Let `I=int_(0)^(24pi){sinx}dx` then the value of 2I is equal to (where, `{.}` denotes the fractional part function)

The value of the integral int_(-4)^(4)e^(|x|){x}dx is equal to (where {.} denotes the fractional part function)

The value of the integral int_(-4)^(4)e^(|x|){x}dx is equal to (where {.} denotes the fractional part function)

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

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

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

The value of int_(0)^(77){2x}dx, where {*} represents the fractional part function,is

The value of int_(-1)^(2){2x}dx is (where function 0 denotes fractional part function)

Let y={x}^({x}) then the value of int_(0)^(3)ydx equals to (where {.} and [.] denote fractional part and integerpart function respectively)

Let y= {x}^([x]) then the value of int_0^3 yd x equals to (where {.} and [.] denote fractional part and integerpart function respectively)

If the area bounded by the curve |x+y|+|x-y|=2 is A, then the value of int_(0)^(6A) {x}dx= (where {x}, denotes the fractional part function.