The Topos of Music Geometric Logic of Concepts, Theory, and Performance
Main Author: | |
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Format: | eBook |
Language: | English |
Published: |
Basel
Birkhäuser
2002, 2002
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Edition: | 1st ed. 2002 |
Subjects: | |
Online Access: | |
Collection: | Springer Book Archives -2004 - Collection details see MPG.ReNa |
Table of Contents:
- I Introduction and Orientation
- 1 What is Music About?
- 1.1 Fundamental Activities
- 1.2 Fundamental Scientific Domains
- 2 Topography
- 2.1 Layers of Reality
- 2.1.1 Physical Reality
- 2.1.2 Mental Reality
- 2.1.3 Psychological Reality
- 2.2 Molino’s Communication Stream
- 2.2.1 Creator and Poietic Level
- 2.2.2 Work and Neutral Level
- 2.2.3 Listener and Esthesic Level
- 2.3 Semiosis
- 2.3.1 Expressions
- 2.3.2 Content
- 2.3.3 The Process of Signification
- 2.3.4 A Short Overview of Music Semiotics
- 2.4 The Cube of Local Topography
- 2.5 Topographical Navigation
- 3 Musical Ontology
- 3.1 Where is Music?
- 3.2 Depth and Complexity
- 4 Models and Experiments in Musicology
- 4.1 Interior and Exterior Nature
- 4.2 What Is a Musicological Experiment?
- 4.3 Questions—Experiments of the Mind
- 4.4 New Scientific Paradigms and Collaboratories
- II Navigation on Concept Spaces
- 5 Navigation
- 5.1 Music in the EncycloSpace
- 14.5 Simplicial Weights
- 14.6 Categories of Commutative Global Compositions
- 15 Global Classification
- 15.1 Module Complexes
- 15.1.1 Global Affine Functions
- 15.1.2 Bilinear and Exterior Forms
- 15.1.3 Deviation: Compositions vs. “Molecules”
- 15.2 The Resolution of a Global Composition
- 15.2.1 Global Standard Compositions
- 15.2.2 Compositions from Module Complexes
- 15.3 Orbits of Module Complexes Are Classifying
- 15.3.1 Combinatorial Group Actions
- 15.3.2 Classifying Spaces
- 16 Classifying Interpretations
- 16.1 Characterization of Interpretable Compositions
- 16.1.1 Automorphism Groups of Interpretable Compositions
- 16.1.2 A Cohomological Criterion
- 16.2 Global Enumeration Theory
- 16.2.1 Tesselation
- 16.2.2 Mosaics
- 16.2.3 Classifying Rational Rhythms and Canons
- 16.3 Global American Set Theory
- 16.4 Interpretable “Molecules”
- 17 Esthetics and Classification
- 17.1 Understanding by Resolution: An Illustrative Example
- 12.2.1 Metrical Comparison
- 12.2.2 Specialization Morphisms of Local Compositions
- 12.3 The Problem of Sound Classification
- 12.3.1 Topographic Determinants of Sound Descriptions
- 12.3.2 Varieties of Sounds
- 12.3.3 Semiotics of Sound Classification
- 12.4 Making the Vague Precise
- IV Global Theory
- 13 Global Compositions
- 13.1 The Local-Global Dichotomy in Music
- 13.1.1 Musical and Mathematical Manifolds
- 13.2 What Are Global Compositions?
