. A student in the late 20th century had to decide if money were better spent going to one collection or another, or if the sometimes rather fuzzy photographs really represented the taxon she was working with. Loans between institutions were a way to provide access, but came with their own risks. The very individualised–to users as well as institutions–system of access provisioning still operates today but has fundamentally changed in several respects. The SYNTHESYS (Synthesis of Systematic Resources) projects brought a set of European institutions into a consortium with one aim: to provide access to natural history collections in order to stimulate their use across communities. The SYNTHESYS Transnational Access (TA) programme provided access not only to the collections of participating institutions, but also to infrastructures such as laboratories and analytical facilities. The trajectory of TA has led to a change in thinking about natural history collections, along with access to them. Because access has been subsidised at both the individual and institutional levels, participating institutions began to function more as a collective; one infrastructure, albeit loosely dispersed. In the most recent iteration of the SYNTHESYS programme, SYNTHESYS+, access has changed yet again with the times. Technological advances in imaging permit high-quality surrogates of natural history specimens to be exchanged more freely, and Virtual Access (VA) forms an integral part of the SYNTHESYS+ access programme, alongside TA. Virtual access has been operating for some time in the natural history collections community, but like TA, with individual scientists requesting images/sequences/scans from individual institutions or curators. VA, as a centralised service, will be piloted in SYNTHESYS+ in order to establish the basis for community change in access provisioning. But what next? Will we continue to need physical access to specimens and facilities as VA becomes increasingly feasible? As European collections-based institutions coalesce into the DiSSCo (Distributed System of Systematics Collections) infrastructure, will the model established in SYNTHESYS+ continue to function in the absence of centralised funding? In this talk, we will explore the trajectory of access through SYNTHESYS and provide some scenarios for how access to natural history collections–both physical and virtual–may change as we transition to the broader infrastructure that DiSSCo represents.}, keywords = {access, collections, DiSSCo, physical access, SYNTHESYS+, virtual access}, pubstate = {published}, tppubtype = {article} } Any one collection of objects never tells the whole story. Enabling access to natural history collections by users external to a given institution, has a long history–even that great stay-at-home, Linnaeus, relied on specimens in the hands of others. Neglecting collections outside one’s institution results in duplication and inefficiency, as can be seen in the history of synonymy. Physical access had always been the norm, but difficult for the single individual. A student in the late 20th century had to decide if money were better spent going to one collection or another, or if the sometimes rather fuzzy photographs really represented the taxon she was working with. Loans between institutions were a way to provide access, but came with their own risks. The very individualised–to users as well as institutions–system of access provisioning still operates today but has fundamentally changed in several respects. The SYNTHESYS (Synthesis of Systematic Resources) projects brought a set of European institutions into a consortium with one aim: to provide access to natural history collections in order to stimulate their use across communities. The SYNTHESYS Transnational Access (TA) programme provided access not only to the collections of participating institutions, but also to infrastructures such as laboratories and analytical facilities. The trajectory of TA has led to a change in thinking about natural history collections, along with access to them. Because access has been subsidised at both the individual and institutional levels, participating institutions began to function more as a collective; one infrastructure, albeit loosely dispersed. In the most recent iteration of the SYNTHESYS programme, SYNTHESYS+, access has changed yet again with the times. Technological advances in imaging permit high-quality surrogates of natural history specimens to be exchanged more freely, and Virtual Access (VA) forms an integral part of the SYNTHESYS+ access programme, alongside TA. Virtual access has been operating for some time in the natural history collections community, but like TA, with individual scientists requesting images/sequences/scans from individual institutions or curators. VA, as a centralised service, will be piloted in SYNTHESYS+ in order to establish the basis for community change in access provisioning. But what next? Will we continue to need physical access to specimens and facilities as VA becomes increasingly feasible? As European collections-based institutions coalesce into the DiSSCo (Distributed System of Systematics Collections) infrastructure, will the model established in SYNTHESYS+ continue to function in the absence of centralised funding? In this talk, we will explore the trajectory of access through SYNTHESYS and provide some scenarios for how access to natural history collections–both physical and virtual–may change as we transition to the broader infrastructure that DiSSCo represents. |
Lecoq, Marie-Elise; Archambeau, Anne-Sophie; Figueira, Rui; Martin, David; Pamerlon, Sophie; Robertson, Tim; Lebbe, Régine Vignes; Villaverde, Cristina The Living Atlases Community of Practice Journal Article Biodiversity Information Science and Standards, 3 , pp. e35779, 2019. Abstract | Links | BibTeX | Tags: ALA, GBIF, Living Atlases @article{10.3897/biss.3.35779, title = {The Living Atlases Community of Practice}, author = {Marie-Elise Lecoq and Anne-Sophie Archambeau and Rui Figueira and David Martin and Sophie Pamerlon and Tim Robertson and Régine Vignes Lebbe and Cristina Villaverde}, url = {https://doi.org/10.3897/biss.3.35779}, doi = {10.3897/biss.3.35779}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e35779}, publisher = {Pensoft Publishers}, abstract = {The power and configurability of the the Atlas of Living Australia tools have enabled more and more institutions and participants of the Global Biodiversity Information Facility adapt and install biodiversity platforms. For six years, we have demonstrated that the community around this platform was needed and ready for its adoption. During the symposium organized for the SPNHC+TDWG 2018, we started a discussion that has led us to the creation of a more structured and sustainable community of practice. We want to create a community that follows the structure of open-source technical projects such as Linux