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Evaluate the integral. $ \displaystyle \int_0^…

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Problem 29 Hard Difficulty

Evaluate the integral.

$ \displaystyle \int x \sqrt{1 - x^4}\ dx $


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Related Courses

Calculus 2 / BC

Calculus: Early Transcendentals

Chapter 7

Techniques of Integration

Section 3

Trigonometric Substitution

Related Topics

Integration Techniques

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01:53

Integration Techniques - Intro

In mathematics, integration is one of the two main operations in calculus, with its inverse, differentiation, being the other. Given a function of a real variable, an antiderivative, integral, or integrand is the function's derivative, with respect to the variable of interest. The integrals of a function are the components of its antiderivative. The definite integral of a function from a to b is the area of the region in the xy-plane that lies between the graph of the function and the x-axis, above the x-axis, or below the x-axis. The indefinite integral of a function is an antiderivative of the function, and can be used to find the original function when given the derivative. The definite integral of a function is a single-valued function on a given interval. It can be computed by evaluating the definite integral of a function at every x in the domain of the function, then adding the results together.

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27:53

Basic Techniques

In mathematics, a technique is a method or formula for solving a problem. Techniques are often used in mathematics, physics, economics, and computer science.

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Problem 13
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Problem 15
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Video Transcript

Let's evaluate the integral of X times the square root of one minus X to the fourth. Before we go to a tricks up, we should try to use up first. Let's take you to be X squared so that do you is two x dx equivalently do you over to as xd X and we see those terms in the original inte grand. Here is X and DX. So we can write this as one half inaugural Radical one minus u squared, do you? And then now for this new integral, we can go ahead and use the tricks up. So here we should take you to be one signed data, then do U S coast in data. So plugging this in we have one half integral one minus sine square times coastline Taito So far, next step using Pythagorean theorem one minus sine squared is coastline squared and we know that the square root of cosine squared. It's just co sign. So we have one half coastline square data. So now we have a trigger inaugural cosine squared. So for this it will be best to use the identity. One plus co signed up to data all divided by two having no identity running out of room. Here, let me go to the next page. Simplifying. We have 1/4 one political sine two theta. Now we're ready to integrate and the role of one is just data and the integral of cosine two theta. It's signed to data over to, but we also have a four here. So let it go. But say eight pussy now we'll eventually draw the triangle to get back into the variable X. But even with the triangle will have a problem here because we have signed to data. So in order to rewrite this in terms of X, we can use the half angle or the double angle formula to sign data cosign data and then two divided by eight, just 1/4. Now we can draw the triangle. So recall that are tricks up was the equal sign data. If we want, we can also write this as you over one. Uh huh. So we have you for the opposite one for the hypotenuse. And by Pythagorean theorem, we could find a adjacent side age. We know that a squared plus U squared is one so h equals square root one minus u squared. So coming back to our original problem. So we have 1/4 data we don't really get from the triangle. We can get that from our tricks up. Solve this for Veda by taking sine inverse on both sides. It's data equals some members of you. And then we have signed data, which is you and then co sign data, which is h divided by one. So it's just a judge, and then the last step is to rewrite you in terms of X. So I'm running out of room again. Let me go to the next page. Yeah, recall our u substitution from the very beginning. So plugging this in for you and our previous expression we have 1/4 sine inverse of you becomes sine inverse of x squared. And then we have you which becomes X squared or excuse me? We have X squared, which becomes messing up here. We have previously had you and the numerator that becomes X squared. And then we had square root of one minus u squared that becomes one minus X to the fourth. So u squared equals X squared squared. Excellent fourth and we were dividing by four plus e. And there we go. This is our answer

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Video Thumbnail

01:53

Integration Techniques - Intro

In mathematics, integration is one of the two main operations in calculus, with its inverse, differentiation, being the other. Given a function of a real variable, an antiderivative, integral, or integrand is the function's derivative, with respect to the variable of interest. The integrals of a function are the components of its antiderivative. The definite integral of a function from a to b is the area of the region in the xy-plane that lies between the graph of the function and the x-axis, above the x-axis, or below the x-axis. The indefinite integral of a function is an antiderivative of the function, and can be used to find the original function when given the derivative. The definite integral of a function is a single-valued function on a given interval. It can be computed by evaluating the definite integral of a function at every x in the domain of the function, then adding the results together.

Video Thumbnail

27:53

Basic Techniques

In mathematics, a technique is a method or formula for solving a problem. Techniques are often used in mathematics, physics, economics, and computer science.

Join Course
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