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1 tential interaction of the microbiome in the liver transplant recipient.
2 the leading cause of mortality in kidney and liver transplant recipients.
3 verall costs compared to prophylaxis in D+R- liver transplant recipients.
4 uracy for the diagnosis of IFIs in high-risk liver transplant recipients.
5 ed with increased morbidity and mortality in liver transplant recipients.
6 to isoniazid for tuberculosis prophylaxis in liver transplant recipients.
7 A cross-sectional study was conducted in 244 liver transplant recipients.
8 treatment of CMV disease, particularly among liver transplant recipients.
9 ated with allograft dysfunction in pediatric liver transplant recipients.
10 ts seem to play a key role in non-alcoholic, liver transplant recipients.
11 adherence to immunosuppression in pediatric liver transplant recipients.
12 aring regimens for antifungal prophylaxis in liver transplant recipients.
13 g echinocandins as antifungal prophylaxis in liver transplant recipients.
14 e part of the standard of care for pediatric liver transplant recipients.
15 ic method for GI tract disease in kidney and liver transplant recipients.
16 icity for CMV GI tract disease in kidney and liver transplant recipients.
17 ors is only possible in approximately 20% of liver transplant recipients.
18 rosis especially following HCV recurrence in liver transplant recipients.
19 review three cases of AMR in ABO-compatible liver transplant recipients.
20 its negative impact on long-term survival in liver transplant recipients.
21 ive observational study was conducted in 102 liver transplant recipients.
22 apid fibrosis progression observed in HCV(+) liver transplant recipients.
23 in a longitudinal study of 41 kidney and 33 liver transplant recipients.
24 was performed on whole blood samples of 548 liver transplant recipients.
25 the development of chronic kidney disease in liver transplant recipients.
26 providers, patients with liver disease, and liver transplant recipients.
27 of donor and recipient IL28B genotypes among liver transplant recipients.
28 ported to increase risk of graft failure for liver transplant recipients.
29 d function in the initial recovery period in liver transplant recipients.
30 in healthy, CMV-positive individuals and in liver transplant recipients.
31 and posttransplant hospitalization rates for liver transplant recipients.
32 and early allograft failure in HCV-positive liver transplant recipients.
33 MELD scores and waiting times of liver transplant recipients.
34 lovir prophylaxis for CMV prevention in D+R- liver transplant recipients.
35 ociated with severe recurrent HCV disease in liver transplant recipients.
36 h-degree ACR are decreased in living-related liver transplant recipients.
37 levels with postreperfusion damage in human liver transplant recipients.
38 invasive aspergillosis was evaluated in 154 liver transplant recipients.
39 ipients but did not occur in any of the four liver transplant recipients.
40 poor outcome in hepatitis C virus-coinfected liver transplant recipients.
41 enced 14 episodes of hepatic abscess, all in liver transplant recipients.
42 ophylaxis of CMV disease in CMV-seropositive liver transplant recipients.
43 %) prevailed as digestive tract pathogens in liver transplant recipients.
44 ving trends in invasive fungal infections in liver transplant recipients.
45 donor liver pool available for select adult liver transplant recipients.
46 split-liver transplantation in select adult liver transplant recipients.
47 roscopic approach has never been reported in liver transplant recipients.
48 (CKD) jeopardizes the long-term outcomes of liver transplant recipients.
49 mine is a nonnephrotoxic imaging modality in liver transplant recipients.
50 prevalent cause of non-hepatic mortality in liver transplant recipients.
51 etermined if this is equally detrimental for liver transplant recipients.
52 the treatment of metabolic comorbidities in liver transplant recipients.
53 ommon aim of improving care and outcomes for liver transplant recipients.
54 This retrospective study included 282 HCC liver transplant recipients.
55 lant indication and the ageing population of liver transplant recipients.
56 PET or prophylaxis for 100 days in 205 D+R- liver transplant recipients.
57 opment of BCs in a large cohort of pediatric liver transplant recipients.
58 crolimus (Advagraf) initiation in kidney and liver transplant recipients.
59 ipients, and as digestive tract pathogens in liver transplant recipients.
60 nown whether a similar association exists in liver transplant recipients.
61 ransplant recipients and 10%, 9%, and 13% in liver transplant recipients.
62 t-limiting toxic effects in immunosuppressed liver-transplant recipients.
63 were assessed in a cohort of 216 consecutive liver-transplant recipients.
64 outcomes of 7 renal transplant recipients, 1 liver transplant recipient, 1 heart transplant recipient
65 ients (715 kidney transplant recipients, 190 liver transplant recipients, 102 lung transplant recipie
66 ctively evaluated among pediatric kidney and liver transplant recipients, 12 months posttransplantati
67 PCR results were available for 81 kidney and liver transplant recipients; 20 cases of confirmed CMV G
68 nsplant (37 kidney-transplant recipients, 10 liver-transplant recipients, 5 heart-transplant recipien
71 y, among clinically and biochemically stable liver transplant recipients, a subset with histological
72 nd AT1R antibodies in 2 cohorts of pediatric liver transplant recipients: a stable control cohort wit
73 cryptococcosis was significantly higher for liver transplant recipients (adjusted hazard ratio [HR],
74 tive PTLD in an 18-month-old small bowel and liver transplant recipient after one infusion of partial
75 fied a population-based cohort of first-time liver transplant recipients (aged >=16 years) between 20
77 sted dose in combination with Tac in de novo liver transplant recipients allows CS discontinuation fr
78 ed patient and graft survival rates in adult liver transplant recipients, analyzing outcomes based on
79 h only one case of TMAT, which occurred in a liver transplant recipient and resulted in death from bl
80 ctional, multicenter study that included 344 liver transplant recipients and examined the level of gl
81 vestigated plasma CD154 levels in kidney and liver transplant recipients and found no evidence that C
82 g early have been observed, especially among liver transplant recipients and in cases of graft-transm
83 tial immune suppressive potency in renal and liver transplant recipients and may be safely dosed for
84 immunoregulatory proteogenomic signatures in liver transplant recipients and may therefore facilitate
86 infections has been documented previously in liver transplant recipients and patients with cirrhosis.
87 llular carcinoma incidence is elevated among liver transplant recipients and subsets of non-liver rec
88 nd actinic keratoses in high-risk kidney and liver transplant recipients and to assess associated fac
89 T399I SNPs were assessed in a cohort of 706 liver transplant recipients and were associated with the
90 at the A locus decreases patient survival in liver transplant recipients, and mismatching at the DR a
91 cipients and as digestive tract pathogens in liver transplant recipients, and Pseudomonas aeruginosa
92 ts does not differ from that of HIV-negative liver transplant recipients, and they suggest that HIV i
93 splant portal vein thrombosis in a cohort of liver transplant recipients, and to identify independent
94 ver transplantation and the implications for liver transplant recipients are not well understood and
95 t of metabolic comorbidities specifically in liver transplant recipients are scarce, there is detaile
97 ver biopsy specimens obtained from 15 HCV(+) liver transplant recipients at 6 and/or 12 months posttr
99 ective review in a large cohort of pediatric liver transplant recipients at a single institution to d
100 ot adequate for prevention of CMV disease in liver transplant recipients at high risk for CMV disease
101 e rate of CMV infection were assessed in 232 liver transplant recipients at our institution during a
103 ble-blind trial of antifungal prophylaxis in liver transplant recipients at risk for invasive fungal
104 xpression in liver tissue and serum of adult liver transplant recipients before, early, and late afte
105 l, data were collected from 1799 consecutive liver transplant recipients between January 1, 2002, and
106 The postoperative clinical course of 212 liver transplant recipients between January 2008 and Apr
108 surgical technique and medical management of liver transplant recipients, biliary complications remai
109 portal blood samples obtained from 67 human liver transplant recipients both pre- [portal vein (PV)
110 nd graft survival between obese and nonobese liver transplant recipients, but obesity presents import
111 cause significant morbidity and mortality in liver transplant recipients, but the need and best agent
113 Our data is encouraging and shows that if liver transplant recipients can tolerate treatment for 1
114 ity would significantly advance personalized liver transplant recipient care and management of immuno
116 Assigning a morphometric age to potential liver transplant recipients could improve prediction of
119 score at transplantation and waiting time of liver transplant recipients differs by transplantation c
120 ndings suggest that survival of HIV-positive liver transplant recipients does not differ from that of
121 lood and liver tissue samples collected from liver transplant recipients enrolled in a prospective mu
122 iRNA) profiling in 318 serum samples from 69 liver transplant recipients enrolled in the Immune Toler
124 roborated by sequence analyses of HCV from a liver transplant recipient experiencing viral breakthrou
125 d Transplantation Network database of 52,435 liver transplant recipients from 1995 through 2005.
127 ents database was reviewed to identify adult liver transplant recipients from 2002 through 2016 with
128 followed serum DSA levels of 90 consecutive liver transplant recipients from baseline to 4 months.
129 d graft survival was significantly worse for liver transplant recipients from donors with ITP compare
130 ecipients from donors with ITP compared with liver transplant recipients from donors without ITP (64%
131 dialysis data, we assembled a cohort of 4997 liver transplant recipients from February 27, 2002-Janua
132 ewed the clinical charts of kidney or kidney/liver transplant recipients from January 2005 to Decembe
135 , previous analysis of human bone marrow and liver transplant recipients has demonstrated that platel
136 The prevalence of alcohol use among Finnish liver transplant recipients has not been studied before.
137 lae associated with cytomegalovirus (CMV) in liver-transplant recipients has not been clearly delinea
139 se that occurs despite CMV prophylaxis among liver transplant recipients have been incompletely defin
141 r fibrosis progression among black and white liver transplant recipients have not been investigated.
