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Kind of linear transformation
to ensure that bounded sets remain bounded: a bounded linear operator is thus a linear transformation that sends bounded sets to bounded sets. Formally
Bounded_operator
Measure of the "size" of linear operators
under a continuous operator is also bounded. Because of this property, the continuous linear operators are also known as bounded operators. In order to "measure
Operator_norm
Type of continuous linear operator
infinite-dimensional spaces, bounded sets are usually not compact, and bounded sequences need not have convergent subsequences. Compact operators partly restore this
Compact_operator
Set of eigenvalues of a matrix
functional analysis, the spectrum of a bounded linear operator (or, more generally, an unbounded linear operator) is a generalisation of the set of eigenvalues
Spectrum (functional analysis)
Spectrum_(functional_analysis)
Topic in mathematics
In mathematics, a Hilbert–Schmidt operator, named after David Hilbert and Erhard Schmidt, is a bounded operator A : H → H {\displaystyle A\colon H\to
Hilbert–Schmidt_operator
Surjective bounded operator on a Hilbert space preserving the inner product
In functional analysis, a unitary operator is a surjective bounded operator on a Hilbert space that preserves the inner product. Non-trivial examples
Unitary_operator
Mathematical study of linear operators
characteristics, such as bounded linear operators or closed operators, and consideration may be given to nonlinear operators. The study, which depends
Operator_theory
Linear operator equal to its own adjoint
\operatorname {Dom} (A)=H} then A {\displaystyle A} is necessarily bounded. A bounded operator A : H → H {\displaystyle A:H\to H} is self-adjoint if ⟨ A x
Self-adjoint_operator
Linear operator defined on a dense linear subspace
term "unbounded operator" can be misleading, since "unbounded" should sometimes be understood as "not necessarily bounded"; "operator" should be understood
Unbounded_operator
Conjugate transpose of an operator in infinite dimensions
transpose). The above definition of an adjoint operator extends verbatim to bounded linear operators on Hilbert spaces H {\displaystyle H} . The definition
Hermitian_adjoint
Function between topological vector spaces
Every sequentially continuous linear operator is bounded. Function bounded on a neighborhood and local boundedness In contrast, a map F : X → Y {\displaystyle
Continuous_linear_operator
Linear operator whose graph is closed
operator if and only if it is a bounded operator and the domain of the operator is X {\displaystyle X} . In practice, many operators are unbounded, but it is
Closed_linear_operator
Mathematical function whose set of values is bounded
is bounded. (However, a continuous function must be bounded if its domain is both closed and bounded.) Bounded set Compact support Local boundedness Uniform
Bounded_function
Topologies on operators on a Hilbert space
of bounded linear operators on a Banach space X. Let ( T n ) n ∈ N {\displaystyle (T_{n})_{n\in \mathbb {N} }} be a sequence of linear operators on the
Operator_topologies
Result about when a matrix can be diagonalized
says that every bounded self-adjoint operator is unitarily equivalent to a multiplication operator, a relatively simple type of operator. Theorem—Let A
Spectral_theorem
Matrix decomposition
to a bounded operator M {\displaystyle \mathbf {M} } on a separable Hilbert space H . {\displaystyle H.} Namely, for any bounded operator M
Singular_value_decomposition
Bounded operators with sub-unit norm
In operator theory, a bounded operator T: X → Y between normed vector spaces X and Y is said to be a contraction if its operator norm ||T || ≤ 1. Every
Contraction_(operator_theory)
Condition for a linear operator to be open
if a bounded or continuous linear operator between Banach spaces is surjective then it is an open map. A special case is also called the bounded inverse
Open mapping theorem (functional analysis)
Open_mapping_theorem_(functional_analysis)
Locally convex topology on function spaces
mathematics, the strong operator topology, often abbreviated SOT, is the locally convex topology on the set of bounded operators on a Hilbert space H induced
Strong_operator_topology
Class of differential and integral operators
defines a bounded operator from L 2 {\displaystyle L^{2}} to L 2 {\displaystyle L^{2}} . One motivation for the study of Fourier integral operators is the
