SETAC Europe offers a variety of training courses on the Sunday before the meeting begins. These courses cover a range of topics and provide valuable educational opportunities for both members and guests.
The viability of each course depends on the number of participants, so please make sure to register and sign up for the course before the early bird deadline to ensure that your preferred course takes place. You can find the fees for the training courses on the registration page.
Note that all training courses will be held onsite and will not be recorded.
Time: 8:30—12:30
Room: TBD
Course level: Introductory
UTOPIA (the UniT world Open-source model for mIcroplAstic) is a multimedia mass balance model that tracks microplastic pollution in five size classes and four aggregation states in an evaluative environment consisting of 17 compartments representing vertically resolved air, freshwater, coastal water, ocean, soil, beach sand and sediments. This short course introduces the free, open-source web application implementation of UTOPIA (https://utopia-webapp.onrender.com/#). Participants in the training course will be introduced to the UTOPIA conceptual model and process-sub model parameterizations, and get hands-on training by performing mass balance calculations for different emission scenarios of a range of plastic types. Exercises will guide participants to apply the UTOPIA’s web interface to explore how the fate of microplastics in the environment depends on their physical properties, rates and patterns of fragmentation and degradation, and on the environmental compartment receiving emissions. Model outputs, including mass- and particle number concentrations in the multimedia environment and environmental exposure metrics including overall persistence, characteristic travel distance and transferred fraction of plastic pollution to remote target compartments, will be illustrated and discussed. The short course will provide insight into key microplastic properties that determine their fate in the environment, and train participants to apply their own UTOPIA scenario analysis.
After completion of the course, participants be able to:
The course is targeted at students, academics, regulators, and environmental risk assessors interested in understanding plastic pollution. No prior knowledge of mass balance modeling is needed.
Time: 8:30—12:30
Room: TBD
Course level: Introductory
Polymers are ubiquitous materials found in various products, including clothing, cosmetics, wall paints, and medical devices. With many commercially available polymers, the need for effective regulation is paramount. Despite their extensive use, polymers have often been exempted from regulations, leading to a significant data gap regarding their environmental hazards and risks. In contrast to small molecules, polymers are characterized by a heterogeneity in their molecular properties. This means they show distributions in their properties (e.g. in molar mass) instead of a single value. Consequently, different descriptors are needed for a meaningful safety assessment and existing analytical methods and guidelines often fail for polymers. Small molecules, like monomers, additives and stabilizers in polymers behave significantly different than polymers and oligomers. Polymer molecules in solution are again different to polymer particles, namely microplastics. We will dive into the fundamentals of the most relevant analytical methods, from separation techniques to phys-chem properties, used to characterize and describe polymers, to understand their value as well as their problems and challenges in a regulatory context. The course will also provide some regulatory context on how oligomers and polymers are currently handled under the REACH regulation and how this might change in the future.
This training course aims to equip participants with a robust understanding of polymer analytics, emphasizing its significance in regulatory contexts. With the knowledge of the capabilities and limitations of analytical methods, participants will be better prepared to navigate the complexities of polymers, their measured properties and descriptors.
This course is intended for participants with no prior to basic knowledge in polymers with a basic understanding of analytics and regulatory safety assessment.
Time: 8:30—12:30
Room: TBD
Course level: Introductory
Understanding the persistence of chemicals in the environment is crucial to evaluating their long-term risks to human health and the environment. Recent environmental challenges of per- and polyfluoroalkyl substances (PFAS) and (micro)plastic pollution have raised the profile of persistence as an issue of concern, and new regulatory policies have emerged aiming to identify and address persistent substances. Regulatory persistence assessments follow a complex process, utilising information from a variety of sources, including OECD guideline (bio)degradation screening tests and simulation tests, QSARs, field studies and monitoring. These data are then combined together to reach conclusions in a weight-of-evidence approach. This course is designed to provide participants with an introduction to chemical (bio)degradation and persistence assessments in a regulatory context. This will include a background to persistence assessments and how these are implemented under various frameworks, the different types of relevant information considered, and the weight-of-evidence process for arriving at regulatory conclusions. The course will focus on persistence assessments according to European Chemicals Agency (ECHA) guidance, which is applicable to the assessment of industrial chemicals, biocides and pharmaceuticals in the European Union. However, persistence assessment of plant protection products, and under other regulatory regimes will also be addressed. Common challenges with persistence assessments, including addressing difficult substances and substances with complex compositions will be addressed. The course will also provide an overview of the freely available Persistence Assessment Tool (PAT) as a support to practitioners carrying out these assessments.