143 r, other studies showed a high prevalence in liver transplant recipients immediately after, or some t
144 Mycobacterium llatzerense that occurred in a liver transplant recipient in the midwestern United Stat
145 is a significant disparity in MELD scores in liver transplant recipients in small vs large OPOs; fewe
146 sitive and recipient CMV-seronegative (D+R-) liver transplant recipients in the current era are incom
147 hort study analyzed all adult deceased donor liver transplant recipients in the Scientific Registry o
148 al of all adult, first-time, deceased-donor, liver transplant recipients in the United States since t
149 udy, HIV-positive to HIV-positive kidney and liver transplant recipients in the USA were examined for
150 titis C virus (HCV)-specific CD8+ T cells in liver transplant recipients in whom the allograft is HLA
152 fective for the prevention of CMV disease in liver transplant recipients, including high-risk patient
153 romboembolic events across a wide variety of liver transplant recipients, including those at low risk
156 ormed donor-specific HLA antibodies (DSA) in liver transplant recipients is increasingly recognized;
158 hown to enhance immunoregulatory profiles in liver transplant recipients (LTR), mTOR-I therapy might
161 in eight HTRs (ages 57 +/- 6 years) and six liver-transplant recipients (LTRs) (ages 52 +/- 2 years)
164 from the case notes of 181 consecutive adult liver transplant recipients (median follow-up 54 months)
166 In an open-label, multicenter study, stable liver transplant recipients (n=69) were converted from t
167 9.0; 95% confidence interval, 1.8-45.8) and liver transplant recipients (odds ratio, 12.1; 95% confi
168 cipients between 2006-2017, we compared 2048 liver transplant recipients of steatotic livers to 69 39
169 ents between 2006 and 2017, we compared 2048 liver transplant recipients of steatotic livers with 69
170 port the clinical course and management of a liver transplant recipient on hemodialysis, who presente
171 s little is known about the opinion of Dutch liver transplant recipients on anonymity of organ donati
172 lood mononuclear cells from a group of eight liver transplant recipients, one of whom had stopped all
179 ained suppression of HCV replication in this liver transplant recipient provides great promise for th
181 an important one because the benefits to the liver transplant recipient receiving a kidney transplant
182 clearance of disseminated ADV infection in a liver transplant recipient receiving CDV infusions.
183 98 to November 2001, 81 pediatric orthotopic liver transplant recipients receiving 89 liver grafts we
184 eceptor 1 gene, Angiotensinogen gene) in 233 liver transplant recipients receiving Cyclosporine (CsA)
185 hronic rejection does not occur in pediatric liver transplant recipients receiving tacrolimus-based i
188 cii pneumonia (PCP) occurred among renal and liver transplant recipients (RTR and LTR) in the largest
189 file of biomarkers that predict tolerance in liver transplant recipients (see the related article beg
190 nt randomized phase III study of 719 de novo liver transplant recipients showed that early everolimus
192 present data from a retrospective review in liver-transplant recipients suffering from HCV recurrenc
193 pression might improve long-term outcomes in liver transplant recipients than IR-T-based immunosuppre
196 lobe living-donor hepatectomies for 95 adult liver-transplant recipients, the largest single institut
197 ence of viral infections and malignancies in liver transplant recipients, this gene set provides an i
198 ized multicenter open-label trial in de novo liver transplant recipients to assess the feasibility an
199 We retrospectively studied kidney and kidney/liver transplant recipients to estimate their POAF incid
200 al assays before and after SRL conversion in liver transplant recipients to test for enhanced markers
201 analysis in operationally tolerant pediatric liver transplant recipients (TOL), those undergoing pros
202 operational tolerance in pediatric and adult liver transplant recipients, transcriptional profiles we
203 Despite this, the long-term outcomes of HCV+ liver transplant recipients transplanted from HCV+ donor
204 Our aim is to evaluate long-term outcomes in liver transplant recipients transplanted with HCV antibo
206 tcome of 265 consecutive chronic hepatitis B liver transplant recipients treated with entecavir monot
207 he same eligibility criteria consisted of 50 liver transplant recipients treated with our standard Ta
208 ce of 30% to 37% in kidney and 44% to 45% in liver transplant recipients treated with tacrolimus.
