Literature DB >> 32340604

Correction to: Three-dimensional assessment of coronary high-intensity plaques with T1-weighted cardiovascular magnetic resonance imaging to predict periprocedural myocardial injury after elective percutaneous coronary intervention.

Hayato Hosoda1,2, Yasuhide Asaumi3, Teruo Noguchi1, Yoshiaki Morita4, Yu Kataoka1,2, Fumiyuki Otsuka1, Kazuhiro Nakao1, Masashi Fujino1, Toshiyuki Nagai1, Michikazu Nakai5, Kunihiro Nishimura5, Atsushi Kono4, Yoshiaki Komori6, Tomoya Hoshi7, Akira Sato7, Tomohiro Kawasaki8, Chisato Izumi1, Kengo Kusano1, Tetsuya Fukuda4, Satoshi Yasuda1,2.   

Abstract

In the original publication of this article [1] the wording of '3Di-PMR' was different between the text and figures.

Entities:  

Year:  2020        PMID: 32340604      PMCID: PMC7184686          DOI: 10.1186/s12968-020-00620-4

Source DB:  PubMed          Journal:  J Cardiovasc Magn Reson        ISSN: 1097-6647            Impact factor:   5.364


Correction to: J Cardiovasc Magn Reson https://doi.org/10.1186/s12968-019-0588-6 In the original publication of this article [1] the wording of ‘3Di-PMR’ was different between the text and figures. Figures 1, 3, 4 and 5 contained the old wording ‘3D-PMRI’. In this correction article the updated figures are published. Principle behind 3-dimensional (3D) plaque assessment on T1-weighted imaging. Gray cubes represent voxels. αn represents the signal intensity of each voxel with higher signal intensity than that of nearby myocardium. Entire voxels of a coronary plaque that are above the signal intensity of nearby myocardium (plaque-to-myocardial signal intensity ratio > 1.0) were segmented within contiguous slices (surrounded by yellow dotted lines) to calculate the integral of signal intensity and voxel volume Correlation between 3D integral (3Di)-plaque to myocardial signal intensity ratio (PMR) and plaque characteristics based on integrated backscatter intravascular ultrasound. Correlation between 3Di-PMR and total plaque volume (a), lipid plaque volume (b), fibrous plaque volume (c), and calcified plaque volume (d) are shown Representative 2-dimensional and 3-dimensional plaque assessment on T1-weighted imaging. Coronary plaques with 2Dlow3Dhigh in the proximal right coronary artery (2D-PMR, 1.14; 3Di-PMR, 237 PMR*mm3; Patient A: a–e), 2Dhigh3Dlow in the proximal left anterior descending artery (LAD) (2D-PMR, 1.50; 3Di-PMR, 43 PMR*mm3; Patient B: f–j), and 2Dhigh3Dhigh in the proximal LAD (2D-PMR, 1.96; 3Di-PMR, 344 PMR*mm3; Patient C: k–o). Computed tomography angiography (CTA) images (a, f, k), and axial images (b, g, l), sagittal images (c, h, m), color maps (d, I, n), and 3D region of interests (3D plaque: e, j, n) on T1w images are shown. Yellow circles indicate percutaneous coronary intervention target lesion sites on CTA. Yellow arrows indicate lesions on T1w imaging corresponding to a lesion on angiography that underwent intervention Incidence of periprocedural myocardial injury (pMI) based on 3Di-PMR and 2D-PMR cutoff values. The red and blue bars represent patients with 3Di-PMR ≥ 51 PMR*mm3 and < 51 PMR*mm3, respectively. P < 0.001 based on the chi-squared test. * P = 0.006 vs. 2Dhigh3Dlow group. †P < 0.001 vs. 2Dlow3Dlow group, and P = 0.003 vs. 2Dhigh3Dlow group
  1 in total

1.  Relationship between coronary hyper-intensive plaques identified by cardiovascular magnetic resonance and clinical severity of acute coronary syndrome.

Authors:  Wen Liu; Sijing Wu; Zhenjia Wang; Yanni Du; Zhaoyang Fan; Li Dong; Yonghe Guo; Yi Liu; Xiaoming Bi; Jing An; Yujie Zhou; Wei Liu; Debiao Li; Wei Yu; Yibin Xie
Journal:  J Cardiovasc Magn Reson       Date:  2021-02-25       Impact factor: 5.364

  1 in total

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