- 13.2.1 The Nerve of an Objective Global Composition
- 13.3 Functorial Global Compositions
- 13.4 Interpretations and the Vocabulary of Global Concepts
- 13.4.1 Iterated Interpretations
- 13.4.2 The Pitch Domain: Chains of Thirds, Ecclesiastical Modes, Triadic and Quaternary Degrees
- 13.4.3 Interpreting Time: Global Meters and Rhythms
- 13.4.4 Motivic Interpretations: Melodies and Themes
- 14 Global Perspectives
- 14.1 Musical Motivation
- 14.2 Global Morphisms
- 14.3 Local Domains
- 14.4 Nerves
- 23.2 Paul Hindemith
- 23.3 Heinrich Schenker and Friedrich Salzer
- 24 Harmonic Topology
- 24.1 Chord Perspectives
- 24.1.1 Euler Perspectives
- 24.1.2 12-tempered Perspectives
- 24.1.3 Enharmonic Projection
- 24.2 Chord Topologies
- 24.2.1 Extension and Intension
- 24.2.2 Extension and Intension Topologies
- 24.2.3 Faithful Addresses
- 24.2.4 The Saturation Sheaf
- 25 Harmonic Semantics
- 25.1 Harmonic Signs—Overview
- 25.2 Degree Theory
- 25.2.1 Chains of Thirds
- 25.2.2 American Jazz Theory
- 25.2.3 Hans Straub: General Degrees in General Scales
- 25.3 Function Theory
- 25.3.1 Canonical Morphemes for European Harmony
- 25.3.2 Riemann Matrices
- 25.3.3 Chains of Thirds
- 25.3.4 Tonal Functions from Absorbing Addresses
- 26 Cadence
- 26.1 Making the Concept Precise
- 26.2 Classical Cadences Relating to 12-tempered Intonation
- 26.2.1 Cadences in Triadic Interpretations of Diatonic Scales
- 26.2.2 Cadences in More General Interpretations
- 28.1.2 Wolfgang Amadeus Mozart: “Zauberflöte”, Choir of Priests
- 28.1.3 Claude Debussy: “Préludes”, Livre 1, No.4
- 28.2 Modulation in Beethoven’s Sonata op.106, 1stMovement
- 2
- 7.5 Alterations Are Tangents
- 7.5.1 The Theorem of Mason—Mazzola
- 8 Symmetries and Morphisms
- 8.1 Symmetries in Music
- 8.1.1 Elementary Examples
- 8.2 Morphisms of Local Compositions
- 8.3 Categories of Local Compositions
- 8.3.1 Commenting the Concatenation Principle
- 8.3.2 Embedding and Addressed Adjointness
- 8.3.3 Universal Constructions on Local Compositions
- 8.3.4 The Address Question
- 8.3.5 Categories of Commutative Local Compositions
- 9 Yoneda Perspectives
- 9.1 Morphisms Are Points
- 9.2 Yoneda’s Fundamental Lemma
- 9.3 The Yoneda Philosophy
- 9.4 Understanding Fine and Other Arts
- 9.4.1 Painting and Music
- 9.4.2 The Art of Object-Oriented Programming
- 10 Paradigmatic Classification
- 10.1 Paradigmata in Musicology, Linguistics, and Mathematics
- 10.2 Transformation
- 10.3 Similarity
- 10.4 Fuzzy Concepts in the Humanities
- 11 Orbits
- 11.1 Gestalt and Symmetry Groups
- 11.2 The Framework for Local Classification
- 5.2 Receptive Navigation
- 5.3 Productive Navigation
- 6 Denotators
- 6.1 Universal Concept Formats
- 6.1.1 First Naive Approach To Denotators
- 6.1.2 Interpretations and Comments
- 6.1.3 Ordering Denotators and ‘Concept Leafing’
- 6.2 Forms
- 6.2.1 Variable Addresses
- 6.2.2 Formal Definition
- 6.2.3 Discussion of the Form Typology
- 6.3 Denotators
- 6.3.1 Formal Definition of a Denotator
- 6.4 Anchoring Forms in Modules
- 6.4.1 First Examples and Comments on Modules in Music
- 6.5 Regular and Circular Forms
- 6.6 Regular Denotators
- 6.7 Circular Denotators
- 6.8 Ordering on Forms and Denotators
- 6.8.1 Concretizations and Applications
- 6.9 Concept Surgery and Denotator Semantics
- III Local Theory
- 7 Local Compositions
- 7.1 The Objects of Local Theory
- 7.2 First Local Music Objects
- 7.2.1 Chords and Scales
- 7.2.2 Local Meters and Local Rhythms
- 7.2.3 Motives
- 7.3 Functorial Local Compositions
- 7.4 First Elements of Local Theory
- 17.2 Varese’s Program and Yoneda’s Lemma
- 18 Predicates
- 18.1 What Is the Case: The Existence Problem
- 18.1.1 Merging Systematic and Historical Musicology
- 18.2 Textual and Paratextual Semiosis
- 18.2.1 Textual and Paratextual Signification
- 18.3 Textuality
- 18.3.1 The Category of Denotators.-18.3.2 Textual Semiosis
- 18.3.3 Atomic Predicates
- 18.3.4 Logical and Geometric Motivation
- 18.4 Paratextuality
- 19 Topoi of Music
- 19.1 The Grothendieck Topology
- 19.1.1 Cohomology
- 19.1.2 Marginalia on Presheaves
- 19.2 The Topos of Music: An Overview
- 20 Visualization Principles
- 20.1 Problems
- 20.2 Folding Dimensions
- 20.2.1 ?2 ? ?
