Assessment of left and right ventricular rotational interdependence: A speckle tracking echocardiographic study
Objective We sought to investigate the possible interdependence of the left (LV) and right ventricular (RV) rotational mechanics. Background Although myocardial fiber architecture and the effect of various pathologic conditions on LV torsional mechanics have already been investigated through multipl...
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Published in | Echocardiography (Mount Kisco, N.Y.) Vol. 34; no. 3; pp. 415 - 421 |
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Main Authors | , , , , |
Format | Journal Article |
Language | English |
Published |
United States
01.03.2017
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Subjects | |
Online Access | Get full text |
ISSN | 0742-2822 1540-8175 1540-8175 |
DOI | 10.1111/echo.13452 |
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Abstract | Objective
We sought to investigate the possible interdependence of the left (LV) and right ventricular (RV) rotational mechanics.
Background
Although myocardial fiber architecture and the effect of various pathologic conditions on LV torsional mechanics have already been investigated through multiple studies using different methods, there is still a significant debate about the actual presence and functional significance of RV rotational mechanics.
Methods
We perform a cross‐sectional prospective study of 118 subjects, including 19 normal subjects (NS, 35±7 years), 34 patients with severe aortic stenosis (AS, 44±16 years), 26 patients with nonobstructive hypertrophic cardiomyopathies (HCM, 46±18), and 39 patients with nonischemic dilated cardiomyopathies (DCM, 39±13 years). LV and RV rotational parameters were measured using velocity vector imaging. Total LV and RV apical segment rotations as well as the rotation of the free wall of RV apex were measured separately. Interdependence of the LV and RV rotational mechanics was assessed using the Spearman rho test.
Results
Both LV (7.3°±4.1° in NS, 11°±4.6° in AS, 7.7°±5.2° in HCM, and 1.9°±2° in DCM, P=<.0001) and RV apexes (4.7°±2° in NS, 6.1°±4° in AS, 3.2°±3.7° in HCM, and 2.4°±3.6° in DCM, P=<.0001) rotated counterclockwise in all the four study groups. Interventricular apical rotation interdependence was stronger in the AS (Spearman rho [ρ]: .716; P=.000) and in the HCM (ρ: .395; P=.04) subgroups than in the NS (ρ: .26; P=.27) and DCM (ρ: .215; P=.18). In DCM patients, RV apex rotation appeared to be independent of LV rotation. RV free wall apical rotation was larger than its corresponding value for the total apical segments in all studied groups. This difference was significant only in the AS (P=.007).
Conclusion
Our findings demonstrated a close correlation between RV and LV apical rotation parameters in different cardiac conditions as well as in normal subjects. However, in DCM patients, we also showed some independent rotation of the RV from the LV apex. |
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AbstractList | We sought to investigate the possible interdependence of the left (LV) and right ventricular (RV) rotational mechanics.OBJECTIVEWe sought to investigate the possible interdependence of the left (LV) and right ventricular (RV) rotational mechanics.Although myocardial fiber architecture and the effect of various pathologic conditions on LV torsional mechanics have already been investigated through multiple studies using different methods, there is still a significant debate about the actual presence and functional significance of RV rotational mechanics.BACKGROUNDAlthough myocardial fiber architecture and the effect of various pathologic conditions on LV torsional mechanics have already been investigated through multiple studies using different methods, there is still a significant debate about the actual presence and functional significance of RV rotational mechanics.We perform a cross-sectional prospective study of 118 subjects, including 19 normal subjects (NS, 35±7 years), 34 patients with severe aortic stenosis (AS, 44±16 years), 26 patients with nonobstructive hypertrophic cardiomyopathies (HCM, 46±18), and 39 patients with nonischemic dilated cardiomyopathies (DCM, 39±13 years). LV and RV rotational parameters were measured using velocity vector imaging. Total LV and RV apical segment rotations as well as the rotation of the free wall of RV apex were measured separately. Interdependence of the LV and RV rotational mechanics was assessed using the Spearman rho test.METHODSWe perform a cross-sectional prospective study of 118 subjects, including 19 normal subjects (NS, 35±7 years), 34 patients with severe aortic stenosis (AS, 44±16 years), 26 patients with nonobstructive hypertrophic cardiomyopathies (HCM, 46±18), and 39 patients with nonischemic dilated cardiomyopathies (DCM, 39±13 years). LV and RV rotational parameters were measured using velocity vector imaging. Total LV and RV apical segment rotations as well as the rotation of the free wall of RV apex were measured separately. Interdependence of the LV and RV rotational mechanics was assessed using the Spearman rho test.Both LV (7.3°±4.1° in NS, 11°±4.6° in AS, 7.7°±5.2° in HCM, and 1.9°±2° in DCM, P=<.0001) and RV apexes (4.7°±2° in NS, 6.1°±4° in AS, 3.2°±3.7° in HCM, and 2.4°±3.6° in DCM, P=<.0001) rotated counterclockwise in all the four study