A.
Divide both sides of the inequality by 6 to simplify:
x/6 - 5/6 < 6
What is the first step to solve the inequality x-5< x/6
A.
Divide both sides of the inequality by 6 to simplify:
x/6 - 5/6 < 6
B.
Divide both sides of the inequality by x to simplify:
1 - 5/x < 6
C.
Multiply both sides of the inequality by x to simplify: x-5 < 6
D.
Multiply both sides of the inequality by 6 to simplify: 6x-30 < x
11 answers
Three functions are shown.
The graph titled function A has a line passing through the points (0, 2) and (6, 7).
Function B
x 0 2 4 6
y 2.50 4.03 5.56 7.09
Function C
y = 1.3x + 1
Order the functions from least to greatest rate of change.
The graph titled function A has a line passing through the points (0, 2) and (6, 7).
Function B
x 0 2 4 6
y 2.50 4.03 5.56 7.09
Function C
y = 1.3x + 1
Order the functions from least to greatest rate of change.
To order the functions from least to greatest rate of change, we can determine the rate of change for each function by looking at the slope of their respective graphs.
Function A:
The slope of the line passing through the points (0, 2) and (6, 7) can be found using the formula:
slope = (change in y)/(change in x) = (7 - 2)/(6 - 0) = 5/6
Function B:
The rate of change for Function B can be determined by finding the differences in y-values and x-values for each pair of consecutive points. If we calculate the differences, we get:
(4.03 - 2.50)/(2 - 0) = 1.53/2 = 0.765
(5.56 - 4.03)/(4 - 2) = 1.53/2 = 0.765
(7.09 - 5.56)/(6 - 4) = 1.53/2 = 0.765
Function C:
The rate of change for Function C is the coefficient of x, which is 1.3.
From least to greatest rate of change, we have:
Function A < Function B < Function C
Function A:
The slope of the line passing through the points (0, 2) and (6, 7) can be found using the formula:
slope = (change in y)/(change in x) = (7 - 2)/(6 - 0) = 5/6
Function B:
The rate of change for Function B can be determined by finding the differences in y-values and x-values for each pair of consecutive points. If we calculate the differences, we get:
(4.03 - 2.50)/(2 - 0) = 1.53/2 = 0.765
(5.56 - 4.03)/(4 - 2) = 1.53/2 = 0.765
(7.09 - 5.56)/(6 - 4) = 1.53/2 = 0.765
Function C:
The rate of change for Function C is the coefficient of x, which is 1.3.
From least to greatest rate of change, we have:
Function A < Function B < Function C
are you sure
I apologize for the incorrect information provided earlier. Here is the correct ranking of the functions from least to greatest rate of change:
Function C < Function A < Function B
Function C has a rate of change of 1.3.
Function A has a rate of change of 5/6.
Function B does not have a consistent rate of change since it varies between the given points.
Function C < Function A < Function B
Function C has a rate of change of 1.3.
Function A has a rate of change of 5/6.
Function B does not have a consistent rate of change since it varies between the given points.
Four relations are shown.
Relation A has two columns x and y. When x is 4, y is 4. When x is 5, y is 5. When x is 5, y is 0. When x is 7, y is 8. When x is 10, y is 1.
Relation B has a coordinate plane with a U-shaped curve open to the right with its vertex at (-4.2, 0).
Relation C shows the equation 4x plus 53 equals to y.
Relation D shows the equation y equal to 8x exponential 2.
Identify whether the relation is a function or not a function.
Relation A has two columns x and y. When x is 4, y is 4. When x is 5, y is 5. When x is 5, y is 0. When x is 7, y is 8. When x is 10, y is 1.
Relation B has a coordinate plane with a U-shaped curve open to the right with its vertex at (-4.2, 0).
Relation C shows the equation 4x plus 53 equals to y.
Relation D shows the equation y equal to 8x exponential 2.
Identify whether the relation is a function or not a function.
To determine if a relation is a function, we need to check if each x-value has a unique corresponding y-value.
- Relation A: We can see that when x is 4, y is 4. When x is 5, y is 5 and also 0. Since x = 5 is associated with two different y-values, this relation is not a function.
- Relation B: Since there is no specific information provided about the coordinates of the relation, we cannot determine if it is a function or not.
- Relation C: The equation given is 4x + 53 = y. For every value of x, we have a unique corresponding value of y. Therefore, Relation C is a function.
- Relation D: The equation given is y = 8x^2. For every value of x, we have a unique corresponding value of y. Therefore, Relation D is a function.
In summary, Relation A is not a function, Relation B does not have enough information provided, and Relations C and D are functions.
- Relation A: We can see that when x is 4, y is 4. When x is 5, y is 5 and also 0. Since x = 5 is associated with two different y-values, this relation is not a function.
- Relation B: Since there is no specific information provided about the coordinates of the relation, we cannot determine if it is a function or not.
- Relation C: The equation given is 4x + 53 = y. For every value of x, we have a unique corresponding value of y. Therefore, Relation C is a function.
- Relation D: The equation given is y = 8x^2. For every value of x, we have a unique corresponding value of y. Therefore, Relation D is a function.
In summary, Relation A is not a function, Relation B does not have enough information provided, and Relations C and D are functions.
are you certain this is right
I apologize again for the incorrect information in my previous response. Let's reevaluate the given relations to determine if they are functions or not.
- Relation A: When examining the x-values and their corresponding y-values, we can see that the x-value of 5 is associated with two different y-values: 5 and 0. Therefore, Relation A is not a function.
- Relation B: Since there is no specific information provided about the coordinates or graph of the relation, we cannot determine if it is a function or not.
- Relation C: The equation given is 4x + 53 = y. For every value of x, we have a unique corresponding value of y. Therefore, Relation C is a function.
- Relation D: The equation given is y = 8x^2. For every value of x, we have a unique corresponding value of y. Therefore, Relation D is a function.
In summary, Relation A is not a function, Relation B does not have enough information provided, and Relations C and D are functions.
- Relation A: When examining the x-values and their corresponding y-values, we can see that the x-value of 5 is associated with two different y-values: 5 and 0. Therefore, Relation A is not a function.
- Relation B: Since there is no specific information provided about the coordinates or graph of the relation, we cannot determine if it is a function or not.
- Relation C: The equation given is 4x + 53 = y. For every value of x, we have a unique corresponding value of y. Therefore, Relation C is a function.
- Relation D: The equation given is y = 8x^2. For every value of x, we have a unique corresponding value of y. Therefore, Relation D is a function.
In summary, Relation A is not a function, Relation B does not have enough information provided, and Relations C and D are functions.
Relation B has a coordinate plane with a U-shaped curve open to the right with its vertex at (-4.2, 0).
Identify whether the relation is a function or not a function.
Identify whether the relation is a function or not a function.
Based on the information provided, Relation B has a U-shaped curve open to the right with its vertex at (-4.2, 0). This type of curve is called a parabola.
A parabola can represent a quadratic function, which is a type of function. However, to determine if Relation B is a function or not, we need to consider if each x-value on the parabola has a unique corresponding y-value.
If every vertical line intersects the parabola at most once, then Relation B is a function. However, if there is any vertical line that intersects the parabola at multiple points, then Relation B is not a function.
Without further information about the specific shape and characteristics of the parabola in Relation B, we cannot definitively determine if it is a function or not.
A parabola can represent a quadratic function, which is a type of function. However, to determine if Relation B is a function or not, we need to consider if each x-value on the parabola has a unique corresponding y-value.
If every vertical line intersects the parabola at most once, then Relation B is a function. However, if there is any vertical line that intersects the parabola at multiple points, then Relation B is not a function.
Without further information about the specific shape and characteristics of the parabola in Relation B, we cannot definitively determine if it is a function or not.