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1 s, but also as an unavoidable consequence of solid organ transplantation.
2 future is improving long-term outcomes after solid organ transplantation.
3 used to prevent rejection and graft loss in solid organ transplantation.
4 -mediated rejection and graft loss after all solid organ transplantation.
5 ty (APA) is recommended in patients awaiting solid organ transplantation.
6 challenge limiting allograft survival after solid organ transplantation.
7 volved in myocardial infarction, stroke, and solid organ transplantation.
8 The incidence of cancer is increased after solid organ transplantation.
9 y a significant role in graft survival after solid organ transplantation.
10 k of cytomegalovirus (CMV) replication after solid organ transplantation.
11 is an infrequent but serious complication of solid organ transplantation.
12 lograft survival is a major challenge facing solid organ transplantation.
13 ve drugs is one of the key research goals in solid organ transplantation.
14 f peanut allergy has been reported following solid organ transplantation.
15 of hematopoiesis and to induce tolerance for solid organ transplantation.
16 munocompromised patients, particularly after solid organ transplantation.
17 (HHV) and immune control of replication post-solid organ transplantation.
18 neity of lymphatic vessels in the context of solid organ transplantation.
19 geographic variation in CMV management after solid organ transplantation.
20 nsplantation monitoring of HLA antibodies in solid organ transplantation.
21 major cause of mortality and morbidity after solid organ transplantation.
22 ettings, it has received little attention in solid organ transplantation.
23 limus may also be associated with PRES after solid organ transplantation.
24 SC) transplantation, autoimmune disease, and solid organ transplantation.
25 een made in improving short-term outcomes in solid organ transplantation.
26 V) is a common opportunistic infection after solid organ transplantation.
27 mon, but challenging type of rejection after solid organ transplantation.
28 rs, and outcomes of colectomy for CDAD after solid organ transplantation.
29 Corneal transplantation is the most common solid organ transplantation.
30 es may improve chronic CNI nephrotoxicity in solid organ transplantation.
31 ) is one of the most common infections after solid organ transplantation.
32 intravenous drug use, radiation therapy, and solid organ transplantation.
33 ively ameliorates the consequences of IRI in solid organ transplantation.
34 al trials as a potential therapy in cell and solid organ transplantation.
35 iants that seem to impact outcomes following solid organ transplantation.
36 unosuppression minimization or withdrawal in solid organ transplantation.
37 utcome of rare PTLD subtypes in adults after solid organ transplantation.
38 ) closely follows the standard practices for solid organ transplantation.
39 to delay or prevent chronic rejection after solid organ transplantation.
40 e, is a highly desirable therapeutic goal in solid organ transplantation.
41 HL is a late complication of solid organ transplantation.
42 an exceptional finding after other types of solid organ transplantation.
43 mmunosuppressed patients, particularly after solid organ transplantation.
44 nifest different complications compared with solid organ transplantation.
45 Allograft rejection remains the nemesis of solid organ transplantation.
46 been associated with allograft rejection in solid organ transplantation.
47 cer is an increasing and major problem after solid organ transplantation.
48 or improved control of viral hepatitis after solid organ transplantation.
49 target this intractable problem in clinical solid organ transplantation.
50 l antibody increasingly used at induction in solid organ transplantation.
51 e smaller than other hazards associated with solid organ transplantation.
52 the context of the two most common forms of solid organ transplantation.
53 uzumab has been used in off-label studies of solid organ transplantation.
54 n diagnosis and personalized therapeutics in solid organ transplantation.
55 erm follow-up to determine its exact role in solid organ transplantation.
56 disorder (PTLD) is a serious complication of solid organ transplantation.
57 kidney dysfunction in recipients of nonrenal solid organ transplantation.
58 system participate in the immune response to solid organ transplantation.
59 ch using MRI to detect graft rejection after solid organ transplantation.
60 established as an immunosuppressive agent in solid organ transplantation.
61 omplication after hematopoietic stem cell or solid organ transplantation.
62 lograft survival in several animal models of solid organ transplantation.
63 es mellitus (PTDM) is a common problem after solid organ transplantation.
64 s published in the last 12 months in HIV and solid organ transplantation.
65 as efficacious and safe through their use in solid organ transplantation.
