The aim of the comprehensive EU project “EU-ToxRisk” is to lay new foundations for a paradigm shift in toxicology – towards more efficient and animal-free hazard and risk assessment of chemicals. An international consortium of 39 partner organizations from academia, industry and regulatory authorities will participate in this project receiving funding of 30 million euros. The Fraunhofer Institute for Toxicology and Experimental Medicine ITEM is bringing in its expertise with a focus on inhalation toxicology. EU-ToxRisk will be kicked off in Egmont aan Zee in The Netherlands) in mid-January 2016 and will run for a period of six years.
The European Commission is funding this large-scale project “EU-ToxRisk” under its research and innovation funding scheme “Horizon 2020”. The aim is to integrate the results of the research project into future regulatory chemical safety and risk assessment and to establish new assessment concepts – not only in Europe, but worldwide. These new concepts will involve cutting-edge, human-relevant in-vitro non-animal methods and in-silico computational technologies to translate molecular mechanistic understanding of toxicity into safety testing strategies.
“We are breaking new ground in toxicology, towards mechanism-based toxicological assessment. In-vitro methods, those that are human-relevant in particular, and in-silico methods are playing a crucial role in this paradigm shift. In-silico approaches today are no longer limited to deriving the toxicity of a substance from its structure, but also include toxicity and effect profiles,” says Dr. Annette Bitsch, head of the Fraunhofer ITEM Division of Chemical Risk Assessment. She and her team will bring to this EU project their expertise in inhalation toxicology in particular, which is the specialty of the Fraunhofer researchers.
The Fraunhofer scientists will contribute the experience they have gained with alternative methods in evaluating inhalation toxicity. For example, the P.R.I.T. ®-ExpoCube® exposure system developed at the Fraunhofer ITEM allows them to study airborne substances by exposing cells or vital tissue samples from the respiratory tract directly at the air/liquid interface. Suitable in-vitro or ex-vivo models are cultures of cells from the respiratory tract or vital lung tissue samples of human or animal origin, precision-cut lung slices (PCLS) in particular.
With its broad experience gained during development and application of toxicological databases and the use of read-across methods in regulatory contexts, the Fraunhofer ITEM can make an important contribution to the EU-ToxRisk project, in particular by developing in-silico methods.
Coordinated by Bob van de Water, Professor of Toxicology at Leiden University (The Netherlands), EU-ToxRisk intends to become the European flagship for animal-free chemical safety assessment. The project will integrate advancements in cell biology, “omics” technologies, systems biology and computational modelling to define the complex chains of events that link chemical exposure to toxic outcome. The consortium will provide proof of concept for a new mechanism-based chemical safety testing strategy with a focus on repeated-dose systemic toxicity as well as developmental and reproductive toxicity. Importantly, novel mechanism-based test methods will be integrated into fit-for-purpose testing batteries that are in line with the regulatory framework and will meet the requirements of industrial implementation. EU-ToxRisk will develop new quantitative risk assessment approaches based on understanding of so-called “Adverse Outcome Pathways” incorporating all mechanistic toxicity data available in the public domain. It will also achieve a rapid improvement of so-called “read across” approaches, to allow existing data gaps to be filled by means of alternative methods.
Dr. Annette Bitsch; +49 511 5350-302
Dr. Cathrin Nastevska; +49 511 5350-225
The text of this press release including an image for download can be found on our homepage at
Presse Institute | Fraunhofer-Gesellschaft
Innovation Award of the United Nations Environment Programme for PhD Student from ZMT
22.03.2018 | Leibniz-Zentrum für Marine Tropenforschung (ZMT)
ERC Project set to boost application of adhesive structures
19.03.2018 | INM - Leibniz-Institut für Neue Materialien gGmbH
At the Hannover Messe 2018, the Bundesanstalt für Materialforschung und-prüfung (BAM) will show how, in the future, astronauts could produce their own tools or spare parts in zero gravity using 3D printing. This will reduce, weight and transport costs for space missions. Visitors can experience the innovative additive manufacturing process live at the fair.
Powder-based additive manufacturing in zero gravity is the name of the project in which a component is produced by applying metallic powder layers and then...
Physicists at the Laboratory for Attosecond Physics, which is jointly run by Ludwig-Maximilians-Universität and the Max Planck Institute of Quantum Optics, have developed a high-power laser system that generates ultrashort pulses of light covering a large share of the mid-infrared spectrum. The researchers envisage a wide range of applications for the technology – in the early diagnosis of cancer, for instance.
Molecules are the building blocks of life. Like all other organisms, we are made of them. They control our biorhythm, and they can also reflect our state of...
University of Connecticut researchers have created a biodegradable composite made of silk fibers that can be used to repair broken load-bearing bones without the complications sometimes presented by other materials.
Repairing major load-bearing bones such as those in the leg can be a long and uncomfortable process.
Study published in the journal ACS Applied Materials & Interfaces is the outcome of an international effort that included teams from Dresden and Berlin in Germany, and the US.
Scientists at the Helmholtz-Zentrum Dresden-Rossendorf (HZDR) together with colleagues from the Helmholtz-Zentrum Berlin (HZB) and the University of Virginia...
Novel highly efficient and brilliant gamma-ray source: Based on model calculations, physicists of the Max PIanck Institute for Nuclear Physics in Heidelberg propose a novel method for an efficient high-brilliance gamma-ray source. A giant collimated gamma-ray pulse is generated from the interaction of a dense ultra-relativistic electron beam with a thin solid conductor. Energetic gamma-rays are copiously produced as the electron beam splits into filaments while propagating across the conductor. The resulting gamma-ray energy and flux enable novel experiments in nuclear and fundamental physics.
The typical wavelength of light interacting with an object of the microcosm scales with the size of this object. For atoms, this ranges from visible light to...
13.04.2018 | Event News
12.04.2018 | Event News
09.04.2018 | Event News
24.04.2018 | Information Technology
24.04.2018 | Earth Sciences
24.04.2018 | Life Sciences