/*! This file is auto-generated */ .wp-block-button__link{color:#fff;background-color:#32373c;border-radius:9999px;box-shadow:none;text-decoration:none;padding:calc(.667em + 2px) calc(1.333em + 2px);font-size:1.125em}.wp-block-file__button{background:#32373c;color:#fff;text-decoration:none} Problem 69 Determine whether each statement... [FREE SOLUTION] | 91Ó°ÊÓ

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Determine whether each statement makes sense or does not make sense, and explain your reasoning. I found the zeros of function \(f,\) but I still need to find the solutions of the equation \(f(x)=0\).

Short Answer

Expert verified
The statement does not make sense because the zeros of a function and the solutions of the equation \(f(x) = 0\) are the same.

Step by step solution

01

Understanding the statement

The problem statement discusses about finding the zeros of a function and the solutions of the equation \(f(x) = 0\). These terms - zeros of a function and solutions of the equation \(f(x) = 0\) - are mathematically equivalent.
02

Confirming the understanding

The zeros of a function are the points where the function crosses the x-axis, or simply the \(x\)-values for which the function value \(f(x)\) is zero. Likewise, the solutions of the equation \(f(x) = 0\) are the \(x\)-values that make the equation true, which is exactly when \(f(x)\) is zero. These points are the same as the zeros of the function.
03

Evaluating the statement

Given that the zeros of the function have already been found, there's no necessity to look for the solutions of the equation \(f(x) = 0\) as they represent the same thing. So, this statement does not make sense.

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Key Concepts

These are the key concepts you need to understand to accurately answer the question.

Solutions of Equations
The concept of solutions of equations is fundamental in understanding how equations behave. When we talk about the solutions of an equation, specifically of the form \(f(x) = 0\), we are looking for the values of \(x\) that make the equation true. Essentially, these solutions are the inputs (or \(x\)-values) for which the output, or the value of \(f(x)\), equals zero.

To solve an equation like \(f(x) = 0\), you apply various mathematical techniques. You can use methods such as isolating \(x\), factoring, using the quadratic formula (for quadratic equations), or employing graphing for different types of functions. Each method depends on the complexity and type of equation you are dealing with.
  • Factoring: Break down the functions into simpler expressions.
  • Quadratic Formula: Solve any quadratic equations easily.
  • Graphing: Visualize where the function crosses the x-axis.
Solving these equations allows us to find crucial information about the function, such as where it touches or crosses the x-axis.
X-Axis Intercepts
X-axis intercepts play a crucial role in visualizing the graph of a function. These intercepts are the points at which the graph intersects the x-axis. When a function meets the x-axis, it signifies that the function value \(f(x)\) at that specific \(x\)-coordinate is zero.

X-axis intercepts can tell us a lot about the behavior of a graph. For instance, intercepts provide critical points for plotting the graph, indicating equilibrium points in real-world scenarios, and are crucial in determining the roots of polynomial functions.

By identifying the x-axis intercepts, we can visually understand the solutions of the function \(f(x) = 0\), since each intercept represents an \(x\)-value where the function touches or crosses the x-axis.
  • Intercepts are the same as solutions to \(f(x) = 0\).
  • They assist in identifying the roots of polynomial equations.
  • These help in visualizing the graphical representation of functions.
Function Values
Function values are the outputs a function produces for particular inputs. For any function \(f(x)\), you plug in a value for \(x\), perform the necessary operations defined by the function, and obtain the result known as the function value.

Understanding function values is critical when analyzing or graphing functions. A function value tells us what the height of the function is at a specific point \(x\), and if the function value is zero, it indicates an x-axis intercept. This is crucial in determining the zeros of a function, which are the same solutions to the equation \(f(x) = 0\).
  • If \(f(x)\) = 0, \(x\) is a zero of the function.
  • Graphically shows us how a function behaves over the x-axis.
  • Crucial for solving equations analytically and graphically.
Overall, function values form the basis for understanding larger concepts tied to functions and their graphs.

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Most popular questions from this chapter

Write an equation that expresses each relationship. Then solve the equation for \(y .\) \(x\) varies jointly as \(y\) and the square of \(z\).

The force of wind blowing on a window positioned at a right angle to the direction of the wind varies jointly as the area of the window and the square of the wind's speed. It is known that a wind of 30 miles per hour blowing on a window measuring 4 feet by 5 feet exerts a force of 150 pounds. During a storm with winds of 60 miles per hour, should hurricane shutters be placed on a window that measures 3 feet by 4 feet and is capable of withstanding 300 pounds of force?

Will help you prepare for the material covered in the next section. a. If \(y=\frac{k}{x},\) find the value of \(k\) using \(x=8\) and \(y=12\) b. Substitute the value for \(k\) into \(y=\frac{k}{x}\) and write the resulting equation. c. Use the equation from part (b) to find \(y\) when \(x=3\)

Use the four-step procedure for solving variation problems given on page 424 to solve. \(y\) varies inversely as \(x . y=6\) when \(x=3 .\) Find \(y\) when \(x=9\).

In this exercise, we lead you through the steps involved in the proof of the Rational Zero Theorem. Consider the polynomial equation $$a_{n} x^{n}+a_{n-1} x^{n-1}+a_{n-2} x^{n-2}+\cdots+a_{1} x+a_{0}=0$$ and let \(\frac{P}{q}\) be a rational root reduced to lowest terms. a. Substitute \(\frac{p}{q}\) for \(x\) in the equation and show that the equation can be written as $$a_{n} p^{n}+a_{n-1} p^{n-1} q+a_{n-2} p^{n-2} q^{2}+\cdots+a_{1} p q^{n-1}=-a_{0} q^{n}$$ b. Why is \(p\) a factor of the left side of the equation? c. Because \(p\) divides the left side, it must also divide the right side. However, because \(\frac{P}{q}\) is reduced to lowest terms, \(p\) and \(q\) have no common factors other than \(-1\) and 1 Because \(p\) does divide the right side and has no factors in common with \(q^{n},\) what can you conclude? d. Rewrite the equation from part (a) with all terms containing \(q\) on the left and the term that does not have a factor of \(q\) on the right. Use an argument that parallels parts (b) and (c) to conclude that \(q\) is a factor of \(a_{n}\).

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