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@InBook{ gentil-nunes2024-teorias,
author = {Gentil-Nunes, Pauxy},
year = {2024},
title = {Teorias estrangeiras no {Brasil}: migra{\c{c}}{\~{a}}o,
encultura{\c{c}}{\~{a}}o e acultura{\c{c}}{\~{a}}o},
chapter = {Teorias da textura no Brasil},
editor = {Nogueira, Ilza and Navia, Gabriel},
pages = {219--284},
address = {Salvador},
publisher = {{Associa{\c{c}}{\~{a}}o Brasileira de Teoria e
An{\'{a}}lise Musical}},
keywords = {music texture}
}
@MastersThesis{ oliveira2024-composicao,
author = {Oliveira, Sidnei Marques de},
year = {2024},
title = {Composi{\c{c}}{\~{a}}o musical a partir da modelagem
sist{\^{e}}mica do contorno da complexidade da textura},
school = {Universidade Federal da Bahia},
address = {Salvador},
keywords = {music contour},
url = {https://repositorio.ufba.br/handle/ri/41362}
}
@InBook{ sampaio2024-teorias,
author = {Sampaio, Marcos da Silva},
year = {2024},
title = {Teorias estrangeiras no {Brasil}: migra{\c{c}}{\~{a}}o,
encultura{\c{c}}{\~{a}}o e acultura{\c{c}}{\~{a}}o},
chapter = {A teoria dos contornos musicais},
editor = {Nogueira, Ilza and Navia, Gabriel},
pages = {194--218},
address = {Salvador},
publisher = {{Associa{\c{c}}{\~{a}}o Brasileira de Teoria e
An{\'{a}}lise Musical}},
keywords = {music contour}
}
@Manual{ sampaio2023-rp-scripts,
author = {Sampaio, Marcos da Silva},
year = 2023,
title = {{RP Scripts} --- Release 2.0},
month = {May},
url = {https://marcos.sampaio.me/files/sampaio2023-rp-2.0.pdf}
}
@Misc{ sampaio2023-rp-scripts-a,
author = {{Sampaio}, {Marcos da Silva}},
year = {2023},
title = {{RP Scripts}: {Rhythmic} {Partitioning} {Scripts},
Release 2.0},
howpublished = "Available at \url{https://github.com/msampaio/rpScripts}.
Accessed on May. 13, 2023"
}
@Misc{ cancino-chacon.ea2022-partitura,
author = {Cancino-Chac{\'{o}}n, Carlos and Peter, Silvan David and
Karystinaios, Emmanouil and Foscarin, Francesco and
Grachten, Maarten and Widmer, Gerhard},
year = {2022},
title = {Partitura: {A} {Python} {Package} for {Symbolic} {Music}
{Processing}},
shorttitle = {Partitura},
url = {http://arxiv.org/abs/2206.01071},
abstract = {Partitura is a lightweight Python package for handling
symbolic musical information. It provides easy access to
features commonly used in music information retrieval
tasks, like note arrays (lists of timed pitched events)
and 2D piano roll matrices, as well as other score
elements such as time and key signatures, performance
directives, and repeat structures. Partitura can load
musical scores (in MEI, MusicXML, Humdrum **kern, and MIDI
formats), MIDI performances, and score-to-performance
alignments. The package includes some tools for music
analysis, such as automatic pitch spelling, key signature
identification, and voice separation. Partitura is an
open-source project and is available at
https://github.com/CPJKU/partitura/.},
language = {en},
urldate = {2022-07-31},
publisher = {arXiv},
month = jun,
note = {arXiv:2206.01071 [cs, eess]},
tags = {music and computer},
keywords = {Computer Science - Digital Libraries, Computer Science -
Sound, Electrical Engineering and Systems Science - Audio
and Speech Processing}
}
@PhDThesis{ carmona2022-melodic,
author = {Carmona, Taylor},
year = {2022},
title = {Melodic Contour and Rhythm as Organizing Principles in
Schoenberg's Wind Quintet, Op. 26},
keywords = {music contour},
mendeley-tags= {music contour},
school = {Texas Tech University},
type = {Ph.D. Dissertation}
}
@InProceedings{ couturier.ea2022-annotating,
author = {Couturier, Louis and Bigo, Louis and Leve, Florence},
year = {2022},
title = {Annotating symbolic texture in {Piano} {Music}: a formal
syntax},
address = {Saint-Etienne, France},
url = {https://hal.archives-ouvertes.fr/hal-03631151/document},
abstract = {Symbolic texture describes how sounding components are
organized in a musical score. Along with other high-level
musical components such as melody, harmony or rhythm,
symbolic texture has a significant impact on the
structure and the style of a musical piece. In this
article, we present a syntax to describe compositional
texture in the specific case of Western classical piano
music. The syntax is expressive and flexible, unifying
into a single text label information about density,
diversity, musical function and note relationships in
distinct textural units. The formal definition of the
syntax enables its parsing and computational processing,
opening promising perspectives in computeraided music
analysis and composition. We provide an implementation to
parse and manipulate textural labels as well as a bestiary
of annotated examples of textural configurations.},
language = {en},
keywords = {Computational Musicology},
pages = {8}
}
@Article{ couturier.ea2022-dataset,
author = {Couturier, Louis and Bigo, Louis and Leve, Florence},
year = {2022},
title = {A {Dataset} of {Symbolic} {Texture} {Annotations} in
{Mozart} {Piano} {Sonatas}},
copyright = {Creative Commons Attribution 4.0 International, Open
Access},
url = {https://zenodo.org/record/7316712},
doi = {10.5281/ZENODO.7316712},
abstract = {Musical scores are generally analyzed under different
aspects, notably melody, harmony, rhythm, but also through
their texture, although this last concept is arguably more
delicate to formalize. Symbolic texture depicts how
sounding components are organized in the score. It
outlines the density of elements, their heterogeneity,
role and interactions. In this paper, we release a set of
manual annotations for each bar of 9 movements among early
piano sonatas by W. A. Mozart, totaling 1164 labels that
follow a syntax dedicated to piano score texture. A
quantitative analysis of the annotations highlights some
characteristic textural features in the corpus. In
addition, we present and release the implementation of
low-level descriptors of symbolic texture, that are
preliminary experimented for textural elements prediction.
The annotations and the descriptors offer promising
applications in computer-assisted music analysis and
composition.},
language = {en},
urldate = {2023-02-23},
month = dec,
note = {Publisher: Zenodo},
keywords = {ismir, ismir2022}
}
@MastersThesis{ diogo2022-computational,
author = {Diogo, Daniel Ferreira},
year = {2022},
title = {Computational {Similarity} {Models} of {Portuguese}
{Folk} {Melodies} {Using} {Hierarchical} {Reduction}},
language = {en},
tags = {computational musicology},
school = {Universidade do Porto}
}
@Article{ faghih.ea2022-smart-median,
author = {Faghih, Behnam and Timoney, Joseph},
year = {2022},
title = {Smart-{Median}: {A} {New} {Real}-{Time} {Algorithm} for
{Smoothing} {Singing} {Pitch} {Contours}},
volume = {12},
issn = {2076-3417},
shorttitle = {Smart-{Median}},
url = {https://www.mdpi.com/2076-3417/12/14/7026},
doi = {10.3390/app12147026},
abstract = {Pitch detection is usually one of the fundamental steps
in audio signal processing. However, it is common for
pitch detectors to estimate a portion of the fundamental
frequencies incorrectly, especially in real-time
environments and when applied to singing. Therefore, the
estimated pitch contour usually has errors. To remove
these errors, a contour smoother algorithm should be
employed. However, because none of the current
contour-smoother algorithms has been explicitly designed
to be applied to contours generated from singing, they are
often unsuitable for this purpose. Therefore, this article
aims to introduce a new smoother algorithm that rectifies
this. The proposed smoother algorithm is compared with 15
other smoother algorithms over approximately 2700 pitch
contours. Four metrics were used for the comparison.
According to all the metrics, the proposed algorithm could
smooth the contours more accurately than other algorithms.
A distinct conclusion is that smoother algorithms should
be designed according to the contour type and the result's
final applications.},
language = {en},
number = {14},
urldate = {2022-07-13},
journal = {Applied Sciences},
month = jul,
keywords = {music contour},
pages = {7026}
}
@Misc{ gentil-nunes2022-parsemat,
author = {Gentil-Nunes, Pauxy},
year = {2022},
title = {{PARSEMAT}: Parseme Toolbox Software Package v. 0.9
Beta},
howpublished = "Available at \url{https://pauxy.net/parsemat-3/}.
Accessed on Dec. 16, 2022"
}
@Article{ gomez.ea2022-rhetorical,
author = {G\'{o}mez, Francisco and Tiz\'{o}n, Manuel and Arronte,
Aitor and Padilla, V\'{i}ctor},
year = {2022},
title = {Rhetorical {Pattern} {Finding}},
abstract = {In this paper, we research rhetorical patterns from a
musicological and computational standpoint. First, a
theoretical examination of what constitutes a rhetorical
pattern is conducted. Out of that examination, which
includes primary sources and the study of the main
composers, a formal definition of rhetorical patterns is
proposed. Among the rhetorical figures, a set of imitative
rhetorical figures is selected for our study, namely,
epizeuxis, palilogy, synonymia, and polyptoton. Next, we
design a computational model of the selected rhetorical
patterns to automatically find those patterns in a corpus
consisting of masses by Renaissance composer Tom\'{a}s
Luis de Victoria. In order to have a ground truth with
which to test out our model, a group of experts manually
annotated the rhetorical patterns. To deal with the
problem of reaching a consensus on the annotations, a
four-round Delphi method was followed by the annotators.
The rhetorical patterns found by the annotators and by the
algorithm are compared and their differences discussed.
The algorithm reports almost all the patterns annotated by
the experts and some additional patterns. The algorithm
reports almost all the patterns annotated by the experts
(recall: 98.11\%) and some additional patterns (precision:
71.73\%). These patterns correspond to rhetorical patterns
within other rhetorical patterns, which were overlooked by
the annotators on the basis of their contextual knowledge.
These results pose issues as to how to integrate that
contextual knowledge into the computational model.},
language = {en},
journal = {International Journal of Interactive Multimedia and
Artificial Intelligence},
pages = {8}
}
@Article{ hutchinson.ea2022-cadential,
author = {Hutchinson, Kyle and Poon, Matthew},
year = {2022},
title = {Cadential {Melodies}: {Form}-{Functional} {Taxonomy} and
the {Role} of the {Upper} {Voice}},
journal = {Music Theory Online},
volume = {28},
number = {2},
month = {May},
issn = {1067-3040},
abstract = {This article proposes that engaging with structural
melodic content can expand how we conceive of cadential
function and add nuance to the more harmonically driven
approaches of Caplinian form-functional theory. Drawing on
discussions by Schenker, Marx, and Schoenberg, we posit
parallels between structural melodic configurations and
the temporal formal functions of Caplinian theory. Through
several analytic examples we suggest that certain melodic
directions have default association with Caplin's temporal
functions: ascending lines are typically associated with
initiating functions, while the static prolongation of
structural tones typically serves as either initiating or
medial functions. Conversely, descending melodic lines,
especially terminating on 1^ (authentic cadences) or 2^
(half cadences) are endemic of concluding functions. We do
not suggest that melodic considerations replace harmonic
ones, but rather conclude that the two domains are
symbiotic in the sense that melodic consideration can
reinforce or undermine harmonic ones, and vice versa.
Ultimately, we use this rebalancing of analytic focus as a
means of reengaging with various problematic phrase types
and suggest further efficacy for this approach with
respect to nineteenth-century formal expansions.},
doi = {10.30535/mto.28.2.4},
keywords = {form-functional theory, cadences, melodic structure,
phrase structure, William Caplin},
language = {en},
tags = {music theory},
url = {https://www.mtosmt.org/issues/mto.22.28.2/mto.22.28.2.hutchinsonpoon.html}
}
@InProceedings{ lascabettes.ea2022-computational,
author = {Lascabettes, Paul and Agon, Carlos and Andreatta, Moreno
and Bloch, Isabelle},
year = {2022},
title = {Computational Analysis of Musical Structures based on
Morphological Filters},
abstract = {This paper deals with the computational analysis of musi-
cal structures by focusing on the use of morphological
filters. We first propose to generalize the notion of
melodic contour to a chord sequence with the chord
contour, representing some formal intervallic relations
between two given chords. By defining a semi-metric, we
compute the self-distance matrix of a chord contour
sequence. This method allows gen- erating a self-distance
matrix for symbolic music representations. Self- distance
matrices are used in the analysis of musical structures
because blocks around the diagonal provide structural
information on a musical piece. The main contribution of
this paper comes from the analysis of these matrices based
on mathematical morphology. Morphological filters are used
to homogenize and detect regions in the self-distance
matri- ces. Specifically, the opening operation has been
successfully applied to reveal the blocks around the
diagonal because it removes small details such as high
local values and reduces all blocks around the diagonal to
a zero value. Moreover, by varying the size of the
morphological filter, it is possible to detect musical
structures at different scales. A large opening filter
identifies the main global parts of the piece, while a
smaller one finds shorter musical sections. We discuss
some examples that demon- strate the usefulness of this
approach to detect the structures of a musical piece and
its novelty within the field of symbolic music information
re- search. Keywords:},
address = {Atlanta, USA},
booktitle = {MCM 2022 - 8th International Conference Mathematics and
Computation in Music},
keywords = {Chord contour,Mathematical morphology,Music
structure,Self-distance matrix,Symbolic Music information
research,music and mathematics},
mendeley-tags= {music and mathematics},
url = {https://hal.archives-ouvertes.fr/hal-03641511/}
}
@InProceedings{ le.ea2022-corpus,
author = {Le, Dinh-Viet-Toan and Giraud, Mathieu and Levé,
Florence and Maccarini, Francesco},
year = {2022},
title = {A {Corpus} {Describing} {Orchestral} {Texture} in {First}
{Movements} of {Classical} and {Early}-{Romantic}
{Symphonies}},
address = {Prague Czech Republic},
isbn = {978-1-4503-9668-4},
url = {https://dl.acm.org/doi/10.1145/3543882.3543884},
doi = {10.1145/3543882.3543884},
abstract = {Orchestration is the art of writing music for a possibly
large ensemble of instruments, by blending or opposing
their sounds and grouping them into an orchestral texture.
We aim here at providing a deeper understanding of
orchestration in classical and earlyromantic symphonies by
analyzing, at the bar level, how the instruments of the
orchestra organize into melodic, rhythmic, harmonic, and
mixed layers. We formalize the description of such layers
and release an open corpus with more than 7900 annotations
in 24 first movements of Haydn, Mozart, and Beethoven
symphonies. Initial analyses of this corpus confirm
specific roles of the instruments and their families
(woodwinds, brass, and strings), some evolution between
composers, as well as the contribution of orchestral
texture to form. The model and the corpus offer
perspectives for empirical and computational studies on
orchestral music.},
language = {en},
urldate = {2022-08-01},
booktitle = {9th {International} {Conference} on {Digital} {Libraries}
for {Musicology}},
publisher = {ACM},
month = jul,
keywords = {Computational Musicology},
pages = {27--35}
}
@Article{ malandrino.ea2022-adaptive,
author = {Malandrino, Delfina and {De Prisco}, Roberto and
Ianulardo, Mario and Zaccagnino, Rocco},
year = {2022},
title = {An adaptive meta-heuristic for music plagiarism detection
based on text similarity and clustering},
abstract = {Plagiarism is a controversial and debated topic in
different fields, especially in the Music one, where the
commercial market generates a huge amount of money. The
lack of objective metrics to decide whether a song is a
plagiarism, makes music plagiarism detection a very
complex task: often decisions have to be based on
subjective argumentations. Automated music analysis
methods that identify music similarities can be of help.