Fourier_integral_operator
(on a complex Hilbert space) continuous linear operator
product space) is unitarily diagonalizable. Let T {\displaystyle T} be a bounded operator. The following are equivalent. T {\displaystyle T} is normal. T ∗ {\displaystyle
Normal_operator
Branch of functional analysis
neighbourhood of the spectrum of T to the bounded operators. This article will discuss the case where T is a bounded linear operator on some Banach space. In particular
Holomorphic functional calculus
Holomorphic_functional_calculus
Type of vector space in math
Every weakly convergent sequence {xn} is bounded, by the uniform boundedness principle. Conversely, every bounded sequence in a Hilbert space admits weakly
Hilbert_space
Functional analysis concept
the set of bounded operators on H {\displaystyle H} . Then, an operator T ∈ L ( H ) {\displaystyle T\in L(H)} is said to be a compact operator if the image
Compact operator on Hilbert space
Compact_operator_on_Hilbert_space
Construction in functional analysis, useful to solve differential equations
called essentially bounded if h is bounded μ-almost everywhere. An essentially bounded h induces a bounded multiplication operator Th on Lp(μ): ( T h
Decomposition of spectrum (functional analysis)
Decomposition_of_spectrum_(functional_analysis)
Part of Fredholm theories in integral equations
honour of Erik Ivar Fredholm. By definition, a Fredholm operator is a bounded linear operator T : X → Y between two Banach spaces with finite-dimensional
Fredholm_operator
Linear operator in functional analysis
mathematics, a finite-rank operator is a bounded linear operator between Banach spaces whose range is finite-dimensional. Finite-rank operators are matrices (of
Finite-rank_operator
Function acting on function spaces
are known as sequence spaces. Operators on these spaces are known as sequence transformations. Bounded linear operators over a Banach space form a Banach
Operator_(mathematics)
Compact operator for which a finite trace can be defined
orthonormal basis and A : H → H {\displaystyle A:H\to H} a positive bounded linear operator on H {\displaystyle H} . The trace of A {\displaystyle A} is denoted
Trace_class
Generalization of boundedness
called bounded or von Neumann bounded, if every neighborhood of the zero vector can be inflated to include the set. A set that is not bounded is called
Bounded set (topological vector space)
Bounded_set_(topological_vector_space)
formally, let T be a bounded operator on some Hilbert space H, and H be a subspace of a larger Hilbert space H' . A bounded operator V on H' is a dilation
Dilation_(operator_theory)
Weak topology on function spaces
functional analysis, the weak operator topology, often abbreviated WOT, is the weakest topology on the set of bounded operators on a Hilbert space H {\displaystyle
Weak_operator_topology
In operator theory, a bounded operator T on a Banach space is said to be nilpotent if Tn = 0 for some positive integer n. It is said to be quasinilpotent
Nilpotent_operator
an operator is also in C. Note that C does not support operator overloading. When not overloaded, for the operators &&, ||, and , (the comma operator),
Operators_in_C_and_C++
*-algebra of bounded operators on a Hilbert space
is a *-algebra of bounded operators on a Hilbert space that is closed in the weak operator topology and contains the identity operator. It is a special
Von_Neumann_algebra
Largest absolute value of an operator's eigenvalues
values of its eigenvalues. More generally, the spectral radius of a bounded linear operator is the supremum of the absolute values of the elements of its spectrum
Spectral_radius
Form of a matrix indicating its eigenvalues and their algebraic multiplicities
bounded operators on X, and σ(T) denote the spectrum of T ∈ L(X). The holomorphic functional calculus is defined as follows: Fix a bounded operator T
Jordan_normal_form
Differential operator in mathematics
In mathematics, the Laplace operator or Laplacian is a differential operator given by the divergence of the gradient of a scalar function on Euclidean
Laplace_operator
Integral transform and linear operator
that H is bounded on Lp.) If 1 < p < ∞, then the Hilbert transform on L p ( R ) {\displaystyle L^{p}(\mathbb {R} )} is a bounded linear operator, meaning
Hilbert_transform
Aspect of mathematical spectrum theory
mathematics, the essential spectrum of a bounded operator (or, more generally, of a densely defined closed linear operator) is a certain subset of its spectrum
