Given:
\(\int [\sin(\log x) + \cos(\log x)] \, dx\)
To integrate \(\sin(\log x) + \cos(\log x)\), we can recognize that its derivative to x is \(\frac{d}{dx}[x \sin(\log x)]\):
\(\frac{d}{dx}[x \sin(\log x)] = \sin(\log x) + x \cdot \frac{d}{dx}[\sin(\log x)]\)
Now, differentiate \(\sin(\log x)\):
\(\frac{d}{dx}[\sin(\log x)] = \cos(\log x) \cdot \frac{1}{x}\)
So,
\(\frac{d}{dx}[x \sin(\log x)] = \sin(\log x) + x \cos(\log x) \cdot \frac{1}{x} = \sin(\log x) + \cos(\log x)\)
Therefore,
\(\int [\sin(\log x) + \cos(\log x)] \, dx = x \sin(\log x) + C\)
So, the correct option is (C): \(x \sin(\log x) + C\)
The integral \(\int e^x \sqrt{e^x} \, dx\) equals:
The value of : \( \int \frac{x + 1}{x(1 + xe^x)} dx \).
Which of the following compounds can exhibit geometrical isomerism, and why?
1) 2-butene
2) 1-butene ?
3) Pent-2-ene
4) But-2-yne
The representation of the area of a region under a curve is called to be as integral. The actual value of an integral can be acquired (approximately) by drawing rectangles.
Also, F(x) is known to be a Newton-Leibnitz integral or antiderivative or primitive of a function f(x) on an interval I.
F'(x) = f(x)
For every value of x = I.
Integral calculus helps to resolve two major types of problems: