Add BrightSurf on Google Email

One of the keys to healthy sleep and blood sugar has been found

Researchers from Osaka University have discovered a link between the rare D-form of the amino acid alanine and the circadian clock's influence on glucose metabolism in the kidney. The study found that D-alanine regulates gluconeogenesis, a process that creates new glucose to maintain energy levels, and is mediated by the protein Cry2.

SourceOsaka University·JournalKidney360·TypeExperimental study·DateDec 21, 2023

Cold-activated brown fat asks for more sugar via signalling RNAkines

Researchers found that cold exposure increases the secretion of miR-378a-3p by brown adipose tissue, which stimulates hepatic gluconeogenesis. This process is essential for regulating whole-body glucose homeostasis during cold stress.

SourceNanjing University School of Life Sciences·JournalNature Communications·TypeExperimental study·DateSep 6, 2023

Sleeping sickness parasite uses multiple metabolic pathways

Research reveals that trypanosomes use gluconeogenesis and glycerol metabolism to produce ATP and synthesize glucose, challenging the long-held assumption of exclusive reliance on glycolysis. This metabolic flexibility is essential for adaptation to environmental conditions and survival in mammalian host tissues.

SourcePLOS·JournalPLOS Pathogens·DateDec 27, 2018
Aranet4 Home CO2 Monitor

Aranet4 Home CO2 Monitor tracks ventilation quality in labs, classrooms, and conference rooms with long battery life and clear e-ink readouts.

The 'appetite-suppressing' effect of proteins explained

Researchers describe the biological mechanisms behind protein's appetite-suppressing effects, identifying specific receptors involved in intestinal gluconeogenesis. This understanding paves the way for new avenues in obesity treatment by controlling fullness sensation over long periods.

SourceINSERM (Institut national de la santé et de la recherche médicale)·JournalCell·DateJul 6, 2012

Mutated protein combination tied to excessive sugar production

A mutated protein combination is responsible for excessive sugar production in the liver, leading to high blood glucose levels. Researchers have identified PGC-1alpha and FOXO1 as key proteins that form a powerful switch for gluconeogenesis, and blocking their interaction may lead to effective diabetes treatment.

SourceDana-Farber Cancer Institute·JournalNature·DateMay 18, 2003