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1 se of weight limits (ie, orthopedic surgery, organ transplantation).
2 echnique has gained interest in the field of organ transplantation.
3 enous drug use, radiation therapy, and solid organ transplantation.
4 r systemic immunosuppression in VCA or solid organ transplantation.
5 and vaccination of all patients before solid organ transplantation.
6 of degenerative, autoimmune diseases and for organ transplantation.
7 which may lead to liver failure and need for organ transplantation.
8 correlation with long-term survival in solid organ transplantation.
9 vel immunosuppressive drugs for use in solid organ transplantation.
10 ency virus (HIV) patients have had access to organ transplantation.
11 of being physically active) following solid organ transplantation.
12 Allograft tolerance is the ultimate goal of organ transplantation.
13 stein-Barr virus (EBV) infection after solid organ transplantation.
14 opoietic stem cell transplantation and solid organ transplantation.
15 o cure chronic hepatitis E in the setting of organ transplantation.
16 onor or recipient cell therapy combined with organ transplantation.
17 ions in other pathological conditions beyond organ transplantation.
18 elopment of immunoregulation following solid organ transplantation.
19 osuppressive drug target in autoimmunity and organ transplantation.
20 treating hypoxic-ischemic human diseases and organ transplantation.
21 ent and its effect on the immune response to organ transplantation.
22 risk of skin cancer, particularly SCC, after organ transplantation.
23 Diarrhea is a frequent complication of solid organ transplantation.
24 s to allografts represent a major barrier in organ transplantation.
25 e effect of aging and the immune response to organ transplantation.
26 imary cause of long-term graft failure after organ transplantation.
27 ly applicable refinement of Treg therapy for organ transplantation.
28 ased age, white race, male sex, and thoracic organ transplantation.
29 s the most common malignancy occurring after organ transplantation.
30 n the cellular and humoral response in solid organ transplantation.
31 henolate sodium, and it is widely used after organ transplantation.
32 matching improves graft survival rates after organ transplantation.
33 25-30 times greater in CF patients after an organ transplantation.
34 ng the organ supply/demand mismatch in solid organ transplantation.
35 s in HLA antibody responses and matching for organ transplantation.
36 regarding the use of social media to foster organ transplantation.
37 esis of ischemia-reperfusion injury in solid organ transplantation.
38 g those associated with bone marrow or solid organ transplantation.
39 ns of reducing allograft rejection following organ transplantation.
40 les in ocular surface immunity and allogenic organ transplantation.
41 s and opportunities in contemporary clinical organ transplantation.
42 s and solutions to the current challenges in organ transplantation.
43 potential uses of nanotechnology in cell and organ transplantation.
44 fted tissues are the major reason for failed organ transplantation.
45 , prenatal diagnosis, infectious diseases or organ transplantation.
46 ns of this novel MPS classification in solid organ transplantation.
47 tions for this malignancy-tumor resection or organ transplantation.
48 patients who are not considered eligible for organ transplantation.
49 outcomes associated with smoking after solid organ transplantation.
50 HHV-8)-related disease described after solid organ transplantation.
51 outcomes with novel perfusion strategies in organ transplantation.
52 fter allogeneic hematopoietic cell and solid organ transplantation.
53 tious diseases, and it has also been used in organ transplantation.
54 ful monitoring tool in cancer, pregnancy and organ transplantation.
55 provides an alternative pathway to deceased organ transplantation.
56 cess of ischemia-reperfusion injury (IRI) in organ transplantation.
57 itions but has only recently been applied to organ transplantation.
58 is improving long-term outcomes after solid organ transplantation.
59 ted rejection and graft loss after all solid organ transplantation.
60 lograft survival and unmet clinical needs in organ transplantation.
61 he main obstacle in the long-term success of organ transplantation.
62 A) is recommended in patients awaiting solid organ transplantation.
63 immunodeficiency virus (HIV)-caused AIDS and organ transplantation.
