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Review
. 2024 Aug 5;20(15):e915-e926.
doi: 10.4244/EIJ-D-24-00160.

Percutaneous coronary intervention for bifurcation coronary lesions using optimised angiographic guidance: the 18th consensus document from the European Bifurcation Club

Affiliations
Review

Percutaneous coronary intervention for bifurcation coronary lesions using optimised angiographic guidance: the 18th consensus document from the European Bifurcation Club

Francesco Burzotta et al. EuroIntervention. .

Abstract

The 2023 European Bifurcation Club (EBC) meeting took place in Warsaw in October, and the latest evidence for the use of intravascular ultrasound (IVUS) and optical coherence tomography (OCT) to optimise percutaneous coronary interventions (PCI) on coronary bifurcation lesions (CBLs) was a major focus. The topic generated deep discussions and general appraisal on the potential benefits of IVUS and OCT in PCI procedures. Nevertheless, despite an increasing recognition of IVUS and OCT capabilities and their recognised central role for guidance in complex CBL and left main PCI, it is expected that angiography will continue to be the primary guidance modality for CBL PCI, principally due to educational and economic barriers. Mindful of the restricted access/adoption of intracoronary imaging for CBL PCI, the EBC board decided to review and describe a series of tips and tricks which can help to optimise angiography-guided PCI for CBLs. The identified key points for achieving an optimal angiography-guided PCI include a thorough analysis of pre-PCI images (computed tomography angiography, multiple angiographic views, quantitative coronary angiography vessel estimation), a systematic application of the technical steps suggested for a given selected technique, an intraprocedural or post-PCI use of stent enhancement and a low threshold for bailout use of intravascular imaging.

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Conflict of interest statement

F. Burzotta has received speaker fees from Medtronic, Abiomed, Abbott, and Terumo. J.F. Lassen has received speaker fees from Medtronic, Boston Scientific, Biotronik, and Abbott. R. Albiero has received speaker fees from Medtronic and Abbott. J. Legutko has received speaker fees from Abbott, Insight Lifetech, Philips, and Procardia. M. Pan has received speaker fees from Abbott, Boston Scientific, and Asahi. Y.S. Chatzizisis has received speaker fees/consultancy/research funding from Boston Scientific and Medtronic; and is co-founder of ComKardia Inc. T.W. Johnson has received speaker/consultancy fees from Abbott, Boston Scientific, Cordis, Medtronic, Shockwave Medical, and Terumo; and has received research funding from Abbott. A. Chieffo has received speaker/consultant fees from Abbott, Abiomed, Biosensors, Boston Scientific, Medtronic, and Menarini. G. Stankovic has received speaker fees from Medtronic, Abbott, Boston Scientific, and Terumo. M. Lesiak has received speaker fees from Abbott, Biotronik, Boston Scientific, Medtronic, Philips, and Terumo. T. Lefèvre has received minor fees from Terumo, Boston Scientific, Abbott, and Edwards Lifesciences. C. Collet has received a research grant and speaker fees and been on advisory board for Boston Scientific; has received a research grant and speaker fees from GE HealthCare, Insight Lifetech, Siemens Healthineers, HeartFlow, and Shockwave Medical; has received a research grant from Medis Medical Imaging, and Pie Medical; has stock options in Medyria; and has been a research director and equity holder of CoreAalst. O. Darremont reports support from Boston Scientific, Abbott, and Edwards Lifesciences. P.W. Serruys has received consulting fees from SMT, Meril Life Sciences, Novartis, Philips, and Xeltis. The other authors have no conflict of interest to declare.

Figures

Figure 1
Figure 1. Schematic representation of coronary bifurcation and trifurcation with the corresponding Finet’s law formula explaining the relationship between the different segments.
dMV: distal main vessel; pMV: proximal main vessel; SB: side branch
Figure 2
Figure 2. Bench test comparison of final stent conformation obtained by provisional stenting using two different stent platforms by the same manufacturer.
A) SYNERGY (Boston Scientific) 3.5 mm×20 mm DES implanted at nominal pressures followed by POT and kissing. B) SYNERGY (Boston Scientific) 4 mm×20 mm DES implanted at low pressure followed by POT and kissing. Cr: chromium; DES: drug-eluting stent; LAD: left anterior descending artery; LCx: left circumflex artery; LM: left main artery; POT: proximal optimisation technique; Pt: platinum
Figure 3
Figure 3. Sequence of stepwise provisional stenting and its clinical performance with step-by-step stent enhancement.
dMV: distal main vessel; KBI: kissing balloon inflation; MV: main vessel; pMV: proximal main vessel; POT: proximal optimisation technique; SB: side branch
Figure 4
Figure 4. Optimal SB rewiring site check by angiography resulting in good OCT results after 1-stent (A-D) and 2-stent techniques (E-H).
A) Baseline angiography in a patient treated by provisional. B) “Pullback rewiring” manoeuvre. C) Angiography confirming the achievement of distal rewiring. D) Post-PCI 3D OCT showing wide opening of the side branch. E) Baseline angiography in a patient treated by DK crush. F) Advancement of the wire towards the side branch ostium after balloon crush; G ) Fluoroscopic image confirming the “non-distal” rewiring site. H) Post-PCI OCT at the level of bifurcation showing optimal crushing of the side branch stent.
Figure 5
Figure 5. Suboptimal stent implantation revealed by stent enhancement imaging during bifurcation PCI.
A) Stent underexpansion caused by the calcified plaque (arrow); the incomplete crush of the SB stent (arrowhead). B) Incomplete POT in the proximal segment of the LM stent (brace). C) Partial stent deformation caused by the guiding catheter at the LM ostium. D) Uncovered SB ostium (arrow) due to a too distal stent implantation. E) Abluminal SB rewiring and SB stent deformation after kissing balloon inflation (brace). F) Neocarina displacement (arrow) towards the SB ostium caused by a too distal final POT. LM: left main artery; PCI: percutaneous coronary intervention; POT: proximal optimisation technique; SB: side branch
Figure 6
Figure 6. Example of recognised cause for intraprocedural thrombus formation during a 2-stent bifurcation stenting procedure.
A) Intraprocedural angiography showing filling defect (arrow) at the SB ostium during a DK crush procedure on the LM. B) Stent enhancement revealing major deformation after kissing balloon inflation due to abluminal LM stent wiring. DK: double-kissing; LM: left main artery; SB: side branch
Central illustration
Central illustration. Key points for achieving an optimal angiography-guided PCI.
The key points for achieving an optimal angiography-guided PCI include a thorough analysis of pre-PCI images (computed tomography angiography, multiple angiographic views, quantitative coronary angiography vessel estimation), a systematic application of the technical steps suggested for a given selected technique, an intraprocedural or post-PCI use of stent enhancement and a low threshold for bailout use of intravascular imaging. CT: computed tomography; dMV: distal main vessel; IVUS: intravascular ultrasound; KBI: kissing balloon inflation; MV: main vessel; OCT: optical coherence tomography; PCI: percutaneous coronary intervention; pMV: proximal main vessel; POT: proximal optimisation technique; SB: side branch; TIMI: Thrombolysis in Myocardial Infarction

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