Planting the future: Mizzou researchers put AI to work on the farm
Peer-Reviewed Publication
Updates every hour. Last Updated: 21-Oct-2026 00:16 ET (21-Oct-2026 04:16 GMT/UTC)
University of Missouri researchers have found that artificial intelligence and variable-rate seeding can help farmers improve profits and use resources more efficiently by tailoring planting decisions to different areas within a field rather than using a one-size-fits-all approach.
Europe faces a growing pollinator crisis that could threaten food security, biodiversity and a range of ecosystem services if current trends continue. A new white paper, produced by 135 researchers from eight EU-funded research consortia, presents 15 science-based recommendations to halt and reverse the decline of wild pollinators.
The report highlights that pollinators, including bees, butterflies and hoverflies, are essential not only for agricultural production but also for sectors ranging from medicine and textiles to tourism and cultural heritage. However, efforts to protect them are often undermined by fragmented policymaking, with responsibility spread across agriculture, environment, chemicals regulation, trade and finance.
The researchers call for pollinator protection to become a clear and measurable priority across policy areas. They also emphasize the need to address the underlying drivers of biodiversity loss, improve knowledge transfer between science and practice, and strengthen education on ecosystems and pollinators across disciplines.
The white paper builds on the latest scientific evidence gathered through eight EU-funded projects, including BUTTERFLY, RestPoll, ProPollSoil and PolinERA, and provides a roadmap for policymakers, practitioners and stakeholders seeking to safeguard Europe's pollinators and the benefits they provide to society.
Researchers from Aarhus University’s Department of Agroecology contributed to the report, including Claus Rasmussen, Martin Hvarregaard Thorsøe, James Williams, Johan Axelman and Chris Topping.
White paper: https://zenodo.org/records/20715670
Alois Rainer, Federal Minister for Agriculture, Food and Home Affairs, visited the German Federal Institute for Risk Assessment (BfR) in Berlin-Marienfelde today, 7 July 2026. The Minister’s programme included attending the Institute’s General Assembly, a meeting with the BfR management and a tour of the BfR experimental farm. The main topics of discussion were consumer health protection and the role of scientific policy advice. The BfR is a scientifically independent research institute operating under the Ministry’s remit.
On the occasion of his visit, Federal Minister Alois Rainer stated: “Close cooperation between research and policy is essential for identifying risks at an early stage and taking targeted countermeasures. Through its work, the BfR makes a significant contribution to ensuring that food, substances and products in Germany and Europe are safer. At present, hybrid threats to critical infrastructure are at the top of the list of potential – and, unfortunately, very real – risks. Of course, our food and feed can also become targets of attack. We want to protect people from this hazard as effectively as possible. We are in the process of establishing key structures and significantly strengthening cooperation between the federal government and the German federal states in the domain of food and feed defence. We are also driving forward activities in this domain at federal level.”
“The timely identification of new health risks to the population is one of the BfR’s key tasks,” said BfR President Prof. Andreas Hensel. “Scientific assessment, policy advice and public information are the BfR’s key tools in this regard. Current issues such as microplastics and PFAS compounds – also known as ‘forever chemicals’ – are causing concern among many people. They are examples of just how important it is for the BfR to advise policymakers and educate the public on a scientific basis.”
Some plants are thought to supplement their carbon needs by obtaining carbon through underground fungal networks connected to other plants. This symbiotic relationship is known as mycoheterotrophy. Researchers from Chiba University found evidence that Gentiana squarrosa, a Gentian family plant, can receive carbon through arbuscular mycorrhizal fungal networks in addition to photosynthesis. The findings support the existence of partial mycoheterotrophy and could improve understanding of underground plant–fungus interactions.