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γ和β轴突对离体猫肌梭中动态和静态核袋纤维及核链纤维的控制

Control of dynamic and static nuclear bag fibres and nuclear chain fibres by gamma and beta axons in isolated cat muscle spindels.

作者信息

Boyd I A, Gladden M H, McWilliam P N, Ward J

出版信息

J Physiol. 1977 Feb;265(1):133-62. doi: 10.1113/jphysiol.1977.sp011709.

DOI:10.1113/jphysiol.1977.sp011709
PMID:139469
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC1307812/
Abstract
  1. The behaviour of nuclear bag and nuclear chain intrafusal fibres in isolated cat muscle spindles with a blood supply, during stimulation of dynamic gamma axons, dynamic beta axons, or static gamma axons in ventral root filaments was observed and recorded on still and moving film. 2. Most spindles were controlled by one dynamic gamma axon (sometimes a beta axon) and three static gamma axons, one of which was often non-selective in distribution. A large majority of fusimotor axons controlled one pole of the spindle only. 3. Dynamic gamma and beta axons produced focal contraction in only one of the two nuclear bag fibres in any spindle and this fibre was never activated by static gamma axons. Maximal tetanic contraction was attained slowly and the primary sensory spiral on this fibre was stretched by a small amount only. This fibre has been named the 'dynamic nuclear bag fibre'. 4. Static gamma axons produced either: (a) focal contraction in the second of the two nuclear bag fibres only; (b) local contraction in the bundle of nuclear chain fibres only; or (c) contraction in one nuclear bag fibre and the nuclear chain fibres together. Maximum tetanic contraction of this nuclear bag fibre stretched its primary sensory spiral considerably and the time to plateau was relatively short. This fibre has been named the 'static nuclear bag fibre'. 5. 'Driving' of the Ia afferent discharge could always be produced by non-selective static gamma axons, frequently by static gamma axons controlling nuclear chain fibres alone, and was probably due to mechanical oscillation in nuclear chain fibres. It was never produced by dynamic gamma axons and on one occasion only by a static gamma axon controlling a nuclear bag fibre alone. 6. The conduction velocities of dynamic gamma and static gamma axons overlapped extensively, though dynamic gamma axons were absent from the lower end, and static gamma axons innervating nuclear chain fibres only were absent from the upper end, of the range of velocities. 7. The observations are correlated with spindle structure and histochemistry. Dynamic and static nuclear bag fibres are shown to correspond with 'bag1 fibres' and 'bag2 fibres', respectively (Ovalle & Smith, 1972). 8. The possible origin of the dynamic and static actions of fusimotor axons and the role of the dynamic and static intrafusal systems in motor control are discussed.
摘要
  1. 在有血液供应的离体猫肌梭中,观察并记录了在刺激腹根细丝中的动态γ轴突、动态β轴突或静态γ轴突时,核袋和核链肌梭内纤维的行为,并在静态和动态胶片上进行了记录。2. 大多数肌梭由一根动态γ轴突(有时是一根β轴突)和三根静态γ轴突控制,其中一根在分布上通常是非选择性的。绝大多数肌梭运动轴突仅控制肌梭的一极。3. 动态γ和β轴突仅在任何肌梭的两根核袋纤维中的一根中产生局部收缩,而这根纤维从未被静态γ轴突激活。最大强直收缩缓慢达到,且该纤维上的初级感觉螺旋仅被少量拉伸。这根纤维被命名为“动态核袋纤维”。4. 静态γ轴突产生以下情况之一:(a) 仅在两根核袋纤维中的第二根中产生局部收缩;(b) 仅在核链纤维束中产生局部收缩;或(c) 在一根核袋纤维和核链纤维中同时产生收缩。这根核袋纤维的最大强直收缩使其初级感觉螺旋大幅拉伸,且达到平台期的时间相对较短。这根纤维被命名为“静态核袋纤维”。5. Ia传入放电的“驱动”总是可以由非选择性静态γ轴突产生,经常由仅控制核链纤维的静态γ轴突产生,这可能是由于核链纤维中的机械振荡。它从未由动态γ轴突产生,仅在一次由仅控制核袋纤维的静态γ轴突产生。6. 动态γ轴突和静态γ轴突的传导速度有广泛重叠,尽管在速度范围的下端没有动态γ轴突,在上端没有仅支配核链纤维的静态γ轴突。7. 这些观察结果与肌梭结构和组织化学相关。动态和静态核袋纤维分别与“袋1纤维”和“袋2纤维”相对应(奥瓦列和史密斯,1972年)。8. 讨论了肌梭运动轴突动态和静态作用的可能起源以及动态和静态肌梭内系统在运动控制中的作用。
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