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THE BIOCENTER OF THE UNIVERSITY OF WÜRZBURG

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A calcareous grassland in Karlstadt in Lower Franconia: the research team also determined the species diversity here.

What measures are suitable for providing better living conditions for insects in typical Franconian landscapes? This question was investigated by a research team from the University of Würzburg. The results are now available.

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Rice terraces in Thailand. The grains of the plants form the food basis for billions of people.

Rice is the basis of life for many people. An international research team involving researchers from Würzburg wants to make the plant, which originates from Asia, more resilient to heat and drought.

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Researchers at the University of Würzburg have discovered a process that breaks down mRNA molecules in the human body particularly efficiently. This could be useful, for example, in the treatment of cancer.

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Image showing all the neurons (color-coded based on type) that make up the Drosophila circadian clock network. (Image: Nils Reinhard)

Circadian clocks control physiological processes and behavior in virtually all living organisms. Now an international research team led by researchers from the University of Würzburg has created a detailed map of the internal clock in the brain of the fruit fly.

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Plants adapt their water consumption to environmental conditions by counting and calculating environmental stimuli with their guard cells. Plant researchers from Würzburg report this in ‘Current Biology’.

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Pflanzen besitzen zwei getrennte Kalium-Aufnahmesysteme, den Transporter HAK5 und den Kanal AKT1. Je nach Kalium-Konzentration im Boden ist das eine oder das andere System für die Aufnahme von Kalium in die Wurzeln verantwortlich. Das gewährleistet eine konstante Kalium-Versorgung auch bei wechselnder Kalium-Verfügbarkeit.

Plants can extract even the smallest traces of the important nutrient potassium from the soil. A team led by Würzburg biophysicist Rainer Hedrich describes how they achieve this in ‘Nature Communications’.

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NEAT1 is genome-protective in human U2OS cells. Accumulation of NEAT1 at DNA double-strand breaks (NGS data, top) and defects in DNA damage signaling in NEAT1-deficient cells (merged confocal imaging data, bottom).

Genome instability can cause numerous diseases. Cells have effective DNA repair mechanisms at their disposal. A research team at the University of Würzburg has now gained new insights into the DNA damage response.

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