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1975
DOI: 10.1172/jci108079
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Wall stress and patterns of hypertrophy in the human left ventricle.

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Cited by 2,190 publications
(1,090 citation statements)
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References 28 publications
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“…Although the underlying mechanism by which E 2 prevented the increase of LVEDP remains undetermined, a role for nitric oxide may be postulated. In the myocardium, nitric oxide has been shown to increase diastolic distensibility (Prendergast et al, 1997;Paulus et al, 1994), and nitric oxide synthase activity in the heart can be enhanced by oestrogen treatment (Neudling et al, 1999) A sustained increase in systolic load, as observed in systemic hypertension leads to a concentric pattern of cardiac hypertrophy, characterized by the increased expression of the putative hypertrophic marker prepro-ANP mRNA and the progression of interstitial ®brosis (Boluyt & Bing, 1995;Calderone et al, 1995;Weber & Brilla, 1991;Grossman et al, 1975). Direct morphological examination was not performed to determine whether a concentric pattern of cardiac remodelling had occurred.…”
Section: Discussionmentioning
confidence: 99%
“…Although the underlying mechanism by which E 2 prevented the increase of LVEDP remains undetermined, a role for nitric oxide may be postulated. In the myocardium, nitric oxide has been shown to increase diastolic distensibility (Prendergast et al, 1997;Paulus et al, 1994), and nitric oxide synthase activity in the heart can be enhanced by oestrogen treatment (Neudling et al, 1999) A sustained increase in systolic load, as observed in systemic hypertension leads to a concentric pattern of cardiac hypertrophy, characterized by the increased expression of the putative hypertrophic marker prepro-ANP mRNA and the progression of interstitial ®brosis (Boluyt & Bing, 1995;Calderone et al, 1995;Weber & Brilla, 1991;Grossman et al, 1975). Direct morphological examination was not performed to determine whether a concentric pattern of cardiac remodelling had occurred.…”
Section: Discussionmentioning
confidence: 99%
“…A mathematical description of this physical relationship was developed by the eighteenth century French physicist, Pierre Laplace, and reveals that wall stress (in the heart, afterload) is directly proportional to the radius of the chamber (r) and its intracavitary pressure (p), and is inversely proportional to the chamber wall thickness (h); stress ¼ pr/2h. Thus, any primary injury to the heart that causes cardiomyocyte dropout and ventricular remodeling produces a secondary stress on the heart in the form of increased afterload that is chronic and unremitting (Grossman et al, 1975). Studies performed over the past decade have shown that this hemodynamic stress is a powerful stimulus for programmed cardiomyocyte death, initiating a vicious cycle of unfavorable geometrical remodeling that stimulates yet more cell death (Foo et al, 2005;Dorn II, 2009).…”
Section: Introductionmentioning
confidence: 99%
“…It is believed that this process is due to cardiomyocyte elongation and hypertrophy that compensate volume overload and normalize wall stress (Grossman et al, 1975). Despite cardiac output being often increased (such as in the case of chronic arteriovenous fistula-AVF), substantial part of stroke volume is shunted or recirculated and is not contributing to systemic perfusion.…”
mentioning
confidence: 99%