Перевод и анализ слов искусственным интеллектом ChatGPT
На этой странице Вы можете получить подробный анализ слова или словосочетания, произведенный с помощью лучшей на сегодняшний день технологии искусственного интеллекта:
- как употребляется слово
- частота употребления
- используется оно чаще в устной или письменной речи
- варианты перевода слова
- примеры употребления (несколько фраз с переводом)
- этимология
overuse of muscle - перевод на русский
![Atrophy with paralysis due to [[ankylosis]]](https://commons.wikimedia.org/wiki/Special:FilePath/Atrophy 1.jpg?width=200 "Atrophy with paralysis due to [[ankylosis]]")
![Severe muscular atrophy leading to emaciation in a young girl with chronic [[rheumatism]]](https://commons.wikimedia.org/wiki/Special:FilePath/Photograph of young girl with muscular atrophy Wellcome L0034939.jpg?width=200 "Severe muscular atrophy leading to emaciation in a young girl with chronic [[rheumatism]]")
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![(a) Some ATP is stored in a resting muscle. As contraction starts, it is used up in seconds. More ATP is generated from creatine phosphate for about 15 seconds. (b) Each glucose molecule produces two ATP and two molecules of pyruvic acid, which can be used in aerobic respiration or converted to [[lactic acid]]. If oxygen is not available, pyruvic acid is converted to lactic acid, which may contribute to [[muscle fatigue]]. This occurs during strenuous exercise when high amounts of energy are needed but oxygen cannot be sufficiently delivered to muscle. (c) Aerobic respiration is the breakdown of glucose in the presence of oxygen (O2) to produce carbon dioxide, water, and ATP. Approximately 95 percent of the ATP required for resting or moderately active muscles is provided by aerobic respiration, which takes place in mitochondria.](https://commons.wikimedia.org/wiki/Special:FilePath/1016 Muscle Metabolism.jpg?width=200 "(a) Some ATP is stored in a resting muscle. As contraction starts, it is used up in seconds. More ATP is generated from creatine phosphate for about 15 seconds. (b) Each glucose molecule produces two ATP and two molecules of pyruvic acid, which can be used in aerobic respiration or converted to [[lactic acid]]. If oxygen is not available, pyruvic acid is converted to lactic acid, which may contribute to [[muscle fatigue]]. This occurs during strenuous exercise when high amounts of energy are needed but oxygen cannot be sufficiently delivered to muscle. (c) Aerobic respiration is the breakdown of glucose in the presence of oxygen (O2) to produce carbon dioxide, water, and ATP. Approximately 95 percent of the ATP required for resting or moderately active muscles is provided by aerobic respiration, which takes place in mitochondria.")
![Types of [[pennate muscle]]. A – [[unipennate]]; B – [[bipennate]];
C – [[multipennate]]](https://commons.wikimedia.org/wiki/Special:FilePath/Fiederung.svg?width=200 "Types of [[pennate muscle]]. A – [[unipennate]]; B – [[bipennate]];
C – [[multipennate]]")
![[[Human embryo]] showing [[somite]]s labelled as ''primitive segments''.](https://commons.wikimedia.org/wiki/Special:FilePath/Gray20.png?width=200 "[[Human embryo]] showing [[somite]]s labelled as ''primitive segments''.")
![polypeptide]] tail (only one tail of each pair is shown). The pairs of histones, H2A, H2B, H3 and H4, each have [[lysine]]s (K) in their tails, some of which are subject to post-translational modifications consisting, usually, of acetylations [Ac] and methylations {me}. The lysines (K) are designated with a number showing their position as, for instance, (K4), indicating lysine as the 4th amino acid from the amino (N) end of the tail in the histone protein. The particular acetylations [Ac] and methylations {Me} shown are those that occur on nucleosomes close to, or at, some DNA regions undergoing transcriptional activation of the DNA wrapped around the nucleosome.](https://commons.wikimedia.org/wiki/Special:FilePath/Histone tails set for transcriptional activation.jpg?width=200 "polypeptide]] tail (only one tail of each pair is shown). The pairs of histones, H2A, H2B, H3 and H4, each have [[lysine]]s (K) in their tails, some of which are subject to post-translational modifications consisting, usually, of acetylations [Ac] and methylations {me}. The lysines (K) are designated with a number showing their position as, for instance, (K4), indicating lysine as the 4th amino acid from the amino (N) end of the tail in the histone protein. The particular acetylations [Ac] and methylations {Me} shown are those that occur on nucleosomes close to, or at, some DNA regions undergoing transcriptional activation of the DNA wrapped around the nucleosome.")
![Prisoner of war exhibiting muscle loss as a result of [[malnutrition]].](https://commons.wikimedia.org/wiki/Special:FilePath/Japanese atrocities. Philippines, China, Burma, Japan - NARA - 292600.jpg?width=200 "Prisoner of war exhibiting muscle loss as a result of [[malnutrition]].")
![[[Jogging]] is one form of aerobic exercise.](https://commons.wikimedia.org/wiki/Special:FilePath/Jogging couple.jpg?width=200 "[[Jogging]] is one form of aerobic exercise.")
![In [[muscular dystrophy]], the affected tissues become disorganized and the concentration of [[dystrophin]] (green) is greatly reduced.](https://commons.wikimedia.org/wiki/Special:FilePath/MuscularDystrophy.png?width=200 "In [[muscular dystrophy]], the affected tissues become disorganized and the concentration of [[dystrophin]] (green) is greatly reduced.")
![Structure of muscle fibre showing a sarcomere under [[electron microscope]] with schematic explanation.](https://commons.wikimedia.org/wiki/Special:FilePath/Sarcomere.gif?width=200 "Structure of muscle fibre showing a sarcomere under [[electron microscope]] with schematic explanation.")
общая лексика
мышечная сила
Определение
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Википедия
Muscle atrophy is the loss of skeletal muscle mass. It can be caused by immobility, aging, malnutrition, medications, or a wide range of injuries or diseases that impact the musculoskeletal or nervous system. Muscle atrophy leads to muscle weakness and causes disability.
Disuse causes rapid muscle atrophy and often occurs during injury or illness that requires immobilization of a limb or bed rest. Depending on the duration of disuse and the health of the individual, this may be fully reversed with activity. Malnutrition first causes fat loss but may progress to muscle atrophy in prolonged starvation and can be reversed with nutritional therapy. In contrast, cachexia is a wasting syndrome caused by an underlying disease such as cancer that causes dramatic muscle atrophy and cannot be completely reversed with nutritional therapy. Sarcopenia is age-related muscle atrophy and can be slowed by exercise. Finally, diseases of the muscles such as muscular dystrophy or myopathies can cause atrophy, as well as damage to the nervous system such as in spinal cord injury or stroke. Thus, muscle atrophy is usually a finding (sign or symptom) in a disease rather than being a disease by itself. However, some syndromes of muscular atrophy are classified as disease spectrums or disease entities rather than as clinical syndromes alone, such as the various spinal muscular atrophies.
Muscle atrophy results from an imbalance between protein synthesis and protein degradation, although the mechanisms are incompletely understood and are variable depending on the cause. Muscle loss can be quantified with advanced imaging studies but this is not frequently pursued. Treatment depends on the underlying cause but will often include exercise and adequate nutrition. Anabolic agents may have some efficacy but are not often used due to side effects. There are multiple treatments and supplements under investigation but there are currently limited treatment options in clinical practice. Given the implications of muscle atrophy and limited treatment options, minimizing immobility is critical in injury or illness.
