By inspection if we expand the bottom the power of x will be 5/6. Hence let u=x^1/6
This time let u=x^n+1, do some partial fractions, inside the log you can split into 1-1/u which when put under boundaries of 2 to infinity...
Nice !By inspection if we expand the bottom the power of x will be 5/6. Hence let u=x^1/6
Then the integral is reduced to 6u^2/(1+u^2), factor out constants, +1-1 and you get a 6 as a constant and a tan inverse integration (of 1=pi/4)...
=6*(1-pi/4)
=6-2pi/3
Nice shifty U-sub haha
Well the hard part is the integral really so i'll just do thatHehe made an easy q, What is this to 2 dp:
I wanna do itHere's an actual challenging Q: (Well not for you guys ofcourse )
An easier way..Hehe made an easy q, What is this to 2 dp:
So that's e to the power of e to the power of e^x squared, hmm does that work?Integrate e^(xe^(x^2))
Yep, look up "Power Towers" in google.So that's e to the power of e to the power of e^x squared, hmm does that work?
No it is e to the power of x times e to the power of x^2So that's e to the power of e to the power of e^x squared, hmm does that work?