The probability of precipitation in Modesto, California, varies from a peak of 0.34 34 % in January to a low of 0.04 4 % in July. Assume that the percentage of precipitation varies monthly and behaves like a cosine curve. a. Write a function of the form P t = A cos B t − C + D to model the precipitation probability. The value P t is the probability of precipitation (as a decimal), for month t with January as t = 1 . b. Graph the function from part (a) on the interval 0 , 13 and plot the points 1 , 0.34 , 7 , 0.04 , and 13 , 0.34 to check the accuracy of your model.
The probability of precipitation in Modesto, California, varies from a peak of 0.34 34 % in January to a low of 0.04 4 % in July. Assume that the percentage of precipitation varies monthly and behaves like a cosine curve. a. Write a function of the form P t = A cos B t − C + D to model the precipitation probability. The value P t is the probability of precipitation (as a decimal), for month t with January as t = 1 . b. Graph the function from part (a) on the interval 0 , 13 and plot the points 1 , 0.34 , 7 , 0.04 , and 13 , 0.34 to check the accuracy of your model.
The probability of precipitation in Modesto, California, varies from a peak of
0.34
34
%
in January to a low of
0.04
4
%
in July. Assume that the percentage of precipitation varies monthly and behaves like a cosine curve.
a. Write a function of the form
P
t
=
A
cos
B
t
−
C
+
D
to model the precipitation probability. The value
P
t
is the probability of precipitation (as a decimal), for month
t
with January as
t
=
1
.
b. Graph the function from part (a) on the interval
0
,
13
and plot the points
1
,
0.34
,
7
,
0.04
, and
13
,
0.34
to check the accuracy of your model.
Table Q3 shows the data from astronomical observations of a type of variable star
called a Cepheid variable and represent variations in its apparent magnitude with time.
Table Q3
Time, t
0.0
0.2
0.5
0.8
1.1
Apparent magnitude, f(t)
0.302
0.185
0.106
0.093
0.081
From the table above, estimate the apparent magnitude of the star when t = 0.10 and
t = 0.95, using Newton divided difference interpolation method.
People who believe in biorhythms claim there are three cycles that rule our behavior - the physical, emotional, and mental. Each is a sine function of a certain period. The function for our emotional fluctuations
is
where t is measured in days starting at birth. Emotional fluctuations, E, are measured from 1 to 1, with 1 representing peak emotional well-being, 1 representing the low for emotional well-being, and 0
representing feeling neither emotionally high nor low.
a. Find E corresponding to t = 30, 35, 40, 45, and 50. Describe what you observe.
b. What is the period of the emotional cycle?
a. Find E corresponding to t = 30.
E =
Find E corresponding to t = 35.
E=
Find E corresponding to t = 40.
E=
Find E corresponding to t= 45.
E=
Find E corresponding to t = 50.
E=
Describe what you observe.
T
E = sint (Equation may not be based on actual studies.)
O
Our emotions appear to cycle between 1 and 0.
O
Our emotions appear to cycle between - 1 and 1.
O
Our emotions appear to cycle between…
Pls help ASAP and pls show all steps and calculations.
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