Scientists at The Wistar Institute discovered a binding site that, if blocked, could activate the protein to promote genomic stability and decrease cancer. By analyzing the molecular details of how sirtuins work, researchers identified potential activators using virtual libraries of molecules.
A team of researchers from Duke University has made significant breakthroughs in understanding the mechanism of FTase, a key player in cancer development. The study revealed that FTase doesn't release its product until another substrate molecule arrives, suggesting a new role for the enzyme beyond molecular seamstressing.
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Researchers create protein nanoarrays with features over 1,000 times smaller than conventional arrays, enabling more accurate and efficient detection of biomolecules. The technology, developed by Northwestern University, holds promise for applications in disease screening and biorecognition.
Researchers found that the GroEL oligomeric structure is essential for biologically significant chaperonin function. The study showed that enclosure of an unfolded protein in the cage provides a mechanism to prevent protein aggregation during folding, particularly for aggregation-sensitive proteins.
Researchers are analyzing the weathering of spent mushroom substrate over three years to assess leaching, organic composition, and nitrogen content. This study aims to improve the environmental sustainability of the mushroom industry by understanding the best ways to reuse this substrate.