Answer:
On a coordinate plane, 2 curves intersect at (1, 1). One curve curves up and to the right from quadrant 3 into quadrant 1. The other curve curves down from quadrant 1 into quadrant 4
Step-by-step explanation:
The first function is given as:

The second function is given as:

First we graph both the functions.
We can see that one curves up and to the right from quadrant 3 into quadrant 1. This curve is of 
The other curve curves down from quadrant 1 into quadrant 3
Both curves interest almost at (1,1)
See the graph attached below
Blue line represents first function
Green line represents second function
The solution lies on the Red line.
Answer:
Ted 13.9
Millicent 12.3
Ted's data is more varied
Step-by-step explanation:
Lets solve our radical equation
step by step.
Step 1 add 4 to both sides of the equation:


Step 2 square both sides of the equation:



Step 3 expand the binomial in the right hand side:

Step 4 simplify the expression:


Step 5 factor the expression:

Step 6 solve for each factor:
or 
or 
Now we are going to check both solutions in the original equation to prove if they are valid:
For 


The solution
is a valid solution of the rational equation
.
For 



Since -3 is not equal to -5, the solution
is not a valid solution of the rational equation
; therefore,
is an extraneous solution of the equation.
We can conclude that even all the algebraic procedures of Israel are correct, he did not check for extraneous solutions.
An extraneous solution of an equation is the solution that emerges from the algebraic process of solving the equation but is not a valid solution of the equation. Is worth pointing out that extraneous solutions are particularly frequent in rational equation.
Answer:
i would just guess bc thats me