This course aims to equip environmental risk assessors with knowledge in the following areas:
The course is targeted at professionals already working in environmental risk assessment of chemicals in a regulatory context, or anyone interested in better understanding these frameworks and processes for chemicals management.
Time: 13:30—17:30
Room: TBD
Course level: Intermediate
This course aims to make environmental professionals familiar with a relatively new, more inclusive risk assessment framework that takes advantage of the wide range of information that is often available on the exposure and toxicological effects of environmental pollutants. The technique that is discussed in this course is the use of chemical activity to assess environmental risks. Chemical activity is a well-established basic concept in environmental chemistry that is used to represent how “active” chemical substances are in their environmental state. “Active” means how well they interact with receptors, how they move and translocate, and what toxicological effects they can exert. Concentrations and dosages, which are normally used for environmental risk assessments of pollutants, are often difficult metrics to use because concentrations in different environmental media or toxicological tests can often not be easily compared, as it amounts to "comparing apples and oranges." As a result, much available exposure and toxicological information never makes it into a risk assessment. The need for more inclusive novel techniques for risk assessment is especially urgent when replacing animal tests with in-vitro tests.
In this course, you will learn how to:
The course will further show examples of how activity-based risk assessments have been performed for certain POPs and PFAS and how these risk assessments have been perceived in judicial evaluations.
The course is aimed at environmental toxicologists and chemists of all types because the subject matter applies to all involved in exposure and toxicological effects research. The course material is especially useful for those involved in risk assessment, including academics, government and business oriented scientists.e.g. the course is targeted at professionals already working in Environmental Risk Assessment. Scientists with a biology background will find this course especially interesting because it covers key chemical principles not covered in most biology and toxicology programs.
Time: 13:30—17:30
Room: TBD
Course level: Introductory
This course will provide participants with a comprehensive introduction to landscape-level ecological risk assessment using the modular, open-source xLandscape framework. Participants will learn how to apply existing xLandscape models for exposure and effect modeling, as well as how to develop new components for the system.
xLandscape is a modular, flexible, and transparent framework for spatiotemporally explicit landscape modeling. It allows for the integration of various data sources and models to simulate complex environmental processes at the landscape level. The course will cover:
• The fundamentals of landscape-level risk assessment.
• The component-based software architecture of xLandscape.
• The application of models for Aquatic Risk, Water Plants, and Pollinator Risk.
• Hands-on exercises in applying xLandscape to real-world case studies.
Upon completion of this course, participants will be able to:
This course is designed for a broad audience of environmental scientists, including students, academic researchers, industry professionals, and regulatory scientists, who are interested in landscape-level ecological risk assessment. A basic understanding of environmental modeling and risk assessment is recommended, but no prior experience with xLandscape is required.
Time: 8:30—17:30
Room: TBD
Course level: Intermediate
Safe and Sustainable by Design (SSbD) is a framework developed by the European Commission to embed safety and sustainability at the core of innovation in chemicals and advanced materials' life cycles. Rather than treating these aspects as afterthoughts, SSbD promotes their integration from the earliest stages of product and process development.
This course provides academic researchers and industry professionals with a thorough grounding in SSbD principles, including safety assessment (human health and environmental risks), environmental sustainability assessment (LCA, social LCA, lifecycle costing), and regulatory and market drivers. Participants will gain hands-on experience applying SSbD approaches to real industrial case studies using advanced tools such as New Approach Methodologies (NAMs) and the SUNSHINE e-infrastructure platform.
Designed for scientists, engineers, R&D teams, and innovation leaders, this training supports practical decision-making by combining functionality, safety, and sustainability performance. Attendees will leave with actionable insights and tools to implement SSbD in their own research projects, product pipelines, or innovation strategies–driving more responsible and future-proof design.
This hands-on training course aims to prepare participants with the knowledge and practical skills needed to apply Safe and Sustainable by Design (SSbD) principles, methods and tools to industrial case studies. The course focuses on integrating safety, sustainability, and innovation in the design and development of products and processes, fostering a proactive approach to risk management and environmental responsibility.
The course is targeted to professionals in the fields of Safety or Sustainability, willing to learn about Safe and Sustainable by Design (SSbD) and approaches for safety and sustainability in innovation.
