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本文引用的文献

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Hybrid fibers transform into distinct fiber types in maturing mouse muscles.杂交纤维在成熟的老鼠肌肉中转化为不同的纤维类型。
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2
Myosin heavy chain isoform expression in human extraocular muscles: longitudinal variation and patterns of expression in global and orbital layers.人眼外肌肌球蛋白重链同工型表达:纵向变化及在整体和眶层中的表达模式。
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Influence of botulinum toxin on rabbit jaw muscle activity and anatomy.肉毒毒素对兔颌骨肌肉活动和解剖结构的影响。
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A continuum of myofibers in adult rabbit extraocular muscle: force, shortening velocity, and patterns of myosin heavy chain colocalization.成年兔眼外肌中肌纤维的连续性:力、缩短速度和肌球蛋白重链的共定位模式。
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The continuum of hybrid IIX/IIB fibers in normal mouse muscles: MHC isoform proportions and spatial distribution within single fibers.正常小鼠肌肉中杂交 IIX/IIB 纤维的连续体:单个纤维内 MHC 同工型比例和空间分布。
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Postnatal development of fiber type composition in rabbit jaw and leg muscles.兔颌部和腿部肌肉纤维类型组成的出生后发育
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8
Myosin isoform expression in dog rectus muscles: patterns in global and orbital layers and among single fibers.犬直肌中肌球蛋白同工型的表达:整体层和眶层以及单纤维之间的模式。
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Blood vessels and desmin control the positioning of nuclei in skeletal muscle fibers.血管和结蛋白控制着骨骼肌纤维中细胞核的定位。
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Fibre-type composition of rabbit jaw muscles is related to their daily activity.兔颌肌的纤维类型组成与其日常活动有关。
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肌球蛋白重链的表达在颌部和腿部肌肉的长度上可能会有所不同。

Myosin Heavy Chain Expression Can Vary over the Length of Jaw and Leg Muscles.

作者信息

Korfage J A M, Kwee K E, Everts V, Langenbach G E J

出版信息

Cells Tissues Organs. 2016;201(2):130-7. doi: 10.1159/000443606. Epub 2016 Mar 8.

DOI:10.1159/000443606
PMID:26950765
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC5296893/
Abstract

Muscle fiber type classification can be determined by its myosin heavy chain (MyHC) composition based on a few consecutive sections. It is generally assumed that the MyHC expression of a muscle fiber is the same over its length since neural stimulation and systemic influences are supposed to be the same over its length. We analyzed this in detail in three muscle types: the temporalis (closer) and digastricus (opener; both first brachial arch), and the medial gastrocnemius (somite). Sections of the muscles were incubated with monoclonal antibodies against various MyHC isoforms, and the distribution of these isoforms within individual fibers was followed over a distance of approximately 1 mm. The staining intensity of a fiber was measured and compared with the other fibers in the section. In the temporalis, digastricus, and gastrocnemius, 46, 11, and 15%, respectively, of their MyHC-I fibers showed a variation in the staining intensity over the length of their fibers, as well as 47, 87, and 22%, respectively, of their MyHC-IIA fibers. Most variable fibers were found amongst those with an overall relative intermediate staining intensity, which are presumably hybrid fibers. We conclude that different parts of a muscle fiber can have different fiber type compositions and, thus, contractile properties. Some muscle parts might reach their maximum contraction peak sooner or later than a muscle part a few microns further away. Next to stimulation by the nerve and systemic influences, local influences might also have an impact on the MyHC expression of the fiber.

摘要

基于连续的几个切片,可通过肌球蛋白重链(MyHC)组成来确定肌纤维类型分类。一般认为,由于神经刺激和全身影响在肌纤维长度上被假定是相同的,所以肌纤维的MyHC表达在其长度上是一致的。我们在三种肌肉类型中对此进行了详细分析:颞肌(闭口肌)和二腹肌(开口肌;均起源于第一鳃弓),以及腓肠肌内侧头(体节肌)。将肌肉切片与针对各种MyHC同工型的单克隆抗体孵育,然后在约1毫米的距离内追踪这些同工型在单个纤维内的分布。测量纤维的染色强度,并与切片中的其他纤维进行比较。在颞肌、二腹肌和腓肠肌中,分别有46%、11%和15%的MyHC-I纤维在其纤维长度上显示出染色强度的变化,MyHC-IIA纤维的这一比例分别为47%、87%和22%。大多数变化的纤维存在于那些总体相对染色强度处于中间的纤维中,这些纤维可能是混合纤维。我们得出结论,肌纤维的不同部分可能具有不同的纤维类型组成,因此具有不同的收缩特性。某些肌肉部分可能比几微米外的肌肉部分更早或更晚达到其最大收缩峰值。除了神经刺激和全身影响外,局部影响也可能对纤维的MyHC表达产生影响。