Bilbao I, Dopazo C, Lazaro J, Castells L, Caralt M, Sapisochin G, Charco R. Multiple indications for everolimus after liver transplantation in current clinical practice. World J Transplant 2014; 4(2): 122-132 [PMID: 25032101 DOI: 10.5500/wjt.v4.i2.122]
Corresponding Author of This Article
Itxarone Bilbao, MD, PhD, Hepatobiliopancreatic Surgery and Liver Transplant Unit of the Department of General Surgery, Hospital Vall Hebrón, Universidad Autónoma Barcelona, Paseo Vall d´Hebron, 119-129, 08035 Barcelona, Spain. ibilbao@vhebron.net
Research Domain of This Article
Transplantation
Article-Type of This Article
Original Article
Open-Access Policy of This Article
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World J Transplant. Jun 24, 2014; 4(2): 122-132 Published online Jun 24, 2014. doi: 10.5500/wjt.v4.i2.122
Table 1 Characteristics of recipients, donors, surgery and post-transplant evolution in 74 patients receiving everolimus n (%)
Recipient
Mean age (yr)
55.5 ± 9 r (25-69)
Patients > 65 yr
10 (13.5)
Male/female
55 (74.3)/19 (25.7)
Diagnosis
HCC with cirrhosis
35 (47.2)
Alcoholic cirrhosis
18 (24.3)
HCV cirrhosis
16 (21.6)
Cholostatic cirrhosis
3 (4.1)
Liver insufficiency
2 (2.8)
HCV - HBV
40 (54)-3 (4)
ETOH
38 (51.4)
HIV
4 (5.4)
Child-Pugh A/B/C (%)
35-30-35
UNOS (home/Hosp/ICU (%)
90.5-6.8-2.7
Pre-LT associated disease
Renal insufficiency
11 (14.9)
Diabetes mellitus
18 (24.3)
Arterial hypertension
14 (18.9)
Cardiopathy
3 (4.1%)
Previous surgery
15 (20.3)
Donor
Mean age (yr)
48 ± 19 r (14-81)
Patients > 70 yr
14 (19)
Male/female (%)
49 (66)/25 (34)
Graft steatosis > 20%
11 (15)
Death (CET, CVA, Other) (%)
43-43-14
Surgery
E-E/E-E + Kehr/C-Y (%)
84-8-8
Previous portal thrombosis
10 (13.6)
Median RBC units
4 (r: 0-40)
Cold ischaemia time (min)
378 ± 97
Post-transplant evolution
Ischaemia-reperfusion injury
14 (19)
(ALT > 1000 IU, Quick < 60%)
Biliary complication
7 (9.5)
Postoperative arterial complication
2 (2.7)
Median time from event to conversion
1 mo (r: 0.1-19)
Median time from LT to conversion
6 mo (r: 0.1-192)
Early/late conversion
< 1 yr/≥ 1 yr
42 (56.8)/32 (43.2)
Mean follow-up post-conversion
22 ± 19 mo (r: 0.5-74)
Median follow-up post-conversion
17.5 mo
Table 2 Causes of conversion and other comorbidities at the time of conversion to everolimus in 74 liver transplant patients n (%)
Cause of conversion
Refractory rejection
23 (31.1)
Resolution
17 (73.9)
Extended HCC in explanted liver
14 (19)
Prevention of recurrence
7 (50)
HCC recurrence during follow-up
6 (8.1)
Stabilization
0 (0)
De novo tumour
13 (17.6)
Prevention of recurrence
8 (61.5)
CNI-related neurotoxicity
8 (10.8)
Resolution or Stabilization
8 (100)
Renal dysfunction
6 (8.1)
Resolution or Amelioration
3 (50)
Other causes
4 (5.4)
Resolution
2 (50)
Comorbidity at time of conversion
Chronic renal insufficiency
22 (29.8)
Resolution or Amelioration
15 (68.2)
Diabetes mellitus
21 (28.4)
Resolution or Amelioration
8 (38)
Arterial hypertension
25 (33.8)
Resolution or Amelioration
3 (12)
Dyslipidemia
30 (40.5)
Resolution or Amelioration
2 (6.7)
Table 3 Type of immunosuppression pre- and post-conversion to everolimus
Pre-conversion
n = 74
Post-conversion
n = 74
FK + MMF + ST
16
FK + EVER
38
FK + MMF
20
FK + EVER + MMF
1
FK + ST
12
FK + EVER + ST
11
FK
21
FK + EVER + MMF + ST
4
CyA + MMF + ST
1
CyA + EVER
3
CyA + MMF
1
CyA
2
EVER
2
EVER + ST
5
MMF + ST
1
EVER + MMF
2
EVER + MMF + ST
8
Table 4 Comparison between patients with hepatocellular carcinoma outside Milan criteria in the explanted liver receiving everolimus and a historical cohort not receiving mTOR inhibitors, and liver-transplanted patients with recurrence of hepatocellular carcinoma receiving everolimus and a historical cohort not receiving mammalian target of rapamycin inhibitors n (%)
HCC outside Milan criteria inexplanted livers
Patients receiving everolimusn = 14
Historical controls without mTORin = 14
P
Recipient age at transplant (yr)
55.5 ± 11.3
56.38 ± 7.1
NS
Recipient sex (male-female) (%)
86-14
79 - 21
NS
Child–Pugh status
6.7 ± 1.8
6.5 ± 1.4
NS
MELD score
13.6 ± 5
11.4 ± 3.4
NS
Size of largest tumour on pathologic exam
3.43 ± 1.50
3.152 ± 1.05
NS
Nº of tumours at pathologic exam
2.70 ± 1.7
2.74 ± 1.7
NS
Microvascular invasion
10 (78)
4 (29)
0.02
Macrovascular invasion
5 (39)
0
0.01