or Apache foundation. After the GBIF Governing Board (GB25), the Kilkenny accord was agreed among 8 country or institution partners and early adopters of ALA platform to outline the scope of the new Living Atlases community. Thanks to this accord, we have begun to set up a new structure based on the Community of Practice (CoP) model. In summary, the governance will be held by a Management committee and a Technical advisory committee. Adding to these, the Living Atlases community will have two coordinators with technical and administrative duties. This presentation will briefly summarise the community history leading up to the agreement of the Kilkenny accord and provide information and context of the key points contained. Then, we will present and launch the new Living Atlases Community of Practice . Through this presentation, we aim to collect lessons learned and good practices from other CoP in topics like governance, communications, sustainability, among others to incorporate them in the consolidation process of the Living Atlases community.}, keywords = {ALA, GBIF, Living Atlases}, pubstate = {published}, tppubtype = {article} } The power and configurability of the the Atlas of Living Australia tools have enabled more and more institutions and participants of the Global Biodiversity Information Facility adapt and install biodiversity platforms. For six years, we have demonstrated that the community around this platform was needed and ready for its adoption. During the symposium organized for the SPNHC+TDWG 2018, we started a discussion that has led us to the creation of a more structured and sustainable community of practice. We want to create a community that follows the structure of open-source technical projects such as Linux or Apache foundation. After the GBIF Governing Board (GB25), the Kilkenny accord was agreed among 8 country or institution partners and early adopters of ALA platform to outline the scope of the new Living Atlases community. Thanks to this accord, we have begun to set up a new structure based on the Community of Practice (CoP) model. In summary, the governance will be held by a Management committee and a Technical advisory committee. Adding to these, the Living Atlases community will have two coordinators with technical and administrative duties. This presentation will briefly summarise the community history leading up to the agreement of the Kilkenny accord and provide information and context of the key points contained. Then, we will present and launch the new Living Atlases Community of Practice . Through this presentation, we aim to collect lessons learned and good practices from other CoP in topics like governance, communications, sustainability, among others to incorporate them in the consolidation process of the Living Atlases community. |
Hardisty, Alex R; Michener, William K; Agosti, Donat; García, Enrique Alonso; Bastin, Lucy; Belbin, Lee; Bowser, Anne; Buttigieg, Pier Luigi; Canhos, Dora A L; Egloff, Willi; Giovanni, Renato De; Figueira, Rui; Groom, Quentin; Guralnick, Robert P; Hobern, Donald; Hugo, Wim; Koureas, Dimitris; Ji, Liqiang; Los, Wouter; Manuel, Jeffrey; Manset, David; Poelen, Jorrit; Saarenmaa, Hannu; Schigel, Dmitry; Uhlir, Paul F; Kissling, Daniel W The Bari Manifesto: An interoperability framework for essential biodiversity variables Journal Article Ecological Informatics, 49 , pp. 22 - 31, 2019, ISSN: 1574-9541. Abstract | Links | BibTeX | Tags: Cyberinfrastructure, Data products, E-infrastructure, Essential biodiversity variables, Informatics, Interoperability @article{HARDISTY201922, title = {The Bari Manifesto: An interoperability framework for essential biodiversity variables}, author = {Alex R Hardisty and William K Michener and Donat Agosti and Enrique Alonso García and Lucy Bastin and Lee Belbin and Anne Bowser and Pier Luigi Buttigieg and Dora A L Canhos and Willi Egloff and Renato De Giovanni and Rui Figueira and Quentin Groom and Robert P Guralnick and Donald Hobern and Wim Hugo and Dimitris Koureas and Liqiang Ji and Wouter Los and Jeffrey Manuel and David Manset and Jorrit Poelen and Hannu Saarenmaa and Dmitry Schigel and Paul F Uhlir and Daniel W Kissling}, url = {http://www.sciencedirect.com/science/article/pii/S1574954118301961}, doi = {https://doi.org/10.1016/j.ecoinf.2018.11.003}, issn = {1574-9541}, year = {2019}, date = {2019-01-01}, journal = {Ecological Informatics}, volume = {49}, pages = {22 - 31}, abstract = {Essential Biodiversity Variables (EBV) are fundamental variables that can be used for assessing biodiversity change over time, for determining adherence to biodiversity policy, for monitoring progress towards sustainable development goals, and for tracking biodiversity responses to disturbances and management interventions. Data from observations or models that provide measured or estimated EBV values, which we refer to as EBV data products, can help to capture the above processes and trends and can serve as a coherent framework for documenting trends in biodiversity. Using primary biodiversity records and other raw data as sources to produce EBV data products depends on cooperation and interoperability among multiple stakeholders, including those collecting and mobilising data for EBVs and those producing, publishing and preserving EBV data products. Here, we encapsulate ten principles for the current best practice in EBV-focused biodiversity informatics as ‘The Bari Manifesto’, serving as implementation guidelines for data and research infrastructure providers to support the emerging EBV operational framework based on trans-national and cross-infrastructure scientific workflows. The principles provide guidance on how to contribute towards the production of EBV data products that are globally oriented, while remaining appropriate to the producer's own mission, vision and goals. These ten principles cover: data management planning; data structure; metadata; services; data quality; workflows; provenance; ontologies/vocabularies; data preservation; and accessibility. For each principle, desired outcomes and goals have been formulated. Some specific actions related to fulfilling the Bari Manifesto principles are highlighted in the context of each of four groups of organizations contributing to enabling data interoperability - data standards bodies, research data infrastructures, the pertinent research communities, and funders. The Bari Manifesto provides a roadmap enabling support for routine generation of EBV data products, and increases the likelihood of success for a global EBV framework.