Answer:
wigggle
Step-by-step explanation:
a girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the buildinga girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the buildinga girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the buildinga girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the buildinga girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the buildinga girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the buildinga girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the buildinga girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the buildinga girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the buildinga girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the buildinga girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the buildinga girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the buildinga girl 2.2m tall observes that the angle of elevation of the top of a building 16m away from her is 45° find the height of the building
Answer:
the correct answer is -5/8.
Answer:
12√2
Step-by-step explanation:
45-45-90 special right triangles follow the form of x,x,x√2
Where both the sides that are across from the same angle (45) are equal in length and the hypotenuse is that value multiplied by the √2
To find the derivative of this function, there is a property that we should know called the Constant Multiple Rule, which says:
(where
is a constant)
Remember that the derivative of
is
. However, you may notice that we are finding the derivative of
, not
. So, we are going to have to use the chain rule. To complete the chain rule for the derivative of a trigonometric function (in layman's terms) is basically the following: First, complete the derivative of the trig function as you would if what was inside the trig function is
. Then, take the derivative of what's inside of the trig function and multiply it by what you found in the first step.
Let's apply that to our problem. Right now, I am not going to worry about the
at the front of the equation, since we can just multiply it back in at the end of our problem. So, let's examine
. We see that what's inside the trig function is
, which has a derivative of 2. Thus, let's first find the derivative of
as if
was just
and then multiply it by 2.
The derivative of
would first be
. Multiplying it by 2, we get our derivative of
. However, don't forget to multiply it by the
that we removed near the beginning. This gives us our final derivative of
.
Remember that we now have to find the derivative at the given point. To do this, simply "plug in" the point into the derivative using the x-coordinate. This is shown below:
![-\cot[2(\dfrac{\pi}{4})]\csc[2(\dfrac{\pi}{4})]](https://tex.z-dn.net/?f=-%5Ccot%5B2%28%5Cdfrac%7B%5Cpi%7D%7B4%7D%29%5D%5Ccsc%5B2%28%5Cdfrac%7B%5Cpi%7D%7B4%7D%29%5D)


Our final answer is 0.
there is no solution
Step-by-step explanation: