Answer:
16 units.
Step-by-step explanation:
Find the coordinates of the vertices of the figure after the given transformation. translation: (x, y)→(x - 4, y + 4) A) J'(1, 0
), N'(5, 0), M'(5, 3), P'(2, 5) B) J'(-2, 5), N'(2, 5), M'(2, 2), P'(-1, 0) C) J'(-3, 4), N'(1, 4), M'(1, 1), P'(-2, -1) D) J'(-1, 0), N'(-5, 0), M'(-5, -3), P'(-2, -5)
1 answer:
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Answer:
![a=2[d-V_0t]/t^2=2d/t^2-2v_0/t](https://tex.z-dn.net/?f=a%3D2%5Bd-V_0t%5D%2Ft%5E2%3D2d%2Ft%5E2-2v_0%2Ft)
Explanation:
Since, you have not included the formula, I will work here with the formula for constant accelaration motion that relates the four variables: displacement (d), Vo (initial velocity), a (acceleration) and t (time).
1) displacement formula:
2) Subtract the term Vot from both sides:
3) Multiply both sides by 2:
4) Divide both sides by t²
![2[d-V_0t]/t^2=a](https://tex.z-dn.net/?f=2%5Bd-V_0t%5D%2Ft%5E2%3Da)
So, you have obtainded:
a = 2[d - Vo×t] / t²
Yet, you can arrange it in different ways. For example, you might separate into two terms:
Explanation:
Since, you have not included the formula, I will work here with the formula for constant accelaration motion that relates the four variables: displacement (d), Vo (initial velocity), a (acceleration) and t (time).
1) displacement formula:
2) Subtract the term Vot from both sides:
3) Multiply both sides by 2:
4) Divide both sides by t²
So, you have obtainded:
a = 2[d - Vo×t] / t²
Yet, you can arrange it in different ways. For example, you might separate into two terms: