To elucidate the neural basis for age-related sarcopenia, we quantified morphologic and molecular changes within sciatic nerves of aging male and female C57BL/6J mice aged between 3 and 27 months using immunoblotting, immunohistochemistry, and electron microscopy. Protein analyses by immunoblotting of nerves of male mice aged 4, 15, 18, 22, and 24 months showed increased levels of heavy chain SMI-32-positive neurofilaments, vimentin, tau5, choline acetyltransferase (ChAT), and p62 by 18–22 months. Similar protein increases were seen in 26-month-old compared with 3-month-old female mice. Immunostaining of longitudinal sections of old (27-month-old) male sciatic nerves revealed intense staining for tau5 and p62 that was increased compared wit...
AbstractAgeing is associated with loss of skeletal muscle fibres, atrophy of the remaining fibres an...
Human skeletal mass and strength increase from birth until ~35 years of age, thereafter a decline in...
Loss of connections between motor neurons and skeletal muscle fibers contribute to motor impairment ...
The ability of resistance exercise, initiated from mid-life, to prevent age-related changes in old s...
Molecular mechanisms that are associated with age-related denervation and loss of skeletal muscle ma...
Sarcopenia, a geriatric syndrome involving loss of muscle mass and strength, is often associated wit...
The cellular mechanisms underlying the age-associated loss of muscle mass and function (sarcopenia) ...
Sarcopenia is a major contributor to the loss of independence and deteriorating quality of life in e...
This study is aimed at describing the changes occurring in the entire peripheral nervous system sens...
Sarcopenia (Greek; sarcos: flesh, and penia: poverty) is the pronounced muscle loss that affects the...
The central and peripheral nervous systems are involved in multiple age-dependent neurological defic...
The peripheral nervous system (PNS) is involved in many age-dependent neurological deficits, includi...
It is well known that aging influences several functional and structural features of peripheral nerv...
Loss of connections between motor neurons and skeletal muscle fibers contribute to motor impairment ...
Sarcopenia, a syndrome characterized by progressive loss of skeletal muscle mass and strength is a p...
AbstractAgeing is associated with loss of skeletal muscle fibres, atrophy of the remaining fibres an...
Human skeletal mass and strength increase from birth until ~35 years of age, thereafter a decline in...
Loss of connections between motor neurons and skeletal muscle fibers contribute to motor impairment ...
The ability of resistance exercise, initiated from mid-life, to prevent age-related changes in old s...
Molecular mechanisms that are associated with age-related denervation and loss of skeletal muscle ma...
Sarcopenia, a geriatric syndrome involving loss of muscle mass and strength, is often associated wit...
The cellular mechanisms underlying the age-associated loss of muscle mass and function (sarcopenia) ...
Sarcopenia is a major contributor to the loss of independence and deteriorating quality of life in e...
This study is aimed at describing the changes occurring in the entire peripheral nervous system sens...
Sarcopenia (Greek; sarcos: flesh, and penia: poverty) is the pronounced muscle loss that affects the...
The central and peripheral nervous systems are involved in multiple age-dependent neurological defic...
The peripheral nervous system (PNS) is involved in many age-dependent neurological deficits, includi...
It is well known that aging influences several functional and structural features of peripheral nerv...
Loss of connections between motor neurons and skeletal muscle fibers contribute to motor impairment ...
Sarcopenia, a syndrome characterized by progressive loss of skeletal muscle mass and strength is a p...
AbstractAgeing is associated with loss of skeletal muscle fibres, atrophy of the remaining fibres an...
Human skeletal mass and strength increase from birth until ~35 years of age, thereafter a decline in...
Loss of connections between motor neurons and skeletal muscle fibers contribute to motor impairment ...