groups. Interventricular apical rotation interdependence was stronger in the AS (Spearman rho [ρ]: .716; P=.000) and in the HCM (ρ: .395; P=.04) subgroups than in the NS (ρ: .26; P=.27) and DCM (ρ: .215; P=.18). In DCM patients, RV apex rotation appeared to be independent of LV rotation. RV free wall apical rotation was larger than its corresponding value for the total apical segments in all studied groups. This difference was significant only in the AS (P=.007).RESULTSBoth LV (7.3°±4.1° in NS, 11°±4.6° in AS, 7.7°±5.2° in HCM, and 1.9°±2° in DCM, P=<.0001) and RV apexes (4.7°±2° in NS, 6.1°±4° in AS, 3.2°±3.7° in HCM, and 2.4°±3.6° in DCM, P=<.0001) rotated counterclockwise in all the four study groups. Interventricular apical rotation interdependence was stronger in the AS (Spearman rho [ρ]: .716; P=.000) and in the HCM (ρ: .395; P=.04) subgroups than in the NS (ρ: .26; P=.27) and DCM (ρ: .215; P=.18). In DCM patients, RV apex rotation appeared to be independent of LV rotation. RV free wall apical rotation was larger than its corresponding value for the total apical segments in all studied groups. This difference was significant only in the AS (P=.007).Our findings demonstrated a close correlation between RV and LV apical rotation parameters in different cardiac conditions as well as in normal subjects. However, in DCM patients, we also showed some independent rotation of the RV from the LV apex.CONCLUSIONOur findings demonstrated a close correlation between RV and LV apical rotation parameters in different cardiac conditions as well as in normal subjects. However, in DCM patients, we also showed some independent rotation of the RV from the LV apex. Objective We sought to investigate the possible interdependence of the left (LV) and right ventricular (RV) rotational mechanics. Background Although myocardial fiber architecture and the effect of various pathologic conditions on LV torsional mechanics have already been investigated through multiple studies using different methods, there is still a significant debate about the actual presence and functional significance of RV rotational mechanics. Methods We perform a cross-sectional prospective study of 118 subjects, including 19 normal subjects (NS, 35 plus or minus 7 years), 34 patients with severe aortic stenosis (AS, 44 plus or minus 16 years), 26 patients with nonobstructive hypertrophic cardiomyopathies (HCM, 46 plus or minus 18), and 39 patients with nonischemic dilated cardiomyopathies (DCM, 39 plus or minus 13 years). LV and RV rotational parameters were measured using velocity vector imaging. Total LV and RV apical segment rotations as well as the rotation of the free wall of RV apex were measured separately. Interdependence of the LV and RV rotational mechanics was assessed using the Spearman rho test. Results Both LV (7.3 degree plus or minus 4.1 degree in NS, 11 degree plus or minus 4.6 degree in AS, 7.7 degree plus or minus 5.2 degree in HCM, and 1.9 degree plus or minus 2 degree in DCM, P=<.0001) and RV apexes (4.7 degree plus or minus 2 degree in NS, 6.1 degree plus or minus 4 degree in AS, 3.2 degree plus or minus 3.7 degree in HCM, and 2.4 degree plus or minus 3.6 degree in DCM, P=<.0001) rotated counterclockwise in all the four study groups. Interventricular apical rotation interdependence was stronger in the AS (Spearman rho [ rho ]: .716; P=.000) and in the HCM ( rho : .395; P=.04) subgroups than in the NS ( rho : .26; P=.27) and DCM ( rho : .215; P=.18). In DCM patients, RV apex rotation appeared to be independent of LV rotation. RV free wall apical rotation was larger than its corresponding value for the total apical segments in all studied groups. This difference was significant only in the AS (P=.007). Conclusion Our findings demonstrated a close correlation between RV and LV apical rotation parameters in different cardiac conditions as well as in normal subjects. However, in DCM patients, we also showed some independent rotation of the RV from the LV apex. We sought to investigate the possible interdependence of the left (LV) and right ventricular (RV) rotational mechanics. Although myocardial fiber architecture and the effect of various pathologic conditions on LV torsional mechanics have already been investigated through multiple studies using different methods, there is still a significant debate about the actual presence and functional significance of RV rotational mechanics. We perform a cross-sectional prospective study of 118 subjects, including 19 normal subjects (NS, 35±7 years), 34 patients with severe aortic stenosis (AS, 44±16 years), 26 patients with nonobstructive hypertrophic cardiomyopathies (HCM, 46±18), and 39 patients with nonischemic dilated cardiomyopathies (DCM, 39±13 years). LV and RV rotational parameters were measured using velocity vector imaging. Total LV and RV apical segment rotations as well as the rotation of the free wall of RV apex were measured separately. Interdependence of the LV and RV rotational mechanics was assessed using the Spearman rho test. Both LV (7.3°±4.1° in NS, 11°±4.6° in AS, 7.7°±5.2° in HCM, and 1.9°±2° in DCM, P=<.0001) and RV apexes (4.7°±2° in NS, 6.1°±4° in AS, 3.2°±3.7° in HCM, and 2.4°±3.6° in DCM, P=<.0001) rotated counterclockwise in all the four study groups. Interventricular apical rotation interdependence was stronger in the AS (Spearman rho [ρ]: .716; P=.000) and in the HCM (ρ: .395; P=.04) subgroups than in the NS (ρ: .26; P=.27) and DCM (ρ: .215; P=.18). In DCM patients, RV apex rotation appeared to be independent of LV rotation. RV free wall apical rotation was larger than its corresponding value for the total apical segments in all studied groups. This difference was significant only in the AS (P=.007). Our findings demonstrated a close correlation between RV and LV apical rotation parameters in different cardiac conditions as well as in normal subjects. However, in DCM patients, we also showed some independent rotation of the RV from the LV apex. Objective We sought to investigate the possible interdependence of the left (LV) and right ventricular (RV) rotational mechanics. Background Although myocardial fiber architecture and the effect of various pathologic conditions on LV torsional mechanics have already been investigated through multiple studies using different methods, there is still a significant debate about the actual presence and functional significance of RV rotational mechanics. Methods We perform a cross‐sectional prospective study of 118 subjects, including 19 normal subjects (NS, 35±7 years), 34 patients with severe aortic stenosis (AS, 44±16 years), 26 patients with nonobstructive hypertrophic cardiomyopathies (HCM, 46±18), and 39 patients with nonischemic dilated cardiomyopathies (DCM, 39±13 years). LV and RV rotational parameters were measured using velocity vector imaging. Total LV and RV apical segment rotations as well as the rotation of the free wall of RV apex were measured separately. Interdependence of the LV and RV rotational mechanics was assessed using the Spearman rho test. Results Both LV (7.3°±4.1° in NS, 11°±4.6° in AS, 7.7°±5.2° in HCM, and 1.9°±2° in DCM, P=<.0001) and RV apexes (4.7°±2° in NS, 6.1°±4° in AS, 3.2°±3.7° in HCM, and 2.4°±3.6° in DCM, P=<.0001) rotated counterclockwise in all the four study groups. Interventricular apical rotation interdependence was stronger in the AS (Spearman rho [ρ]: .716; P=.000) and in the HCM (ρ: .395; P=.04) subgroups than in the NS (ρ: .26; P=.27) and DCM (ρ: .215; P=.18). In DCM patients, RV apex rotation appeared to be independent of LV rotation. RV free wall apical rotation was larger than its corresponding value for the total apical segments in all studied groups. This difference was significant only in the AS (P=.007). Conclusion Our findings demonstrated a close correlation between RV and LV apical rotation parameters in different cardiac conditions as well as in normal subjects. However, in DCM patients, we also showed some independent rotation of the RV from the LV apex. |
Author | Sadeghpour, Anita Alizadehasl, Azin Bakhshandeh Abkenar, Hooman Hali, Reza Badano, Luigi |
Author_xml | – sequence: 1 givenname: Azin surname: Alizadehasl fullname: Alizadehasl, Azin organization: Iran University of Medical Sciences – sequence: 2 givenname: Anita surname: Sadeghpour fullname: Sadeghpour, Anita email: anita.sadeghpour@gmail.com organization: Iran University of Medical Sciences – sequence: 3 givenname: Reza surname: Hali fullname: Hali, Reza organization: Iran University of Medical Sciences – sequence: 4 givenname: Hooman surname: Bakhshandeh Abkenar fullname: Bakhshandeh Abkenar, Hooman organization: Iran University of Medical Sciences – sequence: 5 givenname: Luigi surname: Badano fullname: Badano, Luigi organization: University of Padova |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/28121047$$D View this record in MEDLINE/PubMed |
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CitedBy_id | crossref_primary_10_1016_j_jcmg_2018_01_028 crossref_primary_10_18525_cu_2022_7_2_95 crossref_primary_10_1016_j_jvc_2018_04_005 crossref_primary_10_20538_1682_0363_2019_2_31_43 crossref_primary_10_24884_1682_6655_2019_18_4_29_36 |
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Keywords | speckle tracking right ventricular torsion basal rotation left ventricular torsion apical rotation ventricular interdependence |
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Snippet | Objective
We sought to investigate the possible interdependence of the left (LV) and right ventricular (RV) rotational mechanics.
Background
Although... We sought to investigate the possible interdependence of the left (LV) and right ventricular (RV) rotational mechanics. Although myocardial fiber architecture... We sought to investigate the possible interdependence of the left (LV) and right ventricular (RV) rotational mechanics.OBJECTIVEWe sought to investigate the... Objective We sought to investigate the possible interdependence of the left (LV) and right ventricular (RV) rotational mechanics. Background Although... |
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SubjectTerms | Adult apical rotation basal rotation Cross-Sectional Studies Echocardiography Female Heart Diseases - complications Heart Ventricles - diagnostic imaging Heart Ventricles - physiopathology Humans left ventricular torsion Male Middle Aged Prospective Studies right ventricular torsion Rotation speckle tracking Torsion Abnormality - complications Torsion Abnormality - diagnostic imaging Torsion Abnormality - physiopathology ventricular interdependence |
Title | Assessment of left and right ventricular rotational interdependence: A speckle tracking echocardiographic study |
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