Answer:
253
Step-by-step explanation:
23 x 11 = 253
Answer:
To calculate final grade we use the formula:
Final grade = H( the weight of h) + Q( the weight of q) + P (the weight of project) +T (the weight of test) + F(the weight of final exams).
This formula help us to calculate the grade we need to get.
Step-by-step explanation:
Solution:
Suppose grade breakdown for certain college course is as follow:
Homework = 15%
Quizzes = 20%
Project = 10%
Test = 40%
Final exam= 15%
Let G represent the final grade
H represents homework average,
Q represents quizzes and P represent project, T represent test average and F represent final exam.
To calculate final grade we use the formula:
Final grade = H( the weight of h) + Q( the weight of q) + P (the weight of project) +T (the weight of test) + F(the weight of final exams).
This formula help us to calculate the grade we need to get.
The final grade, G, can be computed by adding together the weighted values of the homework average, quiz average, project grade, test average, and final exam grade. This can be represented by the formula G = 0.20*H + 0.20*Q + 0.25*P + 0.15*T + 0.20*F.
To compute the final grade for the course, you will need to multiply each category by its weighting percentage, then add the results together. This can be represented as the following formula:
G = 0.20*H + 0.20*Q + 0.25*P + 0.15*T + 0.20*F
In this formula, G is the final grade, H is the homework average, Q is the quiz average, P is the project grade, T is the test average, and F is the final exam grade. The coefficients (0.20, 0.20, 0.25, 0.15, and 0.20) represent the weighting percentages in decimal form for each respective category.
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Answer:
x is greater than sign then 32
Step-by-step explanation:
A: Gradient of f
B: Gradient of f at point P:
Just put the coordinates of p in above formula:
C: The directional derivative of f and P in direction of v:
The directional derivative is found by dot product of :
D: The maximum rate of change of f at P is calculated by evaluating the magnitude of gradient vector at P:
E: The (unit) direction vector in which the maximum rate of change occurs at P is:
That vector v is the needed unit vector in this case.
we divided by to make that vector as of unit length.
Learn more about vectors here:
Answer:
a) The gradient of a function is the vector of partial derivatives. Then
b) It's enough evaluate P in the gradient.
c) The directional derivative of f at P in direction of V is the dot produtc of and v.
d) The maximum rate of change of f at P is the magnitude of the gradient vector at P.
e) The maximum rate of change occurs in the direction of the gradient. Then
is the direction vector in which the maximum rate of change occurs at P.
Answer:
College town race is 31% of the home town race.
Step-by-step explanation:
Length of hometown race = 3 miles
Length of college town race = 1492 meters
Since 1 meter = 0.0006214 miles
Therefore, 1492 = 0.93 miles
Percentage of college town race to the hometown race,
=
=
= 31%
Therefore, the college town race is 31% of the home town race.
The college town race is approximately 46.31% of the hometown race in length.
First, let's convert both race distances to a common unit of measurement. We'll convert the 2-mile hometown race to meters since the college town race is already in meters.
1 mile is approximately equal to 1609.34 meters. So, the 2-mile hometown race is:
2 miles * 1609.34 meters/mile = 3218.68 meters
Now, we can calculate the length ratio between the college town race and the hometown race:
College Town Race Length: 1492 meters
Hometown Race Length: 3218.68 meters
To find the percentage of the college town race length compared to the hometown race length, we can use the following formula:
(Length of College Town Race / Length of Hometown Race) * 100
(1492 meters / 3218.68 meters) * 100 ≈ 46.31%
So, the college town race is approximately 46.31% of the length of the hometown race.
To know more about percentage here
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Answer:
2/6 or 1/3 I think
Step-by-step explanation:
you have a 1 out of 2 chances to land tails and 1 out of 4 chance to role a 2 on the spinner. so in total there is 6 chances for rolling and flipping the coin. and there is only 1 chance for both in the odds.
therefore I believe that its is 1/3 or 2/6. I do not know if I am right exactly but that is my thought process.
What is the initial value of the exponential function
represented by the table?
-2
1
8
e
8
-1
1
4
0
1
2
1
1
1
2
2
2
Answer:
the answer will be table -1
Step-by-step explanation: