For `x in x != 0, if y(x)` differential function such that `x int_1^x y(t)dt=(x+1)int_1^x t y(t)dt,` then `y(x)` equals: (where C is a constant.)

For x in R, x != 0, if y(x) differential function such that x int_1^x y(t)dt=(x+1)int_1^x t y(t)dt, then y(x) equals: (where C is a constant.)

For x in R, x != 0, if y(x) differential function such that x int_1^x y(t)dt=(x+1)int_1^x t y(t)dt, then y(x) equals:

For x in R, x != 0 if y(x) is a differentiable function such that x int_(1)^(x)y(t)dt = (x+1) int_(1)^(x)ty(t)dt , then y(x) equals (where C is a constant)

For x in R, x != 0 , if y(x) is a differentiable function such that x int_(1)^(x) y(t) dt=(x+1)int_(1)^(x)ty (t) dt , then y(x) equals: (where C is a constant.)

If f(x) is differentiable function and f(x)=x^(2)+int_(0)^(x) e^(-t) (x-t)dt ,then f)-t) equals to

If int_0^x f(t) dt=x+int_x^1 tf(t)dt, then the value of f(1) is

If int_0^x f(t) dt = x + int_x^l tf (t) dt , then the value of f(1) is :