209 rs for new-onset diabetes mellitus (NODM) in liver transplant recipients using the Organ Procurement
210 f virus by culture in patients only when the liver transplant recipient was CMV immune before transpl
211 registry and Medicare claims data for 12,803 liver transplant recipients was developed to capture inf
212 Hepatocellular carcinoma incidence among liver transplant recipients was elevated overall (SIR 3.
213 e tolerability of daily interferon dosing in liver transplant recipients was evaluated and effects on
215 le-center study of 137 consecutive pediatric liver transplant recipients was to examine the effect of
217 is single-center study of 88 consecutive DCD liver transplant recipients were (1) to compare renal ou
222 IV-positive to HIV-positive kidney and eight liver transplant recipients were followed from March, 20
223 udy, HIV-positive to HIV-positive kidney and liver transplant recipients were followed in three hospi
230 udy, serial blood samples from 689 kidney or liver transplant recipients were tested for CMV DNA by q
232 viral growth during infection of HCMV-naive liver transplant recipients, whereas lower efficacy leve
233 thern California to create a database of 598 liver transplant recipients, which incorporates diagnost
234 scribe the first case in the literature of a liver transplant recipient who developed an infrarenal a
235 d by B. multivorans occurring in a pediatric liver transplant recipient who does not have cystic fibr
236 ssociated visceral angioedema occurring in a liver transplant recipient who presented with acute-onse
238 single-center retrospective analysis of 207 liver transplant recipients who achieved MELD score of 4
240 ubjects consisted of 27 hepatitis C-infected liver transplant recipients who had liver biopsy specime
242 disease is an important clinical problem in liver transplant recipients who receive antiviral prophy
243 risk factors for CMV disease in a cohort of liver transplant recipients who received antiviral proph
244 the first posttransplant year in a cohort of liver transplant recipients who received antiviral proph
245 transplantation in cohorts of high-risk D+R- liver transplant recipients who received either PET (n =
246 ologic injury due to histoincompatibility in liver transplant recipients who received sequential kidn
247 initiation of isoniazid chemoprophylaxis in liver transplant recipients who test positive on the tub
251 and quantified the circulating ApoL1 in two liver transplant recipients whose native APOL1 genotype
252 psy-proven regression of liver fibrosis in a liver transplant recipient with cirrhosis after chronic
254 inimal transient side effects in a pediatric liver transplant recipient with disseminated adenoviral
255 of an interferon-free, all oral regimen in a liver transplant recipient with severe recurrent HCV.
256 er-related death, or retransplantation among liver transplant recipients with a CC genotype donor.
258 We reviewed all records of adult kidney and liver transplant recipients with a GI tract biopsy and p
260 in the tubulointerstitium of kidneys from 15 liver transplant recipients with biopsy-confirmed chroni
261 stochemical analyses of kidney biopsies from liver transplant recipients with chronic CsA nephrotoxic
262 C57BL/6 J wild type and Nox2-/- mice, and in liver transplant recipients with chronic CsA nephrotoxic
263 g three times daily) in 303 CMV-seronegative liver transplant recipients with CMV-seropositive donors
264 of CMV disease in high-risk CMV-seronegative liver transplant recipients with CMV-seropositive donors
266 large report of DC as a viable strategy for liver transplant recipients with coagulopathy or hemodyn
267 ciated conditions that are being provided to liver transplant recipients with diabetes have not yet b
269 th a short course (in hospital only) HBIG in liver transplant recipients with HBV DNA less than 100 I
270 ransplantation survival of adult, first-time liver transplant recipients with HCC (n = 9135) or witho
272 ecipients (1995-2013), we selected all adult liver transplant recipients with HCV, and cross-sectiona
273 ecember 19, 2011 and January 25, 2013, seven liver transplant recipients with hepatitis C received be
275 ucted a multicenter case-control study of 52 liver transplant recipients with hepatitis C to assess t
278 nt trend toward the use of elderly donors in liver transplant recipients with low model of end-stage
279 tric bypass can be successfully performed in liver transplant recipients with morbid obesity and may
282 ed a retrospective cohort study of 749 adult liver transplant recipients with pre- and posttransplant
284 osuppression regimen in hepatitis C-positive liver transplant recipients with renal dysfunction, and
285 lowing liver transplantation alone or SLK in liver transplant recipients with renal dysfunction.
287 transplantation (CLKT) improves survival for liver transplant recipients with renal dysfunction; howe
288 transplantation (CLKT) improves survival for liver transplant recipients with renal dysfunction; howe
289 ntiviral prophylaxis in 205 CMV-seronegative liver transplant recipients with seropositive donors age
290 l prophylaxis for high-risk CMV-seronegative liver transplant recipients with seropositive donors, hi
292 It is important to avoid PEG therapy in liver transplant recipients with specific clinical, bioc
295 ution that must be taken when treating HCV-R liver-transplant recipients with combination pegylated a
297 h rate of sustained virologic response among liver-transplant recipients with recurrent HCV genotype
298 merase inhibitor dasabuvir, and ribavirin in liver-transplant recipients with recurrent HCV genotype
299 ong-term treatment with ribavirin is safe in liver transplant recipients, without achieving HEV susta