More Than a Snapshot: Proteins in Motion
A single snapshot is often not enough to understand how biological molecules work. Proteins, for example, can change their shape depending on their environment—sometimes ...
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Self-Destruction of Glioblastoma
With a unique RNA molecule, a team led by researchers from Jülich has successfully targeted and destroyed glioblastoma cancer cells. The so-called selectively expressed ...
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Lipid Fibrils: A New Building Block in Understanding Alzheimer’s
Lipids play a crucial role in the development of Alzheimer’s disease, but the details of this process were previously unknown. A team of scientists ...
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Elevating our Understanding of Inner Ear Sound Amplification
Our ability to detect different sounds intensities and pitches with great sensitivity is largely due to the inner ear’s ability to decode sound waves ...
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Development of a Retina-Like Biochip
An international team led by Jülich and Helmholtz Information researcher Francesca Santoro has developed an intelligent biochip that imitates the retina of the eye. ...
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How do synaptic vesicles accumulate glutamate?
Scientists from the Forschungszentrum Jülich from the Helmholtz Research Field Information and the University of South Florida have investigated and intricately modeled the processes ...
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Indication of Parkinson’s preform in stool sample
The so-called isolated REM sleep behavior disorder is a disease that can indicate Parkinson’s disease well in advance. A research team led by Prof. ...
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High-resolution microscopy for the analysis of protein complexes
Researchers at Forschungszentrum Jülich from the Helmholtz Research Field Information and the Berlin Institute of Health at Berlin’s Charité Hospital have developed a novel ...
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Critical point in brain information processing confirmed using quantum field theory
Scientists at Forschungszentrum Jülich from the Helmholtz Research Field Information have used a commonly used technique from quantum field theory to study how the ...
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How different prion variants lead to different disease patterns
Misfolded prion proteins are considered to trigger neurodegenerative diseases. Researchers from Heinrich Heine University Düsseldorf (HHU) and Forschungszentrum Jülich have found an explanation for ...