In this work, we first propose two novel such methods: a
text similarity-based method and a clustering-based
method. Then, we show how to combine them to get an
improved (hybrid) method. The result is a novel adaptive
meta-heuristic for music plagiarism detection. To assess
the effectiveness of the proposed methods, considered both
singularly and in the combined meta-heuristic, we
performed tests on a large dataset of ascertained
plagiarism and non-plagiarism cases. Results show that the
meta-heuristic outperforms existing methods. Finally, we
deployed the meta-heuristic into a tool , accessible as a
Web application, and assessed the effectiveness,
usefulness, and overall user acceptance of the tool by
means of a study involving 20 people, divided into two
groups, one of which with access to the tool. The study
consisted in having people decide which pair of songs, in
a predefined set of pairs, should be considered
plagiarisms and which not. The study shows that the group
supported by our tool successfully identified all
plagiarism cases, performing all tasks with no errors. The
whole sample agreed about the usefulness of an automatic
tool that provides a measure of similarity between two
songs.},
doi = {10.1007/s10618-022-00835-2},
issn = {1384-5810},
journal = {Data Mining and Knowledge Discovery},
keywords = {Clustering,Evaluation study,Multi-objective
optimization,Music plagiarism detection,Text
similarity,computational musicology},
mendeley-tags= {computational musicology},
month = {may},
publisher = {Springer US},
url = {https://link.springer.com/10.1007/s10618-022-00835-2}
}
@Article{ mcadams.ea2022-taxonomy,
author = {McAdams, Stephen and Goodchild, Meghan and Soden, Kit},
year = {2022},
title = {A {Taxonomy} of {Orchestral} {Grouping} {Effects}
{Derived} from {Principles} of {Auditory} {Perception}},
volume = {28},
abstract = {The study of timbre and orchestration in symphonic music
research is underexplored, and few theories attempt to
explain strategies for combining and contrasting
instruments and the resulting perception of orchestral
structures and textures. An analysis of orchestration
treatises and musical scores reveals an implicit
understanding of auditory grouping principles by which
many orchestration techniques give rise to predictable
perceptual effects. We present a novel theory formalized
in a taxonomy of devices related to auditory grouping
principles that appear frequently in Western orchestration
practices from a range of historical epochs. We develop
three classes of orchestration analysis categories:
concurrent grouping cues result in blended combinations of
instruments; sequential grouping cues result in melodic
lines, the integration of surface textures, and the
segregation of melodies or stratified (foreground and
background) layers based on acoustic (dis)similarities;
segmental grouping cues contrast sequentially presented
blocks of materials and contribute to the creation of
perceptual boundaries. The theory predicts
orchestration-based perceptual structuring in music and
may be applied to music of any style, culture, or genre.},
language = {en},
number = {3},
journal = {Music Theory Online},
pages = {55}
}
@InCollection{ mullensiefen.ea2022-statistical,
author = {M\"{u}llensiefen, Daniel and Frieler, Klaus},
year = {2022},
title = {Statistical {Methods} in {Music} {Corpus} {Studies}:
{Application}, {UseCases}, and {Best} {Practice}
{Examples}},
edition = {1},
isbn = {978-0-19-094544-2 978-0-19-094547-3},
url = {https://academic.oup.com/edited-volume/41992},
abstract = {In this chapter, the authors explain that there are two
common goals in musical corpus analysis. The rst is the
description and comparison of musical corpora, the second
is to establish relationships between musical structures
and extra-musical data, which can refer to metadata of a
particular musical piece (genre, style, and period labels,
composer and performer attributions, etc.) or to
listeners' perceptions and evaluations. The authors give a
brief overview of basic and advanced statistical methods
that have been employed in music corpus studies. The
chapter covers descriptive statistics and visualizations,
feature selection and aggregation using principal
component analysis. In addition, random forests and linear
regression methods for use in the context of corpus
studies are brie y explained, as well as supervised and
unsupervised classi cation techniques. Each topic and
method is introduced with a conceptual explanation,
suggestions for its application, and usage scenarios from
the research literature.},
language = {en},
urldate = {2022-12-22},
booktitle = {The {Oxford} {Handbook} of {Music} and {Corpus}
{Studies}},
publisher = {Oxford University Press},
editor = {Shanahan, Daniel and Burgoyne, John Ashley and Quinn,
Ian},
month = feb,
doi = {10.1093/oxfordhb/9780190945442.001.0001}
}
@Article{ paiva-santana.ea2022-role,
author = {Paiva Santana, Charles de and Guigue, Didier},
year = {2022},
title = {The {Role} of {Orchestration} in {Shaping} {Musical}
{Form}: {Theory} and {Practice} of a {Methodological}
{Proposal} and {Its} {Computational} {Implementation}},
volume = {58},
issn = {2350-4242, 0580-373X},
shorttitle = {The {Role} of {Orchestration} in {Shaping} {Musical}
{Form}},
url = {https://journals.uni-lj.si/MuzikoloskiZbornik/article/view/12408},
doi = {10.4312/mz.58.2.121-153},
abstract = {We introduce a method for computer-assisted analysis of
orchestration. We also look into the role that texture and
orchestration have in structuring musical form.The method
comprises a numerical representation, a hierarchy of
'textural situations' and measures for heterogeneity,
diversity and complexity of orchestral-textural
configurations.},
language = {en},
number = {2},
urldate = {2023-02-23},
journal = {Musicological Annual},
month = dec,
keywords = {Computational Musicology},
pages = {121--153}
}
@Article{ pareyon.ea2022-music,
author = {Pareyon, Gabriel and Almada, Carlos and Mathias, Carlos
and Saraiva, Cecília and Moreira, Daniel and Carvalho,
Hugo and Pitombeira, Liduino and Gentil-Nunes, Pauxy and
Mesz, Bruno and Amster, Pablo and Riera, Pablo},
year = {2022},
title = {Music and {Mathematics} in {Latin} {America}: {Major}
{Developments} in the {Last} 25 {Years}},
volume = {6},
issn = {25263757},
shorttitle = {Music and {Mathematics} in {Latin} {America}},
url = {https://musmat.org/wp-content/uploads/2022/06/02-Pareyon-et-al-V6N1_2022.pdf},
doi = {10.46926/musmat.2022v6n1.12-47},
abstract = {This text is an overview for Latin America across the
field of music and musicology intersecting mathematics,
including the advances from perspectives of
experimentation, creation, analysis and pedagogy
throughout interdisciplinary developments, particularly in
the field of computational science and philosophy of
science. Our main goal is to spread worldwide the richness
and variety of research on music and mathematics in Latin
America as well as stimulate further investigation in this
fascinating intersection.},
language = {en},
number = {1},
urldate = {2022-07-08},
journal = {MusMat: Brazilian Journal of Music and Mathematics},
month = jun,
pages = {12--47}
}
@Article{ sampaio.ea2022-new,
author = {{Sampaio}, {Marcos da Silva} and Gentil-Nunes, Pauxy and
Oliveira, Vicente Sanches de and Oliveira, Sidnei Marques
de and Oliveira, Jaderson Cardona},
year = {2022},
title = {New Visual Tools for Rhythmic Partitioning Analysis of
Musical Texture},
abstract = {The Partitional Theory of Texture provides a graphical
tool, the partitiogram, to show relations between textural
partitions. Despite its great utility, the partitiogram
does not identify the occurrence frequency of each
partition in a piece. In this paper, we propose two new
partitiograms to represent partitions' occurrence
frequency and to show partitions' differences among the
sections of a given piece. The proposed tools made it
possible to identify relevant aspects of the texture in
nine works analyzed.},
doi = {10.52930/mt.v7i2.240},
journal = {Revista Musica Theorica},
keywords = {Rhythmic Partitioning Analysis, Textural Analysis, Music
Analysis, Python scripts, Music21},
number = {2},
pages = {215--246},
url = {https://revistamusicatheorica.tema.mus.br/index.php/musica-theorica/article/view/240},
volume = {7}
}
@Article{ sampaio.ea2022-python,
author = {{Sampaio}, {Marcos da Silva} and Gentil-Nunes, Pauxy},
year = {2022},
title = {Python Scripts for Rhythmic Partitioning Analysis},
abstract = {The Rhythmic Partitioning Analysis demands laborious
tasks on segmentation and agglomeration/dispersion
calculus. Parsemat software runs these tasks and renders
indexogram and partitiogram charts. In the present paper,
we introduce the Rhythmic Partitioning Scripts (RP
Scripts) as an application of Rhythmic Partitioning in the
Python environment. It adds some features absent in
Parsemat, such as the access to measure indications of
each partition, introduction of rest handling, annotation
of texture info into digital scores, and other
improvements. The RP Scripts collect musical events'
locations and output locations and partitions' data into
CSV files, render indexogram/partitiogram charts, and
generate annotated MusicXML score files. RP Scripts have
three components: calculator (RPC), plotter (RPP), and
annotator (RPA) scripts.},
journal = {MusMat - Brazilian Journal of Music and Mathematics},
keywords = {Rhythmic Partitioning Analysis, Textural Analysis, Music
Analysis, Python scripts, Music21},
month = {12},
number = {2},
pages = {17--55},
url = {https://musmat.org/wp-content/uploads/2022/12/02-Sampaio-Gentil-Nunes-V6N2_2022.pdf},
volume = {6}
}
@Misc{ sampaio.ea2022-rp-scripts,
author = {{Sampaio}, {Marcos da Silva} and Gentil-Nunes, Pauxy},
year = {2022},
title = {{RP Scripts}: {Rhythmic} {Partitioning} {Scripts},
Release 1.0},
howpublished = "Available at \url{https://github.com/msampaio/rpScripts}.
Accessed on Dec. 16, 2022"
}
@Misc{ sampaio2022-music,
author = {{Sampaio}, {Marcos da Silva}},
year = {2022},
title = {Music Tools},
url = {https://tools.sampaio.me}
}
@Article{ wallentinsen2022-fuzzy,
author = {Wallentinsen, Kristen},
year = {2022},
title = {Fuzzy {Family} {Ties}: {New} {Methods} for {Measuring}
{Familial} {Similarity} between {Contours} of {Variable}
{Cardinality}},
volume = {66},
issn = {0022-2909, 1941-7497},
url = {https://read.dukeupress.edu/journal-of-music-theory/article/66/1/93/313635/Fuzzy-Family-TiesNew-Methods-for-Measuring},
doi = {10.1215/00222909-9534151},
abstract = {Melodic contour is one of a melody's defining
characteristics. Music theorists such as Michael
Friedmann, Robert Morris, Elizabeth West Marvin and Paul
Laprade, and Ian Quinn have developed mod els for
evaluating similarities between contours, but only a few
comp are similarities between pairs of contours with
different lengths, and fewer still can measure shared
characteristics among an entire family of contours. This
article introduces a new method for evaluating familial
similarities between related con tours, even if the
contours have different cardinalities. The model extends
theories of contour transforma tion by using fuzzy set
theory and probability, measuring a contour's degree of
familial membership by examining the contour's
transformational pathway and calculating the probability
that each move in the pathway is shared by other family
members. Through the potential of differing alignments
along these pathways, the model allows for the possibility
that pathways may be omitted or inserted within a contour
that exhibits familial resemblance, despite its different
cardinality. The analytical utility of the model is then
demonstrated through an analysis of melodic possibility in
phased portions of Steve Reich's The Desert Music.
Integrating variable cardinality into contour similarity
relations in this way more adequately accounts for
familial relationships between contours and can provide
new and valuable insights into one of music's most
fundamental elements.},
language = {en},
number = {1},
urldate = {2022-08-21},
journal = {Journal of Music Theory},
month = apr,
tags = {music contour},
pages = {93--128}
}
@InProceedings{ carnovalini.ea2021-studying,
author = {Carnovalini, Filippo and Harley, Nicholas and Homer,
Steve and Rod, Antonio},
year = {2021},
title = {Studying Structural Regularities through Abstraction
Trees},
booktitle = {Proceedings of the 15th International Symposium on CMMR,
Online, Nov. 15-19},
keywords = {computational musicology,music
representations,schenkerian analysis,structure},
mendeley-tags= {computational musicology},
pages = {165--174}
}
@Article{ conklin2021-mining,
author = {Conklin, Darrell},
year = {2021},
title = {Mining contour sequences for significant closed
patterns},
abstract = {Sequential pattern mining in music is a central part of
automated music analysis and music generation. This paper
evaluates sequential pattern mining on a corpus of
Mozarabic chant neume sequences that have been annotated
by a musicologist with intra-opus patterns. Significant
patterns are discovered in three settings: all closed
patterns, maximal closed patterns, and minimal closed
patterns. Each setting is evaluated against the annotated
patterns using the measures of recall and precision. The
results indicate that it is possible to retrieve all known
patterns with an acceptable precision using significant
closed pattern discovery.},
doi = {10.1080/17459737.2021.1903591},
journal = {Journal of Mathematics and Music},
keywords = {music contour},
mendeley-tags= {music contour},
number = {0},
pages = {1--13},
publisher = {Taylor \& Francis},
url = {https://doi.org/10.1080/17459737.2021.1903591},
volume = {0}
}
@InProceedings{ cornelissen.ea2021-cosine,
author = {Cornelissen, Bas and Zuidema, Willem and Burgoyne, John
Ashley},
year = {2021},
title = {Cosine contours: a multipurpose representation for
melodies},
booktitle = {Proceedings of 22nd International Society for Music
Information Retrieval Conference},
keywords = {music contour},
mendeley-tags= {music contour}
}
@Article{ gao.ea2021-statistical,
author = {Gao, Linlin and Shen, He and Liu, Chang},
year = {2021},
title = {Statistical analysis of songs by composers of the
Romantic era : A comparison of F . Schubert and his
contemporaries},
doi = {10.5216/mh.v21.69875},
journal = {Musica Hodie},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
volume = {1}
}
@Article{ harasim.ea2021-exploring,
author = {Harasim, Daniel and Moss, Fabian C. and Ramirez, Matthias
and Rohrmeier, Martin},
year = {2021},
title = {Exploring the foundations of tonality: statistical
cognitive modeling of modes in the history of Western
classical music},
abstract = {Tonality is one of the most central theoretical concepts
for the analysis of Western classical music. This study
presents a novel approach for the study of its historical
development, exploring in particular the concept of mode.
Based on a large dataset of approximately 13,000 musical
pieces in MIDI format, we present two models to infer both
the number and characteristics of modes of different
historical periods from first principles: a geometric
model of modes as clusters of musical pieces in a
non-Euclidean space, and a cognitively plausible Bayesian
model of modes as Dirichlet distributions. We use the
geometric model to determine the optimal number of modes
for five historical epochs via unsupervised learning and
apply the probabilistic model to infer the characteristics
of the modes. Our results show that the inference of four
modes is most plausible in the Renaissance, that two
modes–corresponding to major and minor–are most
appropriate in the Baroque and Classical eras, whereas no
clear separation into distinct modes is found for the 19th
century.},
doi = {10.1057/s41599-020-00678-6},
issn = {26629992},
journal = {Humanities and Social Sciences Communications},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
number = {1},
publisher = {Springer US},
url = {http://dx.doi.org/10.1057/s41599-020-00678-6},
volume = {8}
}
@Article{ hentschel.ea2021-annotated,
author = {Hentschel, Johannes and Neuwirth, Markus and Rohrmeier,
Martin},
year = {2021},
title = {The Annotated Mozart Sonatas: Score, Harmony, and
Cadence},
abstract = {This article describes a new expert-labelled dataset
featuring harmonic, phrase, and cadence analyses of all
piano sonatas by W.A. Mozart. The dataset draws on the
DCML standard for harmonic annotation and is being
published adopting the FAIR principles of Open Science.
The annotations have been verified using a data
triangulation procedure which is presented as an
alternative approach to handling annotator subjectivity.
This procedure is suited for ensuring consistency, within
the dataset and beyond, despite the high level of
analytical detail afforded by the employed harmonic
annotation syntax. The harmony labels also encode
contextual information and are therefore suited for
investigating music theoretical questions related to tonal
harmony and the harmonic makeup of cadences in the
classical style. Apart from providing basic statistical
analyses characterizing the dataset, its music theoretical
potential is illustrated by two preliminary experiments,
one on the terminal harmonies of cadences and the other on
the relation between performance durations and harmonic
density. Furthermore, particular features can be selected
to produce more coarse-grained training data, for example
for chord detection algorithms that require less
analytical detail. Facilitating the dataset's reusability,
it comes with a Python script that allows researchers to
easily access various representations of the data tailored
to their particular needs.},
doi = {10.5334/tismir.63},
issn = {2514-3298},
journal = {Transactions of the International Society for Music
Information Retrieval},
keywords = {cadence,classical style,computational
musicology,expert-annotated dataset,piano music,tonal
harmony},
mendeley-tags= {computational musicology},
month = {may},
number = {1},
pages = {67--80},
url = {http://transactions.ismir.net/articles/10.5334/tismir.63/},
volume = {4}
}
@InProceedings{ hu.ea2021-statistical,
author = {Hu, Tianxue and Arthur, Claire},
year = {2021},
title = {A Statistical Model for Melody Reduction},
booktitle = {Proceedings of the Future Directions of Music Cognition
International Conference},
keywords = {music and mathematics},
mendeley-tags= {music and mathematics},
pages = {1--5}
}
@Article{ moss.ea2021-discovering,
author = {Moss, Fabian Claude and Rohrmeier, Martin},
year = {2021},
title = {Discovering Tonal Profiles with Latent Dirichlet
Allocation},
abstract = {Music analysis, in particular harmonic analysis, is
concerned with the way pitches are organized in pieces of
music, and a range of empirical applications have been
developed, for example, for chord recognition or key
finding. Naturally, these approaches rely on some
operationalization of the concepts they aim to
investigate. In this study, we take a complementary
approach and discover latent tonal structures in an
unsupervised manner. We use the topic model Latent
Dirichlet Allocation and apply it to a large historical
corpus of musical pieces from the Western classical
tradition. This method conceives topics as distributions
of pitch classes without assuming a priori that they
correspond to either chords, keys, or other harmonic
phenomena. To illustrate the generative process assumed by
the model, we create an artificial corpus with arbitrary
parameter settings and compare the sampled pieces to real
compositions. The results we obtain by applying the topic
model to the musical corpus show that the inferred topics
have music-theoretically meaningful interpretations. In
particular, topics cover contiguous segments on the line
of fifths and mostly correspond to diatonic sets.
