Literature DB >> 23997104

Maximum shortening velocity of lymphatic muscle approaches that of striated muscle.

Rongzhen Zhang1, Anne I Taucer, Anatoliy A Gashev, Mariappan Muthuchamy, David C Zawieja, Michael J Davis.   

Abstract

Lymphatic muscle (LM) is widely considered to be a type of vascular smooth muscle, even though LM cells uniquely express contractile proteins from both smooth muscle and cardiac muscle. We tested the hypothesis that LM exhibits an unloaded maximum shortening velocity (Vmax) intermediate between that of smooth muscle and cardiac muscle. Single lymphatic vessels were dissected from the rat mesentery, mounted in a servo-controlled wire myograph, and subjected to isotonic quick release protocols during spontaneous or agonist-evoked contractions. After maximal activation, isotonic quick releases were performed at both the peak and plateau phases of contraction. Vmax was 0.48 ± 0.04 lengths (L)/s at the peak: 2.3 times higher than that of mesenteric arteries and 11.4 times higher than mesenteric veins. In cannulated, pressurized lymphatic vessels, shortening velocity was determined from the maximal rate of constriction [rate of change in internal diameter (-dD/dt)] during spontaneous contractions at optimal preload and minimal afterload; peak -dD/dt exceeded that obtained during any of the isotonic quick release protocols (2.14 ± 0.30 L/s). Peak -dD/dt declined with pressure elevation or activation using substance P. Thus, isotonic methods yielded Vmax values for LM in the mid to high end (0.48 L/s) of those the recorded for phasic smooth muscle (0.05-0.5 L/s), whereas isobaric measurements yielded values (>2.0 L/s) that overlapped the midrange of values for cardiac muscle (0.6-3.3 L/s). Our results challenge the dogma that LM is classical vascular smooth muscle, and its unusually high Vmax is consistent with the expression of cardiac muscle contractile proteins in the lymphatic vessel wall.

Entities:  

Keywords:  force-velocity; isometric; isotonic quick release; maximum shortening velocity; slack test; spontaneous contraction

Mesh:

Year:  2013        PMID: 23997104      PMCID: PMC3840257          DOI: 10.1152/ajpheart.00898.2012

Source DB:  PubMed          Journal:  Am J Physiol Heart Circ Physiol        ISSN: 0363-6135            Impact factor:   4.733


  75 in total

1.  Vasomotion patterns in skeletal muscle arterioles during changes in arterial pressure.

Authors:  J U Meyer; P Borgström; L Lindbom; M Intaglietta
Journal:  Microvasc Res       Date:  1988-03       Impact factor: 3.514

2.  Modulation of bat wing venule contraction by transmural pressure changes.

Authors:  M J Davis; X Shi; P J Sikes
Journal:  Am J Physiol       Date:  1992-03

3.  Transport between blood and peripheral lymph in intestine.

Authors:  A R Hargens; B W Zweifach
Journal:  Microvasc Res       Date:  1976-01       Impact factor: 3.514

4.  Lymphedema.

Authors:  Stanley G Rockson
Journal:  Curr Treat Options Cardiovasc Med       Date:  2006-04

5.  Rate-sensitive contractile responses of lymphatic vessels to circumferential stretch.

Authors:  Michael J Davis; Ann M Davis; Megan M Lane; Christine W Ku; Anatoliy A Gashev
Journal:  J Physiol       Date:  2008-11-10       Impact factor: 5.182

6.  Adaptation of mesenteric collecting lymphatic pump function following acute alcohol intoxication.

Authors:  Flavia M Souza-Smith; Kristine M Kurtz; Patricia E Molina; Jerome W Breslin
Journal:  Microcirculation       Date:  2010-10       Impact factor: 2.628

7.  Stimulus-specific changes in mechanical properties of vascular smooth muscle.

Authors:  F V Brozovich; K G Morgan
Journal:  Am J Physiol       Date:  1989-11

8.  Inhibition of the active lymph pump by flow in rat mesenteric lymphatics and thoracic duct.

Authors:  Anatoliy A Gashev; Michael J Davis; David C Zawieja
Journal:  J Physiol       Date:  2002-05-01       Impact factor: 5.182

9.  Contractility patterns of normal and pathologically changed human lymphatics.

Authors:  Waldemar L Olszewski
Journal:  Ann N Y Acad Sci       Date:  2002-12       Impact factor: 5.691

10.  Shortening velocity and myosin and myofibrillar ATPase activity related to myosin isoenzyme composition during postnatal development in rat myocardium.

Authors:  V Cappelli; R Bottinelli; C Poggesi; R Moggio; C Reggiani
Journal:  Circ Res       Date:  1989-08       Impact factor: 17.367

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Authors:  R M Dongaonkar; T L Nguyen; C M Quick; C L Heaps; J Hardy; G A Laine; E Wilson; R H Stewart
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2.  Itching for answers: how histamine relaxes lymphatic vessels.

Authors:  Joshua P Scallan; Michael J Davis
Journal:  Microcirculation       Date:  2014-10       Impact factor: 2.628

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Journal:  Lymphat Res Biol       Date:  2017-12       Impact factor: 2.589

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Review 8.  Mechanical forces and lymphatic transport.

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