64 ental illness (SMI) a significant concern in organ transplantation.
65 enge limiting allograft survival after solid organ transplantation.
66 ight into how to achieve immune tolerance in organ transplantation.
67 in myocardial infarction, stroke, and solid organ transplantation.
68 incidence of cancer is increased after solid organ transplantation.
69 gnificant role in graft survival after solid organ transplantation.
70 ytomegalovirus (CMV) replication after solid organ transplantation.
71 r controlling antibody-mediated rejection in organ transplantation.
72 ation, remains the major problem in clinical organ transplantation.
73 olved in post-I/R injuries as observed after organ transplantation.
74 infrequent but serious complication of solid organ transplantation.
75 been widely used to prevent rejection after organ transplantation.
76 ion of nitric oxide inhibition reduce IRI in organ transplantation.
77 to prevent rejection and graft loss in solid organ transplantation.
78 patients who have undergone or will undergo organ transplantation.
79 aft loss in most (if not all) types of solid-organ transplantation.
80 of lymphatic vessels in the context of solid organ transplantation.
81 e impact of the current COVID-19 pandemic on organ transplantation.
82 detrimental T cell memory in the settings of organ transplantation.
83 ameliorates the consequences of IRI in solid organ transplantation.
84 use of such enzymes in blood conversion and organ transplantation.
85 onor or recipient cell therapy combined with organ transplantation.
86 e risk of transmission of SARS-CoV-2 through organ transplantation.
87 patients who have undergone or will undergo organ transplantation.
88 pression minimization or withdrawal in solid organ transplantation.
89 nosis and personalized therapeutics in solid organ transplantation.
90 ogy, and immune suppression have transformed organ transplantation.
91 ch for reducing general immunosuppression in organ transplantation.
92 opment for risk assessment in the setting of organ transplantation.
93 e the role of MP therapeutic agents in solid organ transplantation.
94 ing approach for the ex situ preservation in organ transplantation.
95 also as an unavoidable consequence of solid organ transplantation.
96 nor to recipient remains an inherent risk of organ transplantation.
97 lation is an early marker of injury in solid organ transplantation.
98 s a risk factor for graft rejection in solid organ transplantation.
99 ing stroke, myocardial infarction, and solid organ transplantation.
100 tems have successfully been applied in solid organ transplantations.
101 always mimic those of the well-studied solid organ transplantations.
102 cal achievements including cancer therapy or organ transplantations.
104 subjects enrolled in the Clinical Trials in Organ Transplantation-09 study in which we randomized st
106 Cardiac Transplantation [Clinical Trials in Organ Transplantation-11]) study was a randomized, place
108 13 318 eligible survivors, 100 had 103 solid organ transplantations (50 kidney, 37 heart, nine liver,
110 rrent immunosuppressive therapies applied to organ transplantations affect the wide array of Treg pop
111 ate legislation propose to address access to organ transplantation among unauthorized immigrants.