66 ng the sphingosine 1-phosphate receptor 1 in solid organ transplantation.
67 of novel immunosuppressive drugs for use in solid organ transplantation.
68 define the role of MP therapeutic agents in solid organ transplantation.
69 circulation is an early marker of injury in solid organ transplantation.
70 hing is a risk factor for graft rejection in solid organ transplantation.
71 including stroke, myocardial infarction, and solid organ transplantation.
72 eed for systemic immunosuppression in VCA or solid organ transplantation.
73 ening and vaccination of all patients before solid organ transplantation.
74 ative correlation with long-term survival in solid organ transplantation.
75 nition of being physically active) following solid organ transplantation.
76 thogenesis of ischemia-reperfusion injury in solid organ transplantation.
77 ary Epstein-Barr virus (EBV) infection after solid organ transplantation.
78 hematopoietic stem cell transplantation and solid organ transplantation.
79 he development of immunoregulation following solid organ transplantation.
80 Diarrhea is a frequent complication of solid organ transplantation.
81 oles in the cellular and humoral response in solid organ transplantation.
82 dressing the organ supply/demand mismatch in solid organ transplantation.
83 cluding those associated with bone marrow or solid organ transplantation.
84 ications of this novel MPS classification in solid organ transplantation.
85 s and outcomes associated with smoking after solid organ transplantation.
86 us 8 (HHV-8)-related disease described after solid organ transplantation.
87 l as after allogeneic hematopoietic cell and solid organ transplantation.
88 allograft loss in most (if not all) types of solid-organ transplantation.
89 lcohol and substance abuse in the context of solid-organ transplantation.
90 TLD) is a well-recognized complication after solid-organ transplantation.
91 e disorder (PTLD) is a major complication of solid-organ transplantation.
92 eating pediatric with EBV (+) PTLD following solid-organ transplantation.
93 tion of a new arenavirus transmitted through solid-organ transplantation.
94 (3) children with hematopoietic stem cell or solid-organ transplantation.
95 ingle most important long-term limitation to solid-organ transplantation.
96 CKD) is a common complication after nonrenal solid-organ transplantation.
97 unization can present a special challenge to solid-organ transplantation.
98 not been thoroughly investigated in nonrenal solid-organ transplantation.
99 t transfusion support of patients undergoing solid-organ transplantation.
100 on systems have successfully been applied in solid organ transplantations.
101 er lung transplantation are the lowest among solid organ transplantations.
102 ately 50%, which is far behind that of other solid organ transplantations.
103 o not always mimic those of the well-studied solid organ transplantations.
104 with prior coccidioidomycosis who underwent solid organ transplantation (18 liver, 24 kidney, 3 panc
106 Of 13 318 eligible survivors, 100 had 103 solid organ transplantations (50 kidney, 37 heart, nine
107 er-related factors (hospital with <800 beds, solid organ transplantation activity, higher annual inci
109 ere neutropenia, hematopoietic stem cell and solid organ transplantation, advanced AIDS, and chronic
112 tration on a waiting list for or receiving a solid organ transplantation and 5-year survival followin
113 ause of a complex diagnosis especially after solid organ transplantation and can lead to difficulties
114 ent a meta-analysis of clinical trials after solid organ transplantation and describe potential mecha
115 nchymal stem cells as a therapeutic agent in solid organ transplantation and emphasizes the issues (p
116 are similar to those usually reported after solid organ transplantation and have prompted different
117 ient mixed hematopoietic chimerism (MC) when solid organ transplantation and HCT are done concomitant
118 nes on the prevention and treatment of TB in solid organ transplantation and hematopoietic stem cell
120 injury (IRI) is an unavoidable event during solid organ transplantation and is a major contributor t
121 ociated with rejection and allograft loss in solid organ transplantation and may act synergistically
122 g the periocular region represents a risk of solid organ transplantation and may produce significant
123 mpatibility between patient and donor before solid organ transplantation and preventing hyperacute re
124 8 patients were identified who had undergone solid organ transplantation and subsequently underwent c
125 description of a pathogenic role for NETs in solid organ transplantation and suggest that NETs are a
126 he basis for future clinical applications of solid organ transplantation and that T-regulatory cells
127 ood and Drug Administration to be used after solid organ transplantation and to treat pemphigus vulga
