Assume blood-glucose levels in a population of adult women are normally distributed with mean 90 mg/dL and standard deviation 38 mg/dL. a. Suppose the "abnormal range" were defined to be glucose levels outside of I standard deviation of the mean (i.e., either at least 1 standard deviation above the mean, or at least 1 standard deviation below mean). Individuals with abnormal levels will be retested. What percentage of individuals would be called "abnormal" and need to be retested? What is the normal range of glucose levels in units of mg/dL? b. Suppose the abnormal range were defined to be glucose levels outside of 2 standard deviations of the mean. What percentage of individuals would now be called "abnormal"? What is the normal range of glucose levels (mg/dL)?
Answers
)A characteristic impedance of 150 ohm and wavelength equal to is present in a lossless line and its short circuited at one end and the other end is connected to an ideal voltage equal to 20 V. Calculate the current that the voltage sources will draw. (a) 0.0 A (b) 0.03 A (c) 50 A (d) 20 AA characteristic impedance of 150 ohm and wavelength equal to is present in a lossless line and its short circuited at one end and the other end is connected to an ideal voltage equal to 20 V. Calculate the current that the voltage sources will draw. (a) 0.0 A (b) 0.03 A (c) 50 A (d) 20 AA characteristic impedance of 150 ohm and wavelength equal to is present in a lossless line and its short circuited at one end and the other end is connected to an ideal voltage equal to 20 V. Calculate the current that the voltage sources will draw. (a) 0.0 A (b) 0.03 A (c) 50 A (d) 20 AA characteristic impedance of 150 ohm and wavelength equal to is present in a lossless line and its short circuited at one end and the other end is connected to an ideal voltage equal to 20 V. Calculate the current that the voltage sources will draw. (a) 0.0 A (b) 0.03 A (c) 50 A (d) 20 AA characteristic impedance of 150 ohm and wavelength equal to is present in a lossless line and its short circuited at one end and the other end is connected to an ideal voltage equal to 20 V. Calculate the current that the voltage sources will draw. (a) 0.0 A (b) 0.03 A characteristic impedance of 150 ohm and wavelength equal to is present in a lossless line and its short circuited at one end and the other end is connected to an ideal voltage equal to 20 V. A characteristic impedance of 150 ohm and wavelength equal to is present in a lossless line and its short circuited at one end and the other end is connected to an ideal voltage equal to 20 V. Calculate the current that the voltage sources will draw. (a) 0.0 A (b) 0.03 A (c) 50 A (d) 20 A the current that the voltage sources will draw. (a) A characteristic impedance of 150 ohm and wavelength equal to is present in a lossless line and its short circuited at one end and the other end is connected to an ideal voltage equal to 20 V. Calculate the current that the voltage sources will draw. (a) 0.0 A (b) 0.03 A (c) 50 A (d) 20 A A (b) 0.03 A (c) 50 A (d) 20 A (c) 50 A (d) 20 AA A characteristic impedance of 150 ohm and wavelength equal to is present in a lossless line and its short circuited at one end and the other end is connected to an ideal voltage equal to 20 V. Calculate the current that the voltage sources will draw. (a) 0.0 A (b) 0.03 A (c) 50 A (d) 20 A impedance of 150 ohm and wavelength equal to is present in a lossless line and its short circuited at one end and the other end is connected to an ideal voltage equal to 20 V. Calculate the current that the voltage sources will draw. (a) 0.0 A (b) 0.03 A (c) 50 A (d) 20 A