To simplify \( 911z - 411z \), you can combine the like terms (the coefficients of \( z \)):
\[ 911z - 411z = (911 - 411)z = 500z \]
So, the simplified expression is:
\[ 500z \]
11 answers
To simplify \( 911z - 411z \), you can combine the like terms (the coefficients of \( z \)):
\[ 911z - 411z = (911 - 411)z = 500z \]
So, the simplified expression is:
\[ 500z \]
Let's review the subtraction step by step:
Starting with the expression \( 911z - 411z \):
Combine the coefficients of \( z \): \[ 911 - 411 = 500 \]
So, you have: \[ (911 - 411)z = 500z \]
Therefore, the correct and simplified expression is indeed \( 500z \).
If there's any misunderstanding or if you're looking for something else, please clarify!
To simplify the expression \( 310x + 16y + 310x + 36y \), we can combine like terms.
Combine the \( x \) terms: \[ 310x + 310x = 620x \]
Combine the \( y \) terms: \[ 16y + 36y = 52y \]
Now, putting it all together, we get: \[ 620x + 52y \]
There are no fractions to reduce in this expression, so the simplified form is:
\[ \boxed{620x + 52y} \]
To simplify the expression \( \frac{3}{10}x + \frac{1}{6}y + \frac{3}{10}x + \frac{36}{y} \), we can follow these steps:
Combine the like terms for \( x \): \[ \frac{3}{10}x + \frac{3}{10}x = \frac{6}{10}x. \]
Now simplify \( \frac{6}{10} \): \[ \frac{6}{10} = \frac{3}{5}. \] So, we have: \[ \frac{3}{5}x. \]
Combine the \( y \) terms: Since \( \frac{1}{6}y \) and \( \frac{36}{y} \) are not like terms, we leave them as they are.
Putting it all together: The expression now is: \[ \frac{3}{5}x + \frac{1}{6}y + \frac{36}{y}. \]
Since there are no more like terms to combine and no fractions that can be reduced further, the final simplified expression is: \[ \boxed{\frac{3}{5}x + \frac{1}{6}y + \frac{36}{y}}. \]
The simplified form of the expression
\[ \frac{3}{10}x + \frac{1}{6}y + \frac{3}{10}x + \frac{36}{y} \]
is
\[ \frac{3}{5}x + \frac{1}{6}y + \frac{36}{y}. \]
Thus, the final answer is:
\[ \boxed{\frac{3}{5}x + \frac{1}{6}y + \frac{36}{y}}. \]
I apologize for the confusion. Let's simplify \( \frac{3}{10}x + \frac{1}{6}y + \frac{3}{10}x + \frac{36}{y} \) step by step correctly:
Combine the \( x \) terms: \[ \frac{3}{10}x + \frac{3}{10}x = \frac{6}{10}x. \] Simplifying \( \frac{6}{10} \): \[ \frac{6}{10} = \frac{3}{5}. \] So, we have: \[ \frac{3}{5}x. \]
The \( y \) terms are \( \frac{1}{6}y \) and \( \frac{36}{y} \), which are not like terms and cannot be combined.
So, we currently have: \[ \frac{3}{5}x + \frac{1}{6}y + \frac{36}{y}. \]
Now, let's write the entire expression clearly again: \[ \frac{3}{5}x + \frac{1}{6}y + \frac{36}{y}. \]
If you want to add the \( y \) terms together over a common denominator, we can express them together. The common denominator of \( 6y \) is effective here, but since \( \frac{36}{y} \) already stands alone, it's best to leave it as is unless specified:
Therefore, the final answer is:
\[ \boxed{\frac{3}{5}x + \frac{1}{6}y + \frac{36}{y}}. \]
If there's a specific manipulation or combination you expect that I missed, please clarify, and I'll be happy to assist!