112 n on a waiting list for or receiving a solid organ transplantation and 5-year survival following thes
113 that is widely used for immunosuppression in organ transplantation and autoimmune diseases, as well a
114 f a complex diagnosis especially after solid organ transplantation and can lead to difficulties in fi
115 PML, but many modern treatments for cancers, organ transplantation and chronic inflammatory disease c
116 end-organ failure through greater access to organ transplantation and decreased waitlist mortality r
117 responses in a variety of models, including organ transplantation and graft versus host disease (GVH
118 the prevention and treatment of TB in solid organ transplantation and hematopoietic stem cell transp
120 about the T cell response because it governs organ transplantation and hinders the discovery of disea
122 d with rejection and allograft loss in solid organ transplantation and may act synergistically with H
123 periocular region represents a risk of solid organ transplantation and may produce significant ocular
124 The disparity between patients awaiting organ transplantation and organ availability increases e
125 ility between patient and donor before solid organ transplantation and preventing hyperacute rejectio
126 therapies to modulate the immune response in organ transplantation and repair tissues after acute or
128 iciency virus (HIV)-positive persons seeking organ transplantation and serving as organ donors for HI
129 to oral calcineurin inhibitors used in solid-organ transplantation and spontaneous reporting of malig
130 ption of a pathogenic role for NETs in solid organ transplantation and suggest that NETs are a promis
131 cal settings, including (but not limited to) organ transplantation and the treatment of autoimmune di
133 used to prolong allograft survival in solid organ transplantations and have been shown to be superio
135 hma, autoimmune diseases, tumor development, organ transplantation, and chronic infections during the
136 nd chronic rejection in the context of solid organ transplantation, and emerging evidence suggests th
137 ver disease, lung disease, malignancy, other organ transplantation, and human immunodeficiency virus
138 e rejection remains a significant problem in organ transplantation, and lymphatic and blood vessels a
139 g from smoking cessation and healthy diet to organ transplantation, and most of all condemnation of h
140 revalent infectious complication after solid organ transplantation, and recipients of isolated intest
141 ldbearing age, toddlers, recipients of solid organ transplantation, and stem cell transplant patients
142 equired in hematopoietic stem cell and solid-organ transplantation, and the histocompatibility comple
143 influenced by cardiovascular disease, other organ transplantation, and the total comorbidity scores.
145 or antibody reduction before and after solid organ transplantation are considered, to better understa
148 or use of the latter in the setting of solid organ transplantation are presented in the accompanying
151 atitis E represents an emerging challenge in organ transplantation, as there are currently no establi
153 s, including those for bone marrow and solid organ transplantation, autoimmune diseases, and tissue a
154 opoietic stem cell transplantation, or solid organ transplantation be screened for active or prior he
155 Jan 1, 1970, and Dec 31, 1986 (without solid organ transplantation before cohort entry) to the Organ
157 ompted by the recent completion of the first organ transplantation between HIV-infected persons in Ca
158 nt demonstration of the short term safety of organ transplantation between HIV-infected persons promp
159 is of adult patients who underwent abdominal organ transplantation between January 1, 2008, and Decem
160 o close the gap between demand and supply in organ transplantation but are associated with age-specif
161 ed with morbidity and mortality in abdominal organ transplantation but has not been examined in lung
162 e are important components to the success of organ transplantation, but are also associated with adve
163 ssive weight (EW) gain is common after solid organ transplantation, but there is little information c
164 ressant, accelerates onset of diabetes after organ transplantation, but underlying molecular mechanis
169 wever, the number of patients awaiting solid organ transplantation continues to remain much higher th
175 quate testing capacity can support continued organ transplantation, even in a SARS-CoV-2 hyperendemic
176 ID-19) pandemic to continue lifesaving solid organ transplantation for heart, lung, liver, and kidney
178 tients who were HCV negative underwent solid organ transplantation from a donor who was HCV viremic.
