Markov chains: recurrent states
Dependencies:
Let $X = [X_0, X_1, \ldots]$ be a markov chain. Let $R_i = \bigvee_{t=1}^{\infty} (X_t = i)$, i.e., $R_i$ is the event that we'll enter state $i$ at some time $t \ge 1$. Then state $i$ is said to be recurrent iff $\Pr(R_i \mid X_0 = i) = 1$. Intuitively, this means state $i$ is recurrent iff we will always come back to state $i$ if we start from it.
Dependency for:
- Markov chains: positive recurrence
- Markov chains: recurrent state to acessible state (incomplete)
- Markov chains: recurrent iff infinite visits
- Markov chains: long run proportion is inverse of time to reenter (incomplete)
- Markov chains: recurrence is a class property
- Markov chains: finite sink is recurrent (incomplete)
- Markov chains: recurrent class is sink
- Markov chains: recurrent iff expected number of visits is infinite
Info:
- Depth: 7
- Number of transitive dependencies: 18
Transitive dependencies:
- /analysis/topological-space
- /sets-and-relations/countable-set
- /sets-and-relations/de-morgan-laws
- σ-algebra
- Generated σ-algebra
- Borel algebra
- Measurable function
- Generators of the real Borel algebra (incomplete)
- Measure
- σ-algebra is closed under countable intersections
- Group
- Ring
- Semiring
- Matrix
- Probability
- Conditional probability (incomplete)
- Random variable
- Markov chain