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Table 1 Manuscript included for Review

From: Limb ischemia in peripheral veno-arterial extracorporeal membrane oxygenation: a narrative review of incidence, prevention, monitoring, and treatment

Author, year

Type of study

Patient population

Study endpoint

Main comorbidity

Mean ECMO duration

H

survival

Arterial cannula size

Cannulation technique

Decannulation technique

Limb ischemia

DPC timing

DPC size

Ischemia therapy/limb outcome

Sabashnikov, 2018 [24]

R

28 pts.

(15 under CPR):

3 (11%) ARDS

1 (3%) DCM

17 (61%) ICM

5 (18%) PAE

1 (3%) MIO

1 (3%) PCS

Primary:

Early and mid-term overall cumulative survival (2 years follow-up)

Secondary:

-Incidences of ECMO-related complications,

-Impact of CPR on outcome and changes in hemodynamics

-Tissue perfusion factors 24 h after cannulation

NA

96 ± 100 h

11 (40%)

21–23 Fr

PC 27 (90%)

SCD 1 (10%)

NA

3 (10%)

Pre-emptive

19 (68%)

6.5 (6.5–8)

Surgical exploration of the femoral artery and embolectomy using a Fogarty catheter.

Park, 2018 [25]

R

255 pts. with HF and/or ARF

Identify risk factors for lower limb ischemia

CAD 83 (32.5%)

PVD 5 (2%)

89.8 h

NA

(30 days survival 69.8%)

16.5 ± 1.8

PC

NA

24 (9.4%)

Pre-emptive 23 (9%)

Rescue 14 (5.5%)

5–7 Fr

2 surgical catheter removal (functional deficit).

14 rescue DPC

(Of those, 2 needed surgical intervention and survived with functional deficit.)

Yen, 2018 [14]

R

139 pts.:

LI group n = 46

No LI group n = 93

Identify pre-cannulation variables that are associated with limb ischemia and selection criteria for using DPC for prevention of limb ischemia

No LI group:

DM 16 (17%)

HT 28 (30%)

Uremia 10 (11%)

PVD 8 (9%)

LI group:

DM 10 (22%)

HT 17 (37%)

Uremia 8 (17%)

PVD 11 (24%)

NA

No LI group: 69 (74%)

LI group: 25 (54%)

16.5 ± 0.8

PC

NA

46 (33%)

Rescue

6 Fr

NA

Burrell, 2018 [26]

R

144 pts

Complications and outcomes of patients who were commenced on ECMO at a referring hospital compared with patients who had ECMO in a referral center for ECMO.

S 35 (26%)

CAD 35 (26%)

DM 16 (12%)

HF 69 (53%)

CT 18 (13%)

7 (4–11) days

105 (72.9%)

17–19 Fr

PC

NA

1 (0.7%)

Pre-emptive

9 Fr

Resolved after DPC insertion at the referral center

Voicu, 2018 [27]

R

46 pts. with refractory CA

Analyze the feasibility and the time interval required for percutaneous cannulation versus anatomic landmark cannulation for va ECMO.

S 21 (46%)

DM 5 (11%)

HT 17 (37%)

HL 15 (33%)

NA

4 (9%)

15–17-19 Fr

PC

NA

0

Pre-emptive

4 Fr

NA

Salna, 2018 [28]

R

192 pts. with CS:

35% AMI

23% PCS

18% ADHF

15% PGD

8.9% other

Incidence of in-hospital lymphocele formation in VA-ECMO patients and identify predictors for its development

DM 65 (33.9%)

CKD 52 (27.1%

PVD 19 (9.4%)

4 (2–6) days

120 (62.5%)

15–17 Fr

SCD 88 (45.8%)

Surgical

16 (8.3%)

Preventive based on Doppler signal at cannulation

6–10 Fr

NA

Lamb, 2017 [29]

R

91 patients:

CS 73 (80%);

ARF 14 (15%)

PE 3 (4%)

VAD failure 1 (1%)

Evaluation of an ischemia prevention protocol

HT 53 (58%)

DM 26 (29%)

HL 34 (37%)

OB 30 (33%)

CLD 15 (17%)

PVD 6 (7%)

CKD 27 (30%)

9 days

38 (42%)

16-24 Fr on pressure-flow curve and pts. size

PC

Surgical

12 (13%) all in patients without preventive DPC

Preventive 55 (60%)

Rescue 7 (8%)

5 Fr

DPC 2 (2.2%)

DPC+ Fasciotomy 5 (5.5%)

Fasciotomy 4 (4.3%)

Pasrija, 2017 [30]

R

20 pts. with PE

Primary outcome:

In-hospital and 90-day survival.

