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1 binding proteins with erythrocytes from each blood type.
2 t or specific details regarding a particular blood type.
3 tested pretransfusion to determine the donor blood type.
4 endent markers, mitochondrial sequences, and blood type.
5 All patients were group A(1) blood type.
6 sified according to the candidates' race and blood type.
7 onsecretor) rather than Le(a- b+) (secretor) blood type.
8 ng error affecting priority of candidates by blood type.
9 tential blood substitute for the rare Bombay blood type.
10 nal creatinine greater than 1.5 mg/dL and AB blood type.
11 xicities in individuals with the rare Lan(-) blood type.
12 lood group antigens correlated strongly with blood type.
13 fter adjustment for study center and patient blood type.
14 the alpha-Gal antigen, also correlated with blood type.
15 (6-14, 15-24, 25-29, 30-34, 35-40), age, and blood type.
16 1 (rs45458701) is responsible for the At(a-) blood type.
17 c.589+1G>C) and thus have the Augustine-null blood type.
18 paper-based assay for the detection of human blood type.
19 orovirus infected humans regardless of A/B/O blood type.
20 or and recipient pairs were matched based on blood types.
21 antation (LT) waitlist experiences among ABO blood types.
22 ting current LT allocation may favor certain blood types.
23 ast 10 days would not be possible with other blood types.
24 ess pronounced effect for infants with other blood types.
25 and specific microscale multiplex assay for blood typing.
26 ermatomyositis and some with polymyositis, a blood type 1 interferon-signature correlates with diseas
28 AOR, 2.41 [95% CI, 1.24-4.70]); maternal AB blood type (4.9% stillbirths, 3.0% live births) (vs type
29 of transplantation prepolicy was similar by blood type (8-month incidence 81.0% vs 80.5% for blood t
30 cidence of transplantation relative to other blood types (8-month incidences 86.3% vs 92.1%, respecti
34 r alpha-D-GalNAc end groups and binds to the blood type A determinant GalNAcalpha1, as well as to ter
36 cardiovascular and pulmonary diseases), with blood type A or AB, and at an early COVID-19 stage (low
37 derived antibodies must be screened for anti-blood type A reactivity to avoid misidentification of vi
43 tetra+) in the human milk (HM) of women with blood type A, suggesting genetic origins determining the
44 side hydrolase 109 (GH109) that is active on blood type A-antigen, along with a new subfamily of glyc
46 and recipients for potential recipients with blood types A, B, and AB; and (2) all recipients who hav
48 d type (8-month incidence 81.0% vs 80.5% for blood types-A, B, or AB and blood type-O, respectively,
49 ntified a replicable association between ABO blood type A1 and risk of ARDS among the critically ill,
50 iminating the payback system, and allocating blood type A2 and A2B kidneys to blood type B candidates
52 , we identified a strong association between blood type and COVID-19 diagnosis, as well as a gene-ric
56 is approach, proof-of-concept ABO and D (Rh) blood typing and group A subtyping were successfully per
58 alysis showed that after adjusting for MELD, blood type, and diagnosis, patients listed in the latter
59 several noroviruses is linked to human histo-blood type, and its determinant histo-blood group antige
65 YPA) and B (GYPB), which determine MN and Ss blood types, are two major receptors that are expressed
71 atient groups, particularly older, diabetic, blood type B and O and shorter pre-listing dialysis time
73 re significantly thinner in individuals with blood type B compared to those with other ABO blood grou
74 ells specifically; however, only tissue from blood type B donors, but not type A or O donors, showed
76 Because of a clerical error, a 67-year-old blood type B patient with idiopathic pulmonary fibrosis
77 new policy, candidates with a CPRA>20%, with blood type B, and aged 18-49 years were more likely to u
78 fied donation and transplantation across the blood-type barrier can increase transplants by 10% (PG0.
81 When compared with LTx candidates with other blood types, blood type O candidates have longer waiting
82 with FVIII half-life in patients with non-O blood type, but no correlation was observed for type O p
83 h donors to patients, not only with extended blood typing, but also by using genetically determined s
86 or/recipient cytomegalovirus (CMV) status or blood type, cold ischemic times, or the incidence of out
88 ere no clinically significant differences in blood type compatibility, degree of HLA mismatch, number
92 atterns were associated with different histo-blood types, defined by Lewis, secretor, and ABO types.
94 bly found at the nonreducing terminus of the blood type-determining A-antigen and as the initial poin
95 ced a barcode-like design into a paper-based blood typing device by integrating with smartphone-based
97 etween participants adhering to a particular blood type diet (experimental group) and participants co
98 the evidence to support the effectiveness of blood type diets has not previously been assessed in the
99 ished studies that presented data related to blood type diets were identified and critically appraise
102 ing question: In humans grouped according to blood type, does adherence to a specific diet improve he
103 revious sternotomy (P = .0003), nonidentical blood type donor (P = .01), recipient non-blood group A
105 d to donor variables including age, sex, ABO blood type, ethnicity, donor type and recipient variable
107 study examines LT access discrepancies among blood types, focusing on type AB, and seeks equitable st
108 ability model estimated the total number and blood type frequencies of donor-recipient pairs that wou
109 s on erythrocyte membranes uniquely for each blood type, generating differential interactions of the
111 del with smoking, current smokers with non-O blood type had an adjusted OR of 2.68 (95% CI, 2.03-3.54
113 lung allocation score, body mass index, and blood type (hazard ratio, 1.17; 95% confidence interval,
114 th donor acceptance were for male donor sex, blood type, hepatitis C antibody, donor age, left ventri
119 e of neurological syndromes; HLA haplotypes; blood type I-IFN signature [RNA quantification of 6 or 2
120 individuals tested for SARS-CoV-2 with known blood type in the New York Presbyterian (NYP) hospital s
121 Incorporating size incompatibility alongside blood type incompatibility further enhances the efficacy
122 r intended recipients due to factors such as blood type incompatibility or size incompatibility.
124 n red blood cells with a rare Augustine-null blood type is associated with macrocytosis, anisopoikilo
126 e updates fitted as time-dependent variable, blood type, listing for malignant disease, and age.
127 e the risk of waiting list death across era, blood types, liver disease diagnosis, and severity (Mode
128 truction of the transplant renal artery with blood type-matched iliac artery grafts should be conside
134 ells (RBCs, erythrocytes) means that careful blood-typing must be carried out prior to transfusion to
135 r African American (23 777 [47.0%]), had ABO blood type O (22 879 [45.2%]), and were Rhesus factor po
136 (27 vs. 25 kg/m2, p = .03), less frequently blood type O (36% vs. 80%, p < .001), and had higher eGF
139 >3 months after KPD entry included recipient blood type O and calculated panel reactive antibodies >=
141 n wait-list mortality; however, infants with blood type O assigned an ABO-I listing strategy were mor
142 the goal of increasing transplant access for blood type O candidates after an error was discovered in
143 with LTx candidates with other blood types, blood type O candidates have longer waiting times and hi
144 with the H-antigen trisaccharide from human blood type O erythrocytes, at 1.67 angstrom resolution.
152 and in those with blood type O; The <25 kg, blood type O subgroup experiences longer wait times and
153 n such exchanges to ensure that the standard blood type O wait-list candidates are made better off.
154 orally problematic because it harms standard blood type O wait-list candidates who already have the l
155 s, median wait times were 108 days (<=25 kg, blood type O), 80 days (<=25 kg, non-O), 47 days (>25 kg
157 o have a nonischemic cause of heart failure, blood type O, United Network for Organ Sharing status 2
158 lant (n = 90) was greater than the number of blood type O-non-directed donors (n = 32) initiating cha
165 lower in candidates <25 kg and in those with blood type O; The <25 kg, blood type O subgroup experien
169 e impact of initial policy implementation on blood type-O candidates has not been rigorously evaluate
171 transplants performed prior to CD, 48% were blood type-O recipients compared to 40% post-CD, represe
175 t an advance for point of care applications, blood typing of newborns, and general blood assays in sm
176 luated the effects of age, race, gender, and blood type on anti-glycan antibody profiles in the serum
177 sitivity analyses included stratification by blood type or region and potential negative consequences
178 ntered in transfusions of patients with rare blood types or chronically transfused patients who becom
179 or donor RBCs, especially those of universal blood types or free of known and unknown pathogens, has
181 risk of death by era of listing (P = .25) or blood type (P = .31), whereas the risk of death was sign
183 ated more African Americans had incompatible blood types (P=0.01) or ineligible recipients (26.7% vs.
184 ted for recipient age, sex, race, ethnicity, blood type, panel reactive antibody, year of placement o
185 nicity, original disease, retransplants, ABO blood type, panel-reactive antibody, previous treatment,
188 recipients were performed according to donor blood type, recipient blood type, and transplant center
189 o differences in survival were seen by donor blood type, recipient blood type, or transplant center A
190 , tumor doubling time, tumor growth pattern, blood type, regional transplant volume, initial tumor si
191 m and current panel reactive antibodies, ABO blood type, retransplants, pretreatment, time on dialysi
192 age, marital status, race and ethnicity, ABO blood type, Rhesus (Rh) factor, and year of delivery.
195 Willebrand factor (VWF) protein and purified blood type-specific VWF at arterial shear and measured p
198 ential blood substitutes for the rare Bombay blood type that is characterized by a deficiency of H2 a
199 new, paper-based analytical device (PAD) for blood typing that allows for the simultaneous determinat
200 nded to include the 24,736 patients with any blood type, the results were similar, with rates of deat
204 itive hematopoiesis may produce many diverse blood types via a common multipotent progenitor, primiti
210 ender, peak panel-reactive antibody, and ABO blood type were not found to be significant risk factors
211 Advantages with respect to the need for blood typing were balanced with various undesirable prop
212 ith A, B, and O secretors and Lewis positive blood types, were sensitive to the virus, while the non-
215 subgroup, we determined the associations of blood type with plasma levels of endothelial glycoprotei