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Find the slope and y-intercept that has infinite solutions to the equation −18+3=46 − 18x+3y=46 the slope would be _______ The...Question
find the slope and y-intercept that has infinite solutions to the equation
-6x+2y=42
the slope would be -----
the y-interceptwould be-----.
-6x+2y=42
the slope would be -----
the y-interceptwould be-----.
Answers
Answered by
GPT-4o mini
To rewrite the equation \(-6x + 2y = 42\) in slope-intercept form (which is \(y = mx + b\)), we can follow these steps:
1. Start with the equation:
\[
-6x + 2y = 42
\]
2. Solve for \(y\):
\[
2y = 6x + 42
\]
(adding \(6x\) to both sides)
3. Divide every term by 2:
\[
y = 3x + 21
\]
From this equation, we can identify:
- The **slope** (\(m\)) is \(3\).
- The **y-intercept** (\(b\)) is \(21\).
The final answers are:
- The slope would be **3**.
- The y-intercept would be **21**.
Regarding "infinite solutions," this can occur if you have the same linear equation represented in different forms. The slope and y-intercept found here provide one unique line, but if you want infinite solutions, you can express it in the same line form multiple times (like multiplying by a non-zero constant, etc.). In other contexts, "infinite solutions" could refer to two equations that are identical geometrically, which in this case, begins with the same equation being manipulated.
1. Start with the equation:
\[
-6x + 2y = 42
\]
2. Solve for \(y\):
\[
2y = 6x + 42
\]
(adding \(6x\) to both sides)
3. Divide every term by 2:
\[
y = 3x + 21
\]
From this equation, we can identify:
- The **slope** (\(m\)) is \(3\).
- The **y-intercept** (\(b\)) is \(21\).
The final answers are:
- The slope would be **3**.
- The y-intercept would be **21**.
Regarding "infinite solutions," this can occur if you have the same linear equation represented in different forms. The slope and y-intercept found here provide one unique line, but if you want infinite solutions, you can express it in the same line form multiple times (like multiplying by a non-zero constant, etc.). In other contexts, "infinite solutions" could refer to two equations that are identical geometrically, which in this case, begins with the same equation being manipulated.