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  2. Measurable space - Wikipedia

    en.wikipedia.org/wiki/Measurable_space

    The term Borel space is used for different types of measurable spaces. It can refer to any measurable space, so it is a synonym for a measurable space as defined above [1] a measurable space that is Borel isomorphic to a measurable subset of the real numbers (again with the Borel -algebra) [3]

  3. Measure space - Wikipedia

    en.wikipedia.org/wiki/Measure_space

    A measure space is a basic object of measure theory, a branch of mathematics that studies generalized notions of volumes. It contains an underlying set, the subsets of this set that are feasible for measuring (the σ -algebra ) and the method that is used for measuring (the measure ).

  4. Measurable function - Wikipedia

    en.wikipedia.org/wiki/Measurable_function

    In probability theory, a measurable function on a probability space is known as a random variable. Formal definition. Let (, ...

  5. Projection (measure theory) - Wikipedia

    en.wikipedia.org/wiki/Projection_(measure_theory)

    In these cases the projections need not be measurable at all. The projected set of a measurable set is called analytic set and need not be a measurable set. However, in some cases, either relatively to the product 𝜎-algebra or relatively to some other 𝜎-algebra, projected set of measurable set is indeed measurable.

  6. Probability space - Wikipedia

    en.wikipedia.org/wiki/Probability_space

    In probability theory, a probability space or a probability triple (,,) is a mathematical construct that provides a formal model of a random process or "experiment". For example, one can define a probability space which models the throwing of a die. A probability space consists of three elements: [1] [2]

  7. Borel measure - Wikipedia

    en.wikipedia.org/wiki/Borel_measure

    Given a Borel measure μ on a metric space X such that μ(X) > 0 and μ(B(x, r)) ≤ r s holds for some constant s > 0 and for every ball B(x, r) in X, then the Hausdorff dimension dim Haus (X) ≥ s. A partial converse is provided by the Frostman lemma: [7] Lemma: Let A be a Borel subset of R n, and let s > 0. Then the following are equivalent: