Copyright
©The Author(s) 2019.
World J Crit Care Med. Dec 20, 2019; 8(8): 135-147
Published online Dec 20, 2019. doi: 10.5492/wjccm.v8.i8.135
Published online Dec 20, 2019. doi: 10.5492/wjccm.v8.i8.135
Participants | Patients undergoing major aortic surgery for aneurysmal disease or dissection |
Intervention | VA-ECMO in patients requiring major aortic surgery for aneurysmal disease or dissection |
Comparison | Comparison with those who did not need ECMO support |
Outcome | If ECMO support made a difference |
Study design | Prospective and retrospective clinical studies; case series and case reports |
Ref. | Study design/level of evidence | ECMO patients | Outcome |
Abouliatim et al[27], 2012 | Brief Communication; Level 3 | AAA repair on ECMO support in 2 patients after failed EVAR | Both patients were discharged 12 days postoperatively |
Lorusso et al[28], 2019 | Surgical Technique; Level 3 | 2 patients requiring elective aortic arch replacement and treated with minimally invasive central ECMO, which avoids re-sternotomy and maintains antegrade blood flow | Successful outcome for both patients. The technique is suitable only in those patients where a side-armed prosthetic graft had been used |
Lazar et al[29], 2017 | Invited commentary; Level 3 | Comment to Sultan, 2017 with further considerations about ECMO in aortic dissection | |
Guenther et al[30], 2014 | Retrospective Case Review; Level 3 | 6 patients with acute type A aortic dissection involving the coronary arteries treated with ECMO support | Mortality 67% (4 patients) |
Lin et al[31], 2018 | Observational Study; Level 2- | 510 patients with TAAD between 2007 and 2018 17 required ECMO postoperatively | Comparison between low LVEF and preserved LVEF |
Lin et al[32], 2017 | Retrospective Study; Level 2- | 162 patients underwent TAAD repair between 2008 and 2015 20 patients required ECMO support postoperatively | Mortality: ECMO group 65%; non-ECMO group 8.5% |
Factors predicting postop ECMO: haemodynamic instability; aortic cross-clamp time; postop peak creat kinase-MB | |||
Younger age for ECMO survivors | |||
Zhong et al[33], 2017 | Retrospective Study; Level 2- | 5637 patients underwent major aortic surgery between 2009 and 2016 36 patients required ECMO support: 20 with TAAD; 3 Type B; 12 with thoracic aortic aneurysm; 1 with CoA (aortic coarctation) | Mortality 50% |
Three main factors for in-hospital mortality: retrograde-flow cannulation; preop CK-MB level 100 IU/L; peak lactate level 20 mmol/L | |||
Sultan et al[34], 2017 | Retrospective Study; Level 2- | Database review between 2004 and 2014 35 patients with Type A Aortic Dissection (TAAD) underwent ECMO support | Overall mortality 88% |
There is no mention about indications for ECMO support; profile and co-morbidities of these patients; cannulation site (peripheral or central); cause of death | |||
Guihaire et al[35], 2017 | Retrospective Study; Level 2- | 92 patients required ECMO support following valve surgery (66%), acute aortic dissection (10%) and CABG (9%) | Survival for patients with aortic dissection is not specified |
Gennari et al[36], 2019 | Case Report; Level 3 | 1 patient with iatrogenic type A aortic dissection requiring ECMO support | Successful weaning off ECMO after 4 days |
Chatterjee et al[37], 2018 | Case Report; Level 3 | 3 patients requiring ECMO support after thoraco-abdominal aneurysm repair | 1 patient discharged after 128 days but died 2 months later |
1 patient discharged after 35 days and alive at 3-year follow up | |||
1 patient discharged after 19 days and alive at 6-month follow up | |||
Beyrouti et al[38], 2018 | Case Report; Level 3 | 1patient with aortic dissection involving the left main stem requiring ECLS and subsequently LVAD | Discharged after 27 days |
Yukawa et al[39], 2018 | Case Report; Level 3 | Acute aortic dissection with out-of-hospital cardiac arrest requiring ECMO support | Discharged after 49 days |
Stroehle et al[40], 2017 | Case Report; Level 3 | Traumatic aortic dissection treated with TEVAR on ECMO support | Discharged after 42 days to neuro-rehabilitation |
Szczechowicz et al[41], 2016 | Case Report; Level 3 | 2 patients with acute type A aortic dissection complicated by right ventricular failure requiring ECMO support | First patient discharged after 27 days; second patient discharged to the ward after 8 days in ITU but no mention about how many days before discharge |
Ishida et al[42], 2015 | Case Report; Level 3 | Two-stage procedure on ECMO support in 1 patient who sustained type A acute aortic dissection in a background of chronic thrombo-embolic pulmonary hypertension | Prolonged hospital stay; no mention how many days before discharge |
Yavuz et al[43], 2015 | Case Report; Level 3 | ECMO following TEVAR in 1 patient | No mention about outcome |