}, keywords = {Cyberinfrastructure, Data products, E-infrastructure, Essential biodiversity variables, Informatics, Interoperability}, pubstate = {published}, tppubtype = {article} } Essential Biodiversity Variables (EBV) are fundamental variables that can be used for assessing biodiversity change over time, for determining adherence to biodiversity policy, for monitoring progress towards sustainable development goals, and for tracking biodiversity responses to disturbances and management interventions. Data from observations or models that provide measured or estimated EBV values, which we refer to as EBV data products, can help to capture the above processes and trends and can serve as a coherent framework for documenting trends in biodiversity. Using primary biodiversity records and other raw data as sources to produce EBV data products depends on cooperation and interoperability among multiple stakeholders, including those collecting and mobilising data for EBVs and those producing, publishing and preserving EBV data products. Here, we encapsulate ten principles for the current best practice in EBV-focused biodiversity informatics as ‘The Bari Manifesto’, serving as implementation guidelines for data and research infrastructure providers to support the emerging EBV operational framework based on trans-national and cross-infrastructure scientific workflows. The principles provide guidance on how to contribute towards the production of EBV data products that are globally oriented, while remaining appropriate to the producer's own mission, vision and goals. These ten principles cover: data management planning; data structure; metadata; services; data quality; workflows; provenance; ontologies/vocabularies; data preservation; and accessibility. For each principle, desired outcomes and goals have been formulated. Some specific actions related to fulfilling the Bari Manifesto principles are highlighted in the context of each of four groups of organizations contributing to enabling data interoperability - data standards bodies, research data infrastructures, the pertinent research communities, and funders. The Bari Manifesto provides a roadmap enabling support for routine generation of EBV data products, and increases the likelihood of success for a global EBV framework. |
M Haston, Elspeth; Mitchell, Lorna People: From a Collection Manager's Viewpoint Journal Article Biodiversity Information Science and Standards, 3 , pp. e35709, 2019. Abstract | Links | BibTeX | Tags: @article{10.3897/biss.3.35709, title = {People: From a Collection Manager's Viewpoint}, author = {Elspeth M Haston and Lorna Mitchell}, url = {https://doi.org/10.3897/biss.3.35709}, doi = {10.3897/biss.3.35709}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e35709}, publisher = {Pensoft Publishers}, abstract = {The specimens held in natural history collections around the world are the direct result of the effort of thousands of people over hundreds of years. However, the way that the names of these people have been recorded within the collections has never been fully standardised, and this makes the process of correctly assigning the event relating to the specimen to an individual difficult at best, and impossible at worst. The events in which people are related to specimens include collecting, identifying, naming, loaning and owning. Whilst there are resources in the botanical community that hold information on many collectors and authors of plant names, the residual number of unknown people and the effort required to disambiguate them is daunting. Moreover, in many cases, the work carried out within the collection to disambiguate the names relating to the specimens is often not recorded and made available, generally due to the lack of a system to do so. This situation is making it extremely difficult to search for collections within the main aggregators, such as GBIF —the Global Biodiversity Information Facility— , and severely hampers our ability to link collections both within and between institutes and disciplines. When we look at benefits of linking collections and people, the need to agree and implement a system of managing people names becomes increasingly urgent.}, keywords = {}, pubstate = {published}, tppubtype = {article} } The specimens held in natural history collections around the world are the direct result of the effort of thousands of people over hundreds of years. However, the way that the names of these people have been recorded within the collections has never been fully standardised, and this makes the process of correctly assigning the event relating to the specimen to an individual difficult at best, and impossible at worst. The events in which people are related to specimens include collecting, identifying, naming, loaning and owning. Whilst there are resources in the botanical community that hold information on many collectors and authors of plant names, the residual number of unknown people and the effort required to disambiguate them is daunting. Moreover, in many cases, the work carried out within the collection to disambiguate the names relating to the specimens is often not recorded and made available, generally due to the lack of a system to do so. This situation is making it extremely difficult to search for collections within the main aggregators, such as GBIF —the Global Biodiversity Information Facility— , and severely hampers our ability to link collections both within and between institutes and disciplines. When we look at benefits of linking collections and people, the need to agree and implement a system of managing people names becomes increasingly urgent. |
Marcer, Arnald; M. Haston, Elspeth; Groom, Quentin; Picó, Xavier F; Escobar, Agustí; Uribe, Francesc Uncertain Geo-Uncertainty: Ecological research and public biodiversity data repositories Journal Article Biodiversity Information Science and Standards, 3 , pp. e34826, 2019. Abstract | Links | BibTeX | Tags: @article{10.3897/biss.3.34826, title = {Uncertain Geo-Uncertainty: Ecological research and public biodiversity data repositories}, author = {Arnald Marcer and Elspeth M. Haston and Quentin Groom and Xavier F Picó and Agustí Escobar and Francesc Uribe}, url = {https://doi.org/10.3897/biss.3.34826}, doi = {10.3897/biss.3.34826}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e34826}, publisher = {Pensoft Publishers}, abstract = {Natural history collections represent a vast and superb wealth of information gathered and curated across centuries by institutions such as natural history museums and botanical gardens around the world. The relatively recent advent and maturation of accessible computer technology has allowed the initiation of major digitization projects aimed at making the contents of these collections publicly available for education and research purposes. The final destinations of these newly digitized data are public biodiversity data repositories, of which, GBIF is the main one. These respositories are gateways where researchers can access and retrieve the data for use in a wide range of analyses. This unprecedented volume of information on biodiversity represents an extraordinary asset for research in ecology and evolution. A particularly important part of the digitized data for any given specimen is its collection location, as it indirectly gives information on the species’ habitat and thus, its ecological requirements. Many specimens in natural history collections come from a time where the collecting event, which includes the location information, was hand-written on physical tags attached to the specimen. This location information was given as a description of a place, e.g. a site name, and could be a rather precise or vague description. In order to convert this description of locality into a digitized research-grade georeferenced record, the research community has come up with a set of guidelines and recommendations; the most prominent one the point-radius method devised by Wieczorek et al. in 2004. However, and despite the public availability of this know-how, the end result is that the data available at the end of the pipeline, e.g. GBIF, often lacks georeferencing information with enough quality to be used for research purposes. Occurrence records from natural history collection datasets held at GBIF, often lack spatial coordinates and, if present, in most cases their precision and uncertainty fields are blank. The final consequence of this lack of complete georeferencing information is that the affected records are rendered useless for many kinds of research. For example, the flourishing field of species distribution modelling absolutely depends on accurate spatial information in order to be able to retrieve information on the environmental conditions in which the species live. The availability of global environmental and remote sensing datasets together with the sophisticated geospatial tools at the disposal of the researcher become powerless if no quality geoinformation is available. In this study, we perform a preliminary analysis on the status and availability of geoferencing information in datasets originated from specimens in natural history collections held at GBIF, discuss how the quality of this spatial info may affect ecological research, and conclude with some recommendations on how to better describe the georeferencing process within public digital biodiversity repositories.}, keywords = {}, pubstate = {published}, tppubtype = {article} } Natural history collections represent a vast and superb wealth of information gathered and curated across centuries by institutions such as natural history museums and botanical gardens around the world. The relatively recent advent and maturation of accessible computer technology has allowed the initiation of major digitization projects aimed at making the contents of these collections publicly available for education and research purposes. The final destinations of these newly digitized data are public biodiversity data repositories, of which, GBIF is the main one. These respositories are gateways where researchers can access and retrieve the data for use in a wide range of analyses. This unprecedented volume of information on biodiversity represents an extraordinary asset for research in ecology and evolution. A particularly important part of the digitized data for any given specimen is its collection location, as it indirectly gives information on the species’ habitat and thus, its ecological requirements. Many specimens in natural history collections come from a time where the collecting event, which includes the location information, was hand-written on physical tags attached to the specimen. This location information was given as a description of a place, e.g. a site name, and could be a rather precise or vague description. In order to convert this description of locality into a digitized research-grade georeferenced record, the research community has come up with a set of guidelines and recommendations; the most prominent one the point-radius method devised by Wieczorek et al. in 2004. However, and despite the public availability of this know-how, the end result is that the data available at the end of the pipeline, e.g. GBIF, often lacks georeferencing information with enough quality to be used for research purposes. Occurrence records from natural history collection datasets held at GBIF, often lack spatial coordinates and, if present, in most cases their precision and uncertainty fields are blank. The final consequence of this lack of complete georeferencing information is that the affected records are rendered useless for many kinds of research. For example, the flourishing field of species distribution modelling absolutely depends on accurate spatial information in order to be able to retrieve information on the environmental conditions in which the species live. The availability of global environmental and remote sensing datasets together with the sophisticated geospatial tools at the disposal of the researcher become powerless if no quality geoinformation is available. In this study, we perform a preliminary analysis on the status and availability of geoferencing information in datasets originated from specimens in natural history collections held at GBIF, discuss how the quality of this spatial info may affect ecological research, and conclude with some recommendations on how to better describe the georeferencing process within public digital biodiversity repositories. |
Rambold, Gerhard; Yilmaz, Pelin; Harjes, Janno; Klaster, Sabrina; Sanz, Veronica; Link, Anton; Glöckner, Frank Oliver; Triebel, Dagmar Meta-omics data and collection objects (MOD-CO): a conceptual schema and data model for processing sample data in meta-omics research Journal Article Database, 2019 , 2019, ISSN: 1758-0463, (baz002). Abstract | Links | BibTeX | Tags: @article{10.1093/database/baz002, title = {Meta-omics data and collection objects (MOD-CO): a conceptual schema and data model for processing sample data in meta-omics research}, author = {Gerhard Rambold and Pelin Yilmaz and Janno Harjes and Sabrina Klaster and Veronica Sanz and Anton Link and Frank Oliver Glöckner and Dagmar Triebel}, url = {https://doi.org/10.1093/database/baz002}, doi = {10.1093/database/baz002}, issn = {1758-0463}, year = {2019}, date = {2019-01-01}, journal = {Database}, volume = {2019}, abstract = {With the advent of advanced molecular meta-omics techniques and methods, a new era commenced for analysing and characterizing historic collection specimens, as well as recently collected environmental samples. Nucleic acid and protein sequencing-based analyses are increasingly applied to determine the origin, identity and traits of environmental (biological) objects and organisms. In this context, the need for new data structures is evident and former approaches for data processing need to be expanded according to the new meta-omics techniques and operational standards. Existing schemas and community standards in the biodiversity and molecular domain concentrate on terms important for data exchange and publication. Detailed operational aspects of origin and laboratory as well as object and data management issues are frequently neglected. Meta-omics Data and Collection Objects (MOD-CO) has therefore been set up as a new schema for meta-omics research, with a hierarchical organization of the concepts describing collection samples, as well as products and data objects being generated during operational workflows. It is focussed on object trait descriptions as well as on operational aspects and thereby may serve as a backbone for R&D laboratory information management systems with functions of an electronic laboratory notebook. The schema in its current version 1.0 includes 653 concepts and 1810 predefined concept values, being equivalent to descriptors and descriptor states, respectively. It is published in several representations, like a Semantic Media Wiki publication with 2463 interlinked Wiki pages for concepts and concept values, being grouped in 37 concept collections and subcollections. The SQL database application DiversityDescriptions, a generic tool for maintaining descriptive data and schemas, has been applied for setting up and testing MOD-CO and for concept mapping on elements of corresponding schemas.}, note = {baz002}, keywords = {}, pubstate = {published}, tppubtype = {article} } With the advent of advanced molecular meta-omics techniques and methods, a new era commenced for analysing and characterizing historic collection specimens, as well as recently collected environmental samples. Nucleic acid and protein sequencing-based analyses are increasingly applied to determine the origin, identity and traits of environmental (biological) objects and organisms. In this context, the need for new data structures is evident and former approaches for data processing need to be expanded according to the new meta-omics techniques and operational standards. Existing schemas and community standards in the biodiversity and molecular domain concentrate on terms important for data exchange and publication. Detailed operational aspects of origin and laboratory as well as object and data management issues are frequently neglected. Meta-omics Data and Collection Objects (MOD-CO) has therefore been set up as a new schema for meta-omics research, with a hierarchical organization of the concepts describing collection samples, as well as products and data objects being generated during operational workflows. It is focussed on object trait descriptions as well as on operational aspects and thereby may serve as a backbone for R&D laboratory information management systems with functions of an electronic laboratory notebook. The schema in its current version 1.0 includes 653 concepts and 1810 predefined concept values, being equivalent to descriptors and descriptor states, respectively. It is published in several representations, like a Semantic Media Wiki publication with 2463 interlinked Wiki pages for concepts and concept values, being grouped in 37 concept collections and subcollections. The SQL database application DiversityDescriptions, a generic tool for maintaining descriptive data and schemas, has been applied for setting up and testing MOD-CO and for concept mapping on elements of corresponding schemas. |
de la Hidalga, Abraham Nieva; Cazenave, Nicolas; Agosti, Donat; Wu, Zhengzhe; Dillen, Mathias; H Nielsen, Lars Use of European Open Science Cloud and National e-Infrastructures for the Long-Term Storage of Digitised Assets from Natural History Collections Journal Article Biodiversity Information Science and Standards, 3 , pp. e37164, 2019. Abstract | Links | BibTeX | Tags: @article{10.3897/biss.3.37164, title = {Use of European Open Science Cloud and National e-Infrastructures for the Long-Term Storage of Digitised Assets from Natural History Collections}, author = {Abraham Nieva de la Hidalga and Nicolas Cazenave and Donat Agosti and Zhengzhe Wu and Mathias Dillen and Lars H Nielsen}, url = {https://doi.org/10.3897/biss.3.37164}, doi = {10.3897/biss.3.37164}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e37164}, publisher = {Pensoft Publishers}, abstract = {Digitisation of Natural History Collections (NHC) has evolved from transcription of specimen catalogues in databases to web portals providing access to data, digital images, and 3D models of specimens. These portals increase global accessibility to specimens and help preserve the physical specimens by reducing their handling. The size of the NHC requires developing high-throughput digitisation workflows, as well as research into novel acquisition systems, image standardisation, curation, preservation, and publishing. Nowadays, herbarium sheet digitisation workflows (and fast digitisation stations) can digitise up to 6,000 specimens per day. Operating those digitisation stations in parallel, can increase the digitisation capacity. The high-resolution images obtained from these specimens, and their volume require substantial bandwidth, and disk space and tapes for storage of original digitised materials, as well as availability of computational processing resources for generating derivatives, information extraction, and publishing. While large institutions have dedicated digitisation teams that manage the whole workflow from acquisition to publishing, other institutions cannot dedicate resources to support all digitisation activities, in particular long-term storage. National and European e-infrastructures can provide an alternative solution by supporting different parts of the digitisation workflows. In the context of the Innovation and consolidation for large scale digitisation of natural heritage (ICEDIG Project 2018), three different e-infrastructures providing long-term storage have been analysed through three pilot studies: EUDAT-CINES, Zenodo, and National Infrastructures. The EUDAT-CINES pilot centred on transferring large digitised herbarium collections from the National Museum of Natural History France (MNHN) to the storage infrastructure provided by the Centre Informatique National de l’Enseignement Supérieur (CINES 2014), a European trusted digital repository. The upload, processing, and access services are supported by a combination of services provided by the European Collaborative Data Infrastructure (EUDAT CDI 2019) and CINES . The Zenodo pilot included the upload of herbarium collections from Meise Botanic Garden (APM) and other European herbaria into the Zenodo repository (Zenodo 2019). The upload, processing and access services are supported by Zenodo services, accessed by APM. The National Infrastructures pilot facilitated the upload of digital assets derived from specimens of herbarium and entomology collections held at the Finnish Museum of Natural History (LUOMUS) into the Finnish Biodiversity Information Facility (FinBIF 2019). This pilot concentrates on simplifying the integration of digitisation facilities to Finnish national e-infrastructures, using services developed by LUOMUS to access FinBIF resources. The data models employed in the pilots allow defining data schemas according to the types of collection and specimen