First Die 4 6. 1 3 4 6. 7 3 4 5. 6. 7. 8. 4 5. 6. 7 8. 9. 4 6. 7. 8. 9. 10 5 6. 8 6. 10 11 8. 9. 10 11 12 419 t in 47 Second Die

W      L                                  1.4    1.91.4    1.81.5    1.91.9    2.32.1    3.52.1    2.82.1    2.72.2    3.02.2    2.72.3    3.02.4    3.22.4    2.92.5    3.52.5    3.32.6    3.52.6    3.42.6    3.42.7    3.22.8    3.82.8    3.52.9    3.82.9    3.92.9    3.82.9    3.73.0    3.83.0    4.03.0    3.73.1    4.13.4    4.43.4    4.33.5    4.53.6    4.63.6    4.83.6    4.93.6    4.53.7    4.93.9    5.43.9    5.24.1    5.34.1    5.44.1    5.24.2    5.44.2    5.54.2    5.64.2    5.24.3    5.64.7    6.14.8    6.64.8    6.14.8    6.04.9    6.15.0    6.65.0    6.25.1    6.65.2    6.45.2    6.85.4    6.35.6    7.05.6    7.95.8    7.45.8    7.45.8    6.95.9    7.96.0    7.76.0    7.86.0    7.36.2    8.56.2    7.56.3    7.66.5    9.36.6    8.16.6    8.06.7    8.26.7    9.26.7    8.06.7    7.96.9    8.66.9    8.17.0    9.57.1    9.17.1    9.17.1    9.47.2    8.47.3    9.37.3    8.97.4    8.97.5    8.6   match the number to the corresponding residual

Sketch the region enclosed by the given curves. Decide whether to integrate with respect to x or y. Draw a typical approximating rectangle. y = 4x, y = 7x2 y y 2.5 0.1 0.2 0.3 0.4 0.5 0.6 2.0 -0.5- 1.5 -1.0 1.0 -1.5 0.5 -2.0 0.5 O -2.5- 0.1 0.2 0.3 0.4 0.6 y 2.5 0.2 0.3 0.4 0.5 0.6 2.0-

Identify the following values. Consider the function shown with a graphical depiction of limƒ ( x = L , including the roles XC of & and d. 201 1.8- 1.6 1.4- 1.2- Y 1.0- 0.8- 0.6- 0.4 0.2- 0.0+T 0.0 0.2 0.4 0.6 0.8 1.0 1.2 1.4 1.6 1.8 2.0 2.2 1. 1.6 2. 1.0 E = 3. 0.4 = %3D 4. 0.6 >

15.57/0.3

Customer Day Mon Browser Time (min) Pages Viewed Amount Spent ($) 1 Chrome 12.0 4 54.52 2 Wed Other 19.5 94.90 3 Mon Chrome 8.5 4 26.68 4 Tue Firefox 11.4 2 44.73 Chrome Firefox Wed 11.3 4 66.27 Sat 10.5 67.80 7 Sun Chrome 11.4 36.04 8 Fri Firefox 4.3 55.96 9 Wed Firefox 12.7 3 70.94 10 Tue Chrome 24.7 7 68.73 11 Sat Other 13.3 6. 54.04 12 Sun Firefox 14.3 48.05 13 Sun Other 11.7 7 64.16 14 Mon Firefox 24.4 10 158.51 15 Fri Chrome 8.4 3 84.12 16 Thu Chrome 9.6 4 59.20 17 Thu Chrome 23.3 7 91.62 18 Mon Chrome 14.0 126.40 19 Fri Other 5.6 4 68.45 20 Wed Chrome 15.1 5 32.69 21 Sat Firefox 16.3 5 78.58 22 Tue Chrome 10.2 6. 74.43 23 Sun Chrome 8.0 3 32.73 24 Tue Firefox 8.0 2 48.66 25 Fri Firefox 9.6 3 54.66 26 Wed Chrome 11.0 40.54 27 Sat Chrome 16.9 5 34.69 28 Sat Firefox 6.0 4 27.91 29 Fri Firefox 32.9 10 155.30 30 Mon Other 11.8 9 120.25 31 Thu Chrome 7.1 41.20 32 Fri Firefox 18.0 8 134.40 33 Sun Chrome 11.8 37.17 34 Fri Chrome 9.1 3 52.09 71.81 59.99 35 Tue Chrome 7.8 5 36 Mon Firefox…

A researcher hypothesizes that ambient air carbon monoxide pollution levels at a certain location should be higher in the winter than they are in the summer. The reasoning behind this hypothesis is that a major source of carbon monoxide in the air is from the incomplete combustion of fuels, and fuels tend to burn less efficiently at low temperatures. Moreover, it is felt that the stagnant winter air is more likely to trap the pollution. In order to investigate this hypothesis, the data set in DS 9.7.12 is collected which shows the ambient air carbon monoxide pollution levels (parts per million) for ten Sunday mornings in the middle of winter and ten Sunday mornings in the middle of summer.

First Die 4 6. 1 3 4 6. 7 3 4 5. 6. 7. 8. 4 5. 6. 7 8. 9. 4 6. 7. 8. 9. 10 5 6. 8 6. 10 11 8. 9. 10 11 12 419 t in 47 Second Die

In contract negotiations between a local government agency and its workers, it is estimated that there is a 50% chance that an agreement will be reached on the salaries of the workers. It is estimated that there is a 70% chance that there will be an agreement on the insurance benefits. There is a 20% chance that no agreement will be reached on either issue. What is the probability that an agreement will be reached on both issues?