Secondary outcomes:

-Acute kidney injury that required renal replacement therapy

-New hemodialysis at discharge

-Sepsis,

-Tracheostomy,

-RV dysfunction at discharge

-ECMO-related complications (bleeding that required blood product, stroke after cannulation and vascular complications)

NA

5.1 (3.7–6.7) days

19 (95%)

17–19 Fr

PC

NA

0

Pre-emptive

6 Fr

1 vascular injury due to retrograde type B dissection after ECMO cannulation. Required central cannulation.

Vallabhajosyula, 2016 [31]

R

105 pts. on femoral VA-ECMO:

G1 = no DPC

G2 = PC DPC

G3 = Surgical DPC

Assess if the type of limb perfusion strategy influenced the rate and severity of ipsilateral limb ischemia in peripheral ECLS patients

DM 24 (33%)

HT 39 (37%)

S 22 (21%)

G1 87.7 ± 119 h

G2 88.5 ± 121 h

G3 89.2 ± 120 h

G1 21 (60%)

G2 14 (61%)

G3 32 (68%)

16–20 Fr

NA

NA

G1 7 (20%)

G2 6 (26%)

G3 1 (2.1%)

Pre-emptive 70 (67%)

7 Fr

4 tromboembolectomy + artery repair

4 fasciotomy

3 cannulation revision

1 amputation

Yeo, 2016 [32]

R

151 pts.:

G1 = pre-emptive DPC (44pts)

G2 = rescue DPC (107 pts)

Evaluate the efficacy of pre-emptive DPC during ECMO support in term of limb ischemia prevention

DM 25 (16.4%)

HT 39 (25.7%)

CKD 6 (3.9%)

S 27 (17.8%)

PVD 11 (7.2%)

CVD 5 (3.4%)

G1 4.9 ± 4.9 days

G2

6.0 ± 5.4 days

(Overall mortality G1 66 (61.7%)

G2 17 (38.6%))

G1 17.2 ± 2.1 Fr

G2 17.9 ± 1.8 Fr

PC

NA

10 (6.7%) all in G2

Pre-emptive G1

Rescue G2

5–8 Fr

2 DPC

2 fasciotomy

1 amputation

5 died before therapeutic intervention

Avalli, 2016 [33]

R

100 pts.:

G1 with vascular complications 35 (35%)

G2 without vascular complications 65 (65%)

Primary endpoint was early vascular complication rate. Secondary endpoint was 1-month and 6-month survival

PVD 8 (8%)

CAS 4 (4%)

HT 59 (59%)

DM 19 (19%)

S 25 (25%)

HL 20 (20%

OB 13 (13%)

G1

5 (3–6) days

G2

4.5 (2–9) days

G1 15 (43%)

G2 13 (20%)

15–17 Fr

PC

Manual compression 30′ + SafeGuard

34 (34%)

Rescue

7–9 Fr

30 DPC

6 fasciotomy

1 amputation

Tanaka, 2016 [19]

R

84 pts. on pVA-ECMO.

17/84 with vascular complication (G1)

67/84 without vascular complication (G2)

Impact of vascular complications on survival in patients receiving VA ECMO by means of femoral percutaneous cannulation.

S 28

CAD 34

PVD 3

DM24

COPD 10

G1

14.6 ± 6.7

G2

10.6 ± 7.5

G1 3 (18%)

G2 32 (48%)

G1 19.8 ± 2.3

G2: 19.7 ± 1.7

PC

Surgical

10 (12%)

Pre-emptive except 7 (41%) G1

10 (15%) G2

NA

Prophylactic fasciotomy

Ma, 2016 [34]

R

70 pts.

PCS 44 (63%)

ECPR 21 (30%)

ARF 5 (7%)

To identify predictive factors for vascular complications, and provide insight into how to reduce these complications

NA

NA

NA

15–24 Fr

44 (63%) SCT

25 (36%) PC

1 not recorded

Surgical

14 (20%)

33 Pre-emptive

6 Rescue

6–8.5 Fr

6 DPC rescue

1 embolectomy

1 fasciotomy

1 embolectomy+ femoral artery repair

1 amputation

Esper, 2015 [35]

R

18 pts. with ACS complicated by CS

Single-center experience

DB 5 (27.8%)

HT 9 (50%)

HL 2 (11.1%)

S 3 (16.7%)

PVD 3 (16.7%)

3.2 ± 2.5 days

67%

15–17 FR

PC

NA

4 (22%)

Rescue

NA

DPC

Takayama,2015 [36]

R

101

Group L:

(n 51)

Group S

(n 50)

To compare the clinical outcomes of 2 strategies: conventional approach

(using a 15F–24F cannula- Group L) or smaller cannula of15 Fr (Group S)

Group L

CAD 22 (43)

Ht 26 (51)

HL 15 (29)

DM 17 (33)

COPD 17 (14)

Group S

CAD 31 (62)

HT 33 (66)

HL 23 (46)

DM 16 (32)

COPD 5 (10)

Group L

3.4 (1.0–6.1) days

Group S 3.1 (1.9–5.1) days

Group L

31 (61%)

Group S 27 (54%)

Group L

17 to 24Fr

Group S

15 Fr

Group L

PC 22 (43)

SCD 29 (57)

Group S

PC 44 (88)

SCD 6 (12)

NA

Group L

2 (4)

Group S 2 (4)

Group L 19%

Group S

18%

Inserted if distal doppler signal is lost

NA

NA

Truby, 2015 [37]

R

179 pts. with CS

Trends in device usage, and

analysis of clinical outcomes

CAD 82 (45.8%)

HL 72 (40.2%)

HT 103 (57.5%)

CLD 16 (8.8%)

DB 52 (29.1%)

3.58 days

69 (38.6%)

15–23 Fr

NA

NA

25 (13.9%)

9 Rescue

NA

2 Fasciotomy

Saeed, 2014 [38]

R

37 pts.:

25 p VA ECMO

Compare outcome of cECMO versus pECMO patients in the immediate postoperative period.

DM 3 (12%)

HT 13 (52%)

HL 8 (32%)

CAS 3 (12%)

CKD 9 (36%)

Re-do surgery 5 (20%)

5.8 ± 4.3 days

(30-day mortality 60%)

18–22 Fr

NA

NA

4 (16%)

Pre-emptive

NA

All required surgical intervention

Aziz, 2014 [39]

R

101 pts

Incidence of peripheral vascular complication

HT 33 (32.7%)

DM 22 (21.8%)

HL 22 (21.8%)

S 20 (19.8%)

7.3 days

59 (58.4%)

15–17 Fr

PC

S

8 (8%)

77 (77%) Pre-emptive

NA

8 arterial cannula removal

4 femoral endoarterectomy with patch angioplasty

1 amputation

Papadopoulos, 2014 [40]

R

Total: 360 PCS.

120 (37%) femoral pVA-ECMO

Identification of risk factors for adverse outcome (failed ECLS weaning or in-hospital mortality)

COPD 32 (9%)

HT 227 (63%)

PH 31 (17%)

DM 151 (42%)

CVD 22 (6%)

PVD 65 (18%)

S 122 (34%)

CKD 40 (11%)

7 ± 1 days

108 (30%)

NA

Seldinger or 8-mm Dacron Graft

NA

20 (17% of femoral pVA-ECMO)

NA

NA

Fasciotomy 18 (5% of total pts)

NA data on femoral pVA-ECMO pts.

Stub, 2014 [41]

SC-POT

26 pts. ECPR (24 cannulated)

Primary outcome:

Survival with good neurologic recovery

Secondary outcomes:

Rates of ROSC, successful weaning from ECMO support and ICU and hospital length of stay.

HT 11 (42%)

HL 11 (42%)

DM 2 (8%)

HF 5 (19%)

CAD 4 (15%)

2 (1–5) days

14 (54%)

15 Fr

PC

S

10 (42%)

As soon as possible after ICU admission

8.5 Fr

9 femoral artery repair and surgical placement of DPC

1 fasciotomy

Mohite, 2014 [42]

R

45 pts.:

14 ADHF

8 PCS

6 CS

15 Post CT

2 Bridge to LungT

Compare pts. outcomes focusing on the distal limb perfusion methods (perfusion cannula VS introducer sheat)

NA

Perfusioncannula group:

11.9 ± 9.1 days

Introducer sheat group

7.7 ± 4.3

19 (42.2%)

19–21 Fr

20 (44.5%) PC

14 (31%) SCT

11 (24%) Hybrid

NA

9 (20%)

Pre-emptive

Perfusion cannula 10–12 Fr

Introducer sheat 6–8 Fr

5 (11.2%) conservative

4 (8.8%) surgery

1 amputation

Spurlock, 2012 [43]

R

On 154 patients (data on 36 patients in PTA-DPC)

Posterior tibial artery for DPC placement

NA

5.8 days

63 (41%)

15–24 Fr on surgeon decision

PC

Direct pressure 30 mins

Available only for PTA-DPC group) 3 (8.3%)

DPC in 68 (44%)