129 ms are used to prolong allograft survival in solid organ transplantations and have been shown to be s
130 abuse are common and may lead to a need for solid-organ transplantation and may also contribute to s
131 arity to oral calcineurin inhibitors used in solid-organ transplantation and spontaneous reporting of
132 cute and chronic rejection in the context of solid organ transplantation, and emerging evidence sugge
133 currently being realised in animal models of solid organ transplantation, and offers great hope for c
134 most prevalent infectious complication after solid organ transplantation, and recipients of isolated
135 of childbearing age, toddlers, recipients of solid organ transplantation, and stem cell transplant pa
137 deed required in hematopoietic stem cell and solid-organ transplantation, and the histocompatibility
138 epts for antibody reduction before and after solid organ transplantation are considered, to better un
140 ions for use of the latter in the setting of solid organ transplantation are presented in the accompa
142 re remains one of the most challenging among solid organ transplantation as a result of the high rate
144 tients with coccidioidomycosis who underwent solid organ transplantation at our center to identify fa
146 trials, including those for bone marrow and solid organ transplantation, autoimmune diseases, and ti
147 hematopoietic stem cell transplantation, or solid organ transplantation be screened for active or pr
148 tween Jan 1, 1970, and Dec 31, 1986 (without solid organ transplantation before cohort entry) to the
150 published with subject headings relating to solid organ transplantation between August 1, 2011, and
151 Autoimmune responses to vimentin occur after solid organ transplantation, but their pathogenic effect
152 Excessive weight (EW) gain is common after solid organ transplantation, but there is little informa
155 skin cancer, the most common neoplasia after solid organ transplantation, causes serious morbidity an
156 reviewed for randomized controlled trials in solid organ transplantation comparing an mTOR-I with a n
157 for treatment of cytomegalovirus disease in solid organ transplantation, confirmed genotypic drug re
159 The shortage of deceased donor organs for solid organ transplantation continues to be an ongoing d
160 However, the number of patients awaiting solid organ transplantation continues to remain much hig
161 ients undergoing immunosuppression following solid organ transplantation, contributing substantially
165 with PTLD or chronic high viral loads after solid organ transplantation exhibited no homogeneous EBV
166 9 (COVID-19) pandemic to continue lifesaving solid organ transplantation for heart, lung, liver, and
167 ressed recrudescent coccidioidomycosis after solid organ transplantation for the large majority of pa
168 he most common infectious complication after solid organ transplantation, frequently affecting the ga
169 ven patients who were HCV negative underwent solid organ transplantation from a donor who was HCV vir
171 from unrelated donors and in the setting of solid organ transplantation from living donors, the stan
172 respect to safety for recipients undergoing solid-organ transplantation from donors with a history o
174 Histocompatibility testing for stem cell and solid organ transplantation has become increasingly comp
177 Although short-term allograft survival after solid organ transplantation has improved during the past
179 nostic biomarkers of acute rejection (AR) in solid organ transplantation have been addressed in multi
180 or and mechanisms of colorectal carcinoma in solid organ transplantation have not been well character
182 eing placed on a waiting list or receiving a solid organ transplantation, hazard ratios (HRs) for ide
184 is used clinically for immunosuppression in solid organ transplantation; however, it is difficult to
185 maglobulinemia (HGG) frequently occurs after solid organ transplantation; however, the prevalence and
186 y present an opportunity for cost savings in solid organ transplantation if equivalent clinical outco
188 es on cytomegalovirus (CMV) management after solid organ transplantation in 2010, which provide recom
189 was investigated during the first year after solid organ transplantation in 263 patients who received
192 d in the National Institutes of Health (NIH) Solid Organ Transplantation in HIV Trial, reflecting exp
193 liver transplant candidates enrolled in the Solid Organ Transplantation in HIV: Multi-Site Study (HI
194 es that have resulted in good outcomes after solid organ transplantation in the HIV-positive recipien
195 gional impact of coronavirus disease 2019 on solid organ transplantation in the United States has not
196 isk of recurrent or de-novo malignancy after solid-organ transplantation in HIV patients is low.