images stored. For EUDAT-CINES, data were composed of the specimen data and its business metadata (those the institution making the deposit, in this case MNHN, considers relevant for the data objects being stored), enhanced by archiving metadata, added during the archiving process (institution, licensing, identifiers, project, archiving date, etc). EUDAT uses ePIC identifiers (ePIC 2019) to identify each deposit. The Zenodo pilot was designed to allow defining specimen data and metadata supporting indexing and access to resources. Zenodo uses DataCite Digital Object Identifiers (DOI) and the underlying data types as the main identifiers for the resources, augmented with fields based on standard TDWG vocabularies. FinBIF compiles Finnish biodiversity information to one single service for open access sharing. In FinBIF, HTTP URI based identifiers are used for all data, which link the specimen data with other information, such as images. The pilot infrastructure design reports describe features, capacities, functions and costs for each model, in three specific contexts are relevant for the implementation of the Distributed Systems of Scientific Collections (DiSSCo 2019) research infrastructure, informing the options for long-term storage and archiving digitised specimen data. The explored options allow preservation of assets and support easy access. In a wider context, the results provide a template for service evaluation in the European Open Science Cloud (EOSC 2019) which can guide similar efforts. }, keywords = {}, pubstate = {published}, tppubtype = {article} } Digitisation of Natural History Collections (NHC) has evolved from transcription of specimen catalogues in databases to web portals providing access to data, digital images, and 3D models of specimens. These portals increase global accessibility to specimens and help preserve the physical specimens by reducing their handling. The size of the NHC requires developing high-throughput digitisation workflows, as well as research into novel acquisition systems, image standardisation, curation, preservation, and publishing. Nowadays, herbarium sheet digitisation workflows (and fast digitisation stations) can digitise up to 6,000 specimens per day. Operating those digitisation stations in parallel, can increase the digitisation capacity. The high-resolution images obtained from these specimens, and their volume require substantial bandwidth, and disk space and tapes for storage of original digitised materials, as well as availability of computational processing resources for generating derivatives, information extraction, and publishing. While large institutions have dedicated digitisation teams that manage the whole workflow from acquisition to publishing, other institutions cannot dedicate resources to support all digitisation activities, in particular long-term storage. National and European e-infrastructures can provide an alternative solution by supporting different parts of the digitisation workflows. In the context of the Innovation and consolidation for large scale digitisation of natural heritage (ICEDIG Project 2018), three different e-infrastructures providing long-term storage have been analysed through three pilot studies: EUDAT-CINES, Zenodo, and National Infrastructures. The EUDAT-CINES pilot centred on transferring large digitised herbarium collections from the National Museum of Natural History France (MNHN) to the storage infrastructure provided by the Centre Informatique National de l’Enseignement Supérieur (CINES 2014), a European trusted digital repository. The upload, processing, and access services are supported by a combination of services provided by the European Collaborative Data Infrastructure (EUDAT CDI 2019) and CINES . The Zenodo pilot included the upload of herbarium collections from Meise Botanic Garden (APM) and other European herbaria into the Zenodo repository (Zenodo 2019). The upload, processing and access services are supported by Zenodo services, accessed by APM. The National Infrastructures pilot facilitated the upload of digital assets derived from specimens of herbarium and entomology collections held at the Finnish Museum of Natural History (LUOMUS) into the Finnish Biodiversity Information Facility (FinBIF 2019). This pilot concentrates on simplifying the integration of digitisation facilities to Finnish national e-infrastructures, using services developed by LUOMUS to access FinBIF resources. The data models employed in the pilots allow defining data schemas according to the types of collection and specimen images stored. For EUDAT-CINES, data were composed of the specimen data and its business metadata (those the institution making the deposit, in this case MNHN, considers relevant for the data objects being stored), enhanced by archiving metadata, added during the archiving process (institution, licensing, identifiers, project, archiving date, etc). EUDAT uses ePIC identifiers (ePIC 2019) to identify each deposit. The Zenodo pilot was designed to allow defining specimen data and metadata supporting indexing and access to resources. Zenodo uses DataCite Digital Object Identifiers (DOI) and the underlying data types as the main identifiers for the resources, augmented with fields based on standard TDWG vocabularies. FinBIF compiles Finnish biodiversity information to one single service for open access sharing. In FinBIF, HTTP URI based identifiers are used for all data, which link the specimen data with other information, such as images. The pilot infrastructure design reports describe features, capacities, functions and costs for each model, in three specific contexts are relevant for the implementation of the Distributed Systems of Scientific Collections (DiSSCo 2019) research infrastructure, informing the options for long-term storage and archiving digitised specimen data. The explored options allow preservation of assets and support easy access. In a wider context, the results provide a template for service evaluation in the European Open Science Cloud (EOSC 2019) which can guide similar efforts. |
Marcer, Arnald; Escobar, Agustí; Díaz, Anna; Uribe, Francesc Towards a Federated List of Versioned Georeferenced Site Names: A local experience Journal Article Biodiversity Information Science and Standards, 3 , pp. e37079, 2019. Abstract | Links | BibTeX | Tags: @article{10.3897/biss.3.37079, title = {Towards a Federated List of Versioned Georeferenced Site Names: A local experience}, author = {Arnald Marcer and Agustí Escobar and Anna Díaz and Francesc Uribe}, url = {https://doi.org/10.3897/biss.3.37079}, doi = {10.3897/biss.3.37079}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e37079}, publisher = {Pensoft Publishers}, abstract = {The Museu de Ciències Naturals de Barcelona (MCNB) holds a collection of ca. 130,000 digitally registered zoological specimens collected around the world and dating from 1852 to the present. Specimens are shared between non-arthropod invertebrates (32% of the collection), arthropod invertebrates (39%) and vertebrates (29%). The museum recognizes georeferencing as a crucial process for mobilising its collections into digitally accessible information and has provisioned resources in an ongoing georeferencing process for more than 10 years. The aim of this poster is to show how a bottom-up model benefits the georeferencing work. Site names as written by collectors in specimen tags need to be converted into spatial coordinates with precision and uncertainty information. In order to guide this process, the research community has provided a set of georeferencing protocols and recommendations which start with the physical tagged specimen and end with a digital record in a public biodiversity database. In addition, having direct knowledge of the territory where the tagged locality lies and access to the most precise local cartography helps to ensure that a high quality georeferenced digital record can be created. Many localities described in specimen tags carry place names which cannot be found or correctly derived from small scale maps or digital map resources such as Google Maps. Often, it is necessary to have access to more locally detailed cartography and, sometimes, historical cartography. Therefore, we recommend that this is added to existing protocols, and that institutions from different geographical areas to pull together their efforts in order to create a federated list of georeferenced site names. This would be a more efficient strategy of generating better quality gazetteers, streamlining efforts and making more efficient use of the collective resources since many tagged site names are the same for different specimens across multiple collections. The georeferencing process is ultimately dependent on the cartography available to the georeferencer at the moment of converting the tagged collection event into a digital record. A georeference record may be subject to future improvements in future georeferencing revisions. Newly available cartography or methods of reporting location and uncertainty may lead to a revision of any given georeferenced record. Thus, any federated databasing effort to list georeferenced site names should include versioning capabilities. In order to address the need to incorporate expert knowledge into georeferecing efforts, alongside versioning site names, the MCNB has developed a software platform tool. This platform, called Georef, is implemented as a web application with storage, querying, editing and visualizing capabilities for both site names and the cartographic resources used in the georeferencing process. Georef is now also used by other institutions from the Western Mediterranean basin with which MCNB shares data and local knowledge. A public API has been developed for accessing the georeferenced sites and to support a crowd-sourced tool which allows the public to comment and propose edits to location data. Ultimately, this tool improves the quality of the georeferencing and research using these data.}, keywords = {}, pubstate = {published}, tppubtype = {article} } The Museu de Ciències Naturals de Barcelona (MCNB) holds a collection of ca. 130,000 digitally registered zoological specimens collected around the world and dating from 1852 to the present. Specimens are shared between non-arthropod invertebrates (32% of the collection), arthropod invertebrates (39%) and vertebrates (29%). The museum recognizes georeferencing as a crucial process for mobilising its collections into digitally accessible information and has provisioned resources in an ongoing georeferencing process for more than 10 years. The aim of this poster is to show how a bottom-up model benefits the georeferencing work. Site names as written by collectors in specimen tags need to be converted into spatial coordinates with precision and uncertainty information. In order to guide this process, the research community has provided a set of georeferencing protocols and recommendations which start with the physical tagged specimen and end with a digital record in a public biodiversity database. In addition, having direct knowledge of the territory where the tagged locality lies and access to the most precise local cartography helps to ensure that a high quality georeferenced digital record can be created. Many localities described in specimen tags carry place names which cannot be found or correctly derived from small scale maps or digital map resources such as Google Maps. Often, it is necessary to have access to more locally detailed cartography and, sometimes, historical cartography. Therefore, we recommend that this is added to existing protocols, and that institutions from different geographical areas to pull together their efforts in order to create a federated list of georeferenced site names. This would be a more efficient strategy of generating better quality gazetteers, streamlining efforts and making more efficient use of the collective resources since many tagged site names are the same for different specimens across multiple collections. The georeferencing process is ultimately dependent on the cartography available to the georeferencer at the moment of converting the tagged collection event into a digital record. A georeference record may be subject to future improvements in future georeferencing revisions. Newly available cartography or methods of reporting location and uncertainty may lead to a revision of any given georeferenced record. Thus, any federated databasing effort to list georeferenced site names should include versioning capabilities. In order to address the need to incorporate expert knowledge into georeferecing efforts, alongside versioning site names, the MCNB has developed a software platform tool. This platform, called Georef, is implemented as a web application with storage, querying, editing and visualizing capabilities for both site names and the cartographic resources used in the georeferencing process. Georef is now also used by other institutions from the Western Mediterranean basin with which MCNB shares data and local knowledge. A public API has been developed for accessing the georeferenced sites and to support a crowd-sourced tool which allows the public to comment and propose edits to location data. Ultimately, this tool improves the quality of the georeferencing and research using these data. |
