- Fields of mathematics
- >
- Mathematical analysis
- >
- Functions and mappings
- >
- Convergence (mathematics)

- Fields of mathematics
- >
- Mathematical analysis
- >
- Sequences and series
- >
- Convergence (mathematics)

- Mathematical analysis
- >
- Fields of mathematical analysis
- >
- Complex analysis
- >
- Convergence (mathematics)

- Mathematical analysis
- >
- Fields of mathematical analysis
- >
- Real analysis
- >
- Convergence (mathematics)

- Mathematical analysis
- >
- Mathematical relations
- >
- Functions and mappings
- >
- Convergence (mathematics)

- Mathematical concepts
- >
- Mathematical objects
- >
- Functions and mappings
- >
- Convergence (mathematics)

- Mathematical concepts
- >
- Mathematical relations
- >
- Functions and mappings
- >
- Convergence (mathematics)

- Mathematical concepts
- >
- Mathematical structures
- >
- Sequences and series
- >
- Convergence (mathematics)

- Mathematical objects
- >
- Mathematical structures
- >
- Sequences and series
- >
- Convergence (mathematics)

- Philosophy of mathematics
- >
- Mathematical objects
- >
- Functions and mappings
- >
- Convergence (mathematics)

- Predicate logic
- >
- Mathematical relations
- >
- Functions and mappings
- >
- Convergence (mathematics)

Scarborough criterion

The Scarborough criterion is used for satisfying convergence of a solution while solving linear equations using an iterative method.

Convergence of random variables

In probability theory, there exist several different notions of convergence of random variables. The convergence of sequences of random variables to some limit random variable is an important concept

Convergence problem

In the analytic theory of continued fractions, the convergence problem is the determination of conditions on the partial numerators ai and partial denominators bi that are sufficient to guarantee the

Unconditional convergence

In mathematics, specifically functional analysis, a series is unconditionally convergent if all reorderings of the series converge to the same value. In contrast, a series is conditionally convergent

Normal convergence

In mathematics normal convergence is a type of convergence for series of functions. Like absolute-convergence, it has the useful property that it is preserved when the order of summation is changed.

Convergence of measures

In mathematics, more specifically measure theory, there are various notions of the convergence of measures. For an intuitive general sense of what is meant by convergence of measures, consider a seque

Cauchy sequence

In mathematics, a Cauchy sequence (French pronunciation: [koʃi]; English: /ˈkoʊʃiː/ KOH-shee), named after Augustin-Louis Cauchy, is a sequence whose elements become arbitrarily close to each other a

Cramér–Wold theorem

In mathematics, the Cramér–Wold theorem in measure theory states that a Borel probability measure on is uniquely determined by the totality of its one-dimensional projections. It is used as a method f

Radius of convergence

In mathematics, the radius of convergence of a power series is the radius of the largest disk at the center of the series in which the series converges. It is either a non-negative real number or . Wh

Almost convergent sequence

A bounded real sequence is said to be almost convergent to if each Banach limit assignsthe same value to the sequence . Lorentz proved that is almost convergent if and only if uniformly in . The above

Absolute convergence

In mathematics, an infinite series of numbers is said to converge absolutely (or to be absolutely convergent) if the sum of the absolute values of the summands is finite. More precisely, a real or com

Convergent series

In mathematics, a series is the sum of the terms of an infinite sequence of numbers. More precisely, an infinite sequence defines a series S that is denoted The nth partial sum Sn is the sum of the fi

Γ-convergence

In the field of mathematical analysis for the calculus of variations, Γ-convergence (Gamma-convergence) is a notion of convergence for functionals. It was introduced by Ennio de Giorgi.

Modes of convergence (annotated index)

The purpose of this article is to serve as an annotated index of various modes of convergence and their logical relationships. For an expository article, see Modes of convergence. Simple logical relat

Conditional convergence

In mathematics, a series or integral is said to be conditionally convergent if it converges, but it does not converge absolutely.

Mosco convergence

In mathematical analysis, Mosco convergence is a notion of convergence for functionals that is used in nonlinear analysis and set-valued analysis. It is a particular case of Γ-convergence. Mosco conve

Intrinsic flat distance

In mathematics, the intrinsic flat distance is a notion for distance between two Riemannian manifolds which is a generalization of Federer and Fleming's flat distance between submanifolds and integral

Compact convergence

In mathematics compact convergence (or uniform convergence on compact sets) is a type of convergence that generalizes the idea of uniform convergence. It is associated with the compact-open topology.

Limit (mathematics)

In mathematics, a limit is the value that a function (or sequence) approaches as the input (or index) approaches some value. Limits are essential to calculus and mathematical analysis, and are used to

Modes of convergence

In mathematics, there are many senses in which a sequence or a series is said to be convergent. This article describes various modes (senses or species) of convergence in the settings where they are d

Uniformly Cauchy sequence

In mathematics, a sequence of functions from a set S to a metric space M is said to be uniformly Cauchy if:
* For all , there exists such that for all : whenever . Another way of saying this is that

Flat convergence

In mathematics, flat convergence is a notion for convergence of submanifolds of Euclidean space. It was first introduced by Hassler Whitney in 1957, and then extended to integral currents by Federer a

Cocompact embedding

In mathematics, cocompact embeddings are embeddings of normed vector spaces possessing a certain property similar to but weaker than compactness. Cocompactness has been in use in mathematical analysis

Uniform absolute-convergence

In mathematics, uniform absolute-convergence is a type of convergence for series of functions. Like absolute-convergence, it has the useful property that it is preserved when the order of summation is

Convergence in measure

Convergence in measure is either of two distinct mathematical concepts both of which generalizethe concept of convergence in probability.

Gromov–Hausdorff convergence

In mathematics, Gromov–Hausdorff convergence, named after Mikhail Gromov and Felix Hausdorff, is a notion for convergence of metric spaces which is a generalization of Hausdorff convergence.

Delta-convergence

In mathematics, Delta-convergence, or Δ-convergence, is a mode of convergence in metric spaces, weaker than the usual metric convergence, and similar to (but distinct from) the weak convergence in Ban

Epi-convergence

In mathematical analysis, epi-convergence is a type of convergence for real-valued and extended real-valued functions. Epi-convergence is important because it is the appropriate notion of convergence

Weak convergence (Hilbert space)

In mathematics, weak convergence in a Hilbert space is convergence of a sequence of points in the weak topology.

Pointwise convergence

In mathematics, pointwise convergence is one of various senses in which a sequence of functions can converge to a particular function. It is weaker than uniform convergence, to which it is often compa

Big O in probability notation

The order in probability notation is used in probability theory and statistical theory in direct parallel to the big-O notation that is standard in mathematics. Where the big-O notation deals with the

Uniform convergence

In the mathematical field of analysis, uniform convergence is a mode of convergence of functions stronger than pointwise convergence. A sequence of functions converges uniformly to a limiting function

© 2023 Useful Links.