Moreover, tracing the prominence of topics over the course
of music history over [Formula: see text]600 years
reflects changes in the ways pitch classes are employed in
musical compositions and reveals particularly strong
changes at the transition from common-practice to extended
tonality in the 19th century.},
doi = {10.1177/20592043211048827},
isbn = {2059204321},
issn = {2059-2043},
journal = {Music & Science},
keywords = {computational musicology,corpus studies,latent dirichlet
allocation,tonal pitch classes,tonality,topic modelling},
mendeley-tags= {computational musicology},
month = {jan},
url = {http://journals.sagepub.com/doi/10.1177/20592043211048827},
volume = {4}
}
@Article{ ng2021-end-accented,
author = {Ng, Samuel},
year = {2021},
title = {End-Accented Sentences: Towards a Theory of
Phrase-Rhythmic Progression},
abstract = {For centuries, theorists have debated whether musical
phrases are normatively beginning-accented or
end-accented. The last two decades of the twentieth
century gave beginning-accented rhythm the upper hand;
yet, recent work on end-accented phrases has reinvigorated
the debate. I contribute to this discussion in two ways.
First, I aim to rehabilitate a central position of
end-accented rhythm by drawing attention to
phrase-rhythmic tendencies in classical sentence
structure. My analyses show that end-accented sentential
schemas are well-established compositional options in
various action spaces—including Primary and Secondary
Themes—in late eighteenth- and early nineteenth-century
instrumental music. Moreover, integral roles of
end-accented sentential themes are substantiated by their
production—in tandem with their beginning-accented
counterparts—of large-scale progressions analogous to
tonal and formal ones. Awareness of these sentential
themes re-energizes the century-old debate and deepens our
understanding of phrase rhythm as a source of musical
meaning. Second, in order to achieve the first goal, I
develop a theory of phrase-rhythmic progression for
categorizing phrase-rhythmic types and mapping their
trajectories. This theory fills a gap in current spatial
representations of rhythm and meter, which focus on metric
dissonances and hierarchies without considerations of
phrase–meter interaction.},
doi = {10.1093/mts/mtaa018},
issn = {0195-6167},
journal = {Music Theory Spectrum},
keywords = {beginning-accented phrases,end-accented
phrases,narrative,phrase
rhythm,representation,schema,sentence,spatial},
month = {jan},
url = {https://academic.oup.com/mts/advance-article/doi/10.1093/mts/mtaa018/6131575}
}
@InProceedings{ parada-cabaleiro.ea2021-automatic,
author = {Parada-cabaleiro, Emilia and Schmitt, Maximilian and
Batliner, Anton and Schuller, Bj{\"{o}}rn and Schedl,
Markus},
year = {2021},
title = {Automatic recognition of texture in Renaissance Music},
abstract = {Renaissance music constitutes a resource of immense rich-
ness for Western culture, as shown by its central role in
digital humanities. Yet, despite the advance of computa-
tional musicology in analysing other Western repertoires,
the use of computer-based methods to automatically re-
trieve relevant information from Renaissance music, e. g.,
identifying word-painting strategies such as madrigalisms,
is still underdeveloped. To this end, we propose a score-
based machine learning approach for the classification of
texture in Italian madrigals of the 16th century. Our out-
comes indicate that Low Level Descriptors, such as inter-
vals, can successfully convey differences in High Level
features, such as texture. Furthermore, our baseline re-
sults, particularly the ones from a Convolutional Neural
Network, show that machine learning can be successfully
used to automatically identify sections in madrigals asso-
ciated with specific textures from symbolic sources. 1.},
booktitle = {Proceedings of 22nd International Society for Music
Information Retrieval Conference},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {509--516}
}
@Article{ raz.ea2021-mozart,
author = {Raz, Omer and Chawin, Dror and Rom, Uri B.},
year = {2021},
title = {The Mozart Expositional Punctuation Corpus: A Dataset of
Interthematic Cadences in Mozart's Sonata-Allegro
Exposition},
abstract = {This report documents a dataset consisting of expert
annotations (symbolic data) of interthematic
(higher-level) cadences in the exposition sections of all
of Mozart's instrumental sonata-allegro movements.},
doi = {10.18061/emr.v16i1.7648},
issn = {1559-5749},
journal = {Empirical Musicology Review},
keywords = {cadence,classical style,computational musicology,digital
musicology,expert-,musical form},
mendeley-tags= {computational musicology},
month = {dec},
number = {1},
pages = {134--144},
url = {https://emusicology.org/article/view/7648},
volume = {16}
}
@InProceedings{ schmuckler.ea2021-rhythm,
author = {Schmuckler, Mark A. and Moranis, Rebecca},
year = {2021},
title = {Rhythm contour drives musical memory},
url = {https://kb.osu.edu/handle/1811/93166},
doi = {10.18061/FDMC.2021.0045},
abstract = {Two experiments examined listeners' use of contour
information to drive memory for rhythmic patterns; these
experiments were distinguished by the use of metric
rhythms (Experiment 1) and ametric rhythms (Experiment 2).
Both experiments employed a typical short-term memory task
in which listeners heard a standard rhythm followed by a
comparison rhythm. Comparison rhythms could be one of
three types: an exact repetition of the standard rhythm, a
same contour rhythm in which the relative durations of
successive notes were comparable to the standard, and a
different contour rhythm in which the relative durations
of successive notes were modified relative to the
standard. Analyses of d primes for same/different
detection revealed that, for both studies, listeners
performed better when the comparisons had different rhythm
contours, relative to comparisons with the same rhythm
contours. These findings converge with results
investigating melodic contour, and suggest that listeners
both form and use contours of novel rhythmic patterns.},
language = {en},
urldate = {2022-08-21},
booktitle = {Future {Directions} of {Music} {Cognition}},
publisher = {The Ohio State University Libraries},
tags = {music contour},
month = dec
}
@InProceedings{ soum-fontez.ea2021-symbolic,
author = {Soum-fontez, Louis and Giraud, Mathieu},
year = {2021},
title = {Symbolic Textural Features and Melody / Accompaniment
Detection in String Quartets},
booktitle = {Proceedings of the 15th International Symposium on CMMR,
Online, Nov. 15-19},
keywords = {computational musicology},
mendeley-tags= {computational musicology}
}
@Article{ sousa2021-measuring,
author = {de Sousa, Daniel Moreira},
year = {2021},
title = {Measuring the Amount of Freedom for Compositional Choices
in a Textural Perspective Daniel Moreira de Sousa},
abstract = {In this paper I discuss the relation between the number
of available compositional choices and the complexity in
dealing with them in the scope of musical texture. First,
I discuss the paradigm of compositional choice in light of
the number of variables for a given situation. Then, I
introduce the concept of compositional entropy-–a
proposal for measuring the amount of freedom that is
implied in each compositional choice when selecting a
given musical object. This computation depends on the
number of available variables provided by the chosen
musical object so that the higher the compositional
entropy, the more complex is the choosing process as it
provides a high number of possibilities to be chosen. This
formulation enables the discussion of compositional
choices in a view of probability and combinatorial
permutations. In the second part of the article, I apply
this concept in the textural domain. To do so, I introduce
a series of concepts and formulations regarding musical
texture to enable such a discussion. Finally, I
demonstrate how to measure the compositional entropy of
textures, considering both the number of possible textural
configurations a composer may manage for a given number of
sound- ing components (exhaustive taxonomy of textures)
and how many different ways a given configuration can be
realized as music in the score, considering only textural
terms (exhaustive taxonomy of realizations).},
doi = {10.46926/musmat.2021v5n1.126-156},
journal = {MusMat: Brazilian Journal of Music and Mathematics},
keywords = {Compositional entropy. Musical texture. Textural l,music
texture},
mendeley-tags= {music texture},
number = {1},
pages = {126--156},
volume = {V}
}
@PhDThesis{ wargelin2021-evaluation,
author = {Wargelin, Matias},
year = {2021},
title = {An evaluation of musical pattern discovery algorithms
using a visualisation application},
keywords = {computer and music},
mendeley-tags= {computer and music},
school = {University of Helsinki},
type = {Master's Thesis}
}
@Article{ braga.ea2020-implementacao,
author = {Braga, Vinicius and Penchel, Jo{\~{a}}o and Chagas, Igor
and Furman, Rodrigo and Proen{\c{c}}a, Pedro and
Pitombeira, Liduino},
year = {2020},
title = {Implementa{\c{c}}{\~{a}}o de um sistema composicional
semiaberto a partir da similaridade entre conjuntos de
classes de notas},
abstract = {Este trabalho descreve a formaliza{\c{c}}{\~{a}}o e
aplica{\c{c}}{\~{a}}o de um sistema composicional,
denominado Similare, que articula micro e macroestrutura
tomando como base as rela{\c{c}}{\~{o}}es de similaridade
entre conjuntos de classes de notas. Ap{\'{o}}s o exame
detalhado dos dois referenciais que d{\~{a}}o
sustenta{\c{c}}{\~{a}}o te{\'{o}}rica ao trabalho
(sistemas composicionais e similaridade), o sistema foi
definido e, a partir dele, duas obras foram planejadas:
uma para quarteto de cordas e outra para piano solo.
