Calcium (Ca2+) can regulate a wide variety of cellular fates, such as proliferation, apoptosis,
and autophagy. More importantly, changes in the intracellular Ca2+ level can modulate …

Although voltage-activated Ca2+ channels are a common feature in excitable cells, their
expression in cancer tissue is less understood. T-type Ca2+ channels are particularly …

The role of T-type calcium channels is well established in excitable cells, where they preside
over action potential generation, automaticity, and firing. They also contribute to intracellular …

T-type Ca 2+ channels have gained, 15 years after cloning, an immense interest as novel
players in very unexpected cell functions, and its many relations to diseases have been …

T-type, or low-voltage-activated (LVA), tiny and transient Ca2+ currents pare more and more
recognised as universal players in a plethora of cell functions and are also more and more …

T-type calcium channels (T-channels) contribute to a wide variety of physiological functions,
especially in the cardiovascular and nervous systems. Recent studies using knock-out …

Despite their presence in many tissues and their potential implication in various disease
states, low-voltage activated T-type calcium channels (T-channels) have only recently …

Low-voltage activated, T-type calcium channels (T-channels) are expressed in many
developing tissues and may be important in regulating important cellular phenotype …

Ca2+ is a highly versatile intracellular second messenger in the central nervous system, and
regulates many complicated cellular processes, including excitation, plasticity and …

T-type calcium channels perform crucial physiological roles across a wide spectrum of
tissues, spanning both neuronal and non-neuronal system. For instance, they serve as …