Researchers at Tohoku University discovered a paradox in REM sleep where the brain's energy molecule decreases despite an increase in fuel supply. This finding suggests that the brain dynamically adjusts its energy economy to support complex internal processing, revealing new insights into biological computation and sleep function.
Researchers at The University of Osaka discovered that the cyanobacterial circadian clock is controlled by factors intrinsic to one protein, which remains stable under different conditions. This finding offers significant insight into how living organisms measure time.
Researchers found that ATP regulates protein condensation and cytoplasm viscosity, preventing harmful protein aggregates. Boosting ATP production decreases viscosity, dispersing existing and preventing future protein aggregations.
A study led by Fuzhong Zhang found that microbes respond differently to various carbon sources, with acetate inducing high ATP levels in E. coli and oleate in Pseudomonas putida. This research provides insights into microbial energy homeostasis and offers a strategy to enhance bioproduction by choosing beneficial feedstocks.
A new sensor has given unprecedented look at changes in cell's energy currency, allowing researchers to study fluctuations in ATP levels. This enables scientists to track how changes in ATP affect the cell and contribute to diseases like Parkinson’s.
Researchers developed a high-resolution sensor to track real-time dynamics of ATP levels in cells and within subcellular compartments. The iATPSnFR2 sensor has high sensitivity across a wide range of ATP concentrations, enabling accurate tracking of ATP levels and their dynamics.
Scientists studied F1-ATPase function in bacteria to clarify the angle of rotation during ATP hydrolysis. The study revealed three sets of short and long dwells associated with different intervals per revolution, resolving a long-term debate over the ATP-cleavage shaft angle.