Problem Statement: In the setting of non-commutative geometry, consider a spectral triple (A, H, D), where A is a *- algebra represented on the Hilbert space H, and D is a self-adjoint operator on H with compact resolvent. 1. Spectral Triple and Measure Theory: Define the notion of a spectral measure in the context of non-commutative geometry and construct a measure-theoretic framework that captures the spectral properties of D. 2. Dimension Spectrum and Measure-Theoretic Conditions: Prove that the dimension spectrum of the spectral triple relates to the measure-theoretic properties of the spectral measure E associated with D, particularly in terms of the growth of eigenvalues and the corresponding trace-class conditions. 3. Measure-Theoretic Invariants in Non-Commutative Geometry: Show how measure-theoretic invariants, such as non-commutative integrals and Dixmier traces, can be expressed using the spectral measure E and how they relate to the geometric properties encoded in the spectral triple. Requirements: • • Integrate spectral theory with the principles of non-commutative geometry. Apply measure-theoretic concepts to analyze spectral triples and their invariants.

Elements Of Modern Algebra
8th Edition
ISBN:9781285463230
Author:Gilbert, Linda, Jimmie
Publisher:Gilbert, Linda, Jimmie
Chapter7: Real And Complex Numbers
Section7.3: De Moivre’s Theorem And Roots Of Complex Numbers
Problem 28E
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Problem Statement:
In the setting of non-commutative geometry, consider a spectral triple (A, H, D), where A is a *-
algebra represented on the Hilbert space H, and D is a self-adjoint operator on H with compact
resolvent.
1. Spectral Triple and Measure Theory: Define the notion of a spectral measure in the context of
non-commutative geometry and construct a measure-theoretic framework that captures the
spectral properties of D.
2. Dimension Spectrum and Measure-Theoretic Conditions: Prove that the dimension spectrum
of the spectral triple relates to the measure-theoretic properties of the spectral measure E
associated with D, particularly in terms of the growth of eigenvalues and the corresponding
trace-class conditions.
3. Measure-Theoretic Invariants in Non-Commutative Geometry: Show how measure-theoretic
invariants, such as non-commutative integrals and Dixmier traces, can be expressed using the
spectral measure E and how they relate to the geometric properties encoded in the spectral
triple.
Requirements:
•
•
Integrate spectral theory with the principles of non-commutative geometry.
Apply measure-theoretic concepts to analyze spectral triples and their invariants.
Transcribed Image Text:Problem Statement: In the setting of non-commutative geometry, consider a spectral triple (A, H, D), where A is a *- algebra represented on the Hilbert space H, and D is a self-adjoint operator on H with compact resolvent. 1. Spectral Triple and Measure Theory: Define the notion of a spectral measure in the context of non-commutative geometry and construct a measure-theoretic framework that captures the spectral properties of D. 2. Dimension Spectrum and Measure-Theoretic Conditions: Prove that the dimension spectrum of the spectral triple relates to the measure-theoretic properties of the spectral measure E associated with D, particularly in terms of the growth of eigenvalues and the corresponding trace-class conditions. 3. Measure-Theoretic Invariants in Non-Commutative Geometry: Show how measure-theoretic invariants, such as non-commutative integrals and Dixmier traces, can be expressed using the spectral measure E and how they relate to the geometric properties encoded in the spectral triple. Requirements: • • Integrate spectral theory with the principles of non-commutative geometry. Apply measure-theoretic concepts to analyze spectral triples and their invariants.
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