AbstractThe occupancy of high-affinity ryanodine-binding sites of isolated heavy sarcoplasmic reticulum vesicles occurring in concentrated salt solutions affects ATP-dependent calcium accumulation and caffeine-induced calcium release. The initial suppression of calcium uptake is followed by a marked uptake activation resulting in a reduction of the final calcium level in the medium. Simultaneously, caffeine-induced calcium release is blocked. The dependence of inhibition of calcium uptake and caffeine-induced calcium release observed in assay media containing physiological concentrations of magnesium and ATP on the concentration of ryanodine corresponds to the drug's effectiveness in living muscles
AbstractIn cultured human myometrial cells application of caffeine (1–30 mM) did not result in an el...
Caffeine partly influences mechanical performance of heart muscle by affecting internal membrane fu...
The effects of the ionophore, X537A, and caffeine on ATP-dependent calcium transport by fragmented s...
AbstractThe occupancy of high-affinity ryanodine-binding sites of isolated heavy sarcoplasmic reticu...
Heavy sarcoplasmic reticulum vesicles isolated from rabbit skeletal muscle were reacted in high ioni...
The inhibition by ryanodine of caffeine induced calcium release from actively loaded heavy sarcoplas...
Heavy sarcoplasmic reticulum vesicles were reacted with ryanodine in 0.6 M KCl 0.3 M sucrose at pH 6...
The effect of ATP on the calcium release channel in heavy sarcoplasmic reticulum vesicles modulated ...
It is known that the Ca release channels/RyR binding sites of skeletal muscle sarcoplasmic reticulum...
The essential conditions for the Ca2+ releasing action of caffeine from isolated sarcoplasmic reticu...
AbstractCombined patch-clamp and fura-2 measurements were performed to study the calcium release pro...
Combined patch-clamp and fura-2 measurements were performed to study the calcium release properties ...
Both calcium and caffeine induced calcium release from actively loaded heavy sarcoplasmic reticulum ...
Calcium release from intracellular stores occurs in a graded manner in response to increasing concen...
AbstractThe efflux of 45Ca2+ from preloaded intracellular stores of saponin-permeabilised human uter...
AbstractIn cultured human myometrial cells application of caffeine (1–30 mM) did not result in an el...
Caffeine partly influences mechanical performance of heart muscle by affecting internal membrane fu...
The effects of the ionophore, X537A, and caffeine on ATP-dependent calcium transport by fragmented s...
AbstractThe occupancy of high-affinity ryanodine-binding sites of isolated heavy sarcoplasmic reticu...
Heavy sarcoplasmic reticulum vesicles isolated from rabbit skeletal muscle were reacted in high ioni...
The inhibition by ryanodine of caffeine induced calcium release from actively loaded heavy sarcoplas...
Heavy sarcoplasmic reticulum vesicles were reacted with ryanodine in 0.6 M KCl 0.3 M sucrose at pH 6...
The effect of ATP on the calcium release channel in heavy sarcoplasmic reticulum vesicles modulated ...
It is known that the Ca release channels/RyR binding sites of skeletal muscle sarcoplasmic reticulum...
The essential conditions for the Ca2+ releasing action of caffeine from isolated sarcoplasmic reticu...
AbstractCombined patch-clamp and fura-2 measurements were performed to study the calcium release pro...
Combined patch-clamp and fura-2 measurements were performed to study the calcium release properties ...
Both calcium and caffeine induced calcium release from actively loaded heavy sarcoplasmic reticulum ...
Calcium release from intracellular stores occurs in a graded manner in response to increasing concen...
AbstractThe efflux of 45Ca2+ from preloaded intracellular stores of saponin-permeabilised human uter...
AbstractIn cultured human myometrial cells application of caffeine (1–30 mM) did not result in an el...
Caffeine partly influences mechanical performance of heart muscle by affecting internal membrane fu...
The effects of the ionophore, X537A, and caffeine on ATP-dependent calcium transport by fragmented s...