Essential_spectrum
Mathematical concept
be bounded pointwise by multiples of the maximal function of f. As for the Hilbert transform on the circle, the uniform boundedness of the operator norms
Singular integral operators of convolution type
Singular_integral_operators_of_convolution_type
Theorems connecting continuity to closure of graphs
normed spaces is a bounded linear operator if and only if it is a continuous linear operator, one can replace "continuous" with "bounded" in the statement
Closed graph theorem (functional analysis)
Closed_graph_theorem_(functional_analysis)
functions. A bounded measurable complex-valued function g {\displaystyle g} on S 1 {\displaystyle S^{1}} defines a multiplication operator M g {\displaystyle
Toeplitz_operator
function is locally bounded if it is bounded around every point. A family[disambiguation needed] of functions is locally bounded if for any point in their
Local_boundedness
Complex-valued function
operator. It is defined for bounded operators on a Hilbert space which differ from the identity operator by a trace-class operator (i.e. an operator whose
Fredholm_determinant
Concept in mathematics or computer science
bound within the expression that follows the operator (e.g., f ( x ) {\displaystyle f(x)} or P ( x ) {\displaystyle P(x)} ). Many of these operators act
Free variables and bound variables
Free_variables_and_bound_variables
Partially unsolved problem in mathematics
subspace problem is a partially unresolved problem asking whether every bounded operator on a complex Banach space sends some non-trivial closed subspace to
Invariant_subspace_problem
Generalization of the exponential function
L(X)} is the space of bounded operators on X {\displaystyle X} ) such that T ( 0 ) = I {\displaystyle T(0)=I} , (the identity operator on X {\displaystyle
C0-semigroup
continuous"). A family of bounded linear operators combined with the direct integral is strongly measurable, when each of the individual operators is strongly measurable
Strongly_measurable_function
all bounded operators on a Hilbert space H.". The appropriate morphisms between operator spaces are completely bounded maps. Equivalently, an operator space
Operator_space
Mathematical series
connected to the resolvent formalism for studying the spectrum of bounded operators and, applied from the left to a function, it forms the Liouville-Neumann
Neumann_series
Area of mathematics
linear operators (and thus bounded operators) whose domain is a Banach space, pointwise boundedness is equivalent to uniform boundedness in operator norm
Functional_analysis
|1 – eiε|. Since it is defined as convolution with a bounded function, it is a bounded operator on L2(T). Now H ε 1 = i π ∫ ε π 2 ℜ ( 1 − e i θ ) − 1
Singular integral operators on closed curves
Singular_integral_operators_on_closed_curves
the von Neumann bicommutant theorem relates the closure of a set of bounded operators on a Hilbert space in certain topologies to the bicommutant of that
Von Neumann bicommutant theorem
Von_Neumann_bicommutant_theorem
Theorem
An operator map of the form T ↦ V*TV. Moreover, Stinespring's theorem is a structure theorem from a C*-algebra into the algebra of bounded operators on
Stinespring_dilation_theorem
Theorem stating that pointwise boundedness implies uniform boundedness
linear operators (and thus bounded operators) whose domain is a Banach space, pointwise boundedness is equivalent to uniform boundedness in operator norm
Uniform_boundedness_principle
Bounded linear operator
of functional analysis and operator theory, the Volterra operator, named after Vito Volterra, is a bounded linear operator on the space L2[0,1] of complex-valued
Volterra_operator
Boundary condition for generalized functions
{\textstyle n\in \mathbb {N} } be a bounded domain with Lipschitz boundary. Then there exists a bounded linear trace operator T : W 1 , p ( Ω ) → L p ( ∂ Ω
Trace_operator
Continuous range of values, such as wavelengths in physics
the matrix. In functional analysis, the concept of the spectrum of a bounded operator is a generalization of the eigenvalue concept for matrices. In algebraic
Spectrum
Type of operator in Fourier analysis
See the discussion on the "boundedness problem" below. As a bare minimum, one usually requires the multiplier m to be bounded and measurable; this is sufficient
Multiplier_(Fourier_analysis)
Branch of functional analysis
multiplication operator. That's what we do in the next section. Formally, the bounded Borel functional calculus of a self adjoint operator T on Hilbert
Borel_functional_calculus
Banach space of bounded operators on H. A mapping E from the Borel σ-algebra on X to L ( H ) {\displaystyle L(H)} is called an operator-valued measure
Naimark's_dilation_theorem
Construct in quantum information theory
positive map Λ from bounded operators on H B {\displaystyle H_{B}} to bounded operators on H A {\displaystyle H_{A}} , the operator ( I A ⊗ Λ ) ( σ ) {\displaystyle
Entanglement_witness
Idempotent linear transformation from a vector space to itself
from the Hilbert projection theorem. An orthogonal projection is a bounded operator. This is because for every v {\displaystyle \mathbf {v} } in the vector
Projection_(linear_algebra)
Type of matrix representation
isometry and a non-negative operator. The polar decomposition for matrices generalizes as follows: if A is a bounded linear operator then there is a unique
Polar_decomposition
Branch of functional analysis
spaces of distributions), the term operator algebra is usually used in reference to algebras of bounded operators on a Banach space or, even more specifically
Operator_algebra
Relation satisfied by conjugate variables in quantum mechanics
relations cannot both be bounded. Certainly, if x ^ {\displaystyle {\hat {x}}} and p ^ {\displaystyle {\hat {p}}} were trace class operators, the relation Tr
Canonical commutation relation
Canonical_commutation_relation
Topological complex vector space
to describe norm-closed subalgebras of B(H), namely, the space of bounded operators on some Hilbert space H. 'C' stood for 'closed'. In his paper Segal
C*-algebra
^{2}BB^{*}} for some λ ≥ 0 {\displaystyle \lambda \geq 0} There exists a bounded operator C {\displaystyle C} on H {\displaystyle H} such that A = B C {\displaystyle
Douglas'_lemma
A linear operator P {\displaystyle P} on V {\displaystyle V} is a Markov operator if the following is true P {\displaystyle P} maps bounded, measurable
Markov_operator
Non-self-adjoint compact operator used to solve boundary value problems for the Laplacian
Hilbert transform and the Fredholm eigenvalues of bounded planar domains. Green's theorem for a bounded region Ω in the plane with smooth boundary ∂Ω states
Neumann–Poincaré_operator
In operator theory, quasinormal operators is a class of bounded operators defined by weakening the requirements of a normal operator. Every quasinormal
Quasinormal_operator
Operator on a Hilbert space that shifts basis vectors
In operator theory, the unilateral shift is a one-sided shift operator, that is, a shift operator acting on one-sided sequences or shift spaces. The term
Unilateral_shift_operator
especially operator theory, subnormal operators are bounded operators on a Hilbert space defined by weakening the requirements for normal operators. Some examples
Subnormal_operator
Functions in harmonic analysis mathematics
as their boundedness on Lp spaces, for example L p ( R n ) {\displaystyle L^{p}(\mathbb {R} ^{n})} . The archetypal singular integral operator is the Hilbert
Singular_integral
Topological algebra associated to continuous groups
to the L2 norm is a Hilbert space, the Cr* norm is the norm of the bounded operator acting on L2(G) by convolution with f and thus a C*-norm. Equivalently
Group algebra of a locally compact group
Group_algebra_of_a_locally_compact_group
variables which is sufficiently smooth is (essentially) bounded, and provides an explicit bound, which depends only logarithmically on the second derivatives
Brezis–Gallouët_inequality
Mathematical function, in linear algebra
then be a continuous linear operator. A linear operator on a normed linear space is continuous if and only if it is bounded, for example, when the domain
Linear_map
{\displaystyle H} is a homomorphism into the bounded invertible operators which is continuous for the strong operator topology, and such that sup g ∈ G ‖ T g
Uniformly bounded representation
Uniformly_bounded_representation
Operation on self-adjoint operators
is a bounded operator, in which case A {\displaystyle A} is self-adjoint and the extension problem is trivial. In general, a symmetric operator is self-adjoint
Extensions of symmetric operators
Extensions_of_symmetric_operators
Mathematical theory by discovered by Józef Marcinkiewicz
requires weak boundedness on the extremes p and q, regular boundedness still holds. To make this more formal, one has to explain that T is bounded only on a
Marcinkiewicz interpolation theorem
Marcinkiewicz_interpolation_theorem
by Issai Schur. It implies that the discrete Hilbert transform is a bounded operator in ℓ2. Let (um) be a sequence of complex numbers. If the sequence is
Hilbert's_inequality
Linear operator
a_{n}>0,\quad b_{n}\in \mathbb {R} .} The operator will be bounded if and only if the coefficients are bounded. There are close connections with the theory
Jacobi_operator
Mathematical norm
{\displaystyle H_{2}} be Hilbert spaces, and T {\displaystyle T} a (linear) bounded operator from H 1 {\displaystyle H_{1}} to H 2 {\displaystyle H_{2}} . For p
Schatten_norm
Theory in functional analysis
In functional analysis, compact operators are linear operators on Banach spaces that map bounded sets to relatively compact sets. In the case of a Hilbert
Spectral theory of compact operators
Spectral_theory_of_compact_operators
of the C*-algebra B ( H ) {\displaystyle {\mathcal {B}}(H)} of bounded linear operators on some Hilbert space H . {\displaystyle H.} This article describes
Spectral theory of normal C*-algebras
Spectral_theory_of_normal_C*-algebras
Matrix factorisation in mathematics
simultaneously diagonalized. In the infinite dimensional setting, not every bounded operator on a Banach space has an invariant subspace. However, the upper-triangularization
Schur_decomposition
Linear operator scaling by a fixed function
)} is the multiplication operator T 1 f − λ . {\displaystyle T_{\frac {1}{f-\lambda }}.} Two bounded multiplication operators T f {\displaystyle T_{f}}
Multiplication_operator
Mathematical structure that describes the dynamics in a Markovian open quantum system
infinitesimal generator L {\displaystyle {\mathcal {L}}} will be a bounded operator on von Neumann algebra A {\displaystyle {\mathcal {A}}} with domain
Quantum_Markov_semigroup
Topics referred to by the same term
inequality for integral operators William Henry Young, English mathematician (1863–1942) Hausdorff–Young inequality, bounding the coefficient of Fourier
Young's_inequality
Matrix equation in control theory
generally, the equation AX + XB = C has been considered as an equation of bounded operators on a (possibly infinite-dimensional) Banach space. In this case, the
Sylvester_equation
Process of calculating the causal factors that produced a set of observations
a bounded operator and the notion of eigenvalue does not make sense any longer. A mathematical analysis is required to make it a bounded operator and
Inverse_problem
Operator shifting particles and fields by a certain amount in a certain direction
operator is Hermitian, we can prove that the translation operator is a unitary operator. First, it must shown that translation operator is a bounded operator
Translation operator (quantum mechanics)
Translation_operator_(quantum_mechanics)
Theory in mathematics
ρ is a *-representation of A on H as even bounded operators that commute with B, and F is a bounded operator on H of degree 1, which again commutes with
KK-theory
Tool in homological algebra
complex. A chain complex is bounded above if all modules above some fixed degree N {\displaystyle N} are 0, and is bounded below if all modules below some
Chain_complex
Banach space of a dual
predual of the space of bounded operators is the space of trace class operators, and the predual of the space L∞(R) of essentially bounded functions on R is
Predual
Quantum operator for the sum of energies of a system
In quantum mechanics, the Hamiltonian of a system is an operator corresponding to the total energy of that system, including both kinetic energy and potential
Hamiltonian (quantum mechanics)
Hamiltonian_(quantum_mechanics)
Concept in computability theory
(k+1)-ary relation on the natural numbers. The μ-operator "μy", in either the unbounded or bounded form, is a "number theoretic function" defined from
Mu_operator
Space where bounded operators are continuous
generalization of boundedness Bornivorous set – Set that can absorb any bounded subset Bounded set (topological vector space) – Generalization of boundedness Locally
Bornological_space
consists of those weights ω for which the Hardy–Littlewood maximal operator is bounded on Lp(dω). Specifically, we consider functions f on Rn and their
Muckenhoupt_weights
BOUNDED OPERATOR
BOUNDED OPERATOR
Boy/Male
Hindu, Indian
Unbounded
Surname or Lastname
English
English : probably a nickname from Middle English blonde(n) ‘blond’, ‘fair-haired’.
Boy/Male
Hindu
Unbounded
Boy/Male
English
Man of the land.
Boy/Male
Tamil
Nissim | நிஸà¯à®¸à¯€à®®
Unbounded
Nissim | நிஸà¯à®¸à¯€à®®
Girl/Female
Assamese, Indian
Rounded
Surname or Lastname
English
English : variant of Bond.
Boy/Male
Hindu
Unbounded
Girl/Female
German, Swedish
Rounded; Polished Smooth
Surname or Lastname
English (Nottingham)
English (Nottingham) : variant of Pound, with the addition of the habitational or agent suffix -er.Probably a translation of South German Pfunder, Pfünder, occupational names for a weigh master or wholesaler, variants of Pfund with the addition of the agent suffix -er.
Male
Egyptian
, Mendes.
Surname or Lastname
English
English : probably a variant of Bouldin or possibly of Bolden or Boldon.English : Alternatively, it may be a habitational name from a place in Shropshire called Bouldon.
Boy/Male
Tamil
Unbounded
Boy/Male
Norse
Horn sounded for Ragnorok.
Surname or Lastname
English
English : variant spelling of Bond.Scandinavian : status name for a farmer, from Old Norse bóndi ‘farmer’. Compare Bond. In Sweden Bonde is both a personal name and the name of an old aristocratic family.Norwegian : habitational name from a farmstead named Bonde, from Old Norse bóndi ‘farmer’ + vin ‘meadow’.
Boy/Male
Tamil
All rounder
Surname or Lastname
English
English : variant of Bond
Boy/Male
Gujarati, Hindu, Indian, Kannada, Telugu
Bounded
Surname or Lastname
English
English : patronymic from Bond.
Boy/Male
Hindu
All rounder
BOUNDED OPERATOR
BOUNDED OPERATOR
Female
Chinese
graciousness.
Girl/Female
Arabic
Virtue; Excellence
Boy/Male
Bengali, Hindu, Indian
Attracted
Girl/Female
Hindu
Boy/Male
Indian, Punjabi, Sikh
Vision of God's Light
Girl/Female
Indian
Time
Boy/Male
Indian
Servant of the subduer
Boy/Male
Tamil
First, Most important, Beginning, Ornament, Adornment
Girl/Female
Gujarati, Indian, Modern
Soul
Girl/Female
Arabic, Muslim
Successful
BOUNDED OPERATOR
BOUNDED OPERATOR
BOUNDED OPERATOR
BOUNDED OPERATOR
BOUNDED OPERATOR
n.
A mass of any rock, whether rounded or not, that has been transported by natural agencies from its native bed. See Drift.
v. i.
To make a gross error or mistake; as, to blunder in writing or preparing a medical prescription.
a.
Furnished with claws or talons; as, the pounced young of the eagle.
n.
A sudden leap or bound; a rebound.
a.
Having no bound or limit; as, unbounded space; an, unbounded ambition.
v. i.
To leap or spring suddenly or unceremoniously; to bound; as, she bounced into the room.
p. p & a.
Bound; fastened by bonds.
imp. & p. p.
of Bounce
a.
Seated or serving on horseback or similarly; as, mounted police; mounted infantry.
n.
A large stone, worn smooth or rounded by the action of water; a large pebble.
v. t.
To cause to bound or rebound; sometimes, to toss.
p. p & a.
Under obligation; bound by some favor rendered; obliged; beholden.
n.
One who bounces; a large, heavy person who makes much noise in moving.
imp. & p. p.
of Bound
n.
An inflammatory fever of the body, or acute rheumatism; as, chest founder. See Chest ffounder.
n.
Bluster; brag; untruthful boasting; audacious exaggeration; an impudent lie; a bouncer.
a.
Wounded to the heart with love or grief.
v. t.
To cause to blunder.
a.
Placed on a suitable support, or fixed in a setting; as, a mounted gun; a mounted map; a mounted gem.
n.
One who places goods under bond or in a bonded warehouse.