PTA-DPC in 36 (24%): 20 (58%) within 6 h of ECMO; 16 (42%) after 6 h of ECMO

6–8 Fr

(Available only for PTA-DPC group)

2 amputation

1 neuropathy

Wong, 2012 [44]

R

20 pts.: 17 (85%) on VA-ECMO

Report single-center experience on cerebral and lower limb NIRS

NA

7 (2–26) days

NA

NA

PC

NA

6 (35%) diagnosed with drop in unilateral lower limb NIRS tracings

Pre-emptive

NA

4 two-compartment prophylactic fasciotomy

Wernly, 2011 [45]

R

51 pts. with Hantavirus cardiopulmonary syndrome

Evaluate the outcome of ECMO support in Hantavirus cardiopulmonary syndrome (HCPS) patients

NA

121.7 h

34 (66.6%)

15–21 Fr

PC 18 (35.3%)

SCD 33 (64.7%)

SCD

4 (8%)

Pre-emptive

8–10 Fr

2 thrombectomy, embolectomy, and insertion of an additional cannula in the superficial femoral artery.

2 Amputations

Ganslmeier, 2011 [46]

NA

158 pts

Reviews cannulation strategies and associated vascular complications

NA

3.6 ± 5.2 days

32 (20%)

13–15–17-19 Fr

PC

SCT if femoral vessels were small during sonography

Safeguard system

13 (8.2%)

NA

NA

50% Surgical revision and vascular reconstruction

100% prophylactic fasciotomy

Bisdas,2011 [15]

R

143 pts. with ECMO VA

To evaluate such complications to outline basic technical principles for their prevention.

HT 77 (44%)

CKD 53 (30%)

CAD 47 (27%)

COPD 25 (14%)

DM 29 (17%)

PAD 15 (9%)

6 days (range, 1 to 11 days).

26%

15F or 17F

Percutaneous

cannulation in 136 (95%) and by open vessel exposure in 7 (5%).

Manual compression, and femoral compression system

8 pts

Pre-emptive

6F

2 amputation

Foley, 2010 [47]

R

43 pts. on femoral pVAECMO

Examine the outcomes of patients placed on ECMO, including the rate of limb ischemia

NA

NA

NA

Li group

16.9 ± 1.1

No li group

18.0 ± 1.7

Pre-emptive DPC group

17.7 ± 1.8

PC

Surgical

7 (21%)

10 pre-emptive

3 Rescue

NA

4 Decannulation and fasciotomy

3 rescue DPC

1 amputation

Arlt, 2009 [48]

R

13 pts.:

10 (77%) CS

3 (27%) Septic shock

Report 9 years emergency ECMO application

NA

3.5 ± 2.9 days

8 (62%)

15–17 Fr

PC

NA

6 (46%)

Not used

NA

Resolved limb ischemia after cannula switch from the femoral artery to the right subclavian artery.

  1. Abbreviations: ADHF acute decompensated heart failure, AF atrial fibrillation, AMI acute myocardial infarction, ARDS acute respiratory distress syndrome, ARF acute respiratory failure, CAD coronary artery disease, CAS carotid artery stenosis, cECMO centrally inserted ECMO, CKD chronic kidney disease, CO cardiac output, COPD chronic obstructive pulmonary disease, CPF cardiopulmonary failure, CRA cardiorespiratory arrest, CS cardiogenic shock, CT cardiac transplantation, CVD cerebrovascular disease, DCM dilatated cardiomyopathy, DM diabetes, DPC distal perfusion cannula, ECMO extracorporeal membrane oxygenation, ECPR extracorporeal membrane oxygenation assisted cardiopulmonary resuscitation, ESPF end stage pulmonary fibrosis, HF heart failure, HL hyperlipidemia, HT arterial hypertension, IABP intra-aortic balloon pump, ICM ischemic cardiomyopathy, ICU intensive care unit, IQR interquartile range, LI limb ischemia, LungT lung transplantation, MIO myocarditis, MR multicenter retrospective, NA not available, NIRS near-infrared spectroscopy, OB obesity, PC percutaneous, PC-DC percutaneous cannulation and distal perfusion catheter, PCS post cardiotomy shock, PE pulmonary embolism, pECMO peripherally inserted ECMO, PGD primary graft disfunction, PH pulmonary hypertension, PPCM peri-partum cardiomyopathy, PTA posterior tibial artery, PVD peripheral vascular disease, R retrospective, RHF right heart failure, S smoking history, SCD surgical cutdown, SC-POT single-center prospective observational trial, SGP side-graft perfusion technique, VAD ventricular assist device