Literature DB >> 32444797

BBMRI-ERIC's contributions to research and knowledge exchange on COVID-19.

Petr Holub1,2, Lukasz Kozera3, Francesco Florindi3, Esther van Enckevort4, Morris Swertz4, Robert Reihs5, Andrea Wutte3, Dalibor Valík6, Michaela Th Mayrhofer3.   

Abstract

During the COVID-19 pandemic, the European biobanking infrastructure is in a unique position to preserve valuable biological material complemented with detailed data for future research purposes. Biobanks can be either integrated into healthcare, where preservation of the biological material is a fork in clinical routine diagnostics and medical treatment processes or they can also host prospective cohorts or material related to clinical trials. The paper discussed objectives of BBMRI-ERIC, the European research infrastructure established to facilitate access to quality-defined biological materials and data for research purposes, with respect to the COVID-19 crisis: (a) to collect information on available European as well as non-European COVID-19-relevant biobanking resources in BBMRI-ERIC Directory and to facilitate access to these via BBMRI-ERIC Negotiator platform; (b) to help harmonizing guidelines on how data and biological material is to be collected to maximize utility for future research, including large-scale data processing in artificial intelligence, by participating in activities such as COVID-19 Host Genetics Initiative; (c) to minimize risks for all involved parties dealing with (potentially) infectious material by developing recommendations and guidelines; (d) to provide a European-wide platform of exchange in relation to ethical, legal, and societal issues (ELSI) specific to the collection of biological material and data during the COVID-19 pandemic.

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Year:  2020        PMID: 32444797      PMCID: PMC7242892          DOI: 10.1038/s41431-020-0634-8

Source DB:  PubMed          Journal:  Eur J Hum Genet        ISSN: 1018-4813            Impact factor:   4.246


Introduction

During the COVID-19 pandemic, the European biobanking infrastructure is in a unique position to preserve valuable biological material complemented with detailed data for future research purposes. Many biobanks are integrated into healthcare, where preservation of the biological material is a fork in clinical routine diagnostics and medical treatment processes; these are called clinical biobanks or clinical collections. Biobanks can also host prospective cohorts or material related to clinical trials. Amount and structure of collected data in clinical collections is determined by the specifics of the particular healthcare systems—typically based on the hospital information systems—for potentially large numbers of patients, especially when these are handled by the healthcare during pandemics. Prospective cohorts and clinical trials feature more structured data models and large amounts of data collected in controlled conditions, but at the cost of having a substantially lower number of patients. Owing to the pandemic, we can observe an unprecedented stressing of the healthcare systems, which requires that, more than ever, sample and data collection happens as unobtrusively as possible for the primary care. Data collection processes, while they are dependent on local/national settings, should result in well-defined structured data suitable for multisite national and international data integration and large-scale machine analyses, following FAIR [1] and FAIR-Health [2] principles (extensions of FAIR related to quality and privacy). In addition, biobanking material with (possibly) infectious viral material should be prepared in relatively sparse BSL-3 certified laboratories; alternatively, material needs to be deactivated to enable processing in much more abundant BSL-2 laboratories.1 Amidst the COVID-19 crisis, the objectives of BBMRI-ERIC, the European research infrastructure established to facilitate access to quality-defined biological materials and data for research purposes, are clear: (a) to collect information on available European as well as non-European COVID-19-relevant biobanking resources and to facilitate access to these; (b) to help harmonizing guidelines on how data and biological material is to be collected to maximize utility for future research, including large-scale data processing in artificial intelligence; (c) to minimize risks for all involved parties dealing with (potentially) infectious material; (d) to provide a European-wide platform of exchange in relation to ethical, legal, and societal issues (ELSI) specific to the collection of biological material and data during the COVID-19 pandemic. Achieving these objectives will substantially support further research into COVID-19, and hence it is key to connect early and effectively in a multidisciplinary manner with other key facilitators of medical research, such as the research infrastructures ECRIN (multinational clinical trials) and EATRIS (translational medicine)2 or the broader community of research infrastructures, which already mobilized considerable resources across all scientific clusters.3

COVID-19 resources in the BBMRI-ERIC network

In order to ensure findability of biobanking resources, BBMRI-ERIC operates two main services: (1) the BBMRI-ERIC Directory,4 which works on aggregate metadata descriptors of biobanks and their collections, and (2) the BBMRI-ERIC Locator,5 which works as a federated search tool allowing to query individual-level data at the sites of origin while returning aggregated results. To date, the Directory has been at the center of BBMRI-ERIC’s initial COVID-19-related activities. The aggregated nature of the underlying data allows for a low entry bar to register resources and thus any COVID-19-related resources could be included easily regardless of the country of origin. The Directory data model is based on MIABIS Core 2.0 [3] with the concept of biobanks (institutions) and collections (of data and samples) and it has been extended with COVID-relevant attributes as shown in Table 1. Existing collections of COVID-positive samples will be marked with respective ICD-10 codes and COVID-specific collection attributes. Prospective collections can be advertised as empty collections with COVID-specific collection attributes defining what data can be collected. The metadata descriptors were initially collected by BBMRI-ERIC’s National Nodes (represented throughout 21 member states),6 and now the Directory is ready to accept updates via National Nodes or via the BBMRI-ERIC Helpdesk.7 The Directory data model is being continuously optimized based on the feedback from and needs of the research and biobanking communities. The model is also being deployed in national nodes to collect the relevant information, using the underlying MOLGENIS platform [4] to quickly configure locally needed extensions. In order to maximize findability, the Directory also serves as a data source for aggregation services such as FAIRSharing.org and Google dataset search.
Table 1

Overview of COVID-specific attributes added to BBMRI-ERIC Directory.

Attributes added on the biobank levelAttributes added on the collection level

Biobank providing services relevant to COVID-19:

• Member COVID-19 network

Availability of the services provided by the biobank:

• Antibody development

• Proteomics studies including protein engineering and protein interactions

• Screening tools for searching virus proteases inhibitors

• Animal testing facility

• Ability to set up prospective collections

• Ability to set up clinical trials

• Virus sequencing facility

• BSL-2 laboratory available

• BSL-3 laboratory available

• Laboratories doing PCR-based diagnosis

Relevant diagnoses:

• U07.1—laboratory-confirmed COVID-19 diagnosis

• U07.2—suspect or probable COVID-19 diagnosis

Availability of relevant data and products:

• Data on clinical symptoms

• Data on disease duration and disease outcome

• Antibodies titer (IgM and IgG)

• CT imaging of lungs, alternatively Xray

• Blood count and other lab results especially at the moment of hospital admission,

• Treatment protocol (types of drugs used)

Overview of COVID-specific attributes added to BBMRI-ERIC Directory. Biobank providing services relevant to COVID-19: • Member COVID-19 network Availability of the services provided by the biobank: • Antibody development • Proteomics studies including protein engineering and protein interactions • Screening tools for searching virus proteases inhibitors • Animal testing facility • Ability to set up prospective collections • Ability to set up clinical trials • Virus sequencing facility • BSL-2 laboratory available • BSL-3 laboratory available • Laboratories doing PCR-based diagnosis Relevant diagnoses: • U07.1—laboratory-confirmed COVID-19 diagnosis • U07.2—suspect or probable COVID-19 diagnosis Availability of relevant data and products: • Data on clinical symptoms • Data on disease duration and disease outcome • Antibodies titer (IgM and IgG) • CT imaging of lungs, alternatively Xray • Blood count and other lab results especially at the moment of hospital admission, • Treatment protocol (types of drugs used) Effective access to the biobanking resources, as advertised in the Directory, is possible via the BBMRI-ERIC Negotiator8. After a researcher identifies relevant biobanks in the Directory, she can use the “Request access” functionality and follow the access procedure; this involves authenticating using BBMRI-ERIC Authentication and Authorization Infrastructure, describing her project and specific request details and information on ethics review if available. Once this initial information is provided, the identified biobanks are notified and the access negotiation starts. Using the Negotiator, the researcher can effectively negotiate with several biobanks at once and insufficiently specified requests can be quickly clarified. In the near future, the federated search in the BBMRI-ERIC Locator will be extended with the COVID-specific attributes; the extension depends on an initial consensus of the international communities on common data models describing patient-level information. The BBMRI-ERIC community therefore participates in the global ‘COVID-19 Host Genetics Initiative’9 and actively monitors other initiatives such as OHDSI COVID-19 work.10 Outcomes of these initiatives will need to be practically assessed in order to ultimately verify what information can be effectively made available for querying in practice of clinical biobanking in different countries.