Durante o processo de pesquisa, aplicativos em Python
foram elaborados para auxiliar os compositores na
manipula{\c{c}}{\~{a}}o dos conjuntos.},
doi = {10.20504/opus2020b2611},
issn = {15177017},
journal = {OPUS},
keywords = {Implementation,Sistemas Composicionais. Planejamento
Composiciona,music similarity},
mendeley-tags= {music similarity},
month = {oct},
number = {2},
pages = {1},
url = {https://www.anppom.com.br/revista/index.php/opus/article/view/opus2020b2611},
volume = {26}
}
@PhDThesis{ chapman2020-digital,
author = {Chapman, Katie Elizabeth},
year = {2020},
title = {Digital Approaches to Troubadour Song},
abstract = {The troubadours were poet-composers who flourished in
Occitania (today southern France) and surrounding areas
during the twelfth and thirteenth centuries. Their lyric
poems survive in chansonniers (songbooks) which usually
contain only the texts. A fraction of the melodies that
accompanied these poems were written down; fewer than 350
melodies survive for a lyric corpus of over 2,600 songs
which appear over 13,000 times in all extant sources. This
dissertation is part of a larger project whose aim is
twofold: to create an openaccess, electronic, searchable
archive of these melodies and to apply computational
methods of analysis to identify the musical
characteristics of the melodies, find patterns and
relationships, and track trends in style both over time
and within the works of individual authors. In this study,
I first illustrate the methodology I followed to assess
and encode the corpus of troubadour melodies and give an
overview of the types of tools used to analyze the encoded
melodies. In the subsequent chapters, I present five case
studies which investigate musical features of the
repertory through computational and statistical
approaches, where I confirm, revise, or expand on existing
knowledge of the repertory. The first case study
identifies the extent and features of Guiraut Riquier's
melismatic writing by applying analytical techniques
typically used to analyze textual corpora. The second case
study applies a different technique borrowed from
computational linguistics, Latent Semantic Analysis (LSA),
to track the similarity of melodies with versions extant
in multiple sources and to compare the phrases of melodies
in one manuscript which have notation for more than one
stanza. The three case studies in Chapter III adopt other
analytical approaches to investigate and compare the pitch
and interval content of the melodies. These studies help
identify patterns in pitch organization in the entire
repertory, point out stylistic trends of specific
troubadours, and compare selected musical features by
source. Overall, this study demonstrates the possibilities
of computational approaches to contribute to existing
scholarship on this repertory. Furthermore, the digital
archive created for this project aims to empower
additional research on the music of the troubadours,
including the study of corpus-wide characteristics, the
analysis of stylistic traits in specific authors or
sources, and changes in style over the course of the
tradition.},
keywords = {computational musicology,digital
musicology,musicology,troubadours},
mendeley-tags= {musicology},
school = {Indiana University},
type = {Ph.D. Dissertation},
url = {https://scholarworks.iu.edu/dspace/handle/2022/25114}
}
@InProceedings{ cornelissen.ea2020-mode,
author = {Cornelissen, Bas and Zuidema, Willen and Burgoyne, John
Ashley},
year = {2020},
title = {Mode classification and natural units in plainchant},
address = {Montr{\'{e}}al, Canada},
booktitle = {Proceedings of 21th International Society for Music
Information Retrieval Conference},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
url = {https://program.ismir2020.org/poster_232.html}
}
@InProceedings{ cornelissen.ea2020-studying,
author = {Cornelissen, Bas and Zuidema, Willem and Burgoyne, John
Ashley},
year = {2020},
title = {Studying Large Plainchant Corpora Using chant21},
address = {Montr{\'{e}}al, Canada},
booktitle = {Proceedings of 7th International Conference on Digital
Libraries for Musicology},
keywords = {2020,acm reference format,and john ashley burgoyne,bas
cornelissen,computational
musicology,datasets,differentia,gabc,melodic
arch,plainchant,study-,volpiano,willem zuidema},
mendeley-tags= {computational musicology},
url = {https://dlfm.web.ox.ac.uk/}
}
@Article{ couprie2020-quelques,
author = {Couprie, Pierre},
year = {2020},
title = {Quelques propos sur les outils et les méthodes
audionumériques en musicologie. {L}'interdisciplinarité
comme rupture épistémologique},
volume = {6},
issn = {2368-7061},
url = {http://id.erudit.org/iderudit/ 1068384ar},
doi = {10.7202/1068384ar},
abstract = {From the first uses of databases in the 1970s to recent
research on the analysis of audio files, musicologists
have progressively integrated digital technologies into
their working methods. However, while some software such
as iAnalyse offers interfaces adapted to the human
sciences, it has been observed that these technologies are
still difficult to manipulate without a solid knowledge of
computer science or acoustics. In this article, the author
presents an interdisciplinary practice of research at the
heart of digital musicology that covers a very wide field
of activities ranging from the use of software to improve
existing methods to the development of new methods that
are necessary to study specific corpus. In this case, the
deep transformation of the nature of musicological
practice itself, the move towards a hybrid discipline and
the change of perspective on a complex musical object
highlight a real epistemological rupture.},
language = {fr},
number = {2},
urldate = {2023-04-12},
journal = {Revue musicale OICRM},
month = mar,
pages = {25--44}
}
@Article{ devaney2020-using,
author = {Devaney, Johanna},
year = {2020},
title = {Using Note-Level Music Encodings to Facilitate
Interdisciplinary Research on Human Engagement with
Music},
abstract = {Music encoding can link disparate types of musical data
for the purposes of archiving and search. The encoding of
human response data explicitly in relation to musical
notes facilitates the study of the ways humans engage with
music as performers and listeners. This paper reflects on
the developments and trends in formal music encoding
systems as well as the types of data representations used
in corpora released by researchers working on expert music
analyses, musical performances, and listener responses. It
argues that while the specificity (and often simplicity)
afforded by project-specific encoding formats may be
useful for individual research projects, larger-scale
interdisciplinary research would be better served by
explicit, formalized linking of data to specific musical
elements. The paper concludes by offering some concrete
suggestions for how to achieve this goal.},
doi = {10.5334/tismir.56},
issn = {2514-3298},
journal = {Transactions of the International Society for Music
Information Retrieval},
keywords = {computational musicology,listener,music analysis,music
encoding,music performance,musical elements,musical
notes},
mendeley-tags= {computational musicology},
month = {oct},
number = {1},
pages = {205--217},
url = {http://transactions.ismir.net/articles/10.5334/tismir.56/},
volume = {3}
}
@InProceedings{ finkensiep.ea2020-voice-leading,
author = {Finkensiep, Christoph and D{\'{e}}guernel, Ken and
Neuwirth, Markus and Rohrmeier, Martin},
year = {2020},
title = {Voice-Leading Schema Recognition Using Rhythm and Pitch
Features},
address = {Montr{\'{e}}al, Canada},
booktitle = {Proceedings of 21st International Conference on Music
Information Retrieval},
keywords = {computer and music},
mendeley-tags= {computer and music},
pages = {520--526}
}
@Article{ frieler2020-miles,
author = {Frieler, Klaus},
year = {2020},
title = {Miles Vs. Trane: Computational and Statistical Comparison
of the Improvisatory Styles of Miles Davis and John
Coltrane},
abstract = {Much has been written about John Coltrane and Miles
Davis, from autobiographical works to detailed
musicological analyses and cultural/sociological accounts
of their lives, work, and legacy. Fewer publications are
concerned with a direct comparison of both artists'
approach to improvisation. I introduce a new analytical
perspective, developed in the context of the Jazzomat
Research Project, by using computational and statistical
methods. Based on a large set of solo transcriptions taken
from the Weimar Jazz Database spanning different stylistic
phases for both artists (20 solos by Coltrane and 19 solos
by Davis), I identify common and differing stylistic
traits. This approach utilizes a set of 143 musical
features extracted from the solos. Results indicate that
both players differ in quite many aspects. Clich{\'{e}}s
of the “extroverted” style of Coltrane and the
“introverted” style of Davis are evidenced by vastly
different note densities and overall spacing of phrases.
