Algebraic fractions are fractions with variables.
Algebraic fractions are fractions with variables.
Select the field of application of the following fraction:
\( \frac{x}{16} \)
Observe, you can factorize every expression included in your fraction separately in any way you desire and, in the end, you will arrive at the factorized expression.
Let's see an example of factoring algebraic fractions:
As you can see, in this fraction only the numerator can be factored.
We will factor it and obtain:
Now, we can reduce in the following way and we will obtain:
Select the domain of the following fraction:
The domain depends on the denominator and we can see that there is no variable in the denominator.
Therefore, the domain is all numbers.
All numbers
Select the the domain of the following fraction:
The domain of a fraction depends on the denominator.
Since you cannot divide by zero, the denominator of a fraction cannot equal zero.
Therefore, for the fraction , the domain is "All numbers except 0," since the denominator cannot equal zero.
In other words, the domain is:
All numbers except 0
Determine if the simplification below is correct:
Let's consider the fraction and break it down into two multiplication exercises:
We simplify:
Correct
Determine if the simplification shown below is correct:
Let's consider the fraction and break it down into two multiplication exercises:
We simplify:
Therefore, the described simplification is false.
Incorrect
Determine if the simplification below is correct:
We will divide the fraction exercise into two multiplication exercises:
We simplify:
Therefore, the described simplification is false.
Incorrect
Select the domain of the following fraction:
\( \frac{8+x}{5} \)
Select the the domain of the following fraction:
\( \frac{6}{x} \)
Select the field of application of the following fraction:
\( \frac{3}{x+2} \)