181 ct to safety for recipients undergoing solid-organ transplantation from donors with a history of fata
183 y review considerations related to advancing organ transplantation from HIV-infected donors in Canada
192 Investigation of these processes in clinical organ transplantation has, however, been hampered by the
193 laced on a waiting list or receiving a solid organ transplantation, hazard ratios (HRs) for identifie
195 erlying immunosuppression such as, diabetes, organ transplantation, Human immunodeficiency virus (HIV
196 se of a novel procedure called ischemia-free organ transplantation (IFOT) for patients with end-stage
199 ld in health sciences has more interest than organ transplantation in fostering progress in regenerat
200 he National Institutes of Health (NIH) Solid Organ Transplantation in HIV Trial, reflecting experienc
201 cohort study of patients who underwent solid-organ transplantation in Ontario, Canada, between 1991 a
206 impact of coronavirus disease 2019 on solid organ transplantation in the United States has not been
207 roles of ageing, sex, the gut microbiome and organ transplantation in this complex interplay are also
209 treatment may improve recipient outcomes in organ transplantation; in this analysis, we aimed to det
213 ft and host in both directions, showing that organ transplantation involves implantation of both the
219 Cytomegalovirus (CMV) infection in solid-organ transplantation is associated with increased morbi
220 Acute kidney injury after nonrenal solid organ transplantation is associated with prolonged lengt
221 Medication nonadherence (MNA) after solid organ transplantation is highly prevalent and associated
222 -stage chronic kidney disease, the option of organ transplantation is limited because of the scarce a
223 rimary risks of HIV-positive to HIV-positive organ transplantation is loss of virological control bec
225 ver, using ID as a contraindication to solid organ transplantation is not evidence-based and reduces
231 Despite optimization of these variables, organ transplantation is still often plagued by substant
237 plotype B from viral replication after solid organ transplantation may extend beyond CMV to other her
238 loning will bring enhanced possibilities for organ transplantation, nerve cells and tissue healing, a
239 iency virus (HIV)/AIDS, cancer, stem cell or organ transplantation, nonsteroid immunosuppressive ther
240 ing strategy to induce tolerance after solid-organ transplantation or prevent graft-versus-host disea
241 12), radiation therapy (OR, 5.28), and solid organ transplantation (OR, 2.48) increased the risk of s
242 e now being translated to the field of solid organ transplantation, particularly for livers and kidne
243 erum samples obtained from nonselected solid-organ transplantation patients suffering from probable,
244 support exclusion of pulmonary IFI in solid-organ transplantation patients, the low positive predict
247 ir-pibrentasvir therapy results in expedited organ transplantation, rapid HCV suppression, prevention
252 ecific antibodies, conclusions made in solid organ transplantation regarding antibody-mediated reject
255 Mitigating therapies, aside from impractical organ transplantation, remain limited and the possibilit
258 preclinical models and experiences in human organ transplantation should allow for optimization of t
260 ectively excluding patients with prior solid organ transplantation (SOT) and posttransplant lymphopro
261 fectively prevents CMV infection after solid organ transplantation (SOT) but is associated with high
262 Patients undergoing evaluation for solid organ transplantation (SOT) frequently have a history of
263 ction (CDI) treatment; however, use in solid organ transplantation (SOT) patients has theoretical saf
265 Immune measurements that distinguish solid organ transplantation (SOT) recipients who control cytom
267 tly, evidence-based recommendations in solid organ transplantation (SOT) remain challenging and uncle
268 cytomegalovirus (CMV) infection after solid organ transplantation (SOT) requires a functional immune
274 and infectious challenges accompanying solid organ transplantation, susceptibility to post-transplant
275 sizing the parallels between women and solid organ transplantation that could allow vaccines to be de
276 icle, we will consider some of the topics in organ transplantation that were discussed by the attende
277 Kaposi sarcoma (KS) can develop following organ transplantation through reactivation of recipient
279 , we propose to use the experience gained in organ transplantation to shed light on the path that sha
280 extensively by investigators in the field of organ transplantation to study the rejection process, te
282 A consensus conference on frailty in solid organ transplantation took place on February 11, 2018, t
285 on-based cancer cohort, we evaluated whether organ transplantation was associated with worse prognosi
290 re of no other field more than the future of organ transplantation will be forged by progress occurri
292 al research on stem cells, tissues, or solid organ transplantation with >=20 participants, which ment
293 evelopments in tolerance induction for solid organ transplantation with a particular emphasis on chim
295 ggests that amyloidosis may occur post solid-organ transplantation with an overall poor survival.
296 ow) regulatory T cells (Tregs) in a model of organ transplantation with CD40Ig could be abrogated by
297 s, offering ideas to improve safety in solid organ transplantation with limited health care resources
298 and everolimus, are increasingly used after organ transplantation with potential advantages in virus