Some surprising and subtle differences also showed up. For
instance, Davis has a tendency to avoid the third of the
underlying chord and also major and minor third intervals,
whereas Coltrane has a preference for playing out chords.
Furthermore, both players seem to have no large overlap in
their respective pattern vocabularies.},
doi = {10.1080/17494060.2020.1734053},
issn = {1749-4060},
journal = {Jazz Perspectives},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
month = {jan},
number = {1},
pages = {123--145},
publisher = {Taylor \& Francis},
url = {https://www.tandfonline.com/doi/full/10.1080/17494060.2020.1734053},
volume = {12}
}
@Book{ gerling.ea2020-glossario,
author = {Gerling, Cristina Capparelli and de Barros, Guilherme
Sauerbronn},
year = {2020},
title = {Gloss{\'{a}}rio de termos schenkerianos},
address = {Salvador, BA},
isbn = {9786599193903},
keywords = {music theory},
mendeley-tags= {music theory},
publisher = {TeMA}
}
@Article{ inman2020-reprise,
author = {Inman, Samantha M.},
year = {2020},
title = {Reprise Structures in Haydn's Op. 50 Minuets},
issn = {02718022, 24747777},
journal = {Indiana Theory Review},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {1-2},
pages = {23--55},
publisher = {Department of Music Theory, Jacobs School of Music,
Indiana University, Indiana University Press, Trustees of
Indiana University},
url = {https://www.jstor.org/stable/10.2979/inditheorevi.36.1-2.02},
volume = {36}
}
@Article{ karystinaios.ea2020-music,
author = {Karystinaios, Emmanouil and Guichaoua, Corentin and
Andreatta, Moreno and Bigo, Louis and Bloch, Isabelle},
year = {2020},
title = {Music genre descriptor for classification based on
tonnetz trajectories},
journal = {Journ{\'{e}}es d'Informatique Musicale},
keywords = {music information retrieval},
mendeley-tags= {music information retrieval}
}
@Article{ khulusi.ea2020-survey,
author = {Khulusi, R. and Kusnick, J. and Meinecke, C. and
Gillmann, C. and Focht, J. and J{\"{a}}nicke, S.},
year = {2020},
title = {A Survey on Visualizations for Musical Data},
abstract = {Digital methods are increasingly applied to store,
structure and analyse vast amounts of musical data. In
this context, visualization plays a crucial role, as it
assists musicologists and non-expert users in data
analysis and in gaining new knowledge. This survey focuses
on this unique link between musicology and visualization.
We classify 129 related works according to the visualized
data types, and we analyse which visualization techniques
were applied for certain research inquiries and to fulfill
specific tasks. Next to scientific references, we take
commercial music software and public websites into
account, that contribute novel concepts of visualizing
musicological data. We encounter different aspects of
uncertainty as major problems when dealing with
musicological data and show how occurring inconsistencies
are processed and visually communicated. Drawing from our
overview in the field, we identify open challenges for
research on the interface of musicology and visualization
to be tackled in the future.},
doi = {10.1111/cgf.13905},
issn = {14678659},
journal = {Computer Graphics Forum},
keywords = {computational musicology,information
visualization,visualization},
mendeley-tags= {computational musicology},
number = {00},
pages = {1--28},
volume = {00}
}
@InProceedings{ kirlin2020-corpus-based,
author = {Kirlin, Phillip B},
year = {2020},
title = {A corpus-based analysis of syncopated patterns in
Ragtime},
address = {Montr{\'{e}}al, Canada},
booktitle = {Proceedings of 21th International Society for Music
Information Retrieval Conference},
keywords = {music information retrieval},
mendeley-tags= {music information retrieval}
}
@InProceedings{ kranenburg2020-rule,
author = {van Kranenburg, Peter},
year = {2020},
title = {Rule mining for local boundary detection in melodies},
address = {Montr{\'{e}}al, Canada},
booktitle = {Proceedings of 21st International Conference on Music
Information Retrieval},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {271--278}
}
@InProceedings{ kutschke.ea2020-historiography,
author = {Kutschke, Beate Ruth and Bachmann, Tobias},
year = {2020},
title = {Historiography of the form of symbolic music through a
computer-assisted analysis},
address = {Torino},
booktitle = {Proceedings of the 17th Sound and Music Computing
Conference},
keywords = {music information retrieval},
mendeley-tags= {music information retrieval},
pages = {386--393}
}
@Article{ laskowska.ea2020-grouping,
author = {Laskowska, Barbara and Kamola, Mariusz},
year = {2020},
title = {Grouping compositions based on similarity of music
themes},
doi = {10.1371/journal.pone.0240443},
editor = {Amancio, Diego Raphael},
isbn = {1111111111},
issn = {1932-6203},
journal = {PLoS ONE},
keywords = {music similarity},
mendeley-tags= {music similarity},
month = {oct},
number = {10},
url = {http://dx.doi.org/10.1371/journal.pone.0240443
https://dx.plos.org/10.1371/journal.pone.0240443},
volume = {15}
}
@Article{ lieck.ea2020-tonal,
author = {Lieck, Robert and Moss, Fabian Claude and Rohrmeier,
Martin},
year = {2020},
title = {The Tonal Diffusion Model},
keywords = {bayesian generative model,cognitive modeling,music
theory,pitch-class distributions,tonality,tonnetz},
mendeley-tags= {music theory},
pages = {153--164},
url = {https://transactions.ismir.net/articles/10.5334/tismir.46/},
volume = {3}
}
@Article{ mackay2020-joseph,
author = {MacKay, James S.},
year = {2020},
title = {Joseph {Haydn} and the {New} {Formenlehre}: {Teaching}
{Sonata} {Form} with {His} {Solo} {Keyboard} {Works}},
volume = {10},
url = {https://remix.berklee.edu/haydn-journal/vol10/iss2/4},
number = {2},
tags = {music analysis},
journal = {HAYDN: Online Journal of the Haydn Society of North
America}
}
@Article{ micchi.ea2020-not,
author = {Micchi, Gianluca and Gotham, Mark and Giraud, Mathieu},
year = {2020},
title = {Not All Roads Lead to Rome: Pitch Representation and
Model Architecture for Automatic Harmonic Analysis},
abstract = {Automatic harmonic analysis has been an enduring focus of
the MIR community, and has enjoyed a particularly vigorous
revival of interest in the machine-learning age. We focus
here on the specific case of Roman numeral analysis which,
by virtue of requiring key/functional information in
addition to chords, may be viewed as an acutely
challenging use case. We report on three main
developments. First, we provide a new meta-corpus bringing
together all existing Roman numeral analysis datasets;
this offers greater scale and diversity, not only of the
music represented, but also of human analytical
viewpoints. Second, we examine best practices in the
encoding of pitch, time, and harmony for machine learning
tasks. The main contribution here is the introduction of
full pitch spelling to such a system, an absolute must for
the comprehensive study of musical harmony. Third, we
devised and tested several neural network architectures
and compared their relative accuracy. In the
best-performing of these models, convolutional layers
gather the local information needed to analyse the chord
at a given moment while a recurrent part learns
longer-range harmonic progressions. Altogether, our best
representation and architecture produce a small but
significant improvement on overall accuracy while
simultaneously integrating full pitch spelling. This
enables the system to retain important information from
the musical sources and provide more meaningful
predictions for any new input.},
doi = {10.5334/tismir.45},
journal = {Transactions of the International Society for Music
Information Retrieval},
keywords = {1,1 key,chords and functional harmony,computational
musicology,corpus,functional harmony,introduction,is
common to a,machine learning,motivation,pitch
encoding,previous work,roman numeral analysis,some sense
of,tonal harmony,very wide},
mendeley-tags= {computational musicology},
number = {1},
pages = {42--54},
volume = {3}
}
@Article{ mor.ea2020-systematic,
author = {Mor, Bhavya and Garhwal, Sunita and Kumar, Ajay},
year = {2020},
title = {A Systematic Literature Review on Computational
Musicology},
abstract = {Heartbeat retains a musical rhythm and music speaks
whenever words fail. This paper provides a systematic
review of the papers related to computational musicology.
This surveys 136 papers in more than 40 Journals and
various Conference proceedings. The paper discusses the
computational aspects of various music operations such as
composition, analysis, retrieval, classification and
implicit learning. The authors evaluate the literature
based on multiple computational fields like formal
grammar, hidden Markov model, n-gram, finite-state
machine, finite-state transducer and artificial grammar
learning. The paper aims to generate a comprehensive
description of research on computational musicology.
