Activity in sympathetic liver nerves has been proposed to be important for glucose production in exercising humans. However, liver denervation does not influence the exercise-induced increase in glucose production in the rat and dog. These species have a poor sympathetic liver innervation in contrast to the rich innervation in humans. The effect of liver denervation on glucose production during exercise was therefore studied in the guinea pig, a species with a rich sympathetic hepatic innervation comparable to that of humans. Guinea pigs were selectively liver denervated (n = 9) or sham operated (n = 8) and instrumented with a carotid and a jugular catheter. One week later they ran on a treadmill at 32 m/min for 20 min. Glucose turnover was...
Exercise is known to increase hepatic glucose production. Previous studies have suggested that the s...
Exercise is known to increase hepatic glucose production. Previous studies have suggested that the s...
Blood-borne metabolic feedback vs. neural feedforward regulation of glucose homeostasis during exerc...
Activity in sympathetic liver nerves has been proposed to be important for glucose production in exe...
Activity in sympathetic liver nerves has been proposed to be important for glucose production in exe...
Activity in sympathetic liver nerves has been proposed to be important for glucose production in exe...
Activity in sympathetic liver nerves has been proposed to be important for glucose production in exe...
Exercise is known to increase hepatic glucose production. Previous studies have suggested that the s...
The contribution of hepatic sympathetic innervation, glucagon and adrenaline to the glycaemic respon...
The contribution of hepatic sympathetic innervation, glucagon and adrenaline to the glycaemic respon...
The contribution of hepatic sympathetic innervation, glucagon and adrenaline to the glycaemic respon...
The contribution of hepatic sympathetic innervation, glucagon and adrenaline to the glycaemic respon...
Portal glucose delivery enhances net hepatic glucose uptake (NHGU) relative to peripheral glucose de...
Exercise is known to increase hepatic glucose production. Previous studies have suggested that the s...
Blood-borne metabolic feedback vs. neural feedforward regulation of glucose homeostasis during exerc...
Exercise is known to increase hepatic glucose production. Previous studies have suggested that the s...
Exercise is known to increase hepatic glucose production. Previous studies have suggested that the s...
Blood-borne metabolic feedback vs. neural feedforward regulation of glucose homeostasis during exerc...
Activity in sympathetic liver nerves has been proposed to be important for glucose production in exe...
Activity in sympathetic liver nerves has been proposed to be important for glucose production in exe...
Activity in sympathetic liver nerves has been proposed to be important for glucose production in exe...
Activity in sympathetic liver nerves has been proposed to be important for glucose production in exe...
Exercise is known to increase hepatic glucose production. Previous studies have suggested that the s...
The contribution of hepatic sympathetic innervation, glucagon and adrenaline to the glycaemic respon...
The contribution of hepatic sympathetic innervation, glucagon and adrenaline to the glycaemic respon...
The contribution of hepatic sympathetic innervation, glucagon and adrenaline to the glycaemic respon...
The contribution of hepatic sympathetic innervation, glucagon and adrenaline to the glycaemic respon...
Portal glucose delivery enhances net hepatic glucose uptake (NHGU) relative to peripheral glucose de...
Exercise is known to increase hepatic glucose production. Previous studies have suggested that the s...
Blood-borne metabolic feedback vs. neural feedforward regulation of glucose homeostasis during exerc...
Exercise is known to increase hepatic glucose production. Previous studies have suggested that the s...
Exercise is known to increase hepatic glucose production. Previous studies have suggested that the s...
Blood-borne metabolic feedback vs. neural feedforward regulation of glucose homeostasis during exerc...