Continuous mapping theorem
Probability theorem
In probability theory, the continuous mapping theorem states that continuous functions preserve limits even if their arguments are sequences of random variables. A continuous function, in Heine's definition, is such a function that maps convergent sequences into convergent sequences: if xn → x then g(xn) → g(x).
Nº Q5165492 ★
Common · Knowledge
Continuous mapping theorem
Probability theorem
In probability theory, the continuous mapping theorem states that continuous functions preserve limits even if their arguments are sequences of random variables. A continuous function, in Heine's definition, is such a function that maps convergent sequences into convergent sequences: if xn → x then g(xn) → g(x).
From Wikipedia
In probability theory, the continuous mapping theorem states that continuous functions preserve limits even if their arguments are sequences of random variables. A continuous function, in Heine's definition, is such a function that maps convergent sequences into convergent sequences: if xn → x then g(xn) → g(x). The continuous mapping theorem states that this will also be true if we replace the deterministic sequence {xn} with a sequence of random variables {Xn}, and replace the standard notion of convergence of real numbers “→” with one of the types of convergence of random variables. This theorem was first proved by Henry Mann and Abraham Wald in 1943, and it is therefore sometimes called the Mann–Wald theorem. Meanwhile, Denis Sargan refers to it as the general transformation theorem.
Text: Wikipédia, CC BY-SA 4.0. ·
Related cards
-
H
Heine–Cantor theorem
Theorem
Nº Q765987 ★★
Not listed
-
F
Final value theorem
Relation between frequency- and time-domain behavior at large time
Nº Q4272645 ★
Not listed
-
H
Hahn–Banach theorem
Theorem on extension of bounded linear functionals
Nº Q866116 ★★
Not listed
-
D
Dini's theorem
Theorem
Nº Q595466 ★
Not listed
-
Intermediate value theorem
Theorem
Nº Q245098 ★★★
Not listed
-
B
Bolzano–Weierstrass theorem
Theorem about convergence in a finite-dimensional Euclidean space
Nº Q468391 ★★★
Not listed