Reduced skeletal loading typically leads to bone loss because bone formation and bone resorption become unbalanced. Hibernation is a natural model of musculoskeletal disuse because hibernating animals greatly reduce weight-bearing activity, and therefore, they would be expected to lose bone. Some evidence suggests that small mammals like ground squirrels, bats, and hamsters do lose bone during hibernation, but the mechanism of bone loss is unclear. In contrast, hibernating bears maintain balanced bone remodeling and preserve bone structure and strength. Differences in the skeletal responses of bears and smaller mammals to hibernation may be due to differences in their hibernation patterns; smaller mammals may excrete calcium liberated from ...
Reduced skeletal loading typically results in decreased bone strength and increased fracture risk fo...
Some hibernating animals are known to reduce muscle and bone loss associated with mechanical unloadi...
Inactivity causes bone loss, and a remobilization period that is 2-3 times longer than the disuse pe...
The hibernating bear is an excellent model for disuse osteoporosis in humans because it is a natural...
Disuse by bed rest, limb immobilization or space flight causes rapid bone loss by arresting bone for...
Disuse uncouples bone formation from resorption, leading to increased porosity, decreased bone geome...
Disuse typically causes an imbalance in bone formation and bone resorption, leading to losses of cor...
Decreased physical activity in mammals increases bone turnover and uncouples bone formation from bon...
To maintain calcium homeostasis during physical inactivity, precise coordination is necessary betwee...
Mechanical strain is an essential anabolic stimulus for bone. Skeletal unloading causes rapid, marke...
Mechanical unloading of bone causes an imbalance in bone formation and resorption leading to bone lo...
Disuse typically uncouples bone formation from resorption, leading to bone loss which compromises bo...
Lack of activity causes bone loss In most animals. Hibernating bears have physiological processes to...
In many species, including humans, disuse causes an imbalance in bone remodeling that leads to incre...
© 2015 by The University of Chicago. All rights reserved. Prolonged disuse (e.g., physical inactivit...
Reduced skeletal loading typically results in decreased bone strength and increased fracture risk fo...
Some hibernating animals are known to reduce muscle and bone loss associated with mechanical unloadi...
Inactivity causes bone loss, and a remobilization period that is 2-3 times longer than the disuse pe...
The hibernating bear is an excellent model for disuse osteoporosis in humans because it is a natural...
Disuse by bed rest, limb immobilization or space flight causes rapid bone loss by arresting bone for...
Disuse uncouples bone formation from resorption, leading to increased porosity, decreased bone geome...
Disuse typically causes an imbalance in bone formation and bone resorption, leading to losses of cor...
Decreased physical activity in mammals increases bone turnover and uncouples bone formation from bon...
To maintain calcium homeostasis during physical inactivity, precise coordination is necessary betwee...
Mechanical strain is an essential anabolic stimulus for bone. Skeletal unloading causes rapid, marke...
Mechanical unloading of bone causes an imbalance in bone formation and resorption leading to bone lo...
Disuse typically uncouples bone formation from resorption, leading to bone loss which compromises bo...
Lack of activity causes bone loss In most animals. Hibernating bears have physiological processes to...
In many species, including humans, disuse causes an imbalance in bone remodeling that leads to incre...
© 2015 by The University of Chicago. All rights reserved. Prolonged disuse (e.g., physical inactivit...
Reduced skeletal loading typically results in decreased bone strength and increased fracture risk fo...
Some hibernating animals are known to reduce muscle and bone loss associated with mechanical unloadi...
Inactivity causes bone loss, and a remobilization period that is 2-3 times longer than the disuse pe...