Which Absolute Value Function Has A Graph That Is Wider Than The Parent Function, F ( X ) = ∣ X ∣ F(x) = |x| F ( X ) = ∣ X ∣ , And Is Translated To The Right 2 Units?A. F ( X ) = 1.3 ∣ X ∣ − 2 F(x) = 1.3|x| - 2 F ( X ) = 1.3∣ X ∣ − 2 B. F ( X ) = 3 ∣ X − 2 ∣ F(x) = 3|x - 2| F ( X ) = 3∣ X − 2∣ C. F ( X ) = 3 4 ∣ X − 2 ∣ F(x) = \frac{3}{4}|x - 2| F ( X ) = 4 3 ∣ X − 2∣ D.
Introduction to Absolute Value Functions
Absolute value functions are a fundamental concept in mathematics, particularly in algebra and calculus. These functions have a unique graph that is shaped like a "V" and are used to model various real-world phenomena. In this article, we will delve into the world of absolute value functions and explore the characteristics of their graphs.
The Parent Function:
The parent function of absolute value functions is . This function has a graph that is symmetrical about the y-axis and has a minimum value of 0. The graph of is a "V" shape, with the vertex at the origin (0, 0).
Understanding the Graph of
To understand the graph of , let's consider the following:
- When is positive, the graph of is a straight line with a slope of 1.
- When is negative, the graph of is a straight line with a slope of -1.
- The graph of is symmetrical about the y-axis, meaning that for every point on the graph, there is a corresponding point .
Translating the Parent Function
When we translate the parent function to the right by 2 units, we get a new function . This function has a graph that is identical to the graph of , but shifted 2 units to the right.
Comparing the Graphs
Now, let's compare the graphs of the given functions:
Analyzing Option A:
Option A is a function that is a vertical stretch of the parent function by a factor of 1.3, followed by a vertical shift down by 2 units. However, this function is not translated to the right by 2 units, so it does not meet the criteria.
Analyzing Option B:
Option B is a function that is a vertical stretch of the parent function by a factor of 3, followed by a horizontal shift to the right by 2 units. This function has a graph that is wider than the parent function and is translated to the right by 2 units, making it a strong candidate.
Analyzing Option C:
Option C is a function that is a vertical compression of the parent function by a factor of , followed by a horizontal shift to the right by 2 units. This function has a graph that is narrower than the parent function, so it does not meet the criteria.
Conclusion
In conclusion, the function that has a graph that is wider than the parent function and is translated to the right by 2 units is . This function meets the criteria and has a graph that is identical to the graph of the parent function, but shifted 2 units to the right.
Final Answer
The final answer is:
- B.
This function has a graph that is wider than the parent function and is translated to the right by 2 units.
Introduction to Absolute Value Functions
Absolute value functions are a fundamental concept in mathematics, particularly in algebra and calculus. These functions have a unique graph that is shaped like a "V" and are used to model various real-world phenomena. In this article, we will delve into the world of absolute value functions and explore the characteristics of their graphs.
The Parent Function:
The parent function of absolute value functions is . This function has a graph that is symmetrical about the y-axis and has a minimum value of 0. The graph of is a "V" shape, with the vertex at the origin (0, 0).
Understanding the Graph of
To understand the graph of , let's consider the following:
- When is positive, the graph of is a straight line with a slope of 1.
- When is negative, the graph of is a straight line with a slope of -1.
- The graph of is symmetrical about the y-axis, meaning that for every point on the graph, there is a corresponding point .
Translating the Parent Function
When we translate the parent function to the right by 2 units, we get a new function . This function has a graph that is identical to the graph of , but shifted 2 units to the right.
Comparing the Graphs
Now, let's compare the graphs of the given functions:
Analyzing Option A:
Option A is a function that is a vertical stretch of the parent function by a factor of 1.3, followed by a vertical shift down by 2 units. However, this function is not translated to the right by 2 units, so it does not meet the criteria.
Analyzing Option B:
Option B is a function that is a vertical stretch of the parent function by a factor of 3, followed by a horizontal shift to the right by 2 units. This function has a graph that is wider than the parent function and is translated to the right by 2 units, making it a strong candidate.
Analyzing Option C:
Option C is a function that is a vertical compression of the parent function by a factor of , followed by a horizontal shift to the right by 2 units. This function has a graph that is narrower than the parent function, so it does not meet the criteria.
Conclusion
In conclusion, the function that has a graph that is wider than the parent function and is translated to the right by 2 units is . This function meets the criteria and has a graph that is identical to the graph of the parent function, but shifted 2 units to the right.
Final Answer
The final answer is:
- B.
This function has a graph that is wider than the parent function and is translated to the right by 2 units.
Q&A: Absolute Value Functions
Q1: What is the parent function of absolute value functions?
A1: The parent function of absolute value functions is .
Q2: What is the graph of ?
A2: The graph of is a "V" shape, with the vertex at the origin (0, 0).
Q3: What happens when we translate the parent function to the right by 2 units?
A3: When we translate the parent function to the right by 2 units, we get a new function .
Q4: Which function has a graph that is wider than the parent function and is translated to the right by 2 units?
A4: The function that has a graph that is wider than the parent function and is translated to the right by 2 units is .
Q5: What is the final answer?
A5: The final answer is:
- B.
This function has a graph that is wider than the parent function and is translated to the right by 2 units.
Q6: What is the purpose of absolute value functions?
A6: Absolute value functions are used to model various real-world phenomena, such as the distance between two points, the absolute value of a quantity, and the magnitude of a vector.
Q7: How do we determine the graph of an absolute value function?
A7: To determine the graph of an absolute value function, we need to consider the following:
- When is positive, the graph of is a straight line with a slope of 1.
- When is negative, the graph of is a straight line with a slope of -1.
- The graph of is symmetrical about the y-axis, meaning that for every point on the graph, there is a corresponding point .
Q8: What is the difference between a vertical stretch and a vertical compression of an absolute value function?
A8: A vertical stretch of an absolute value function is a transformation that makes the graph wider, while a vertical compression of an absolute value function is a transformation that makes the graph narrower.
Q9: How do we translate an absolute value function to the right by 2 units?
A9: To translate an absolute value function to the right by 2 units, we need to replace with in the function.
Q10: What is the final answer to the problem?
A10: The final answer to the problem is:
- B.
This function has a graph that is wider than the parent function and is translated to the right by 2 units.