Development of quality and safety guidance

Collection of quality biological material from patients with suspected and confirmed COVID-19 might be a challenge due to infection risk related to the procedures performed on different types of biospecimen. In most cases, samples collected from upper respiratory tract (swabs, sputum, bronchoalveolar lavage) seem to be associated with the highest risk due to the content of active virus when compared with the whole blood and blood derivatives [5]. In addition, assessment of the virus load in such samples collected from asymptomatic individuals and those who show typical COVID-19 symptoms, showed no statistically significant difference with the highest viral load at the presentation [6]. Stool samples, collected by many biobanks, are also amongst highly infectious material in contrast to serum and plasma [5, 7]. Safety measures for fractionation and storage of urine samples should be also performed due to inconsistent data on viral load, indicating that urine might be potentially infectious [8] but this stays in contrast with other reports [5]. While the most current publications are a valuable source of the latest knowledge, they might also provide conflicting advice and limited data. Laboratories performing work on biological specimens should thus strictly follow well-established guidelines such as those published by WHO,11 ECDC,12 as well as local epidemiological surveillance. According to these recommendations the individual risk assessment is becoming a key step before starting the work with SARS-CoV-2 suspected samples in order to decide whether sample processing requires BSL-3 or BSL-2 standard. High virulence of SARS-CoV-2 and the lack of suitable equipment in many facilities, indicates the possibility of taking steps that minimize contact with potentially infectious material. It is essential to establish the flow of biological material between clinical laboratories and biobanks that will perform the minimum steps associated with the processing of biological material and will be responsible for its safe storage until release—such as guidelines established by Czech National Node of BBMRI-ERIC [9]. In response to the needs of the biobanking community, BBMRI-ERIC organized a series of online meetings with clinical and laboratory experts and provided the access to guidelines enabling the preparation of biobanks for working with samples obtained from COVID-19 patients13. International standards on risk management and safety, such as ISO 20387:2018, 31000:2018, 31004:2013, and 15190:2020, should be also followed when applicable.

Appropriate ethical and legal requirements

As regards to ethical requirements and biobanking, the same guidelines persist also in the context of COVID-19, allowing for practical adjustments in emergency situations.141516 Oversight in the midst of the pandemic, typically the responsibility of the local ethics committee, has been frequently adjusted to meet the urgency of COVID-19 by ensuring fast response such as 48 h. In relation to data processing during an emergency situation, the GDPR explicitly enables competent public health authorities to lawfully process personal data for reasons of substantial public interest in the area of public health conditionally without informed consent.17 In a guidance document on the management of clinical trials during the COVID-19 pandemic,18 for instance, it is further specified to obtain the consent from the patient (or her/his legal representative) at a later stage. This recommendation applies to “acute life-threatening situations”, where it is not possible to obtain consent in advance and only when allowed within national legislation. In the context of biobanks, broad consent can be used if it has already been integrated prior to the emergency situation in the clinical admission processes.

Conclusion

By integrating the COVID-19 resources in the Directory, BBMRI-ERIC aims to contribute its unique European research infrastructure, with its National Nodes and collaborators not only the preservation of valuable biological material complemented with detailed data, but also to ensure timely knowledge exchange on quality management and guidance on safety and ethical and legal requirements and their practical application. Where appropriate in collaboration with other organizations or societies, BBMRI-ERIC will continue to organize and disseminate responses to the needs of the community, including webinars or FAQs.
  8 in total

1.  Toward Global Biobank Integration by Implementation of the Minimum Information About BIobank Data Sharing (MIABIS 2.0 Core).

Authors:  Roxana Merino-Martinez; Loreana Norlin; David van Enckevort; Gabriele Anton; Simone Schuffenhauer; Kaisa Silander; Linda Mook; Petr Holub; Raffael Bild; Morris Swertz; Jan-Eric Litton
Journal:  Biopreserv Biobank       Date:  2016-03-15       Impact factor: 2.300

2.  Detection of SARS-CoV-2 in Different Types of Clinical Specimens.

Authors:  Wenling Wang; Yanli Xu; Ruqin Gao; Roujian Lu; Kai Han; Guizhen Wu; Wenjie Tan
Journal:  JAMA       Date:  2020-05-12       Impact factor: 56.272

Review 3.  Enhancing Reuse of Data and Biological Material in Medical Research: From FAIR to FAIR-Health.

Authors:  Petr Holub; Florian Kohlmayer; Fabian Prasser; Michaela Th Mayrhofer; Irene Schlünder; Gillian M Martin; Sara Casati; Lefteris Koumakis; Andrea Wutte; Łukasz Kozera; Dominik Strapagiel; Gabriele Anton; Gianluigi Zanetti; Osman Ugur Sezerman; Maimuna Mendy; Dalibor Valík; Marialuisa Lavitrano; Georges Dagher; Kurt Zatloukal; GertJan B van Ommen; Jan-Eric Litton
Journal:  Biopreserv Biobank       Date:  2018-01-23       Impact factor: 2.300

4.  Persistent shedding of viable SARS-CoV in urine and stool of SARS patients during the convalescent phase.

Authors:  D Xu; Z Zhang; L Jin; F Chu; Y Mao; H Wang; M Liu; M Wang; L Zhang; G F Gao; F S Wang
Journal:  Eur J Clin Microbiol Infect Dis       Date:  2005-03       Impact factor: 3.267

5.  Temporal profiles of viral load in posterior oropharyngeal saliva samples and serum antibody responses during infection by SARS-CoV-2: an observational cohort study.

Authors:  Kelvin Kai-Wang To; Owen Tak-Yin Tsang; Wai-Shing Leung; Anthony Raymond Tam; Tak-Chiu Wu; David Christopher Lung; Cyril Chik-Yan Yip; Jian-Piao Cai; Jacky Man-Chun Chan; Thomas Shiu-Hong Chik; Daphne Pui-Ling Lau; Chris Yau-Chung Choi; Lin-Lei Chen; Wan-Mui Chan; Kwok-Hung Chan; Jonathan Daniel Ip; Anthony Chin-Ki Ng; Rosana Wing-Shan Poon; Cui-Ting Luo; Vincent Chi-Chung Cheng; Jasper Fuk-Woo Chan; Ivan Fan-Ngai Hung; Zhiwei Chen; Honglin Chen; Kwok-Yung Yuen
Journal:  Lancet Infect Dis       Date:  2020-03-23       Impact factor: 25.071

6.  The FAIR Guiding Principles for scientific data management and stewardship.

Authors:  Mark D Wilkinson; Michel Dumontier; I Jsbrand Jan Aalbersberg; Gabrielle Appleton; Myles Axton; Arie Baak; Niklas Blomberg; Jan-Willem Boiten; Luiz Bonino da Silva Santos; Philip E Bourne; Jildau Bouwman; Anthony J Brookes; Tim Clark; Mercè Crosas; Ingrid Dillo; Olivier Dumon; Scott Edmunds; Chris T Evelo; Richard Finkers; Alejandra Gonzalez-Beltran; Alasdair J G Gray; Paul Groth; Carole Goble; Jeffrey S Grethe; Jaap Heringa; Peter A C 't Hoen; Rob Hooft; Tobias Kuhn; Ruben Kok; Joost Kok; Scott J Lusher; Maryann E Martone; Albert Mons; Abel L Packer; Bengt Persson; Philippe Rocca-Serra; Marco Roos; Rene van Schaik; Susanna-Assunta Sansone; Erik Schultes; Thierry Sengstag; Ted Slater; George Strawn; Morris A Swertz; Mark Thompson; Johan van der Lei; Erik van Mulligen; Jan Velterop; Andra Waagmeester; Peter Wittenburg; Katherine Wolstencroft; Jun Zhao; Barend Mons
Journal:  Sci Data       Date:  2016-03-15       Impact factor: 6.444

7.  MOLGENIS research: advanced bioinformatics data software for non-bioinformaticians.

Authors:  K Joeri van der Velde; Floris Imhann; Bart Charbon; Chao Pang; David van Enckevort; Mariska Slofstra; Ruggero Barbieri; Rudi Alberts; Dennis Hendriksen; Fleur Kelpin; Mark de Haan; Tommy de Boer; Sido Haakma; Connor Stroomberg; Salome Scholtens; Gert-Jan van de Geijn; Eleonora A M Festen; Rinse K Weersma; Morris A Swertz
Journal:  Bioinformatics       Date:  2019-03-15       Impact factor: 6.937

8.  Prolonged presence of SARS-CoV-2 viral RNA in faecal samples.

Authors:  Yongjian Wu; Cheng Guo; Lantian Tang; Zhongsi Hong; Jianhui Zhou; Xin Dong; Huan Yin; Qiang Xiao; Yanping Tang; Xiujuan Qu; Liangjian Kuang; Xiaomin Fang; Nischay Mishra; Jiahai Lu; Hong Shan; Guanmin Jiang; Xi Huang
Journal:  Lancet Gastroenterol Hepatol       Date:  2020-03-20
  8 in total
  6 in total

1.  Study protocol for the St James's Hospital, Tallaght University Hospital, Trinity College Dublin Allied Researchers' (STTAR) Bioresource for COVID-19.

