TET3 regulates terminal cell differentiation at the metabolic level.

TET-family members play a critical role in cell fate commitment. Indeed, TET3 is essential to postnatal development due to yet unknown reasons. To define TET3 function in cell differentiation, we have profiled the intestinal epithelium at single-cell level from wild-type and Tet3 knockout mice.

Transcriptomic and metabolic signatures of neural cells cultured under a physiologic-like environment.

Cultured brain cells are used conventionally to investigate fundamental neurobiology and identify therapeutic targets against neural diseases. However, standard culture conditions do not simulate the natural cell microenvironment, thus hampering in vivo translational insight. Major weaknesses include atmospheric (21%) O tension and lack of intercellular communication, the two factors likely impacting metabolism and signaling.

Exploring the link between inflammatory myopathies and cancer: A comprehensive retrospective analysis in a Colombian cohort.

Background: This study investigates the association between inflammatory myopathies (IM), and their correlation with cancer. There are several potential causes behind the association of cancer and inflammatory myopathies. The positivity of specific antibodies for myositis plays a significant role.

A lactate-dependent shift of glycolysis mediates synaptic and cognitive processes in male mice.

Astrocytes control brain activity via both metabolic processes and gliotransmission, but the physiological links between these functions are scantly known. Here we show that endogenous activation of astrocyte type-1 cannabinoid (CB1) receptors determines a shift of glycolysis towards the lactate-dependent production of D-serine, thereby gating synaptic and cognitive functions in male mice. Mutant mice lacking the CB1 receptor gene in astrocytes (GFAP-CB1-KO) are impaired in novel object recognition (NOR) memory.