Satellitosis
7 (50)
3 (21.4)
NS
Well-moderately differentiated tumour (%)
31-69
50-50
NS
Mean alpha-fetoprotein
366 ± 771
55 ± 125
NS
Median alpha-fetoprotein
12 (3-2571)
8 (2-445)
NS
HCC treatment while on waiting list
9 (64.3)
8 (57)
NS
Mean donor age in years
59 ± 14.9
58 ± 12.6
NS
Mean and median patient survival post-LT (mo)
56 ± 8.5 (59)
67 ± 11 (54)
NS
HCC recurrence in post-LT follow-up
n = 6
n = 6
P
Recipient age at transplant (yr)
53.6 ± 10
46.5 ± 13
NS
Recipient sex (male-female) (%)
100-0
83-17
NS
Milan criteria in explanted liver (yes-no) (%)
33-67
33-67
NS
Mean donor age (yr)
52.1 ± 16
41 ± 12.8
NS
Months from LT to recurrence
37.9 ± 45
28.5 ± 30
NS
Immunosuppression at recurrence (CyA-FK) (%)
17-83
17-83
NS
Type of recurrence (intra–extrahepatic) (%)
17-83
17-83
NS
Table 5 Comparison between liver-transplanted patients with de novo tumour receiving everolimus and a historical cohort not receiving mammalian target of rapamycin inhibitors
Patients receiving everolimusn =13
Historical controls without mTORin = 13
P
Recipient age at transplant (yr)
60.8 ± 5.8
59.5 ± 6.6
NS
Recipient sex (male-female) (%)
77-23
75-25
NS
Indication for LT (%)
NS
Postnecrotic-HCC in cirrhosis
68%
70%
NS
Mean time from LT to diagnosis of de novo tumour (mo)
67 ± 50
65.9 ± 37
NS
Tumour site and histology
NS
Colon ADK
4
4
Prostate ADK
2
2
Lung SCC
1
1
Larynx SCC (4)
2
2
Esophagus SCC(3) + ADK(1)
2
2
Anus SCC
1
1
Breast IDC
1
1
Type of treatment
NS
Surgery ± QT ± RT
10
10
QT ± RT
3
3
NS
Immunosuppression at diagnosis
Cyclosporine-tacrolimus (%)
8-92
24-76
NS
Mean patient survival from diagnosis of tumour (mo)
32.9 ± 15
30.7 ± 20.6
NS
Table 6 Efficacy in cases of early (within one year post-transplantation) and late (after one year post-transplantation) conversion to everolimus n (%)
Early conversion
Cause of conversion
42 (56.8)
Resolution/stabilization or prevention of recurrence in 29 patients (69)
Refractory rejection
13 (17.6)
Resolution in 11 (84.6)
Advanced HCC in explanted liver
12 (16.3)
Prevention of recurrence in 6 (50)
HCC recurrence during follow-up
3 (4.1)
-
De novo tumour
0
-
CNI-related neurotoxicity
8 (10.8)
Resolution or amelioration in 8 (100)
Renal dysfunction
4 (5.4)
Resolution in 3 (75)
Other causes
2 (2.6)
Resolution in 1 (50)
Late conversion
Cause of conversion
32 (43.2)
Resolution/stabilization or prevention of recurrence in 16 patients (50)
Refractory rejection
10 (13.5)
Resolution in 6 (60)
Advanced HCC in ex planted liver
2 (2.7)
Prevention of recurrence in 1 (50)
HCC recurrence during follow-up
3 (4.1)
-
De novo tumour
13 (17.6)
Prevention of recurrence in 8 (61.5)
CNI-related neurotoxicity
0
-
Renal dysfunction
2 (2.7)
Resolution in none (0)
Other causes
2 (2.7)
Resolution in 1 (50)
Table 7 Adverse events, causes of discontinuation and mortality n (%)
Patients receiving everolimus (n = 74)
Adverse events
27 (36.5)
Dyslipidemia
27 (36.5)
Infections
9 (12.2)
Mucositis
3 (4.1)
Diarrhoea
1 (1.4)
Proteinuria
1 (1.4)
Acute rejections post-conversion
11 (14.9)
Causes of discontinuation
21 (28.4)
Resolution of the cause of conversion
6 ( 8.1)
Non-responding rejection and retransplantation
6 ( 8.1)
Drug-related adverse events
5 ( 6.7)
Intercurrent surgery
4 ( 5.5 )
Causes of mortality
25 (33)
HCC recurrence during follow-up
10
De novo tumour
4
HCV recurrence
4
Chronic rejection
4
Sepsis
1
Graft-vs-host disease
1
Other causes
1
Table 8 Future challenges in liver transplantation and the potential role of everolimus
Future challenges
Potential role of everolimus
More marginal donors
Renal function protection
Recipients with more serious disease, selected by MELD
Renal function protection
Recipients with more serious disease, with metabolic syndrome
Prevention of cardiovascular events
Less HCV cirrhosis but more aggressive strains
Antifibrotic effect
More NASH
Prevention of cardiovascular events
More metabolic syndrome during follow-up
Prevention of cardiovascular events
More HCC recurrence
Antiproliferative effect
More de novo tumours
Antiproliferative effect
CNIe-related neurotoxicity
Good neurological profile
Citation: Bilbao I, Dopazo C, Lazaro J, Castells L, Caralt M, Sapisochin G, Charco R. Multiple indications for everolimus after liver transplantation in current clinical practice. World J Transplant 2014; 4(2): 122-132