Time: 8:30—17:30
Room: TBD
Course level: Introductory
Mesocosm studies are the highest experimental tier in the risk assessment for aquatic primary producers and invertebrates for plant protection products, whilst they are also considered in EU biocide and REACH guidelines. Thus, they are often referred to in dossiers or reports, but many people might not have seen such test systems, the sampling methods and the organisms living in such model ecosystems. This short course offers a visit to a GLP-regulatory mesocosm field site in Aachen, less than 40 km away from Maastricht. The course will include short presentations on the regulatory background of micro- and mesocosm studies, the different types of systems which are used, the test designs and sampling methods and finally how the data are used to derive Regulatory Acceptable Concentrations and used in risk assessment. However, the focus of the course will be on the practical demonstrations. Therefore, after the lunch break, the mesocosms will be visited and test item application and sampling methods for water, algae, macrophytes, zooplankton, and macroinvertebrates will be demonstrated. In addition, plankton and macro-organisms will be shown under binoculars or microscopes. Strengths and weaknesses of such studies will be discussed with the course participants
The objective of the course is to make risk assessors, either from regulatory authorities or industry, more familiar with such test systems, the organisms which can be assessed and the methods for application of test items, measurements and samplings and evaluation of data.
Ecotoxicologists or risk assessors, either from industry or regulation, who might work with mesocosm study reports or are generally interested in such community-level studies
Time: 8:30—17:30
Room: TBD
Course level: Introductory
Mechanistic effect models (MEMs) examine how chemicals impact individuals and ecological systems, including populations and communities. Their potential to support environmental risk assessment (ERA) and management is increasingly recognized, and significant experience has been gained in their application in recent years.
This training course introduces the main principles of effect modelling, model development, documentation and evaluation, important terminology and good modelling practice. It particularly addresses the state-of-the-art of effect modelling in the context of ERA of chemicals. Specifically, it focuses on organism-based models (TK-TD) and population models, including their particular use for ERA. The participants can expect a combination of introductory presentations, example case-studies which demonstrate the applicability of effect modelling in ERA, hands-on experience with model application and Q & A sessions.
The aim is to introduce the participants to the world of mechanistic effect modelling and its applications in environmental risk assessments. The participants will learn about the basics of effect modelling to better understand its potential and gain first insights into model development, documentation, evaluation and application. They will get first-hand experience on different models by exploring simple example cases and have the opportunity for questions and discussions.
This course is targeted at participants who are interested in a general introduction to mechanistic effect modelling and a first overview of how it can be used in the context of ERA. It is open to participants from any scientific background with an interest in applying effect modelling in the context of ecotoxicology. This includes students as well as professionals working in government agencies, industry, academia or NGOs who have little to no experience in this field.
Time: 8:30—17:30
Room: TBD
Course level: Advanced
The open source statistical environment R is an extremely powerful and versatile statistical environment. Over the last two decades, there has been an amazing development in terms of added capabilities through extension packages, making it the preferred data analytic toolbox of statisticians and researchers in many applied sciences. Moreover, it encourages collaborative and reproducible research. It has become much easier to R since RStudio was introduced. RStudio is an integrated environment for R with a powerful syntax-highlighting editor and many other features, including integration of the R Markdown language, which has dramatically changed how R may interface with other languages and systems, allowing results from statistical analyses to be conveniently output in formats such as PDF, HTML, or MS Word. Many recent advances in statistical approaches and techniques are only implemented in R or implemented to a larger extent in R compared to competing statistical software. This is in particular true when it comes to some statistical approaches commonly used in ecotoxicology (e.g., dose-response analysis).
In this short course, the primary focus will be on giving the participants practical hands-on experience and insights on using R for analyzing ecotoxicological data. Relevant recent statistical methodological advances and concepts will be touched upon. Specifically, analysis of variance and linear regression will be briefly revisited before introducing extensions to censored data and nonlinear regression and more general dose-response analysis, logistic and Poisson regression models, as well as linear, logistic and nonlinear mixed-effects models. More advanced concepts such as robust standard errors, single-step multiplicity adjustments, benchmark dose estimation, and species sensitivity distributions will also be discussed, if time permits.
The course is intended for PhD students as well as senior researchers and scientists in ecotoxicology and environmental sciences. An elementary understanding of statistical concepts is a prerequisite.
Sign up for a training course when you register for the meeting. To add a course to your existing registration, follow these steps:
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