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Pdf - Text of NPTEL IIT Video Lectures
Pdf - Text of NPTEL IIT Video Lectures

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ENTROPY, SPEED AND SPECTRAL RADIUS OF RANDOM WALKS
ENTROPY, SPEED AND SPECTRAL RADIUS OF RANDOM WALKS

... where ⊕ is componentwise sum mod 2 and (x + ξ)(g) := ξ(g − x). We will consider random walks with distribution supported by the symmetric generating set S = {(0, 1), (0, −1), (χ0 , 0)}, where χ0 is the characteristic function of {0}. The way one really should think about this random walk is to imagi ...
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Lecture 16 1 Worst-Case vs. Average-Case Complexity

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Understanding Probability and Long-Term

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CHAPTER I - Mathematics - University of Michigan

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THE CIRCULAR LAW PROOF OF THE REPLACEMENT PRINCIPLE by ZHIWEI TANG

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Sigmund Freud was born in the year:

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Kolmogorov and Probability Theory - La revista Arbor

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2.8 Probability and Odds

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Lecture Notes 7

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On independent random oracles - Department of Computer Science

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Generative Techniques: Bayes Rule and the Axioms of Probability

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Here - CSE103

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Approximations of upper and lower probabilities by measurable

... Remark 1. It is important to remark here that, due to our interpretation of random sets as a model for the imprecise observation of a random variable, in our developments we shall always assume that: (i) the initial probability space is fixed, and (ii) that the measurable selections have to take ima ...
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Here - University of Illinois at Chicago

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Numerical integration for complicated functions and random

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CS229 Supplemental Lecture notes Hoeffding`s inequality

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The Law of Large Numbers and its Applications

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Random variable

In probability and statistics, a random variable, aleatory variable or stochastic variable is a variable whose value is subject to variations due to chance (i.e. randomness, in a mathematical sense). A random variable can take on a set of possible different values (similarly to other mathematical variables), each with an associated probability, in contrast to other mathematical variables.A random variable's possible values might represent the possible outcomes of a yet-to-be-performed experiment, or the possible outcomes of a past experiment whose already-existing value is uncertain (for example, due to imprecise measurements or quantum uncertainty). They may also conceptually represent either the results of an ""objectively"" random process (such as rolling a die) or the ""subjective"" randomness that results from incomplete knowledge of a quantity. The meaning of the probabilities assigned to the potential values of a random variable is not part of probability theory itself but is instead related to philosophical arguments over the interpretation of probability. The mathematics works the same regardless of the particular interpretation in use.The mathematical function describing the possible values of a random variable and their associated probabilities is known as a probability distribution. Random variables can be discrete, that is, taking any of a specified finite or countable list of values, endowed with a probability mass function, characteristic of a probability distribution; or continuous, taking any numerical value in an interval or collection of intervals, via a probability density function that is characteristic of a probability distribution; or a mixture of both types. The realizations of a random variable, that is, the results of randomly choosing values according to the variable's probability distribution function, are called random variates.The formal mathematical treatment of random variables is a topic in probability theory. In that context, a random variable is understood as a function defined on a sample space whose outputs are numerical values.
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