Risk assessment of NIS introduction and establishment, habitat vulnerability to NIS and estimation of impacts on European Biotopes

The Internal Joint Initiative (IJI), conceived by LifeWatch ERIC in 2019,  provides scientific communities working in biodiversity and ecosystem research with more innovative and comprehensive dedicated digital analysis and storage facilities.  Construction of the next generation Virtual Research Environment (VRE) has been guided by the data requirements of five validation cases on Non-indigenous and Invasive Species (NIS), the results of which were delivered at the LifeWatch ERIC NIS Research Workshop in May 2021.

This page summarises the Biotope validation case, which addresses the risks of NIS being introduced and becoming established across large assemblages of animal and plant species, known as Biotopes., throughout Europe. By considering the vulnerability of certain types of habitats, the Biotope workflow, developed by the ICT staff of LifeWatch, is able to advise agencies involved in environmental management and conservation about trends on enormous temporal and spatial scales.

Risk assessment of NIS introduction and establishment, habitat vulnerability to NIS and estimation of impacts on European Biotopes

Background
Information about the incidence and impact of Non-indigenous and Invasive Species (NIS) are often scattered across different spatial, temporal and taxonomic scales and, therefore, it can be difficult to draw any comprehensive conclusion about the most vulnerable ecosystems or map the areas more at risk of biological invasion. Occurrence data are usually collected using a variety of sampling approaches and the impact of NIS can affect ecosystems at any biological scale (e.g., individuals, populations, communities, etc.) and with different degrees of severity. The heterogeneity of species occurrence data and the complexity of multiple effects acting at different biological scales and determining ecosystem-dependent changes make estimations of NIS incidence and impact difficult on large geographical scales.

Introduction
Comprehensive, standardised and modular methods to assess both incidence and impact of NIS at different spatial scale (e.g., continental, regional, local) are required to support management and conservation actions and to prioritise areas of intervention. To achieve this objective, researchers have developed two standardised approaches to quantify the incidence and the impact of NIS on ecosystems respectively by means of: occurrence cubes and analysis of the Cumulative IMPacts of invasive ALien species (CIMPAL). Occurrence cubes consist of species occurrence data aggregated on a three-dimensional space (cube) whereby the three dimensions considered are taxonomic, temporal and spatial. Data cubes allow the homogenisation and aggregation of heterogeneous data collected using different methods and standards. The CIMPAL model allows the mapping of cumulative negative impacts of NIS on different ecosystems (marine, freshwater, terrestrial) on the basis of existing evidence. NIS impacts can be additionally mapped according to the main associated pathways of introduction and the relative importance of species on cumulative impacts can be inferred. Using these two standardised methodologies, vulnerability map of biotopes can be produced in order to identify hot spots particularly threatened by NIS and that, in turn, would require special protection and maintenance.

Aims
This validation case aims at using the occurrence cube approach and the CIMPAL model to map ecosystem and habitat type vulnerability at continental scale, inferring the relevance of key risk factors (e.g. vectors of invasion) and intrinsic resistance/resilience components (e.g. native biodiversity, food web structure, etc.) and design scenarios of change, in the context of expected climate changes, for ecosystem and habitat types found highly vulnerable to NIS.

The workflow developed offers a valuable tool that may assist policy makers and managers in their efforts to develop strategies for mitigating the impacts of invasive species and improving the environmental status of marine waters. The method, although tested on the the marine environment, can easily be transferred to the terrestrial environment as well.

The Biotope vulnerability workflow will soon be available on this page.

 

Open Knowledge Map

 

Bulgaria

The Bulgarian National Distributed Centre is represented by the  Agricultural University-Plovdiv.

To know more about how Bulgaria contributes to LifeWatch ERIC, please visit our dedicated webpage.

Spain

The Spanish National Distributed Centre is supported by the Ministry of Science, Innovation and Universities, the Regional Government of Andalusia and the Guadalquivir River Basin Authority (Ministry for Ecological Transition-MITECO). Moreover, Spain is the hosting Member State of LifeWatch ERIC, the location of its Statutory Seat & ICT e-Infrastructure Technical Office (LifeWatch ERIC Common Facilities). 

To know more about how Spain contributes to LifeWatch ERIC, please visit our dedicated webpage.

Slovenia

The Slovenian National Distributed Centre is led by the Research Centre of the Slovenian Academy of Sciences and Arts (ZRC SAZU). It focuses on the development of technological solutions in the field of biodiversity and socio-ecosystem research.

To know more about how Slovenia contributes to LifeWatch ERIC, please visit our dedicated webpage.

Portugal

The Portuguese National Distributed Centre is managed by PORBIOTA, the Portuguese e-Infrastructure for Information and Research on Biodiversity. Led by BIOPOLIS/CIBIO-InBIO – Research Centre in Biodiversity and Genetic Resources, PORBIOTA connects the principal Portuguese research institutions working in biodiversity.

To know more about how Portugal contributes to LifeWatch ERIC, please visit our dedicated webpage.

Netherlands

The Dutch National Distributed Centre is hosted by the Faculty of Science of the University of Amsterdam. Moreover, The Netherlands hosts one of the LifeWatch ERIC Common Facilities, the Virtual Laboratory and Innovation Centre.

To know more about how The Netherlands contributes to LifeWatch ERIC, please visit our dedicated webpage.

Italy

The Italian National Distributed Centre is led and managed by the Italian National Research Council (CNR) and is coordinated by a Joint Research Unit, currently comprising 35 members. Moreover, Italy hosts one of the LifeWatch ERIC Common Facilities, the Service Centre.

To know more about how Italy contributes to LifeWatch ERIC, please visit our dedicated webpage.

Greece

The Greek National Distributed Centre is funded by the Greek General Secretariat of Research and Technology and is coordinated by the Institute of Marine Biology, Biotechnology and Aquaculture of the Hellenic Centre for Marine Research, in conjunction with 47 associated partner institutions.

To know more about how Greece contributes to LifeWatch ERIC, please visit our dedicated webpage.

Belgium

The Belgian National Distributed Centre makes varied and complementary in-kind contributions to LifeWatch ERIC. These are implemented in the form of long-lasting projects by various research centres and universities distributed throughout the country and supported by each respective political authority.

To know more about how Belgium contributes to LifeWatch ERIC, please visit our dedicated webpage.