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Heidelberg University


How plants regulate their protein balance

A specific protein complex regulates protein balance in plants, influencing their response to environmental stress. Researchers discovered that this process, known as N-terminal acetylation, maintains the stability of the plant proteome by controlling protein degradation and recycling.

SourceHeidelberg University·JournalNature Communications·DateApr 13, 2026

Ambitious climate policy ensures reduction of CO2 emissions

A recent study by Heidelberg University suggests that countries with more comprehensive climate policy portfolios are achieving greater emission reductions. The research analyzed data from 43 major economies worldwide, finding that targeted policies, such as carbon taxes and renewable energy subsidies, were most effective in cutting em...

SourceHeidelberg University·JournalNature Communications·DateFeb 24, 2026

Psychology study: You can teach an old dog new tricks

A psychology study found that social and emotional skills training benefits both younger and older adults equally. The study showed that participants in their twenties and those between 60-80 years old demonstrated similar improvements in emotional stability and extraversion after an eight-week personality intervention program.

SourceHeidelberg University·JournalCommunications Psychology·DateFeb 17, 2026

Heidelberg physicists bridge worlds of quantum matter

Researchers at Heidelberg University developed a new theoretical framework that connects two fundamental domains of modern quantum physics, describing the emergence of quasiparticles in systems with both mobile and static impurities. The new theory explains how quasiparticles form even in systems with extremely heavy impurities.

SourceHeidelberg University·JournalPhysical Review Letters·DateJan 20, 2026

Malaria parasites move on right-handed helices

Researchers from Heidelberg University discovered that malaria parasites use right-handed helices to navigate through tissues, a key finding with implications for improving drug and vaccine testing. The parasite's asymmetrical body plan enables it to control its motion and transition between compartments more efficiently.

SourceHeidelberg University·JournalNature Physics·DateNov 24, 2025

How plants regulate adapting to drought

A team of scientists at Heidelberg University has discovered a protein complex in chloroplasts that triggers the closure of microscopic pores on leaves to prevent water loss. This hormone, abscisic acid, is formed via biosynthesis and ensures plant survival during extreme drought conditions.

SourceHeidelberg University·JournalNature Communications·DateOct 9, 2025

Key mechanism for Alzheimer’s disease discovered

Researchers at Heidelberg University have discovered a key mechanism for Alzheimer's disease, identifying a neurotoxic protein-protein complex responsible for nerve cell death and cognitive decline. A novel pharmacological inhibitor, FP802, has shown promising results in slowing disease progression.

SourceHeidelberg University·JournalMolecular Psychiatry·DateAug 26, 2025

Playing dominos: How an artificial protein emerges from fitting together individual components

Researchers at Heidelberg University developed an AI model called ProDomino to engineer artificial proteins with unique properties. The tool forecasts how individual protein subunits should be fitted together to create a functional, adjustable new protein, opening up applications in biotechnology and medicine.

SourceHeidelberg University·JournalNature Methods·TypeComputational simulation/modeling·DateAug 5, 2025

Spliceosome: How cells avoid errors when manufacturing mRNA

Researchers at Heidelberg University have successfully depicted a faultily 'blocked' spliceosome and reconstructed its recognition and elimination process. This breakthrough provides new insights into the quality control mechanism of the complex molecular machine, shedding light on how cells ensure accurate mRNA production.

SourceHeidelberg University·JournalNature Structural & Molecular Biology·DateFeb 7, 2025

3D laser printing with bioinks from microalgae

A research team at Heidelberg University has successfully developed a new generation of biocompatible materials for additive manufacturing using microalgae. The materials were extracted from the raw materials of diatom and green alga species and proved to be suitable as inks for high-resolution 3D laser printing.

SourceHeidelberg University·JournalAdvanced Materials·DateAug 9, 2024