How to divide variables - SSAT Middle Level Quantitative
Card 0 of 20
Solve for the variable:

Solve for the variable:
Tap to see back →
In order to answer this question, you must isolate
on one side of the equation.
(Subtract
from both sides.)



In order to answer this question, you must isolate on one side of the equation.
(Subtract
from both sides.)
If
and
, then
is equal to:
If and
, then
is equal to:
Tap to see back →
If
and
, then when plugging the variables into the fractional form of
, the result is
, which is equal to 4, which is therefore the correct answer.
If and
, then when plugging the variables into the fractional form of
, the result is
, which is equal to 4, which is therefore the correct answer.
Solve for the variable:

Solve for the variable:
Tap to see back →
In order to answer this question, you must isolate
on one side of the equation.
(Subtract
from both sides.)



In order to answer this question, you must isolate on one side of the equation.
(Subtract
from both sides.)
If
and
, then
is equal to:
If and
, then
is equal to:
Tap to see back →
If
and
, then when plugging the variables into the fractional form of:


If and
, then when plugging the variables into the fractional form of:
Simpify the expression.

Simpify the expression.
Tap to see back →
To solve this problem you can cancel out like terms in the numerator and denominator. For example,


So,

All the other terms cancel each other out because they are equal to one.
To solve this problem you can cancel out like terms in the numerator and denominator. For example,
So,
All the other terms cancel each other out because they are equal to one.
Solve for the variable:

Solve for the variable:
Tap to see back →
In order to answer this question, you must isolate
on one side of the equation.
(Subtract
from both sides.)



In order to answer this question, you must isolate on one side of the equation.
(Subtract
from both sides.)
If
and
, then
is equal to:
If and
, then
is equal to:
Tap to see back →
If
and
, then when plugging the variables into the fractional form of
, the result is
, which is equal to 4, which is therefore the correct answer.
If and
, then when plugging the variables into the fractional form of
, the result is
, which is equal to 4, which is therefore the correct answer.
Solve for the variable:

Solve for the variable:
Tap to see back →
In order to answer this question, you must isolate
on one side of the equation.
(Subtract
from both sides.)



In order to answer this question, you must isolate on one side of the equation.
(Subtract
from both sides.)
If
and
, then
is equal to:
If and
, then
is equal to:
Tap to see back →
If
and
, then when plugging the variables into the fractional form of:


If and
, then when plugging the variables into the fractional form of:
Simpify the expression.

Simpify the expression.
Tap to see back →
To solve this problem you can cancel out like terms in the numerator and denominator. For example,


So,

All the other terms cancel each other out because they are equal to one.
To solve this problem you can cancel out like terms in the numerator and denominator. For example,
So,
All the other terms cancel each other out because they are equal to one.
Solve for the variable:

Solve for the variable:
Tap to see back →
In order to answer this question, you must isolate
on one side of the equation.
(Subtract
from both sides.)



In order to answer this question, you must isolate on one side of the equation.
(Subtract
from both sides.)
If
and
, then
is equal to:
If and
, then
is equal to:
Tap to see back →
If
and
, then when plugging the variables into the fractional form of
, the result is
, which is equal to 4, which is therefore the correct answer.
If and
, then when plugging the variables into the fractional form of
, the result is
, which is equal to 4, which is therefore the correct answer.
Solve for the variable:

Solve for the variable:
Tap to see back →
In order to answer this question, you must isolate
on one side of the equation.
(Subtract
from both sides.)



In order to answer this question, you must isolate on one side of the equation.
(Subtract
from both sides.)
If
and
, then
is equal to:
If and
, then
is equal to:
Tap to see back →
If
and
, then when plugging the variables into the fractional form of:


If and
, then when plugging the variables into the fractional form of:
Simpify the expression.

Simpify the expression.
Tap to see back →
To solve this problem you can cancel out like terms in the numerator and denominator. For example,


So,

All the other terms cancel each other out because they are equal to one.
To solve this problem you can cancel out like terms in the numerator and denominator. For example,
So,
All the other terms cancel each other out because they are equal to one.
Solve for the variable:

Solve for the variable:
Tap to see back →
In order to answer this question, you must isolate
on one side of the equation.
(Subtract
from both sides.)



In order to answer this question, you must isolate on one side of the equation.
(Subtract
from both sides.)
If
and
, then
is equal to:
If and
, then
is equal to:
Tap to see back →
If
and
, then when plugging the variables into the fractional form of
, the result is
, which is equal to 4, which is therefore the correct answer.
If and
, then when plugging the variables into the fractional form of
, the result is
, which is equal to 4, which is therefore the correct answer.
Solve for the variable:

Solve for the variable:
Tap to see back →
In order to answer this question, you must isolate
on one side of the equation.
(Subtract
from both sides.)



In order to answer this question, you must isolate on one side of the equation.
(Subtract
from both sides.)
If
and
, then
is equal to:
If and
, then
is equal to:
Tap to see back →
If
and
, then when plugging the variables into the fractional form of:


If and
, then when plugging the variables into the fractional form of:
Simpify the expression.

Simpify the expression.
Tap to see back →
To solve this problem you can cancel out like terms in the numerator and denominator. For example,


So,

All the other terms cancel each other out because they are equal to one.
To solve this problem you can cancel out like terms in the numerator and denominator. For example,
So,
All the other terms cancel each other out because they are equal to one.