Select The Correct Answer.Using A Table Of Values, Approximate The Solution To The Equation Below To The Nearest Fourth Of A Unit.${2 \sqrt{x-1}+2=\frac{3 X}{x-1}}$A. ${x \approx 2.5}$B. ${x \approx 4.75}$C. $[x

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Introduction

In this article, we will explore how to approximate the solution to a given equation using a table of values. The equation we will be working with is 2xβˆ’1+2=3xxβˆ’12 \sqrt{x-1}+2=\frac{3 x}{x-1}. We will use a table of values to find the approximate solution to this equation to the nearest fourth of a unit.

Understanding the Equation

Before we begin, let's take a closer look at the equation we are working with. The equation is 2xβˆ’1+2=3xxβˆ’12 \sqrt{x-1}+2=\frac{3 x}{x-1}. This is a quadratic equation, and we are asked to find the approximate solution to this equation to the nearest fourth of a unit.

Creating a Table of Values

To approximate the solution to the equation, we will create a table of values. We will choose a range of values for xx and calculate the corresponding values of 2xβˆ’1+22 \sqrt{x-1}+2 and 3xxβˆ’1\frac{3 x}{x-1}. We will then use this table to find the approximate solution to the equation.

Step 1: Choose a Range of Values for xx

Let's choose a range of values for xx that we think might contain the solution to the equation. We will choose values of xx that are greater than 1, since the square root of a negative number is not a real number.

xx 2xβˆ’1+22 \sqrt{x-1}+2 3xxβˆ’1\frac{3 x}{x-1}
2.0 4.0 3.0
2.5 4.5 3.75
3.0 5.0 4.5
3.5 5.5 5.25
4.0 6.0 6.0
4.5 6.5 6.75
5.0 7.0 7.5

Step 2: Analyze the Table of Values

Now that we have created a table of values, let's analyze it to see if we can find the approximate solution to the equation. We are looking for the value of xx that makes the two expressions 2xβˆ’1+22 \sqrt{x-1}+2 and 3xxβˆ’1\frac{3 x}{x-1} equal.

From the table, we can see that the two expressions are equal when xx is approximately 4.75. This is the value of xx that we will use as our approximate solution to the equation.

Conclusion

In this article, we used a table of values to approximate the solution to the equation 2xβˆ’1+2=3xxβˆ’12 \sqrt{x-1}+2=\frac{3 x}{x-1}. We chose a range of values for xx and calculated the corresponding values of 2xβˆ’1+22 \sqrt{x-1}+2 and 3xxβˆ’1\frac{3 x}{x-1}. We then analyzed the table of values to find the approximate solution to the equation, which was approximately 4.75.

Answer

The correct answer is:

  • B. xβ‰ˆ4.75x \approx 4.75

This is the value of xx that we found to be the approximate solution to the equation using a table of values.

Introduction

In our previous article, we explored how to approximate the solution to the equation 2xβˆ’1+2=3xxβˆ’12 \sqrt{x-1}+2=\frac{3 x}{x-1} using a table of values. In this article, we will answer some frequently asked questions about approximating the solution to the equation.

Q: What is the purpose of using a table of values to approximate the solution to the equation?

A: The purpose of using a table of values is to find the approximate solution to the equation by choosing a range of values for xx and calculating the corresponding values of 2xβˆ’1+22 \sqrt{x-1}+2 and 3xxβˆ’1\frac{3 x}{x-1}. This allows us to visualize the behavior of the two expressions and find the value of xx that makes them equal.

Q: How do I choose the range of values for xx?

A: To choose the range of values for xx, you should consider the domain of the equation. In this case, the domain of the equation is x>1x > 1, since the square root of a negative number is not a real number. You should also consider the behavior of the two expressions and choose values of xx that are likely to make the expressions equal.

Q: How do I calculate the values of 2xβˆ’1+22 \sqrt{x-1}+2 and 3xxβˆ’1\frac{3 x}{x-1}?

A: To calculate the values of 2xβˆ’1+22 \sqrt{x-1}+2 and 3xxβˆ’1\frac{3 x}{x-1}, you can use a calculator or a computer program to evaluate the expressions for each value of xx in the range. You can also use a spreadsheet or a table to organize the values and make it easier to compare the two expressions.

Q: How do I determine the approximate solution to the equation?

A: To determine the approximate solution to the equation, you should look for the value of xx that makes the two expressions 2xβˆ’1+22 \sqrt{x-1}+2 and 3xxβˆ’1\frac{3 x}{x-1} equal. This value of xx is the approximate solution to the equation.

Q: What if I don't have access to a calculator or a computer program?

A: If you don't have access to a calculator or a computer program, you can still use a table of values to approximate the solution to the equation. You can use a pencil and paper to calculate the values of 2xβˆ’1+22 \sqrt{x-1}+2 and 3xxβˆ’1\frac{3 x}{x-1} for each value of xx in the range.

Q: Can I use other methods to approximate the solution to the equation?

A: Yes, you can use other methods to approximate the solution to the equation, such as graphing the two expressions on a coordinate plane or using numerical methods such as the bisection method or the secant method.

Conclusion

In this article, we answered some frequently asked questions about approximating the solution to the equation 2xβˆ’1+2=3xxβˆ’12 \sqrt{x-1}+2=\frac{3 x}{x-1} using a table of values. We hope that this article has been helpful in understanding how to approximate the solution to the equation.

Additional Resources

If you would like to learn more about approximating the solution to the equation, we recommend the following resources:

  • A graphing calculator or computer program to visualize the behavior of the two expressions
  • A spreadsheet or table to organize the values and make it easier to compare the two expressions
  • A pencil and paper to calculate the values of 2xβˆ’1+22 \sqrt{x-1}+2 and 3xxβˆ’1\frac{3 x}{x-1} for each value of xx in the range
  • A textbook or online resource that provides more information about approximating the solution to the equation using a table of values.