binomial random walk - определение. Что такое binomial random walk
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Что (кто) такое binomial random walk - определение

QUANTUM ANALOGUE OF CLASSICAL RANDOM WALKS
Quantum Random Walk; Quantum Random Walks; Quantum random walk
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Quantum walk         
Quantum walks are quantum analogues of classical random walks. In contrast to the classical random walk, where the walker occupies definite states and the randomness arises due to stochastic transitions between states, in quantum walks randomness arises through: (1) quantum superposition of states, (2) non-random, reversible unitary evolution and (3) collapse of the wave function due to state measurements.
Random walk         
  • Cover art for the first edition, which Block has described as "lame" and "science-fictiony".([[sic]])<ref name=Block/>
BOOK BY LAWRENCE BLOCK
Random walk theory; Random Walk--1-Dimensional; Random Walk--2-Dimensional; Random Walk--3-Dimensional; Random walk with drift; Random walks; Random walk model; Simple random walk; Ssrw; Simple symmetric random walk; Drunkard's walk (mathematical); Drunken walk; Drunk bird theorem; Drunken bird theorem; Gaussian random walk; Applications of random walks; Increment (probability)
In mathematics, a random walk is a random process that describes a path that consists of a succession of random steps on some mathematical space.
random walk         
  • Cover art for the first edition, which Block has described as "lame" and "science-fictiony".([[sic]])<ref name=Block/>
BOOK BY LAWRENCE BLOCK
Random walk theory; Random Walk--1-Dimensional; Random Walk--2-Dimensional; Random Walk--3-Dimensional; Random walk with drift; Random walks; Random walk model; Simple random walk; Ssrw; Simple symmetric random walk; Drunkard's walk (mathematical); Drunken walk; Drunk bird theorem; Drunken bird theorem; Gaussian random walk; Applications of random walks; Increment (probability)
¦ noun Physics a series of movements of an object or changes in a variable that follow no discernible pattern or trend.
Gaussian binomial coefficient         
FAMILY OF POLYNOMIALS
Q-binomial coefficient; Q-binomial; Gaussian coefficient; Gaussian binomial; Q-binomial theorem; Gaussian polynomial; Gaussian polynomials; Gaussian binomial coefficients; Q-binomial coefficients
In mathematics, the Gaussian binomial coefficients (also called Gaussian coefficients, Gaussian polynomials, or q-binomial coefficients) are q-analogs of the binomial coefficients. The Gaussian binomial coefficient, written as \binom nk_q or \begin{bmatrix}n\\ k\end{bmatrix}_q, is a polynomial in q with integer coefficients, whose value when q is set to a prime power counts the number of subspaces of dimension k in a vector space of dimension n over a finite field with q elements.
Continuous-time random walk         
RANDOM WALK WITH RANDOM TIME BETWEEN JUMPS
Draft:Continuous-time Random Walk; Continuous-time Random Walk
In mathematics, a continuous-time random walk (CTRW) is a generalization of a random walk where the wandering particle waits for a random time between jumps. It is a stochastic jump process with arbitrary distributions of jump lengths and waiting times.
Branching random walk         
STOCHASTIC PROCESS
Branching random-walk
In probability theory, a branching random walk is a stochastic process that generalizes both the concept of a random walk and of a branching process. At every generation (a point of discrete time), a branching random walk's value is a set of elements that are located in some linear space, such as the real line.
Random algebra         
MATHEMATICAL THEORY
Random forcing; Random real algebra; Random real
In set theory, the random algebra or random real algebra is the Boolean algebra of Borel sets of the unit interval modulo the ideal of measure zero sets. It is used in random forcing to add random reals to a model of set theory.
Random effects model         
TYPE OF STATISTICAL MODEL
Random effects estimation; Random effects estimator; Random-effects models; Random-effect model; Random effect model; Variance components model; Variance components; Random effects; Random effect; Variance component; Random-effects meta-analysis
In statistics, a random effects model, also called a variance components model, is a statistical model where the model parameters are random variables. It is a kind of hierarchical linear model, which assumes that the data being analysed are drawn from a hierarchy of different populations whose differences relate to that hierarchy.
binomial distribution         
  • Binomial [[probability mass function]] and normal [[probability density function]] approximation for ''n''&nbsp;=&nbsp;6 and ''p''&nbsp;=&nbsp;0.5
  • Cumulative distribution function for the binomial distribution
  • Galton box]] with 8 layers (''n''&nbsp;=&nbsp;8) ends up in the central bin (''k''&nbsp;=&nbsp;4) is <math>70/256</math>.
PROBABILITY DISTRIBUTION
BinomialDistribution; BinomialDistribution/Revisited; Binomial probability; Bionomial expectation; Binomial pmf; Binomial probability function; Binomial probability distribution; Binomial model; Binomial random variable; Binomial Probability Distribution; Binomial Distribution; Binomially distributed; Binomial frequency distribution; Binomial variable; Binomial data; Poisson approximation
¦ noun Statistics a frequency distribution of the possible number of successful outcomes in a given number of trials in each of which there is the same probability of success.
Binomial distribution         
  • Binomial [[probability mass function]] and normal [[probability density function]] approximation for ''n''&nbsp;=&nbsp;6 and ''p''&nbsp;=&nbsp;0.5
  • Cumulative distribution function for the binomial distribution
  • Galton box]] with 8 layers (''n''&nbsp;=&nbsp;8) ends up in the central bin (''k''&nbsp;=&nbsp;4) is <math>70/256</math>.
PROBABILITY DISTRIBUTION
BinomialDistribution; BinomialDistribution/Revisited; Binomial probability; Bionomial expectation; Binomial pmf; Binomial probability function; Binomial probability distribution; Binomial model; Binomial random variable; Binomial Probability Distribution; Binomial Distribution; Binomially distributed; Binomial frequency distribution; Binomial variable; Binomial data; Poisson approximation

In probability theory and statistics, the binomial distribution with parameters n and p is the discrete probability distribution of the number of successes in a sequence of n independent experiments, each asking a yes–no question, and each with its own Boolean-valued outcome: success (with probability p) or failure (with probability q = 1 p {\displaystyle q=1-p} ). A single success/failure experiment is also called a Bernoulli trial or Bernoulli experiment, and a sequence of outcomes is called a Bernoulli process; for a single trial, i.e., n = 1, the binomial distribution is a Bernoulli distribution. The binomial distribution is the basis for the popular binomial test of statistical significance.

The binomial distribution is frequently used to model the number of successes in a sample of size n drawn with replacement from a population of size N. If the sampling is carried out without replacement, the draws are not independent and so the resulting distribution is a hypergeometric distribution, not a binomial one. However, for N much larger than n, the binomial distribution remains a good approximation, and is widely used.

Википедия

Quantum walk

Quantum walks are quantum analogues of classical random walks. In contrast to the classical random walk, where the walker occupies definite states and the randomness arises due to stochastic transitions between states, in quantum walks randomness arises through: (1) quantum superposition of states, (2) non-random, reversible unitary evolution and (3) collapse of the wave function due to state measurements.

As with classical random walks, quantum walks admit formulations in both discrete time and continuous time.