197 based cohort study of patients who underwent solid-organ transplantation in Ontario, Canada, between
200 rnerstone of immunosuppressive therapy after solid organ transplantation, inhibits calcineurin activa
203 m secondary to infectious aortitis following solid organ transplantation is a rare event that in the
210 However, using ID as a contraindication to solid organ transplantation is not evidence-based and re
214 exercise intervention trial after pediatric solid organ transplantation is warranted to determine th
218 H1N1 swine influenza could be transmitted by solid organ transplantation led to the publication of gu
220 KIR haplotype B from viral replication after solid organ transplantation may extend beyond CMV to oth
222 ert Meeting of the Mesenchymal Stem Cells in Solid Organ Transplantation (MiSOT) Consortium took plac
223 s in ameliorating common complications after solid organ transplantation must be balanced with potent
224 ole in chronic kidney disease after nonrenal solid organ transplantation (NRSOT), although there are
225 In the first meta-analysis, CMV events after solid organ transplantation occurred significantly more
228 promising strategy to induce tolerance after solid-organ transplantation or prevent graft-versus-host
229 OR, 3.12), radiation therapy (OR, 5.28), and solid organ transplantation (OR, 2.48) increased the ris
230 ty, are now being translated to the field of solid organ transplantation, particularly for livers and
231 mains an important opportunistic pathogen in solid organ transplantation, particularly in lung transp
232 ngly used off-label as an induction agent in solid organ transplantation, particularly in the setting
233 virus (CMV) remains an important pathogen in solid organ transplantation, particularly lung transplan
234 ing the risk of graft-versus-host disease in solid organ transplantation patients given hematopoietic
236 and serum samples obtained from nonselected solid-organ transplantation patients suffering from prob
237 a, may support exclusion of pulmonary IFI in solid-organ transplantation patients, the low positive p
238 information provided through study in other solid-organ transplantation populations than our specifi
243 nor-specific antibodies, conclusions made in solid organ transplantation regarding antibody-mediated
244 antigen-1 (LFA-1) blockade to inhibit BM and solid organ transplantation rejection in nonhuman primat
247 omplication after hematopoietic stem cell or solid organ transplantation resulting from outgrowth of
248 ains one of the most common infections after solid organ transplantation, resulting in significant mo
249 o be one of the most common infections after solid-organ transplantation, resulting in significant mo
251 oing evaluation in autoimmune and allogeneic solid organ transplantation settings, data supporting th
254 eatures and outcomes among a large cohort of solid organ transplantation (SOT) -related patients with
255 l characteristics, and outcomes of SAB after solid organ transplantation (SOT) and compare these feat
256 ls effectively excluding patients with prior solid organ transplantation (SOT) and posttransplant lym
257 xis effectively prevents CMV infection after solid organ transplantation (SOT) but is associated with
259 e infection (CDI) treatment; however, use in solid organ transplantation (SOT) patients has theoretic
263 sequently, evidence-based recommendations in solid organ transplantation (SOT) remain challenging and
264 rol of cytomegalovirus (CMV) infection after solid organ transplantation (SOT) requires a functional
273 but also as a result of better therapies in solid organ transplantation, stem cell transplantation,
275 gical and infectious challenges accompanying solid organ transplantation, susceptibility to post-tran
276 emphasizing the parallels between women and solid organ transplantation that could allow vaccines to
277 rfusion injury is an inherent consequence of solid organ transplantation that increases tissue inflam
278 d without hematologic malignancy or previous solid organ transplantation) that were collected for rou
280 s, which are similar to those reported after solid organ transplantation, the patient is satisfied of
281 ) have been implicated in graft rejection in solid organ transplantation, their role in hematopoietic
283 lusters of rabies virus transmission through solid organ transplantation, there was a long incubation
287 evention and Management of CMV Disease after Solid Organ Transplantation was published in March 2011.
292 investigation of how innate immunity impacts solid organ transplantation will likely lead to improved
294 clinical research on stem cells, tissues, or solid organ transplantation with >=20 participants, whic
295 rent developments in tolerance induction for solid organ transplantation with a particular emphasis o
296 oviders, offering ideas to improve safety in solid organ transplantation with limited health care res
298 ars suggests that amyloidosis may occur post solid-organ transplantation with an overall poor surviva
299 ophic virus (HTLV)-1 has been reported after solid-organ transplantation, with a related fatal outcom
300 cipients, showing potential applications for solid organ transplantation without immune suppression.