`lim_(x->0){(1+x)^(2/x)}` (where {x} denotes the fractional part of x) is equal to.

lim_(x rarr0){(1+x)^((2)/(x))}( where {x} denotes the fractional part of x ) is equal to.

lim_(x rarr oo){(e^(x)+pi^(x))^((1)/(x))}= where {.} denotes the fractional part of x is equal to

If f(x) = e^(x) , then lim_(xto0) (f(x))^((1)/({f(x)})) (where { } denotes the fractional part of x) is equal to -

lim_(xto-1) (1)/(sqrt(|x|-{-x})) (where {x} denotes the fractional part of x) is equal to

lim_(x rarr0){(1+x)^((2)/(x))} (where {.} denotes the fractional part of x(a)e^(2)-7(b)e^(2)-8(c)e^(2)-6(d) none of these

lim_(x rarr-1)(1)/(sqrt(|x|-{-x}))( where {x} denotes the fractional part of (x) is equal to (a)does not exist (b) 1(c)oo(d)(1)/(2)

The value of int_(0)^(1)({2x}-1)({3x}-1)dx , (where {} denotes fractional part opf x) is equal to :

lim_(x rarr1)(x sin{x})/(x-1)," where "{x}" denotes the fractional part of "x," is equal to "

The value of int_(0)^(4) {x} dx (where , {.} denotes fractional part of x) is equal to