M. Weigand, Alexander; Bouchez, Agnès; Boets, Pieter; Bruce, Kat; Ciampor, Fedor; Ekrem, Torbjørn; Fontaneto, Diego; Franc, Alain; Hering, Daniel; Kahlert, Maria; Keskin, Emre; Mergen, Patricia; Pawlowski, Jan; Kueckmann, Sarah; Leese, Florian Taming the Wild West of Molecular Tools Application in Aquatic Research and Biomonitoring Journal Article Biodiversity Information Science and Standards, 3 , pp. e37215, 2019. Abstract | Links | BibTeX | Tags: @article{10.3897/biss.3.37215, title = {Taming the Wild West of Molecular Tools Application in Aquatic Research and Biomonitoring}, author = {Alexander M. Weigand and Agnès Bouchez and Pieter Boets and Kat Bruce and Fedor Ciampor and Torbjørn Ekrem and Diego Fontaneto and Alain Franc and Daniel Hering and Maria Kahlert and Emre Keskin and Patricia Mergen and Jan Pawlowski and Sarah Kueckmann and Florian Leese}, url = {https://doi.org/10.3897/biss.3.37215}, doi = {10.3897/biss.3.37215}, year = {2019}, date = {2019-01-01}, journal = {Biodiversity Information Science and Standards}, volume = {3}, pages = {e37215}, publisher = {Pensoft Publishers}, abstract = {Modern high-throughput sequencing technologies are becoming a game changer in many fields of aquatic research and biomonitoring. To unfold their full potential, however, the independent development of approaches has to be streamlined. This discussion must be fuelled by stakeholders and practitioners and, scientific results collaboratively filtered to identify the most promising avenues. Furthermore, aspects such as time, budget, skills and the application context have to be considered, finally communicating good practice strategies to target audiences. Since 2016, the EU COST Action DNAqua-Net is taming the wild west of molecular tools application in aquatic research and biomonitoring. After nucleating available knowledge by the formation of a highly international and transdisciplinary network of scientists, stakeholders, practitioners and enterprises, fields of high methodological diversity were identified. Relevant aspects are currently ground truthed, thereby reducing the plethora of pipelines, parameters and protocols to a subset of good practices or standardisations. To effectively bridge the science-application interface, the very same network is exploited for the dissemination of results (Leese et al. 2018). The internal working group structure of DNAqua-Net is used to provide an overview of existing methodological fields of diversity in DNA-based aquatic biomonitoring: WG1 - DNA Barcode References: Different marker systems are targeted for the same organism group. Even in case the same molecular marker is investigated, different primer pairs are frequently applied for DNA metabarcoding. Both aspects challenge the further development of high-quality and complete DNA barcode reference libraries (Weigand et al. 2019). WG2 - Biotic Indices & Metrics: Index systems are developed from molecular data in various ways: from the estimation of species' biomass (as a proxy for abundance) from sequence reads, to the correlation of presence/absence data of molecular operational taxonomic units (MOTUs) with environmental parameters (Pawlowski et al. 2018). WG3 - Field & Lab Protocols: Using environmental DNA (eDNA) metabarcoding as an example, diverse sampling techniques based on varying water volumes, different filter systems and collection devices as well as a multitude of laboratory protocols for PCR, replication and sequencing are considered. WG4 - Data Analysis & Storage: During the process of MOTU identification, varying threshold values and conceptually different pipelines are used, potentially impacting the final list of MOTUs or species retrieved. Furthermore, routine storage concepts for big biodiversity data are only in development and some sample types (e.g. eDNA) have no sophisticated metadata descriptions. WG5 - Implementation Strategy & Legal Issues: The working group picks up collaboratively filtered good practice strategies and generates room for discussions at the science-policy interface (Hering et al. 2018). The CEN working group WG28 "DNA methods" has been initiated and the development of standardisations is fostered.}, keywords = {}, pubstate = {published}, tppubtype = {article} } Modern high-throughput sequencing technologies are becoming a game changer in many fields of aquatic research and biomonitoring. To unfold their full potential, however, the independent development of approaches has to be streamlined. This discussion must be fuelled by stakeholders and practitioners and, scientific results collaboratively filtered to identify the most promising avenues. Furthermore, aspects such as time, budget, skills and the application context have to be considered, finally communicating good practice strategies to target audiences. Since 2016, the EU COST Action DNAqua-Net is taming the wild west of molecular tools application in aquatic research and biomonitoring. After nucleating available knowledge by the formation of a highly international and transdisciplinary network of scientists, stakeholders, practitioners and enterprises, fields of high methodological diversity were identified. Relevant aspects are currently ground truthed, thereby reducing the plethora of pipelines, parameters and protocols to a subset of good practices or standardisations. To effectively bridge the science-application interface, the very same network is exploited for the dissemination of results (Leese et al. 2018). The internal working group structure of DNAqua-Net is used to provide an overview of existing methodological fields of diversity in DNA-based aquatic biomonitoring: WG1 - DNA Barcode References: Different marker systems are targeted for the same organism group. Even in case the same molecular marker is investigated, different primer pairs are frequently applied for DNA metabarcoding. Both aspects challenge the further development of high-quality and complete DNA barcode reference libraries (Weigand et al. 2019). WG2 - Biotic Indices & Metrics: Index systems are developed from molecular data in various ways: from the estimation of species' biomass (as a proxy for abundance) from sequence reads, to the correlation of presence/absence data of molecular operational taxonomic units (MOTUs) with environmental parameters (Pawlowski et al. 2018). WG3 - Field & Lab Protocols: Using environmental DNA (eDNA) metabarcoding as an example, diverse sampling techniques based on varying water volumes, different filter systems and collection devices as well as a multitude of laboratory protocols for PCR, replication and sequencing are considered. WG4 - Data Analysis & Storage: During the process of MOTU identification, varying threshold values and conceptually different pipelines are used, potentially impacting the final list of MOTUs or species retrieved. Furthermore, routine storage concepts for big biodiversity data are only in development and some sample types (e.g. eDNA) have no sophisticated metadata descriptions. WG5 - Implementation Strategy & Legal Issues: The working group picks up collaboratively filtered good practice strategies and generates room for discussions at the science-policy interface (Hering et al. 2018). The CEN working group WG28 "DNA methods" has been initiated and the development of standardisations is fostered. |
ResearchGate Link : https://www.researchgate.net/project/MOBILISE-COST-Action-CA17106-Mobilising-Data-Policies-and-Experts-in-Scientific-Collections