Literature DB >> 15618272

Length-dependent filament formation assessed from birefringence increases during activation of porcine tracheal muscle.

Alexander V Smolensky1, Joseph Ragozzino, Susan H Gilbert, Chun Y Seow, Lincoln E Ford.   

Abstract

Birefringence and force produced by pig tracheal smooth muscles were recorded every 100 ms during electrically stimulated tetani at muscle lengths that varied 1.5-fold and at the peak of acetylcholine contractures at the same lengths. Isometric force was nearly the same at all lengths. Resting birefringence at the longest length was 30% greater than that at the shortest length. During tetani, birefringence increased with approximately the same time course as force, rising by 20% at the shortest length and 9% at the longest length, and continued to increase by an additional 0.5-1.5% of the resting value for 2-8 s after stimulation ended and force began to fall. This late increase was greatest and more sustained at longer lengths. During contractures, birefringence increased by 25 and 18% at the shortest and longest lengths, respectively. Comparison of these results with our published thick-filament densities suggests that thick-filament density increased by about 80, 72 and 50% during contractures at the short, intermediate and long lengths, and that approximately 35% of birefringence in the resting muscle at the longest length was not due to thick filaments. These findings support the hypotheses that tracheal smooth muscle adapts to longer lengths by increasing thick-filament mass and that myosin thick filaments are evanescent, dissociating partially during relaxation and reforming upon activation. The results further suggest that thick-filament formation is sufficiently rapid to account for the velocity slowing and some of the force increase observed during the rise of activation of tracheal smooth muscle.

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Year:  2004        PMID: 15618272      PMCID: PMC1665598          DOI: 10.1113/jphysiol.2004.079822

Source DB:  PubMed          Journal:  J Physiol        ISSN: 0022-3751            Impact factor:   5.182


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4.  Tension responses to sudden length change in stimulated frog muscle fibres near slack length.

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5.  Active state in the smooth muscle of the rat portal vein in relation to electrical activity and isometric force.

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7.  An electron microscope study of the influence of divalent ions on myosin filament formation in chicken gizzard extracts and homogenates.

Authors:  C F Shoenberg
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8.  The organization of contractile filaments in a mammalian smooth muscle.

Authors:  R V Rice; J A Moses; G M McManus; A C Brady; L M Blasik
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9.  Localization of myosin filaments in smooth muscle.

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