- 20.2.1 ?n ? ?
- 20.2.3 An Explicit Construction of ? with Special Values
- 20.3 Folding Denotators
- 20.3.1 Folding Limits
- 20.3.2 Folding Colimits
- 20.3.3 Folding Powersets
- 20.3.4 Folding Circular Denotators
- 20.4 Compound Parametrized Objects
- 20.5 Examples
- V Topologies for Rhythm and Motives
- 26.3 Cadences in Self-addressed Tonalities of Morphology
- 26.4 Self-addressed Cadences by Symmetries and Morphisms
- 26.5 Cadences for Just Intonation
- 26.5.1 Tonalities in Third-Fifth Intonation
- 26.5.2 Tonalities in Pythagorean Intonation
- 27 Modulation
- 27.1 Modeling Modulation by Particle Interaction
- 27.1.1 Models and the Anthropic Principle
- 27.1.2 Classical Motivation and Heuristics
- 27.1.3 The General Background
- 27.1.4 The Well-Tempered Case
- 27.1.5 Reconstructing the Diatonic Scale from Modulation
- 27.1.6 The Case of Just Tuning
- 27.1.7 Quantized Modulations and Modulation Domains for Selected Scales
- 27.2 Harmonic Tension
- 27.2.1 The Riemann Algebra
- 27.2.2 Weights on the Riemann Algebra
- 27.2.3 Harmonic Tensions from Classical Harmony?
- 27.2.4 Optimizing Harmonic Paths
- 28 Applications
- 28.1 First Examples
- 28.1.1 Johann Sebastian Bach: Choral from “Himmelfahrtsoratorium”
- 11.3 Orbits of Elementary Structures
- 11.3.1 Classification Techniques
- 11.3.2 The Local Classification Theorem
- 11.3.3 The Finite Case
- 11.3.4 Dimension
- 11.3.5 Chords
- 11.3.6 Empirical Harmonic Vocabularies
- 11.3.7 Self-addressed Chords
- 11.3.8 Motives
- 11.4 Enumeration Theory
- 11.4.1 Pólya and de Bruijn Theory
- 11.4.2 Big Science for Big Numbers
- 11.5 Group-theoretical Methods in Composition and Theory
- 11.5.1 Aspects of Serialism
- 11.5.2 The American Tradition
- 11.6 Esthetic Implications of Classification
- 11.6.1 Jakobson’s Poetic Function
- 11.6.2 Motivic Analysis: Schubert/Stolberg “Lied auf dem Wasser zu singen...”
- 11.6.3 Composition: Mazzola/Baudelaire “La mort des artistes”
- 11.7 Mathematical Reflections on Historicity in Music
- 11.7.1 Jean-Jacques Nattiez’ Paradigmatic Theme
- 11.7.2 Groups as a Parameter of Historicity
- 12 Topological Specialization
- 12.1 What Ehrenfels Neglected
- 12.2 Topology
- 21 Metrics and Rhythmics
- 21.1 Review of Riemann and Jackendoff—Lerdahl Theories
- 21.1.1 Riemann’s Weights
- 21.1.2 Jackendoff—Lerdahl: Intrinsic Versus Extrinsic Time Structures
- 21.2 Topologies of Global Meters and Associated Weights
- 21.3 Macro-Events in the Time Domain
- 22 Motif Gestalts
- 22.1 Motivic Interpretation
- 22.2 Shape Types
- 22.2.1 Examples of Shape Types
- 22.3 Metrical Similarity
- 22.3.1 Examples of Distance Functions
- 22.4 Paradigmatic Groups
- 22.4.1 Examples of Paradigmatic Groups
- 22.5 Pseudo-metrics on Orbits
- 22.6 Topologies on Gestalts
- 22.6.1 The Inheritance Property
- 22.6.2 Cognitive Aspects of Inheritance
- 22.6.3 Epsilon Topologies
- 22.7 First Properties of the Epsilon Topologies
- 22.7.1 Toroidal Topologies
- 22.8 Rudolph Reti’s Motivic Analysis Revisited
- 22.8.1 Review of Concepts
- 22.8.2 Reconstruction
- 22.9 Motivic Weights
- VI Harmony
- 23 Critical Preliminaries
- 23.1 Hugo Riemann