Horizon 2020 (2014 - 2020)

Does climate change enhance the nanoparticle toxicity of freshwater biofilms? NanoToX

Last update: Feb 1, 2021 Last update: Feb 1, 2021

Details

Locations:UK
Start Date:Jan 9, 2017
End Date:Aug 30, 2019
Contract value: EUR 183,454
Sectors:Environment & NRM, Research
Environment & NRM, Research
Categories:Grants
Date posted:Feb 1, 2021

Associated funding

Associated experts

Description

Programme(s): H2020-EU.1.3.2. - Nurturing excellence by means of cross-border and cross-sector mobility
Topic(s): MSCA-IF-2015-EF - Marie Skłodowska-Curie Individual Fellowships (IF-EF)
Call for proposal: H2020-MSCA-IF-2015
Funding Scheme: MSCA-IF-EF-ST - Standard EF

Grant agreement ID: 706172

Objective
Aquatic ecosystems are threatened by multiple environmental stressors including pollutants and climate change. Considerable progress has been made in understanding the environmental impact of many stressors in recent years, yet new, potentially powerful, toxicants such as engineered nanoparticles (ENPs) continue to emerge in aquatic systems and their effects on these ecosystems remain poorly understood. The release of ENPs into the environment is accelerating , and as the global climate warms, the combined effects of both stressors (ENP + temperature increase) could have significant consequences for aquatic life. As a major step into understanding the climate change-enhanced environmental impacts of ENPs in aquatic ecosystems, we focus on the responses of fluvial biofilms -microbial consortia that drive aquatic primary production and respiration and thus, control nutrient conditions - as key points of ENP entry in to aquatic food webs.
The central goal of NanoTOX is to elucidate how much river warming will affect fluvial biofilms at genetic, metabolic/functional and structural levels, and how the presence of environmental concentrations of ENPs may further stress the communities. The combination of multiple stressors (increased temperature and ENP) is expected to have a profound influence on the fluvial biofilms performance. This objective will be achieved through an innovative, interdisciplinary approach using an array of methods from the fields of ecotoxicology (ecology and toxics), molecular, functional ecology and nanotechnology will be applied.
The proposed interdisciplinary study is a major first step in opening a new research field focussing specifically on biofilms as entry points to the food web and assessing ENP impacts under future climate scenarios. NanoTOX project results therefore will provide valuable information to underpin current updates to European legislation, ENP industry and will address social challenges.

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