“The global community must take action”
Peer-Reviewed Publication
Updates every hour. Last Updated: 1-Aug-2025 10:11 ET (1-Aug-2025 14:11 GMT/UTC)
Since March 2022, the global community has been negotiating a global plastics treaty within the framework of the United Nations Environment Programme (UNEP) – but no agreement has been reached so far. From 5 to 14 August, the next round of negotiations in Geneva (Intergovernmental Negotiating Committee (INC) 5.2) will make another attempt to reach a legally binding agreement aimed at ending global plastic pollution. Plastic pollution harms not only the environment and human health but also the climate. Environmental chemist Prof. Dr Annika Jahnke and ecotoxicologist Dr Dana Kühnel from the Helmholtz Centre for Environmental Research (UFZ) are advocating cooperation between the scientific, regulatory, industrial, and civil society sectors in order to achieve far-reaching improvements in pollution levels as quickly as possible. Within the INC 5.2 negotiations, they will support the “Scientists’ Coalition for an Effective Plastics Treaty” and the German delegation.
Goethe University Frankfurt has been successful with several proposals in the Hessian State Offensive for the Development of Scientific and Economic Excellence (LOEWE): the religion research project “DynaRel” will receive €19 million in funding over the next four years as the only LOEWE Center in the 18th funding round. The new LOEWE Research Cluster “Lipid Space,” which investigates the role of lipophilic substances in tissue self-regulation, will also receive €4.3 million over four years. Goethe University is also a partner in the medical technology LOEWE Research Cluster “MultiDrug-TDM”, led by TU Darmstadt, and will also receive funding in the LOEWE-Exploration line for a physics project on the structure of water in nanopores.
Using energy piles for geothermal heat exchange in buildings offers a sustainable alternative to traditional temperature regulators. However, designing these systems is often complex. Now, researchers from Shibaura Institute of Technology, Japan, have developed a simplified modeling framework to improve the design of energy pile systems. Using a combination of finite element modeling and field testing, they quantified the thermal interference between piles and soft clay soil—offering insights for quicker and enhanced geothermal performance.
- The HeH⁺ ion was the first molecule to form in the early universe, before the first stars were born.
- Researchers have investigated reactions of HeH+ with hydrogen atoms under conditions similar to those in the early universe for the first time, revealing significant discrepancies with previous theories.
- The results significantly impact our understanding of the early chemistry of the universe and the processes that contributed to the formation of the first stars.