Amako et al[44], 2013 | Case Report; Level 3 | 1 patient with type A aortic dissection treated with ECMO support | ECMO weaned off after 65 hours uneventfully |
Doguet et al[45], 2010 | Case Report; Level 3 | 1 patient with acute type A aortic dissection involving the coronary arteries treated with ECMO support | Discharged after 29 days postoperatively |
Koster et al[46], 2007 | Case Report; Level 3 | 1 patient with acute type A aortic dissection requiring ECMO support who developed HIT treated successfully with bivalirudin | LV recovery during VA-ECMO support but RVAD required. Successful ECMO weaning; RVAD removed after 6 weeks |
Fabricius et al[47], 2001 | Case Report; Level 3 | 2 patients who sustained acute type A aortic dissection during pregnancy treated with ECMO support | Successful ECMO weaning |
Yamashita et al[48], 1994 | Case Report; Level 3 | 1 patient with acute aortic dissection treated with ECMO support | Successful ECMO weaning |
Jorgensen et al[49], 2019 | Conference Abstract; Level 3 | Elective femoro-femoral VA-ECMO support for thoraco-abdominal aortic aneurysm repair in a 82-year-old patient | Discharged 11 days postoperatively |
Heuts et al[50], 2017 | Conference Abstract; Level 3 | Surgical technique for ECMO insertion (the Maastricht Approach) | See Lorusso, 2019 in this table |
Yang et al[51], 2017 | Conference Abstract; Level 3 | Retrospective analysis of 1695 patients who underwent surgery for aortic dissection between 2008 and 2015. 42 patients required VA-ECMO support | 30 patients were successfully weaned off VA-ECMO and 19 patients were discharged. |
Higher lactate levels, pre-ECMO cardiac arrest, major haemorrhage and renal replacement therapy were related to in-hospital mortality | |||
Goldberg et al[52], 2017 | Conference Abstract; Level 3 | 185 patients requiring repair of acute type A aortic dissection between 2005 and 2016. 4 patients required VA-ECMO support. | All 4 patients survived to hospital discharge |
Schmidt et al[53], 2016 | Conference Abstract; Level 3 | Acute type A aortic dissection presenting as acute coronary syndrome requiring ECMO support in the cath lab as a bridge to surgical intervention | Fatal outcome |
Nierscher et al[54], 2012 | Conference Abstract; Level 3 | Observational study of patients undergoing cardiac surgery in 2008. 35 patients required ECMO support. Only one patient with aortic dissection is reported. | Survival not specified for the patient with aortic dissection |
Shinar et al[55], 2011 | Conference Abstract; Level 3 | Observational study over a 14-mo period of ECMO support initiated by A&E physicians. The procedure was attempted in 19 patients | Four patients were discharged without neurological injury: 2 patients after MI, one after aortic dissection with cardiac tamponade and one after profound hypothermia |
Ref. | Study design/level of evidence | ECMO patients |
Lin et al[31], 2018 | Observational Study; Level 2- | 510 patients with ATAAD between 2007 and 2018 |
Entry Tear Exclusion 73.1% | ||
Aortic Root Replacement 11.4% | ||
Ascending Aorta Replacement 65.9% | ||
Aortic Arch Replacement 25.3% | ||
Hemiarch 13.3% | ||
Total Arch 12.0% | ||
Frozen Elephant Trunk 8.2% | ||
Combined CABG 3.7% | ||
17 required ECMO support but no procedure break down is available | ||
Lin et al[32], 2017 | Retrospective Study; Level 2- | 162 patients underwent type A aortic dissection repair between 2008 and 2015 |
20 patients required ECMO support as follows: | ||
Ascending Aorta Interposition graft 6 | ||
Aortic Root/Valve Procedure 9 | ||
Aortic Arch Procedure 10 | ||
Combined CABG 5 | ||
Combined Mitral Replacement/Repair 1 | ||
Combined Femoro-femoral crossover 1 | ||
Zhong et al[33], 2017 | Retrospective Study; Level 2- | 5637 patients underwent major aortic surgery between 2009 and 2016 36 patients required ECMO support as follows: |
Type A aortic dissection 20 | ||
Type B aortic dissection 3 | ||
Thoracic aortic aneurysm 12 | ||
Aortic coarctation 1 | ||
Emergency surgery 9 | ||
Second operation 7 | ||
Ascending aorta replacement 34 | ||
Arch replacement 21 | ||
Descending aorta atenting 17 | ||
Thoraco-abdominal aorta replacement 2 | ||
Combined valve replacement 21 | ||
Combined CABG 16 | ||
Central ECMO cannulation 7 | ||
Peripheral ECMO cannulation 29 | ||
Femoro-femoral 20 | ||
Femoral vein to right axillary artery 7 | ||
Femoro-femoral + right axillary artery 2 | ||
IABP 9 | ||
Sultan et al[34], 2017 | Retrospective Study; Level 2- | Database review between 2004 and 2014 |
35 patients with type A aortic dissection underwent ECMO support No procedure and cannulation break down is available | ||
