The coordinates of the vertices of △abc are a(1, 1) , b(5, 1) , and c(5, 3) . the coordinates of the vertices of △a′b′c′ are a′(−1, −1) , b′(−5, −1) , and c′(−5, −3) . which statement correctly describes the relationship between △abc and △a′b′c′ ? △abc is not congruent to △a′b′c′ because there is no sequence of rigid motions that maps △abc to △a′b′c′. △abc is congruent to △a′b′c′ because you can map △abc to △a′b′c′ using a rotation of 180° about the origin, which is a rigid motion. △abc is congruent to △a′b′c′ because you can map △abc to △a′b′c′ using a translation 2 units to the left and 2 units down, which is a rigid motion. △abc is congruent to △a′b′c′ because you can map △abc to △a′b′c′ using a reflection across the y-axis, which is a rigid motion.

bull

step-by-step explanation:

6.5

step-by-step explanation:

you said it was in the question

~courtney

answer: i literally just answered this question but they want me to do it again

step-by-step explanation:

answer:

given the linear inequality :

add 2y to both sides we get;

simplify:

add 12 to both sides of an equation;

simplify:

divide both sides by 2 we get;

or

the related equation for the inequality equation [1] is;

y-intercepts defined as the graph crosses the y-axis.

substitute x =0 in [2] to solve for y;

y = 6

x-intercepts defined as the graph crosses the x-axis.

substitute value y = 0 to solve for x;

subtract 6 from both sides we get

multiply both sides by 2 we get;

or

x = -12

now, plot these point (0, 6) and (-12, 0) on graph as shown below and shade the graph below the solid line.