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1 resuscitation, shock index, coagulation, and base excess.
2 pressure, heart rate, Po(2), Pco(2), pH, and base excess.
3 ange in chloride and the degree of change in base excess.
4 ), as rapidly detected by a negative alactic base excess.
5  dysfunction, as rapidly detected by alactic base excess.
6 ge enough to explain the degree of change in base excess (0.8 +/- 2.3 to -2.7 +/- 2.9).
7 es included UA pH less than 7.2, UA Pao2, UA base excess, 1- and 5-minute Apgar scores, and neonatal
8 bonate (ACZ + HCO(3)(-) ; pH: -0.01 0.04 and base excess: -1.5 2.1 mEq.l(-1) , trial effects: P = 1.0
9 rchloremia by 8-12 hrs (mean sodium-chloride base excess, -10.0 mmol/L).
10 re acidosis [ie, umbilical artery pH <7.0 or base excess -12.0 mmol/L or less], 5-minute Apgar score
11 ficantly lower, whereas nonsurvivor standard base excess (-17.9 +/- 5.1 vs. -2.9 +/- 4.4 mEq/L, p < .
12  (more negative) sodium chloride-partitioned base excess, 2) maintained a greater urine output, and 3
13 0 mL/kg (P=0.019, odds ratio [OR]=13.79) and base excess 30-min after reperfusion less than -16 (P=0.
14 ) arterial pH and [H(+)]a, and a significant base excess (-4.5 +/- 2.7 mEq/L), consistent with compen
15 7 degrees C [95% CI, 39.4-39.9]), and higher base excess (-5.9 mEq/L [95% CI, -8.0 to -3.8] vs -11.2
16        The baseline pH was 7.27 +/- 0.11 and base excess -5.9 +/- 5.0 mmol/L.
17  well with a systemic indicator of recovery, base excess, 5.4 +/- 4.7 (MalPEG-Hb), 1.7 +/- 3.8 (SB),
18 at 250 mg every 8 h (ACZ; pH: -0.07 0.04 and base excess: -5.7 1.9 mEq.l(-1) , trial effects: P < 0.0
19 d anions at admission (mean unmeasured anion base excess, -9.2 mmol/L) to predominant hyperchloremia
20 ic acidosis was common at presentation (mean base excess, -9.7 mmol/L) and persisted for 48 hrs.
21                                   Population based excess absolute risks are estimated for a number o
22 dent predictors for mortality, together with base excess and Glasgow Coma Scale.
23 ry mechanism, weighted-Revised Trauma Score, base excess and hemoglobin, ACT-predicted red blood cell
24 1 mEq/L (95% CI 0.76-2.06; p=0.0002) in mean base excess and increase of 1.65 mmol/L (0.47-2.8; p=0.0
25 resuscitation with saline, arterial standard base excess and plasma apparent strong ion difference we
26          In about one-sixth of the patients, base excess and plasma bicarbonate were normal.
27 d outcomes in blood pressure, lactate level, base excess and plasma protein concentration compared to
28 r 30-day mortality in comparison to standard base excess and strong ion gap.
29 uration (SaO(2)), bicarbonate concentration, base excess, and alveolar-arterial oxygen difference wer
30 lobin, oxygen content, lactate, pH, standard base excess, and arginine vasopressin levels were determ
31 stric intramucosal pH, arterial pH, arterial base excess, and arterial lactate concentrations were me
32 ith Ringer's solution resulted in a standard base excess, and Cl(-) between that of saline and Hexten
33 resuscitation room: age, Glasgow Coma Scale, base excess, and prothrombin time.
34 ric pressure has a substantial effect; PCO2, base excess, and respiratory quotient have small effects
35  to limitations in bedside monitoring tools (base excess, anion gap).
36                      We defined the "alactic base excess," as the sum of lactate and standard base ex
37                          They also had lower base excess at admission.
38                              We compared the base excess (BE) and anion gap (AG) methods with the les
39 nous fluid resuscitation (r = .44), with the base excess changing, on average, by -0.4 mmol/L for eac
40 ressure, arterial bicarbonate concentration, base excess, fibrinogen concentration, and platelet coun
41 ributions from age and sex, and of admission base excess for maximal creatinine concentration.
42                      The mean improvement in base excess from 0 to 24 hours was significantly greater
43       The primary outcome was mean change in base excess from 0 to 24 hours.
44  with baseline, acidosis of pH 7.1 decreased base excess from 6.6 +/- 0.5 mM to -12.4 +/- 0.5 mM; red
45        Furthermore, bosentan decreased blood base excess in Nx animals (0.1 +/- 0.3 to -0.12 +/- 0.03
46 correlated with raised serum bicarbonate and base excess, indicating compensated respiratory acidosis
47 mergency department pH < or = 7.26, standard base excess &lt; or = -7.3 mEq/L, lactate > or = 5 mmol/L,
48  excess," as the sum of lactate and standard base excess.Measurements and Main Results: Organ dysfunc
49                                              Base excess missed serious acid-base abnormalities in ab
50 d venous blood gases; electrolytes; lactate; base excess; oxygen delivery, consumption, and extractio
51 , injury severity score, Glascow Coma Scale, base excess, platelet count and hemoglobin, adrenaline,
52 Glascow Coma Scale, systolic blood pressure, base excess, platelet count, hemoglobin, prehospital pla
53 elated with Scvo2 (r=.80), lactate (r=-.78), base excess (r=.80), and shed blood volume (r=-.75).
54 administered was compared with the change in base excess (r2 = .93; p < .0001).
55 ions by expressing them in terms of standard base excess (SBE in mM), which quantifies the metabolic
56 ted tantalum catalyst that avoids the use of bases, excess substrate, or additives.
57                                 During acute base excess, the renal collecting duct beta -intercalate
58 .90-7.00), whereas 20.5% (31/151) selected a base excess threshold (mean, -15.62+/-0.78; median, -16;
59 M infusion corrected pH to 7.40 +/- 0.02 and base excess to 2.6 +/- 0.9 mM (p < .05).
60  oxygen saturation (Scv(O(2))), lactate, and base excess to better determine the origin of lactate.Me
61 4 mm Hg) but no significant difference in UA base excess, UA pH less than 7.2, Apgar scores, or neona
62                          Trends toward lower base excess values and higher occurrences of deaths only
63 normal saline administered and the change in base excess was found (r2 = .86; p < .0001), although no
64                                              Base excess was partitioned using abridged Stewart equat
65      In contrast, positive values of alactic base excess were associated with a relative reduction of
66 concentration and "anion gap," the other on "base excess," with a third method based on physicochemic