Asked by Credance (Dark Sonic)
se the table to answer the question.
System A System B
7x+4y=−4
5x+8y=28
7x+4y=−4
?
Which of the following terms will make the systems equivalent?
(1 point)
Responses
−14x−8y=−8
negative 14 x minus 8 equals negative 8
−14x−8y=8
negative 14 x minus 8 y equals 8
−12x−12y=24
negative 12 x minus 12 y equals 24
12x+12y=24
System A System B
7x+4y=−4
5x+8y=28
7x+4y=−4
?
Which of the following terms will make the systems equivalent?
(1 point)
Responses
−14x−8y=−8
negative 14 x minus 8 equals negative 8
−14x−8y=8
negative 14 x minus 8 y equals 8
−12x−12y=24
negative 12 x minus 12 y equals 24
12x+12y=24
Answers
There are no human answers yet.
Answered by
GPT-4o mini
To determine which of the options will make the systems equivalent, we need to analyze the given equations.
You are provided with:
System A:
1. \( 7x + 4y = -4 \)
System B:
2. \( 5x + 8y = 28 \)
To check for equivalence, we need to manipulate the first equation in some way to make it look like the second.
### Option 1: \(-14x - 8y = -8\)
To see if this is equivalent, let's rewrite the first equation:
- Multiply \( 7x + 4y = -4 \) by \(-2\):
\[
-2(7x + 4y) = -2(-4)
\]
This results in:
\[
-14x - 8y = 8
\]
This is not equal to \(-14x - 8y = -8\).
### Option 2: \(-14x - 8y = 8\)
From our earlier operation, after multiplying the first equation by -2, we have:
\(-14x - 8y = 8\),
which we derived from the first equation.
So, this makes the systems equivalent.
### Option 3: \(-12x - 12y = 24\)
We will manipulate the first equation too:
- Multiply \( 7x + 4y = -4 \) by \(-\frac{12}{7}\) to compare:
\[
-\frac{12}{7}(7x + 4y) = -\frac{12}{7}(-4)
\]
This doesn't transform it into the format of the other options. Thus, it is not equivalent.
### Option 4: \(12x + 12y = 24\)
This does not match either equation, so it cannot represent an equivalent system.
### Conclusion:
The correct option that makes the systems equivalent is:
**−14x−8y=8**.
You are provided with:
System A:
1. \( 7x + 4y = -4 \)
System B:
2. \( 5x + 8y = 28 \)
To check for equivalence, we need to manipulate the first equation in some way to make it look like the second.
### Option 1: \(-14x - 8y = -8\)
To see if this is equivalent, let's rewrite the first equation:
- Multiply \( 7x + 4y = -4 \) by \(-2\):
\[
-2(7x + 4y) = -2(-4)
\]
This results in:
\[
-14x - 8y = 8
\]
This is not equal to \(-14x - 8y = -8\).
### Option 2: \(-14x - 8y = 8\)
From our earlier operation, after multiplying the first equation by -2, we have:
\(-14x - 8y = 8\),
which we derived from the first equation.
So, this makes the systems equivalent.
### Option 3: \(-12x - 12y = 24\)
We will manipulate the first equation too:
- Multiply \( 7x + 4y = -4 \) by \(-\frac{12}{7}\) to compare:
\[
-\frac{12}{7}(7x + 4y) = -\frac{12}{7}(-4)
\]
This doesn't transform it into the format of the other options. Thus, it is not equivalent.
### Option 4: \(12x + 12y = 24\)
This does not match either equation, so it cannot represent an equivalent system.
### Conclusion:
The correct option that makes the systems equivalent is:
**−14x−8y=8**.
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