Ask your own question, for FREE!
Mathematics 13 Online
OpenStudy (anonymous):

http://www.webassign.net/cgi-bin/symimage.cgi?expr=y%3Dint_%281%29%5E%28cos%5C%28x%5C%29%29%20%285%2Bv%5E4%29%2A%2A%286%29dv

OpenStudy (anonymous):

i need to fin y'....i thought it would be (5+v^4)^6

OpenStudy (anonymous):

find h'(x)

OpenStudy (anonymous):

Well you know that if you have: \[\frac{d}{dx}\int\limits_{a}^{u(x)}f(x)dx=f(u(x))*u'(x)\] So f(x)=(5+v^4)^6 So f(u(x))=(5+cos^4(x))^6 and u'(x)=-sin(x) so your answer should read: \[-\sin(x)(5+\cos^4(x))^6\]

OpenStudy (anonymous):

For the second one you have: f(x)=sqrt(5+r^3) f(u(x))=sqrt(5+(x^2)^3) u'(x)=2x So: \[h'(x)=(2x)\sqrt{5+x^6}\] Using the same formula as above. (The fundamental theorem of calculus)

OpenStudy (anonymous):

Does that make sense?

OpenStudy (anonymous):

i will keep that in record thanks.. yes now im getting the idea..iwas just not working at first

OpenStudy (anonymous):

Okay. The fundamental theorem of calculus is a powerful tool. There is a technique of integration called "differentiation under the integral sign" and you can move the differential operator (d/dx) in and out of the integral to make them easier to solve. Its a fairly advanced method xDD

OpenStudy (anonymous):

ok cool thanks agian

Can't find your answer? Make a FREE account and ask your own questions, OR help others and earn volunteer hours!

Join our real-time social learning platform and learn together with your friends!
Can't find your answer? Make a FREE account and ask your own questions, OR help others and earn volunteer hours!

Join our real-time social learning platform and learn together with your friends!