Sentences with phrase «= daily value»

* DV = Daily Value.
Calories per serving (energy): 634 Fat: 28 grams Carbohydrates: 64 grams Protein: 31 grams Fiber: 6 grams Vitamin C: 72 % DV Iron: 20 % DV Vitamin A: 13 % DV Calcium: 5 % DV (DV = Daily Value)

Not exact matches

For the acetazolamide group (n = 187), compared with the placebo group (n = 193), no significant between - group differences were found for median duration of mechanical ventilation -LRB--16.0 hours), duration of weaning off mechanical ventilation -LRB--0.9 hours), or for other respiratory parameter - values (respiratory frequency, tidal volume, and minute ventilation), although daily changes of serum bicarbonate and number of days with metabolic alkalosis decreased significantly more in the acetazolamide group.
where ALF = Activity Level Factor DCE = Daily Caloric Expenditure HC = Height in Centimetres HI = Height in Inches WKG = Weight in Kilograms WP = Weight in Pounds and «Activity Level Factor» has the following values «Sedentary»: Activity Level Factor = 1.2 «Lightly Active»: Activity Level Factor = 1.375 «Moderately Active»: Activity Level Factor = 1.55 «Very Active»: Activity Level Factor = 1.725 «Extremely Active»: Activity Level Factor = 1.9
Daily plasma glucose concentrations were 10 percent lower with the high - fiber diet than with the ADA diet (values for the area under the curve, 3743 ± 944 vs. 3365 ± 1003 mg ․ hour per deciliter [207.8 ± 52.4 vs. 186.8 ± 55.7 mmol ․ hour per liter]; P = 0.02), and plasma insulin concentrations were 12 percent lower (values for the area under the curve, 1107 ± 650 vs. 971 ± 491 μU ․ hour per milliliter [6642 ± 3900 vs. 5826 ± 2946 pmol ․ hour per liter]; P = 0.05)(Figure 1).
As you can see, they do suggest that there is Potassium = 11mg / Tbsp, this is 2 % of the Daily recommended value.
CDRd = the Contract Daily Return value represented as the percentage change in the Total Dollar Weight of the S&P GSCI on any S&P GSCI Business Day, d
Why doesn't the daily temp swing of 10 - 15 degrees on both sides of the equlibrium force the atmosphere to adopt the equilibrium in = out value?
Average daily flux = 0.4 times the overhead value.
% create daily min, max and average values ndays = nperiod * periodsec / 86400; % number of days in the analysis if ndays > 1 % if number of days is less than 1 not much point nvaluesday = nperiod / ndays; % number of samples per day to check Tdmax = zeros (nlayers, ndays); % Tdmax is daily max value Tdmin = zeros (nlayers, ndays); % Tdmin = daily min Tdav = zeros (nlayers, ndays); % Tdav = daily mean heatstats = zeros (5, ndays); % main heat flows, 1 = solar, dlr, Eout, conv, 5 = base for i = 1: ndays for j = 1: nlayers % calculate daily max, min and average temp for each layer Tdmax (j, i) = max (Tav (j, (i - 1) * nvaluesday +1: i * nvaluesday)-RRB-; Tdmin (j, i) = min (Tav (j, (i - 1) * nvaluesday +1: i * nvaluesday)-RRB-; Tdav (j, i) = mean (Tav (j, (i - 1) * nvaluesday +1: i * nvaluesday)-RRB-; end % calculate daily heat flows: solar, DLR, rad out, conv, heat into % depth heatstats (1, i) = sum (rads (1, (i - 1) * nvaluesday +1: i * nvaluesday)-RRB-; heatstats (2, i) = sum (rads (2, (i - 1) * nvaluesday +1: i * nvaluesday)-RRB-; heatstats (3, i) = sum (rads (3, (i - 1) * nvaluesday +1: i * nvaluesday)-RRB-; heatstats (4, i) = sum (heats (1, (i - 1) * nvaluesday +1: i * nvaluesday)-RRB-; heatstats (5, i) = sum (heats (nlayers +1, (i - 1) * nvaluesday +1: i * nvaluesday)-RRB-; end end
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