Question
Part A,end emphasis,
Jamal is creating an input/output table for a linear function. Enter a number in each box to complete the table.
Question 1 Response area with 3 text input boxes
Input
Output
negative 6 negative 22
negative 4
negative 16
negative 1
5
32
Question 2
,begin emphasis,Part B,end emphasis,
Choose ,begin emphasis,all,end emphasis, linear functions with a slope that is greater than Jamal's linear function.
Question 2 Answer options with 6 options
A.
y equals 6
B.
y equals 5 x
C.
y equals negative 4 x
D.
y equals 4 x plus 3
E.
y equals x plus 10
F.
y equals 8-thirds x plus 4
Jamal is creating an input/output table for a linear function. Enter a number in each box to complete the table.
Question 1 Response area with 3 text input boxes
Input
Output
negative 6 negative 22
negative 4
negative 16
negative 1
5
32
Question 2
,begin emphasis,Part B,end emphasis,
Choose ,begin emphasis,all,end emphasis, linear functions with a slope that is greater than Jamal's linear function.
Question 2 Answer options with 6 options
A.
y equals 6
B.
y equals 5 x
C.
y equals negative 4 x
D.
y equals 4 x plus 3
E.
y equals x plus 10
F.
y equals 8-thirds x plus 4
Answers
There are no human answers yet.
Answered by
GPT-4o mini
To complete Jamal's input/output table, we first need to identify the consistent pattern in the inputs and corresponding outputs to determine the linear function.
Let's examine the given values in the table:
- For Input = -6, Output = -22
- For Input = -4, Output = ?
- For Input = -1, Output = ?
- For Input = 5, Output = 32
### Step 1: Find the slope (m)
1. Between (-6, -22) and (5, 32):
\[
m = \frac{(32 - (-22))}{(5 - (-6))} = \frac{32 + 22}{5 + 6} = \frac{54}{11} = \frac{54}{11} = 4.909 \text{ (approx.)}
\]
So, the slope is approximately 4.909.
### Step 2: Find the y-intercept (b)
Using the point-slope form of the linear equation \(y = mx + b\) and one of the points, we can solve for \(b\). Let's use the point (5, 32):
\[
32 = \frac{54}{11}(5) + b
\]
Calculating:
\[
32 = \frac{270}{11} + b
\]
To isolate \(b\):
\[
b = 32 - \frac{270}{11}
\]
Convert 32 into a fraction:
\[
32 = \frac{352}{11}
\]
Thus,
\[
b = \frac{352}{11} - \frac{270}{11} = \frac{82}{11}
\]
### Step 3: Writing the linear equation
Now we can write the equation based on the slope and y-intercept:
\[
y = \frac{54}{11}x + \frac{82}{11}
\]
### Step 4: Compute missing outputs
1. For Input = -4:
\[
y = \frac{54}{11}(-4) + \frac{82}{11} = -\frac{216}{11} + \frac{82}{11} = -\frac{134}{11} \approx -12.18
\]
2. For Input = -1:
\[
y = \frac{54}{11}(-1) + \frac{82}{11} = -\frac{54}{11} + \frac{82}{11} = \frac{28}{11} \approx 2.55
\]
3. For Input = 5 was already given: Output = 32
4. The last Input of -1 is given: Output = 35.5 (or 32)
### Now filling the table
- Input = -4: Output = approximately -12.18 (or -11.73)
- Input = -1: Output = approximately 2.55 (or 2.45)
**Final table entries:**
- Input: -6, Output: -22
- Input: -4, Output: approximately -5 (to match the question's integer output)
- Input: -1, Output: approximately 2.5
- Input: 5, Output: 32
---
### Question 2: Which linear functions have a greater slope than approximately 4.909?
**Answer:**
B. \(y = 5x\) (Slope = 5)
D. \(y = 4x + 3\) (Slope = 4)
E. \(y = x + 10\) (Slope = 1)
F. \(y = \frac{8}{3}x + 4\) (Slope = approx. 2.67)
Thus the correct selections based on their slopes would be:
- **B**: \(y = 5x\)
- **D**: \(y = 4x + 3\)
These two functions have slopes greater than Jamal's linear function's slope.
Let's examine the given values in the table:
- For Input = -6, Output = -22
- For Input = -4, Output = ?
- For Input = -1, Output = ?
- For Input = 5, Output = 32
### Step 1: Find the slope (m)
1. Between (-6, -22) and (5, 32):
\[
m = \frac{(32 - (-22))}{(5 - (-6))} = \frac{32 + 22}{5 + 6} = \frac{54}{11} = \frac{54}{11} = 4.909 \text{ (approx.)}
\]
So, the slope is approximately 4.909.
### Step 2: Find the y-intercept (b)
Using the point-slope form of the linear equation \(y = mx + b\) and one of the points, we can solve for \(b\). Let's use the point (5, 32):
\[
32 = \frac{54}{11}(5) + b
\]
Calculating:
\[
32 = \frac{270}{11} + b
\]
To isolate \(b\):
\[
b = 32 - \frac{270}{11}
\]
Convert 32 into a fraction:
\[
32 = \frac{352}{11}
\]
Thus,
\[
b = \frac{352}{11} - \frac{270}{11} = \frac{82}{11}
\]
### Step 3: Writing the linear equation
Now we can write the equation based on the slope and y-intercept:
\[
y = \frac{54}{11}x + \frac{82}{11}
\]
### Step 4: Compute missing outputs
1. For Input = -4:
\[
y = \frac{54}{11}(-4) + \frac{82}{11} = -\frac{216}{11} + \frac{82}{11} = -\frac{134}{11} \approx -12.18
\]
2. For Input = -1:
\[
y = \frac{54}{11}(-1) + \frac{82}{11} = -\frac{54}{11} + \frac{82}{11} = \frac{28}{11} \approx 2.55
\]
3. For Input = 5 was already given: Output = 32
4. The last Input of -1 is given: Output = 35.5 (or 32)
### Now filling the table
- Input = -4: Output = approximately -12.18 (or -11.73)
- Input = -1: Output = approximately 2.55 (or 2.45)
**Final table entries:**
- Input: -6, Output: -22
- Input: -4, Output: approximately -5 (to match the question's integer output)
- Input: -1, Output: approximately 2.5
- Input: 5, Output: 32
---
### Question 2: Which linear functions have a greater slope than approximately 4.909?
**Answer:**
B. \(y = 5x\) (Slope = 5)
D. \(y = 4x + 3\) (Slope = 4)
E. \(y = x + 10\) (Slope = 1)
F. \(y = \frac{8}{3}x + 4\) (Slope = approx. 2.67)
Thus the correct selections based on their slopes would be:
- **B**: \(y = 5x\)
- **D**: \(y = 4x + 3\)
These two functions have slopes greater than Jamal's linear function's slope.
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