Guihaire et al[35], 2017 | Retrospective Study; Level 2- | 92 patients underwent ECMO support between January 2005 and December 2014 for post-cardiotomy cardiogenic shock as follows: |
Valve surgery 66% | ||
Acute Aortic Dissection 10% | ||
CABG 9% | ||
Break down of procedures and cannulation is not available | ||
Nierscher et al[54], 2012 | Conference Abstract; Level 3 | 35 patients underwent ECMO support in 2008 following CABG (7), valve procedure (8), heart transplant (8), LVAD insertion (1), combined procedure (10), aortic dissection (1). |
Cannulation was peripheral (23), central (7), subclavian artery (5). | ||
Gennari et al[36], 2019 | Case Report; Level 3 | 1 patient with iatrogenic type A aortic dissection requiring ECMO support through peripheral cannulation. Ascending aorta replacement including right coronary sinus with interposition graft and single-vessel coronary artery bypass grafting. |
Jorgensen et al[49], 2019 | Conference Abstract; Level 3 | 1 patient with thoraco-abdominal aortic aneurysm requiring ECMO support through peripheral cannulation. A multi-branched Gelweave Dacron graft was used. |
Chatterjee et al[37], 2018 | Case Report; Level 3 | 3 patients requiring ECMO support after thoraco-abdominal aneurysm repair. |
2 patients had previous type A aortic dissection repair; 1 patient had ascending aorta and hemiarch replacement for type A aortic dissection and subsequent TEVAR procedure. ECMO cannulation between left axillary artery and femoral vein (1 patient), femoro-femoral (2 patients). | ||
Beyrouti et al[38], 2018 | Case Report; Level 3 | 1 patient with aortic dissection involving the left main stem treated with ascending aorta interposition graft and CABG requiring ECLS through central cannulation and subsequently LVAD |
Yukawa et al[39], 2018 | Case Report; Level 3 | Acute aortic dissection with out-of-hospital cardiac arrest requiring ECMO support through peripheral percutaneous femoral cannulation and treated with ascending aorta replacement using an interposition graft |
Yang et al[51], 2017 | Conference Abstract; Level 3 | 1695 patients underwent repair for aortic dissection between 2008 and 2015. 42 patients required ECMO support. Procedure and cannulation break down is not available |
Goldberg et al[52], 2017 | Conference Abstract; Level 3 | 185 patients underwent surgical intervention for acute type A aortic dissection between January 2005 and May 2016. 4 patients required VA-ECMO support. Break down of procedures, concomitant procedures and type of cannulation are not available |
Stroehle et al[40], 2017 | Case Report; Level 3 | Traumatic aortic dissection treated with TEVAR on ECMO support |
Schmidt et al[53], 2016 | Conference Abstract; Level 3 | Emergency ECMO insertion in the Cath Lab with findings of type A acute aortic dissection resulting in fatal outcome |
Szczechowicz et al[41], 2016 | Case Report; Level 3 | 2 patients with acute type A aortic dissection complicated by right ventricular failure requiring ECMO support |
Ishida et al[42], 2015 | Case Report; Level 3 | Two-stage procedure on ECMO support in 1 patient who sustained acute type A aortic dissection in a background of chronic thrombo-embolic pulmonary hypertension |
Yavuz et al[43], 2015 | Case Report; Level 3 | ECMO following TEVAR in 1 patient |
Guenther et al[30], 2014 | Retrospective Case Review; Level 3 | 6 patients with acute type A aortic dissection involving the coronary arteries treated with ECMO support |
Amako et al[44], 2013 | Case Report; Level 3 | 1 patient with acute type A aortic dissection treated with ECMO support |
Abouliatim et al[27], 2012 | Brief Communication; Level 3 | AAA repair on ECMO support in 2 patients after failed EVAR |
Shinar et al[55], 2011 | Conference Abstract; Level 3 | 19 cases of ECMO insertion in Accident & Emergency Department through percutaneous cannulation of the femoral vessels |
Doguet et al[45], 2010 | Case Report; Level 3 | 1 patient with acute type A aortic dissection involving the coronary arteries treated with peripheral ECMO support through femoro-femoral cannulation. CABG as concomitant procedure. |
Koster et al[46], 2007 | Case Report; Level 3 | 1 patient with acute type A aortic dissection requiring ECMO support using bivalirudin |
Fabricius et al[47], 2001 | Case Report; Level 3 | 2 patients who sustained acute type A aortic dissection during pregnancy treated with ECMO support |
Yamashita et al[48], 1994 | Case Report ; Level 3 | 1 patient with acute aortic dissection treated with ECMO support |
- Citation: Capoccia M, Maybauer MO. Extra-corporeal membrane oxygenation in aortic surgery and dissection: A systematic review. World J Crit Care Med 2019; 8(8): 135-147
- URL: https://www.wjgnet.com/2220-3141/full/v8/i8/135.htm
- DOI: https://dx.doi.org/10.5492/wjccm.v8.i8.135