Autologous microsurgical breast reconstruction and coronary artery bypass grafting: an anatomical study and clinical implications
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- 作者：Warren M. Rozen (1) warrenrozen@hotmail.com
Xuan Ye (1)
Pedro L. Guio-Aguilar (1)
Alberto Alonso-Burgos (1)
John Goldblatt (2)
Mark W. Ashton (1)
Iain S. Whitaker (13) - 关键词：IMA – ; Internal mammary artery – ; Internal thoracic artery – ; CABG – ; Coronary artery bypass grafting – ; Breast cancer – ; Breast reconstruction – ; DIEP – ; Deep inferior epigastric artery perforator flap – ; Recipient vessels – ; Anatomical study – ; CTA – ; Computer tomographic angiography
- 刊名：Breast Cancer Research and Treatment
- 出版年：2012
- 出版时间：July 2012
- 年：2012
- 卷：134
- 期：1
- 页码：181-198
- 全文大小：819.7 KB
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- ISSN：1573-7217
文摘
Objective To identify possible avenues of sparing the internal mammary artery (IMA) for coronary artery bypass grafting (CABG) in women undergoing autologous breast reconstruction with deep inferior epigastric artery perforator (DIEP) flaps. Background Optimal autologous reconstruction of the breast and coronary artery bypass grafting (CABG) are often mutually exclusive as they both require utilisation of the IMA as the preferred arterial conduit. Given the prevalence of both breast cancer and coronary artery disease, this is an important issue for women’s health as women with DIEP flap reconstructions and women at increased risk of developing coronary artery disease are potentially restricted from receiving this reconstructive option should the other condition arise. Methods The largest clinical and cadaveric anatomical study (n = 315) to date was performed, investigating four solutions to this predicament by correlating the precise requirements of breast reconstruction and CABG against the anatomical features of the in situ IMAs. This information was supplemented by a thorough literature review. Results Minimum lengths of the left and right IMA needed for grafting to the left-anterior descending artery are 160.08 and 177.80 mm, respectively. Based on anatomical findings, the suitable options for anastomosis to each intercostals space are offered. In addition, 87–91% of patients have IMA perforator vessels to which DIEP flaps can be anastomosed in the first- and second-intercostal spaces. Conclusion We outline five methods of preserving the IMA for future CABG: (1) lowering the level of DIEP flaps to the fourth- and fifth-intercostals spaces, (2) using the DIEP pedicle as an intermediary for CABG, (3) using IMA perforators to spare the IMA proper, (4) using and end-to-side anastomosis between the DIEP pedicle and IMA and (5) anastomosis of DIEP flaps using retrograde flow from the distal IMA. With careful patient selection, we hypothesize using the IMA for autologous breast reconstruction need not be an absolute contraindication for future CABG.