Authors:  Laura O'Doherty; Stuart Hendricken Phelan; Nicole Wood; Sorcha O'Brien; Jacklyn Sui; Cian Mangan; Fergal Howley; Siobhan O'Regan; Noor Adeebah Mohamed Razif; Ciara Conlan; Ruth Argue; Samuel Holohan; Adam Dyer; Fara Salleh; Liam Townsend; Gerard Hughes; Colm Kerr; Derval Reidy; Alberto Sanz; Emma Connolly; Andrea Kelly; Emma Leacy; Conor Reddy; Siobhan Gargan; Eamon Breen; Heike Hawerkamp; Jean Dunne; Ignacio Martin-Loeches; Anne Marie McLaughlin; Aideen Long; Orla Shiels; Padraic Fallon; Martina Hennessy; Roman Romero-Ortuno; Ciaran Bannan; Anna Rose Prior; Ana Rakovac; William McCormack; Ross McManus; Seamus Donnelly; Colm Bergin; Mark Little; Clíona Ní Cheallaigh; Niall Conlon
Journal:  HRB Open Res       Date:  2022-03-16

2.  DICOM-MIABIS integration model for biobanks: a use case of the EU PRIMAGE project.

Authors:  Camilla Scapicchio; Michela Gabelloni; Sara Maria Forte; Leonor Cerdá Alberich; Lorenzo Faggioni; Rita Borgheresi; Paola Erba; Fabiola Paiar; Luis Marti-Bonmati; Emanuele Neri
Journal:  Eur Radiol Exp       Date:  2021-05-12

3.  A Research Agenda for Precision Medicine in Sepsis and Acute Respiratory Distress Syndrome: An Official American Thoracic Society Research Statement.

Authors:  Faraaz Ali Shah; Nuala J Meyer; Derek C Angus; Rana Awdish; Élie Azoulay; Carolyn S Calfee; Gilles Clermont; Anthony C Gordon; Arthur Kwizera; Aleksandra Leligdowicz; John C Marshall; Carmen Mikacenic; Pratik Sinha; Balasubramanian Venkatesh; Hector R Wong; Fernando G Zampieri; Sachin Yende
Journal:  Am J Respir Crit Care Med       Date:  2021-10-15       Impact factor: 30.528

4.  Establishment of the large-scale longitudinal multi-omics dataset in COVID-19 patients: data profile and biospecimen.

Authors:  Hye-Yeong Jo; Sang Cheol Kim; Do-Hwan Ahn; Siyoung Lee; Se-Hyun Chang; So-Young Jung; Young-Jin Kim; Eugene Kim; Jung-Eun Kim; Yeon-Sook Kim; Woong-Yang Park; Nam-Hyuk Cho; Donghyun Park; Ju-Hee Lee; Hyun-Young Park
Journal:  BMB Rep       Date:  2022-09       Impact factor: 5.041

5.  Rapid establishment of a COVID-19 perinatal biorepository: early lessons from the first 100 women enrolled.

Authors:  Lydia L Shook; Jessica E Shui; Adeline A Boatin; Samantha Devane; Natalie Croul; Lael M Yonker; Juan D Matute; Rosiane S Lima; Muriel Schwinn; Dana Cvrk; Laurel Gardner; Robin Azevedo; Suzanne Stanton; Evan A Bordt; Laura J Yockey; Alessio Fasano; Jonathan Z Li; Xu G Yu; Anjali J Kaimal; Paul H Lerou; Andrea G Edlow
Journal:  BMC Med Res Methodol       Date:  2020-08-26       Impact factor: 4.615

Review 6.  Considerations for diagnostic COVID-19 tests.

Authors:  Olivier Vandenberg; Delphine Martiny; Olivier Rochas; Alex van Belkum; Zisis Kozlakidis
Journal:  Nat Rev Microbiol       Date:  2020-10-14       Impact factor: 78.297

  6 in total

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