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Q4, integral of ln(x) from 2 to 6 with n=4 Simpson's Rule

13.6K views
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October 5, 2018
by
blackpenredpen
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Q4, integral of ln(x) from 2 to 6 with n=4 Simpson's Rule

TL;DR

Learn how to use Simpsons Rule to approximate integrals with step-by-step instructions, using an example integral from 2 to 6.

Transcript

okay sweetie I'll show you guys how to use the Simpsons rule with an is equal to four to approximate this integral and remember when you use the Simpsons rule the N value has to be an even number so let's get started and I'm not going to show you guys how to prove the formula I will just show you guys how to use the formula in this case so here is ... Read More

Key Insights

  • ❓ Simpsons Rule is a method for estimating definite integrals by using a quadratic approximation.
  • 🙅 The N value in Simpsons Rule must be an even number.
  • ❓ Delta X represents the width of each subinterval in the approximation.

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Questions & Answers

Q: How can the Simpsons Rule be used to approximate integrals?

The Simpsons Rule is a method used to estimate the value of an integral by using a quadratic approximation. It involves dividing the integral into equal parts, calculating the Delta X value, and applying a specific formula with coefficients to obtain an approximate answer.

Q: Why is the N value in Simpsons Rule required to be an even number?

The N value in Simpsons Rule must be an even number because the method relies on dividing the integral into an even number of equal parts. This ensures that each part has a corresponding coefficient in the formula, which is essential for accurate approximation.

Q: What is the significance of the Delta X value in Simpsons Rule?

The Delta X value represents the width of each subinterval in the approximation. It is calculated by taking the difference between the upper and lower bounds of the integral and dividing it by the number of subintervals. Delta X helps determine the accuracy of the approximation.

Q: How do the coefficients in Simpsons Rule alternate?

In Simpsons Rule, the coefficients alternate between 4's and 2's for all the terms except the first and last ones, which are 1's. This alternating pattern ensures that the proper weights are assigned to each term in the quadratic approximation.

Summary & Key Takeaways

  • This tutorial focuses on using the Simpsons Rule to approximate integrals, specifically for the natural logarithm function from 2 to 6.

  • The integral is divided into four equal pieces, and the Delta X value is calculated as (B - A) / N, where N is the number of pieces.

  • The formula for using the Simpsons Rule is provided, which includes plugging in the x values into the function and following a pattern for the coefficients.


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