KEYNOTE SPEAKERS
The information on this page is updated continuously.

Claas Nendel
Claas Nendel is co-head of the ZALF Research Area „ Simulation and Data Science“, in which he also leads the working group on „Landscape Modelling“. A studied geo-ecologist (Braunschweig, Germany; Ås, Norway), he received his PhD from Braunschweig in 2002 and qualified for lecturer (Habilitation) at Berlin University of Technology in 2014. Since 2020 he is jointly appointed professor with the University of Potsdam. With more than 25 years in agricultural research, Prof. Nendel has specialised in integrated modelling of water, nitrogen, and carbon dynamics, crop growth, and farm economics. His primary focus is on the carry-over effects within crop rotations and their implications for yields, emissions and soil health, also across large areas with remote sensing data as input. Prof. Nendel has served as the President of the European Society for Agronomy and as chairman of the German Soil Science Society plant nutrition section and currently chairs the Climate Change platform within the German Agricultural Research Alliance and leads various modelling activities in international networks, including AgMIP and ISMC. He is furthermore affiliated with the Global Change Research Institute in Brno, Czechia.
He is going to make a presentation titled "How does climate action look like on fields, and how do we know that it matters?".
In order to feed the world sustainably, we need to constantly review the technologies and concepts we use to produce food and how we can exploit the potential to further increase nutrient and water use efficiency and reduce pesticide use to protect the environment and climate. The political framework for these efforts has already been established, but further measures are needed to meet new challenges. Policymakers are increasingly relying on scientific findings, with experiments, theories and simulations forming an important interface. Experiments provide empirical evidence, theories offer conceptual understanding, and simulations enable predictions and scenario testing, which together enable informed decision-making. Simulation models are powerful tools that help us understand complex agricultural and environmental systems, but they still have limitations when it comes to capturing all the complexities of the real world. Therefore, experiments on various scales remain essential, complemented by continuous environmental monitoring using satellites and other large-scale measurement systems to track changes and impacts worldwide. This lecture begins with global challenges, but then gradually breaks them down to the field scale in order to highlight the challenges of observation and their significance for modelling concepts. It discusses how both methods can provide meaningful information for political decisions and how research on a field and landscape scale can contribute to a balanced joint design of climate-related measures. The lecture reflects on the role of scientists in this context and concludes with a call for objective, evidence-based findings for sound policy and the question of how we can further promote social awareness and urgency without undermining the integrity of science.

Davide Cammarano
Davide Cammarano is a Professor of Environmental Crop Science at the Department of Agroecology, Aarhus University. His scientific expertise includes precision agriculture, agronomy, application and development of crop models, and climate change impacts and adaptation in agriculture. He holds a PhD from the University of Melbourne, Australia, and postdoctoral experience from Queensland University of Technology and the University of Florida (USA). He is currently working on evaluating the agronomic and environmental efficiencies and implications of site-specific fertilization at field level. Through this work, funded by NovoNordisk Foundation where his is the main PI, he aims at developing a nitrogen management system that minimizes nitrogen losses in arable farming. This is achieved by combining sensing of soil and crop at high spatial and temporal resolution with crop-soil models. And evaluated in farmers’ fields. At the same time, he is also applying agricultural system models to evaluate the value of agronomic adaptation in northern Europe (PRECILIENCE project). He also coordinates a Horizon EU project (SOILRES) and participate as WP Leader in other EU-funded projects. He is currently the Chief Editor of Precision Agriculture (Springer Nature) and the President Elect of the International Society of Precision Agriculture.
He is going to make a presentation titled "System-based Precision Agriculture for Sustainable Crop Production".
Nitrogen (N) fertilizer mismanagement in agriculture leads to serious environmental issues, including nitrate leaching and greenhouse gas emissions. Despite the availability of digital tools since the 1990s, their application to N fertilization has largely failed — partly due to disconnected research and the complexity of translating science into practical field-level recommendations. This project proposes a framework to bridge these gaps through strategic and tactical N management, combining high-resolution soil and crop sensing with crop-soil models and a digital twin approach to enable real-time monitoring and future state predictions. A core component is a long-term On-Farm Experimentation and Research infrastructure engaging farmers and other key stakeholders to generate the data needed for better decision-making. The project aims to reduce environmental footprints while preserving economic viability, and its outcomes include a validated site-specific N management system, stronger interdisciplinary collaboration, and capacity building through education and an international research network. In the long term, the work seeks to equip farmers and policymakers with the tools to improve crop production while reducing climate and environmental impacts.

