Asked by nuh uhhhhhhhh
Use the table to answer the question.
x Substituted Evaluate True Statement?
12
24
36
48
When set off, a certain firework follows the path of the quadratic function h=−2536x2+1623x
ℎ
=
−
25
36
𝑥
2
+
16
2
3
𝑥
, where:
h=
ℎ
=
the height of the firework in feet.
x=
𝑥
=
the horizontal distance it travels in feet.
To determine how far the firework will travel before reaching the ground, determine which value of x in table is a solution to the equation 0=−2536x2+1623x
0
=
−
25
36
𝑥
2
+
16
2
3
𝑥
.
(1 point)
Responses
48 feet
48 feet
24 feet
24 feet
12 feet
12 feet
36 feet
x Substituted Evaluate True Statement?
12
24
36
48
When set off, a certain firework follows the path of the quadratic function h=−2536x2+1623x
ℎ
=
−
25
36
𝑥
2
+
16
2
3
𝑥
, where:
h=
ℎ
=
the height of the firework in feet.
x=
𝑥
=
the horizontal distance it travels in feet.
To determine how far the firework will travel before reaching the ground, determine which value of x in table is a solution to the equation 0=−2536x2+1623x
0
=
−
25
36
𝑥
2
+
16
2
3
𝑥
.
(1 point)
Responses
48 feet
48 feet
24 feet
24 feet
12 feet
12 feet
36 feet
Answers
There are no human answers yet.
Answered by
GPT-4o mini
To determine how far the firework will travel before reaching the ground, we need to find the value of \( x \) that makes the function \( h = -\frac{25}{36}x^2 + \frac{1623}{100}x = 0 \).
This corresponds to finding the roots of the quadratic equation:
\[
-\frac{25}{36}x^2 + \frac{1623}{100}x = 0
\]
We can factor out \( x \):
\[
x\left(-\frac{25}{36}x + \frac{1623}{100}\right) = 0
\]
One solution is \( x = 0 \) (when the firework is launched). To find the other solution, we need to solve:
\[
-\frac{25}{36}x + \frac{1623}{100} = 0
\]
Rearranging gives us:
\[
-\frac{25}{36}x = -\frac{1623}{100}
\]
Multiply through by -1:
\[
\frac{25}{36}x = \frac{1623}{100}
\]
Now, we can solve for \( x \):
\[
x = \frac{1623}{100} \cdot \frac{36}{25}
\]
Calculating this step-by-step:
1. Compute \( \frac{1623 \cdot 36}{100 \cdot 25} = \frac{1623 \cdot 36}{2500} \).
Now, let's perform the multiplication:
\[
1623 \times 36 = 58428
\]
and now divide:
\[
x = \frac{58428}{2500} \approx 23.3712
\]
Since this value doesn't exactly match the numbers in our table, let's evaluate the values provided:
1. For \( x = 12 \):
\[
h = -\frac{25}{36}(12^2) + \frac{1623}{100}(12) = -\frac{25}{36}(144) + \frac{1623}{100}(12)
\]
2. For \( x = 24 \):
\[
h = -\frac{25}{36}(24^2) + \frac{1623}{100}(24)
\]
3. For \( x = 36 \):
\[
h = -\frac{25}{36}(36^2) + \frac{1623}{100}(36)
\]
4. For \( x = 48 \):
\[
h = -\frac{25}{36}(48^2) + \frac{1623}{100}(48)
\]
We can find which values produce 0. However, as expected from the derivations:
The approximate value we calculated for \( x \) is indeed closest to 24 feet, as it is near to 23.3712.
Thus, the answer to how far the firework will travel before reaching the ground is:
**24 feet.**
This corresponds to finding the roots of the quadratic equation:
\[
-\frac{25}{36}x^2 + \frac{1623}{100}x = 0
\]
We can factor out \( x \):
\[
x\left(-\frac{25}{36}x + \frac{1623}{100}\right) = 0
\]
One solution is \( x = 0 \) (when the firework is launched). To find the other solution, we need to solve:
\[
-\frac{25}{36}x + \frac{1623}{100} = 0
\]
Rearranging gives us:
\[
-\frac{25}{36}x = -\frac{1623}{100}
\]
Multiply through by -1:
\[
\frac{25}{36}x = \frac{1623}{100}
\]
Now, we can solve for \( x \):
\[
x = \frac{1623}{100} \cdot \frac{36}{25}
\]
Calculating this step-by-step:
1. Compute \( \frac{1623 \cdot 36}{100 \cdot 25} = \frac{1623 \cdot 36}{2500} \).
Now, let's perform the multiplication:
\[
1623 \times 36 = 58428
\]
and now divide:
\[
x = \frac{58428}{2500} \approx 23.3712
\]
Since this value doesn't exactly match the numbers in our table, let's evaluate the values provided:
1. For \( x = 12 \):
\[
h = -\frac{25}{36}(12^2) + \frac{1623}{100}(12) = -\frac{25}{36}(144) + \frac{1623}{100}(12)
\]
2. For \( x = 24 \):
\[
h = -\frac{25}{36}(24^2) + \frac{1623}{100}(24)
\]
3. For \( x = 36 \):
\[
h = -\frac{25}{36}(36^2) + \frac{1623}{100}(36)
\]
4. For \( x = 48 \):
\[
h = -\frac{25}{36}(48^2) + \frac{1623}{100}(48)
\]
We can find which values produce 0. However, as expected from the derivations:
The approximate value we calculated for \( x \) is indeed closest to 24 feet, as it is near to 23.3712.
Thus, the answer to how far the firework will travel before reaching the ground is:
**24 feet.**
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