If the pdf of a curve X is `f(x)={{:(k.e^(-thetax)","thetagt0","0lexltoo),(0","-ooltxlt0" then k is equal to"):}`

The p.d.f. of a r.v. X is f(x)={{:("ke"^(-thetax)","0lexltoo),(0", otherwise"):} , then k =

If the pdf of a curve X is f(x)={{:(3(1-2x^2)","0ltxlt1),(0","xle0" or "xge1):} Then, the cdf of X is equal to

If the p.d.f. of a r.v. X is f(x)= K.e^(- theta x), theta gt 0 , 0 le x lt oo = 0 , otherwise Then, K =

If the p.d.f. of a r.v. X is f(x)= K.e^(- theta x), theta gt 0 , 0 le x lt oo = 0 , otherwise Then, K =

The pdf of a curve X is f(x)={{:(k/sqrtx","0ltxlt4),(0","xle0" or "xge4):} Then , P(Xge1) is equal to

The p.d.f. of a r.v. X is f(x)={{:("ke"^(-thetax)","0lexltoo),(0", otherwise"):} , then P(Xgt(1)/(theta)) =

The p.d.f. of a r.v. X is f(x)={{:("ke"^(-thetax)","0lexltoo),(0", otherwise"):} , then P(0ltXltM)=(1)/(2) , if M =

The p.d.f. of a r.v. X is f_(X)(x)={{:((k)/(sqrt(x))","0ltxlt4),(0", otherwise"):} , then k =

The p.d.f. of a r.v. X is f(x)={{:(kx^(2)(1-x)","0ltxlt1),(0", otherwise"):} , then k =

If the p.d.f. of a c.r.v. X is f(x)={(kx^2 (1-x^3)","0lexle1,),(0",",elsewhere):} then :k…