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Sexually dimorphic muscles in the forelimb of the Japanese toad, Bufo japonicus.日本蟾蜍(Bufo japonicus)前肢中的两性异形肌肉。
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Distribution of myofiber types in thigh muscles of chickens.鸡大腿肌肉中肌纤维类型的分布
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Capillarity and fiber types in locomotory muscles of wild common coots, Fulica atra.野生白骨顶(Fulica atra)运动肌肉中的毛细血管作用与纤维类型
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Androgens Support Male Acrobatic Courtship Behavior by Enhancing Muscle Speed and Easing the Severity of Its Tradeoff With Force.雄激素通过提高肌肉速度并减轻其与力量之间权衡的严重程度来支持雄性杂技求偶行为。
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Anatomy and histochemistry of spread-wing posture inbirds. 4. Eagles soar with fast, not slow muscle fibres.鸟类展翅姿势的解剖学与组织化学。4. 鹰类依靠快肌纤维而非慢肌纤维翱翔。
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9
Whole-genome analyses resolve early branches in the tree of life of modern birds.全基因组分析解决了现代鸟类生命之树早期分支的问题。
Science. 2014 Dec 12;346(6215):1320-31. doi: 10.1126/science.1253451.
10
Anatomy and histochemistry of hindlimb flight posture in birds. I. The extended hindlimb posture of shorebirds.鸟类后肢飞行姿势的解剖学与组织化学。I. 滨鸟的后肢伸展姿势。
J Morphol. 2008 Aug;269(8):967-79. doi: 10.1002/jmor.10636.

鸟类飞行后肢姿势的解剖学和组织化学。二、栖息鸟类的后肢弯曲姿势。

The anatomy and histochemistry of flight hindlimb posture in birds. II. The flexed hindlimb posture of perching birds.

机构信息

Department of Zoology, Weber State University, Ogden, UT, USA.

出版信息

J Anat. 2019 May;234(5):668-678. doi: 10.1111/joa.12960. Epub 2019 Mar 12.

DOI:10.1111/joa.12960
PMID:30860607
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC6481409/
Abstract

During flight, birds employ one of two hindlimb postures. Perching birds utilize a flexed posture with their folded legs tucked beneath the body, whereas shorebirds and raptors use an extended posture with straightened legs trailing behind the body. Maintenance of either posture during flight requires the hindlimbs to hold their position for prolonged periods. Slow contracting fibers are known for their fatigue-resistant properties and are often found in high percentages in muscles utilized for postural actions. Given the similar actions required of the hip and knee flexors used during flight, we hypothesized that the equivalent postural muscles of perching birds (flexed posture) would contain similar percentages of slow fibers as shorebirds (extended posture). We investigated the anatomy and fiber type composition of seven hindlimb muscles in yellow-headed and red-winged blackbirds and revealed that they possess a smaller percentage of slow fibers than we found previously in the same muscles of American avocets and black-necked stilts. The comparably smaller body size of yellow-headed and red-winged blackbirds could mitigate the need for more slow fibers. In addition, the biomechanical placement of the weight force in the flexed posture may require less muscle force for postural support during flight and, therefore, fewer slow fibers.

摘要

在飞行过程中,鸟类采用两种后肢姿势之一。栖息鸟类采用弯曲的姿势,将折叠的腿部收在身体下方,而滨鸟和猛禽则采用伸展的姿势,将伸直的腿部拖在身体后面。无论是哪种姿势,飞行中都需要后肢长时间保持固定位置。慢收缩纤维以其抗疲劳特性而闻名,通常在用于姿势动作的肌肉中以高比例存在。鉴于飞行中使用的髋关节和膝关节屈肌所需的动作相似,我们假设栖息鸟类(弯曲姿势)的等效姿势肌肉中会含有与滨鸟(伸展姿势)相似比例的慢纤维。我们研究了黄头和红翅黑鹂的七种后肢肌肉的解剖结构和纤维类型组成,并发现它们的慢纤维比例比我们之前在美洲反嘴鹬和黑颈长脚鹬的相同肌肉中发现的要小。黄头和红翅黑鹂相对较小的体型可能减轻了对更多慢纤维的需求。此外,弯曲姿势中体重力的生物力学位置可能需要在飞行中进行姿势支撑的较少肌肉力量,因此需要的慢纤维也较少。