コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 arthritis), MGA (blood pressure) and COMMD7 (white cell counts).
2 1 are older (median age 9 years), with a low white cell count.
3 itution of chemotherapy and normalization of white cell count.
4 e protein, haemoglobin, platelets, and total white cell count.
5 io of FLT3-ITD to wild-type FLT3 and for the white-cell count.
6 linical examinations, hemoglobin levels, and white cell counts.
7 t 60 h, through comparable CSF bacterial and white cell counts.
8 o, the S. typhi vaccination caused a rise in white cell count (11.1 +/- 0.5 x10(9)/l vs. 7.9 +/- 0.8
9 wice the upper limit of normal (2N) or more, white cell count 150 x 10(9)/L or more, abnormal chromos
11 raised platelets (3.48, 3.35 to 3.62), total white cell count (3.01, 2.89 to 3.14), and C reactive pr
12 ducing the time of return to normalcy of the white cell counts after chemotherapy in patients with ac
14 inine, haemoglobin, potassium, sodium, urea, white cell count and an index NEWS undertaken within +/-
15 d with steroid withdrawal were reductions in white cell count and haemoglobin and increases in plasma
17 aminotransferase (ALT), blood pressure, and white cell count and lower HDL cholesterol compared with
20 model identified age, NEWS, albumin, sodium, white cell count and urea as significant (p<0.001) predi
21 patients present at diagnosis with increased white cell counts and hepatosplenomegaly, and are at an
23 cerebrospinal fluid comprising either raised white cell counts and/or raised levels of interferon-alp
25 e analysis that was adjusted for the initial white-cell count and the day of illness on which stool w
28 ate analysis with cytogenetic category, age, white cell count, and French-American-British subtype de
33 type, and Ho-Tr was independent of sex, age, white cell count, and T-cell status among Ph-negative pa
34 covery was associated with older ages, lower white cell counts, and earlier stages of illness at pres
35 transport variables, total and differential white cell counts, and serum concentrations of TNF and I
38 Multivariate analysis incorporating age, white-cell count, and treatment parameters showed that s
39 n modeling defined a minimal model including white cell count at diagnosis, pretreatment cytogenetics
40 CRLF2-d was not associated with age, sex, or white cell count, but IGH@-CRLF2 patients were older tha
42 elet count and hematocrit in addition to the white cell count during the first 3 months of therapy wi
43 n activator antigen, C-reactive protein, and white cell count, even after adjustment for possible con
44 s, LDL cholesterol, HbA(1c) (A1C), increased white cell count, ever having smoked, and previous retin
45 d glucose >150 mg/dL (8.2 mmol/L), admission white cell count >14,300 cells/mm3 (14.3 x 10(9) cells/L
46 In a murine MPN model, CYT387 normalized white cell counts, hematocrit, spleen size, and restored
47 were older, had higher admission anion-gap, white cell count, hemoglobin (hb), neutrophil/lymphocyte
50 clinical signs of encephalitis had elevated white cell counts in the blood caused mostly by increase
52 ong patients with AML, independently of age, white-cell count, induction dose, and post-remission the
53 he prognostic significance of the presenting white cell count is weaker and the rate of decline in mi
54 arge were body mass index less than 28 kg/m, white cell count less than 15,000/mL, C-reactive protein
55 ate >90/minute, respiratory rate >20/minute, white cell count <4 x 10(9)/L or >/= 20 x 10(9)/L, album
57 (median 9 years vs 5 years), and had a lower white cell count (median 3.9 vs 12.4) compared with chil
58 C-reactive protein (n = 2), albumin (n = 2), white cell count (n = 3), neutrophils (n = 2), and plate
59 and symptoms together with laboratory tests (white cell count, neutrophil count and C-reactive protei
60 ormal value, <8.0 mg/L [76.2 nmol/L]), and a white cell count of 7 x 10(9)/L (normal range, [4-11] x
61 dverse event in the entire cohort included a white-cell count of 200,000 per cubic millimeter or high
62 that fever, a virus-specific rash, and a CSF white-cell count of 5/microL or more were independent pr
63 ts one to nine years of age, all of whom had white-cell counts of at least 50,000 per cubic millimete
64 ALL who were either 1 to 9 years of age with white-cell counts of at least 50,000 per cubic millimete
70 to age, neutrophil JAK2 V617F allele burden, white-cell count, platelet count, or clonal dominance.
72 aboratory data including CD4 cell count, CSF white cell count, protein, glucose, and quantitative cry
73 olytic-uremic syndrome were a higher initial white-cell count (relative risk, 1.3; 95 percent confide
74 specific effects on mortality and neutrophil/white cell counts (rho = 0.48), C-reactive-protein (rho
75 al antibodies) was 67.9%, whereas normal CSF white cell counts ruled out Lyme neuroborreliosis with a
76 of C-reactive protein (CRP), fibrinogen, and white cell count to components of IRS in the nondiabetic
77 was consistent with meningitis or if the CSF white cell count was >100 cells/mm(3) (>50% neutrophils)
79 rticipants with early ART initiation had CSF white cell count (WCC) >/=5/microL at day 14 (58% vs 40%
80 ts with culture-negative meningitis with CSF white cell count (WCC) above 20 cells per muL were inclu
83 sedimentation rate (ESR), hemoglobin, total white cell count (WCC), estimated glomerular filtration
84 analysis adjusted for age, sex, haemoglobin, white cell count (WCC), platelet count, creatinine, and
85 re older or presented earlier and with lower white cell counts were more likely to have poor platelet
87 tive protein, and fibrinogen levels, and the white-cell count were measured at base line, along with
89 ic utility of quantifying the synovial fluid white cell count, with two recent systematic reviews rea