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Abstract Osteogenic differentiation requires sophisticated mitochondrial adaptation to meet bioenergetic demands, yet regulatory checkpoints governing this organelle reorganization remain poorly defined. Through single-cell RNA sequencing reanalysis and metabolic intervention, this study unveils a non-canonical signaling role for PFKM, traditionally recognized solely as a glycolytic enzyme, in orchestrating mitochondrial remodeling during bone formation.
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Green-to-red photoconvertible fluorescent proteins (PCFPs) serve as key players in single-molecule localization super-resolution imaging. As an early engineered variant, mEos3.2 has limited applications, mostly due to its slow maturation rate. The recent advent of a novel variant, pcStar, obtained by the simple mutation of only three amino acids (D28E/L93M/N166G) in mEos3.2, exhibits significantly accelerated maturation and enhanced fluorescent brightness.
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