Make a sketch of the graph the absolute value equation.Be sure to label the increments on your x and y axis the vertex as well as the intercepts.

Solution:
Let the following function:
[tex]f(x)=\text{ }\frac{1}{2}\text{|x+4|-3}[/tex]The graph of this function can be obtained by applying the respective function transformations to the absolute value function y = |x|. In this case, horizontal and vertical translations and vertical shortening were used on absolute value function y = |x|.
According to the function, the vertex can be obtained by solving the following equation:
[tex]\text{|x+4|}=0[/tex]solving for x, we get:
[tex]x\text{ = -4}[/tex]replacing this value into the function f(x) =y, we obtain:
[tex]y\text{ = }-3[/tex]so that, the vertex of this function is on the point:
[tex](x,y)=(-4,-3)[/tex]Now, to find the x-intercept, we set the equation of the function equal to 0 and then solve for x:
[tex]0=\text{ }\frac{1}{2}\text{|x+4|-3}[/tex]solving for x, we get two solutions:
[tex]x=\text{ -10}[/tex]and
[tex]x=\text{ }2[/tex]so that, the x-intercepts are the points:
[tex](x,y)=(-10,0)[/tex]and
[tex](x,y)=(2,0)[/tex]On the other hand, to find the y-intercept, we can evaluate the function f(x) at x=0, and then, we can solve for y:
[tex]f(0)=\text{ }\frac{1}{2}\text{|0+4|-3}=\frac{1}{2}\text{|4|}-3\text{ = 2-3 = -1}[/tex]Then, the y-intercept is on the point:
[tex](x,y)=(0,-1)[/tex]So that, we can conclude that the correct answer is: