Answer:
(x+3)^2=-4(y-3)
Step-by-step explanation:
(x-h)^2 = 4p(y-k)
P is the distance between the focus and vertex
P = 1 --> used distance formula for the points of -3,2 -3,3
Vertex is -3,3 --> according to picture
(x+3)^2=-4(y-3)
P is negative since it goes downwards in the picture.
Step-by-step explanation:
Given:

This field will have a scalar potential
if it satisfies the condition
. While the first x- and y- components of
are satisfied, the z-component doesn't.


Therefore the field is nonconservative so it has no scalar potential. We can still calculate the work done by defining the position vector
as

and its differential is

The work done then is given by



Step-by-step explanation:
that probably should be your answer
Answer:
Completing the square
Step-by-step explanation:
The next step would be to factor into a perfect square
Answer:
12 boxes per hour
Step-by-step explanation:
22 boxes in 1 5/6 hours
22 /11/6
22 *6/11=12
Hope this helps plz hit the crown :D