List questions from adjoint-operators

Published on 24 Jun 2018 - 15:25

42

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Adjoint mapping

Published on 25 Mar 2026 - 13:00

34

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Concerning the Linearity of the adjoint of $T$

Published on 01 Jul 2018 - 13:54

262

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$T$-invariance of $U$ is equivalent to $T^{*}$-invariance of $U^{\perp}$

Published on 02 Jul 2018 - 0:28

57

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Adjoint of $T$, infinite dimensional space

Published on 25 Mar 2026 - 10:53

3.9k

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$T^*$ is invertible whenever $T$ is invertible.

Published on 05 Jul 2018 - 13:54

79

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how to find singular values of this operator

Published on 25 Mar 2026 - 17:45

51

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Inner product spaces and proving properties

Published on 08 Jul 2018 - 21:01

137

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randomized approximate matrix inverse or adjoint of a square matrix

Published on 25 Mar 2026 - 6:11

287

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Adjoint of a symbol of a pseudo differential operator

Published on 25 Mar 2026 - 11:08

75

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Exercises on derivative operator on subspaces of $L^2$

Published on 12 Jul 2018 - 22:25

54

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Inner product involving operators

Published on 16 Jul 2018 - 19:19

20

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Lie algebra homomorphism of product

Published on 18 Jul 2018 - 5:41

326

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self-adjoint linear map has determinant $ < 0$.

Published on 19 Jul 2018 - 10:06

1k

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How to understand that a normal matrix commutes with its adjoint, but a diagonalizable matrix may not?

Published on 25 Mar 2026 - 11:26

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Reconciling a proof with a remark

Adjoint mapping

Concerning the Linearity of the adjoint of $T$

$T$-invariance of $U$ is equivalent to $T^{*}$-invariance of $U^{\perp}$

Adjoint of $T$, infinite dimensional space

$T^*$ is invertible whenever $T$ is invertible.

how to find singular values of this operator

Inner product spaces and proving properties

randomized approximate matrix inverse or adjoint of a square matrix

Adjoint of a symbol of a pseudo differential operator

Exercises on derivative operator on subspaces of $L^2$

Inner product involving operators

Lie algebra homomorphism of product

self-adjoint linear map has determinant $ < 0$.

How to understand that a normal matrix commutes with its adjoint, but a diagonalizable matrix may not?

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