Asked by bruh no
Identify any two equations that form a system with one solution (different slopes) ? **Hint: You must write # 4 - #6 in y = mx + b format first.
1. y = 5x - 4
2. y = -2 x + 3
3. y = 3x + 1
4. 2y = 6x + 2
5. y - 5x = 2
6. y - 4x + 1 = 0
1. y = 5x - 4
2. y = -2 x + 3
3. y = 3x + 1
4. 2y = 6x + 2
5. y - 5x = 2
6. y - 4x + 1 = 0
Answers
Answered by
GPT-4o mini
To identify two equations from the provided list that form a system with one solution, we need to express each equation in the slope-intercept form (y = mx + b). We will work on equations 4, 5, and 6.
1. **Equation 4: \(2y = 6x + 2\)**
- To convert it to the slope-intercept form, divide both sides by 2:
\[
y = 3x + 1
\]
(This equation is already present as equation 3.)
2. **Equation 5: \(y - 5x = 2\)**
- Rearranging this to slope-intercept form gives:
\[
y = 5x + 2
\]
3. **Equation 6: \(y - 4x + 1 = 0\)**
- Rearranging this to slope-intercept form gives:
\[
y = 4x - 1
\]
Now we have:
- Equation 3: \(y = 3x + 1\)
- Equation 5: \(y = 5x + 2\)
- Equation 6: \(y = 4x - 1\)
Next, let's check the slopes of the pairs:
- Slope of Equation 3: \(m_1 = 3\)
- Slope of Equation 5: \(m_2 = 5\)
- Slope of Equation 6: \(m_3 = 4\)
The combinations with different slopes are:
- **Equations 5 and 6**: \(y = 5x + 2\) and \(y = 4x - 1\) (Their slopes are 5 and 4 respectively, so they intersect at one point.)
- **Equations 3 and 5**: \(y = 3x + 1\) and \(y = 5x + 2\) (Different slopes, 3 and 5.)
- **Equations 3 and 6**: \(y = 3x + 1\) and \(y = 4x - 1\) (Different slopes, 3 and 4.)
Therefore, any of the following pairs can be used to form a system with one solution:
- **Equations 5 and 6:** \(y = 5x + 2\) and \(y = 4x - 1\)
- **Equations 3 and 5:** \(y = 3x + 1\) and \(y = 5x + 2\)
- **Equations 3 and 6:** \(y = 3x + 1\) and \(y = 4x - 1\)
**Example Pair:** \(y = 5x + 2\) and \(y = 4x - 1\) (Equations 5 and 6)
1. **Equation 4: \(2y = 6x + 2\)**
- To convert it to the slope-intercept form, divide both sides by 2:
\[
y = 3x + 1
\]
(This equation is already present as equation 3.)
2. **Equation 5: \(y - 5x = 2\)**
- Rearranging this to slope-intercept form gives:
\[
y = 5x + 2
\]
3. **Equation 6: \(y - 4x + 1 = 0\)**
- Rearranging this to slope-intercept form gives:
\[
y = 4x - 1
\]
Now we have:
- Equation 3: \(y = 3x + 1\)
- Equation 5: \(y = 5x + 2\)
- Equation 6: \(y = 4x - 1\)
Next, let's check the slopes of the pairs:
- Slope of Equation 3: \(m_1 = 3\)
- Slope of Equation 5: \(m_2 = 5\)
- Slope of Equation 6: \(m_3 = 4\)
The combinations with different slopes are:
- **Equations 5 and 6**: \(y = 5x + 2\) and \(y = 4x - 1\) (Their slopes are 5 and 4 respectively, so they intersect at one point.)
- **Equations 3 and 5**: \(y = 3x + 1\) and \(y = 5x + 2\) (Different slopes, 3 and 5.)
- **Equations 3 and 6**: \(y = 3x + 1\) and \(y = 4x - 1\) (Different slopes, 3 and 4.)
Therefore, any of the following pairs can be used to form a system with one solution:
- **Equations 5 and 6:** \(y = 5x + 2\) and \(y = 4x - 1\)
- **Equations 3 and 5:** \(y = 3x + 1\) and \(y = 5x + 2\)
- **Equations 3 and 6:** \(y = 3x + 1\) and \(y = 4x - 1\)
**Example Pair:** \(y = 5x + 2\) and \(y = 4x - 1\) (Equations 5 and 6)
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