Table 1 Image based CFD studies of plaque erosion
Ref. | Imaging Modality | Sample Size | Main findings/Conclusion (Key Risk Factors, Prediction Accuracy) |
|---|---|---|---|
Campbell et al. 2013114 | Angiogram | 3 PE | Neither high nor low magnitudes of mean WSS were associated with sites of plaque erosion. Oscillatory shear index (OSI) and local curvature were also not associated with erosion. |
Giannopoulos et al. 2016110 | OCT | 1 PE | Pre-erosion flow simulation revealed an area of low WSS and blood velocity at the downstream shoulder, co-localizing with the site of erosion and thrombus. |
Vergallo et al. 2019111 | OCT | 1 PE | Plaque erosion co-localized with the area exposed to high WSS after percutaneous coronary intervention. |
Yamamoto et al. 201926 | OCT | 18 PE | Plaque erosion and thrombus occurred at the area of peak WSS and WSS gradient in 17 of 18 lesions. |
McElroy et al. 2021113 | OCT | 17 PE | The sites of adherent thrombi (assumed to be synonymous of endothelial erosion) had significantly increased time averaged WSS, maximum WSS, time averaged WSS gradient with a reduction in relative residence time, compared to a non‑diseased reference segment. |
Thondapu et al. 202163 | OCT | 19 PR 18 PE | High WSS gradient is independently associated with plaque rupture while high WSS gradient, WSS, and oscillatory shear index associate with plaque erosion. |
Kim et al. 2022105 | Follow-up OCT | 23 PE at baseline | WSS and WSS gradient values were higher at the plaque erosion sites compared to non-erosion sites. Elevated ESS and ESSG at the erosion site persisted up to 12 months. |
Russo et al. 202364 | OCT | 11 PE, 14 PR, 24 stable plaques | Plaque rupture exhibited a significantly higher WSS, with plaque erosion having an intermediate WSS value between stable and rupture plaques. |
Hakim et al. 2023112 | OCT | 24 PE; 22 stable plaques; | Plaque erosion was strongly associated with higher WSS, WSS gradients, and plaque slope as compared with stable plaques. |