Eric Justes, PhD & Research Director (HDR)
CIRAD (Agricultural Research for Development)
His research background is Agronomist and Modeler, integrating soil science, ecophysiology, agronomy & agroecology (specialist of low input cropping systems, multi-service cover crops and intercropping). Eric's main expertise concerns holistic researches on diversified cropping systems, cover crops and intercrops in temperate and tropical conditions. He has managed a research team during a decade. He is a coordinator of French & European / International projects. He is member and was head of the STICS soil-crop model team (STICS is in the Top 5 models at world level). He has work since 1989 at INRA (now INRAE) in Agronomic Research in various locations and research centers in France, and recently at CIRAD (The French Agricultural Research and International Cooperation Organization) since 2017. Right now, Eric is a Manager of Research at CIRAD as Director of PERSYST Department (Montpellier, France), also member of the governing board of CIRAD and participant in the collegial scientific direction of CIRAD.

Agnes van den Pol-van Dasselaar
Agnes van den Pol-van Dasselaar is Professor of Grasslands and Grazing at Aeres University of Applied Sciences, the Netherlands. She has a background in agronomy and obtained her PhD on methane emissions from grasslands. Since joining Aeres in 2015, she has held leading roles in research projects at national and European level. Previously, she spent more than 20 years at Wageningen University & Research, where she held senior positions, including Head of Grass and Forage Systems.
Her research spans grazing, grass and forage management, ecosystem services, greenhouse gas emissions, and sustainable livestock production systems, with a particular focus on how farmers’ mindsets and their social and physical environments influence ecosystem services. Her work connects researchers, farmers, advisers, students, and industry partners across Europe.
She has played a key role in the European Grassland Federation (EGF). She founded the EGF Working Group “Grazing” in 2008 and chaired it for 14 years. She served as President of the Federation from 2022 to 2024 and currently serves as Federation Secretary and member of the Scientific Advisory Board. In 2025, she edited ‘Advances in temperate grassland science and management’, an international volume synthesising current knowledge on sustainable grassland systems.
She is going to make a presentation titled "Beyond productivity: co-developing a stakeholder-driven framework to assess multifunctionality in managed grasslands and livestock systems".
Managed grasslands are central components of European farming systems, providing forage for livestock while simultaneously contributing to biodiversity, nutrient cycling, soil carbon sequestration, water regulation, landscape quality and rural livelihoods. These multiple functions make grasslands a prominent example of multifunctional agriculture. However, their contributions are often assessed through isolated indicators focused on productivity, environmental pressure or economic performance. Such approaches do not fully capture the diversity of ecosystem services delivered by managed grasslands, nor the variation in societal priorities across regions and farming contexts.
This keynote presents a stakeholder-driven approach to assessing the multifunctionality of managed grasslands and livestock systems. The underlying premise is that there is no single optimal grassland. The functions provided by grasslands differ depending on management, biophysical conditions and the societal values that are emphasised. Consequently, meaningful assessment requires the integration of agronomic, ecological and socio-economic perspectives. Within the Horizon Europe project PATHWAYS (GA 101000395), a framework was co-developed linking natural capital, ecosystem processes and ecosystem service delivery at different scales. Farmers, scientists, teachers, advisors and policymakers contributed through multilingual questionnaires and focus group discussions to identify and prioritise the societal benefits associated with grassland-based livestock systems.
In a questionnaire completed by approximately 900 respondents across Europe, food provision received the highest average ranking. Other highly valued benefits included human health, biodiversity, animal health and welfare, nutrient cycling, rural livelihoods, soil carbon sequestration, income and employment, reduced greenhouse gas emissions and reduced nutrient losses. These priorities were linked to biophysical indicators and incorporated into a qualitative valuation framework. Applying this framework to contrasting grassland-based livestock scenarios enabled rapid visualisation of trade-offs and synergies among ecosystem services through comparative tables and integrated assessments.
The findings demonstrate that multifunctionality cannot be represented by a single indicator or disciplinary perspective. Stakeholder involvement is therefore not simply an additional communication step, but a necessary component of sustainability assessment. It clarifies which outcomes matter, reveals context-specific priorities and strengthens the alignment between farm practices and societal sustainability goals. Complementary findings from the Horizon Europe project Grazing4AgroEcology (GA 101059626), based on a survey completed by approximately 1,500 respondents across Europe, demonstrate that farmers differ not only in their grazing practices but also in the mindsets and motivations underlying management decisions. Accounting for this behavioural diversity is therefore essential for understanding and assessing the multifunctionality of grassland-based livestock systems.
In conclusion, beyond their role in livestock production, managed grasslands offer valuable lessons for the wider development of sustainable farming systems. Co-developing stakeholder-driven approaches that integrate ecosystem service delivery, stakeholder priorities and farmer decision-making can improve both the evaluation of managed grasslands and the design of future multifunctional agricultural landscapes.

Prof. Ewa Rembiałkowska, PhD
She works at the Department of Functional and Organic Food at the Institute of Human Nutrition at the Warsaw University of Life Sciences.
Her research focuses on the nutritional value and safety of raw materials from organic and conventional production, as well as the impact of organic food consumption on human and animal health. She has published over 200 scientific papers in this field, 62 of which appeared in highly ranked journals (according to the Web of Science). Hirsch index = 26; 2,546 citations excluding self-citations). [14 July 2026]
She is the president of the nationwide M. Górny Organic Farming Forum Association, whose aim is to promote organic farming amongst agricultural producers and processors, to promote its products, and to inspire and support research contributing to the development of organic farming in Poland.
Prof. Rembiałkowska leads a number of national and international research and implementation projects related to organic farming and food. She sits on the boards of several European and global organisations promoting this field (FQH, OFSP, ISOFAR, ENOAT).
She is going to make a presentation titled "The Composition of Organic Food and the Impact of Its Consumption on Human Health".
Organic farming is regulated by European Union law, with the main legal act being Regulation 848/2018. Organic food production is subject to control at every stage: from field to fork. On organic farms, the use of GMOs, synthetic pesticides and synthetic mineral fertilisers is prohibited; only natural plant protection and organic fertilisers, such as green manure, compost, and animal manure, are permitted. Organic animal husbandry prioritises animal welfare and minimises the use of antibiotics. The principles described above affect the composition of both plant and animal crops. In turn, the quality of the food consumed affects consumers' health.
Databases (Elsevier, Wiley, Springer, others) and numerous scientific studies published in journals between 2010 and 2025 were analysed, including our own research conducted at the Department of Organic Food at the Warsaw University of Life Sciences.
Compared to conventional raw materials, organic plant raw materials contain significantly more bioactive compounds important for health – polyphenols, carotenoids, and vitamin C - and considerably fewer residues of harmful pesticides, cadmium, nitrates, and nitrites. Organic milk and meat contain significantly more beneficial omega-3 fatty acids, iron and vitamin E and fewer antibiotic residues than conventional products. Organic processing doesn't use harmful synthetic additives. A diet based on organic products reduces the incidence of preeclampsia in pregnant women, hypospadias in young boys, skin allergies in newborns, middle ear inflammation in children, and lead exposure and oxidative stress in children. In adults, an organic diet reduces the incidence of overweight, obesity, metabolic syndrome, cardiovascular disease, erectile dysfunction in men, type II diabetes, and cancer.
Decision-makers in both the public and private sectors should support the production of organic food. It is necessary to widely promote organic products and educate the public about the quality of organic food and its impact on health.