Throughout the paper, the significant trends in research
on computational fields in music are summarized.},
doi = {10.1007/s11831-019-09337-9},
isbn = {0123456789},
issn = {18861784},
journal = {Archives of Computational Methods in Engineering},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
number = {3},
pages = {923--937},
publisher = {Springer Netherlands},
url = {https://doi.org/10.1007/s11831-019-09337-9},
volume = {27}
}
@Article{ moss.ea2020-harmony,
author = {Moss, Fabian Claude and de Souza, Willian Fernandes and
Rohrmeier, Martin},
year = {2020},
title = {Harmony and Form in Brazilian Choro: A Corpus-Driven
Approach to Musical Style Analysis},
doi = {10.1080/09298215.2020.1797109},
issn = {xxxx-xxxx},
journal = {Journal of New Music Research},
keywords = {Choro,choro,computational musicology,corpus
study,form,harmony,musical style analysis},
mendeley-tags= {computational musicology},
number = {0},
pages = {1--22},
publisher = {Taylor \& Francis},
url = {https://doi.org/09298215.2020.1797109},
volume = {0}
}
@InProceedings{ munoz-lago.ea2020-symplot,
author = {Mu{\~{n}}oz-Lago, Paula and Llorens, Ana and
Parada-Cabaleiro, Emilia and Torrente, {\'{A}}lvaro},
year = {2020},
title = {SymPlot : A Web-Tool to Visualise Symbolic Musical Data},
address = {Melbourne, Australia},
booktitle = {Proc. 24th International Converence Information
Visualisation (IV)},
doi = {10.1109/IV51561.2020.00092},
isbn = {9781728191348},
keywords = {music visualization},
mendeley-tags= {music visualization},
pages = {515--521},
url = {https://conferences.computer.org/iv/pdfs/IV2020-5aDDWiHiJcr3O59ex2Ftp6/913400a515/913400a515.pdf}
}
@Article{ neubarth.ea2020-mining,
author = {Neubarth, Kerstin and Conklin, Darrell},
year = {2020},
title = {Mining Characteristic Patterns for Comparative Music
Corpus Analysis},
doi = {10.3390/app10061991},
journal = {Applied Sciences},
keywords = {characteristic pattern,computational
ethnomusicology,discriminant pattern,music analysis with
computers,music corpus analysis,native american
music,pattern discovery},
mendeley-tags= {music analysis with computers},
number = {6},
volume = {10}
}
@Article{ pitombeira2020-compositional,
author = {Pitombeira, Liduino},
year = {2020},
title = {Compositional Systems: Overview and Applications},
abstract = {In this paper the theory of compositional systems is
described in detail, taking as a starting point the
theoretical framework inherent to systems science. The
origins of this science and the definitions of its
fundamental concepts are provided in the first part of the
article, illustrated with musical examples. The central
part of the article contains the definition of the concept
of compositional system, its typology, and a series of
tools that are useful for implementations. Finally, the
design of three types of systems (open, semi-open and
feedback) are carried out in order to produce small
illustrative musical fragments.},
journal = {MusMat - Brazilian Journal of Music and Mathematics},
keywords = {compositional systems,music theory,probability,systemic
modeling,systems science},
tags = {music theory},
number = {1},
pages = {39--62},
url = {https://musmat.org/wp-content/uploads/2020/06/07-Pitombeira.pdf},
volume = {IV}
}
@InProceedings{ proutskova.ea2020-from,
author = {Proutskova, Polina and Volk, Anja and Fazekas,
Gy{\"{o}}rgy and Heidarian, Peyman},
year = {2020},
title = {From Music Ontology towards Ethno-Music-Ontology},
address = {Montr{\'{e}}al, Canada},
booktitle = {Proceedings of 21st International Conference on Music
Information Retrieval},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {923--931}
}
@Article{ sampaio.ea2020-quantitative,
author = {{Sampaio}, {Marcos da Silva} and de Oliveira, Vicente
Sanches and Travassos, Matheus and Castro, Carla},
year = {2020},
title = {A quantitative study of pitch registers in string
quartets opus 17, by Joseph Haydn},
abstract = {In this paper, we present an exploratory study of the
pitch registers on the string quartets Opus 17, by Joseph
Haydn, according to a quantitative approach. This subject
is relevant because the pitch registers studies have
revealed noteworthy issues in the Musical Analysis area,
the statistical techniques help to detect musical
subtleties with a small potential for bias, and because on
this corpus, Haydn has established standards for the
string quartet genre. The pitch registers study allowed us
to identify relevant musical aspects in the repertoire,
understand the role of extreme registers in the form
segmentation, and observe the prominence of the
development and second theme sections, and the feasibility
of the quantitative methods. We present a brief
theoretical foundation, the methodological framework, the
results of the investigation on the quartets' instrument
pitches, a discussion about these results, and the
conclusions.},
journal = {Musica Theorica},
keywords = {Digital Musicology,Joseph Haydn,Pitch
register,Quantitative analysis,String
quartet,computational musicology},
mendeley-tags= {computational musicology},
number = {1},
pages = {119--177},
url = {http://revistamusicatheorica.tema.mus.br/index.php/musica-theorica/article/view/128},
volume = {5}
}
@Article{ shaffer.ea2020-cluster,
author = {Shaffer, Kris and Vasiete, Esther and Jacquez, Brandon
and Davis, Aaron and Escalante, Diego and Hicks, Calvin
and McCann, Joshua and Noufi, Camille and Salminen, Paul},
year = {2020},
title = {A cluster analysis of harmony in the McGill Billboard
dataset},
abstract = {We set out to perform a cluster analysis of harmonic
structures (specifically, chord-to-chord transitions) in
the McGill Billboard dataset, to determine whether there
is evidence of multiple harmonic grammars and practices in
the corpus, and if so, what the optimal division of songs,
according to those harmonic grammars, is. We define
optimal as providing meaningful, specific information
about the harmonic practices of songs in the cluster, but
being general enough to be used as a guide to songwriting
and predictive listening. We test two hypotheses in our
cluster analysis — first that 5–9 clusters would be
optimal, based on the work of Walter Everett (2004), and
second that 15 clusters would be optimal, based on a set
of user-generated genre tags reported by Hendrik Schreiber
(2015). We subjected the harmonic structures for each song
in the corpus to a K-means cluster analysis. We conclude
that the optimal clustering solution is likely to be
within the 5--8 cluster range. We also propose that a map
of cluster types emerging as the number of clusters
increases from one to eight constitutes a greater aid to
our understanding of how various harmonic practices,
styles, and sub-styles comprise the McGill Billboard
dataset.},
doi = {10.18061/emr.v14i3-4.5576},
issn = {1559-5749},
journal = {Empirical Musicology Review},
keywords = {McGill Billboard dataset,cluster analysis,harmonic
syntax,machine learning,music analysis with
computers,pop/rock,rock,transitional
probability,visualization},
mendeley-tags= {music analysis with computers},
month = {jul},
number = {3-4},
pages = {146},
url = {https://emusicology.org/article/view/5576},
volume = {14}
}
@Article{ virtanen.ea2020-scipy,
author = {Virtanen, Pauli and Gommers, Ralf and Oliphant, Travis E.
and Haberland, Matt and Reddy, Tyler and Cournapeau, David
and Burovski, Evgeni and Peterson, Pearu and Weckesser,
Warren and Bright, Jonathan and {van der Walt}, St{\'e}fan
J. and Brett, Matthew and Wilson, Joshua and Millman, K.
Jarrod and Mayorov, Nikolay and Nelson, Andrew R. J. and
Jones, Eric and Kern, Robert and Larson, Eric and Carey, C
J and Polat, {\.I}lhan and Feng, Yu and Moore, Eric W. and
{VanderPlas}, Jake and Laxalde, Denis and Perktold, Josef
and Cimrman, Robert and Henriksen, Ian and Quintero, E. A.
and Harris, Charles R. and Archibald, Anne M. and Ribeiro,
Ant{\^o}nio H. and Pedregosa, Fabian and {van Mulbregt},
Paul and {SciPy 1.0 Contributors}},
year = {2020},
title = {{SciPy} 1.0: Fundamental Algorithms for Scientific
Computing in Python},
journal = {Nature Methods},
volume = {17},
pages = {261--272},
adsurl = {https://rdcu.be/b08Wh},
doi = {10.1038/s41592-019-0686-2}
}
@Article{ allegraud.ea2019-learning,
author = {Allegraud, Pierre and Bigo, Louis and Feisthauer, Laurent
and Giraud, Mathieu and Groult, Richard and Leguy,
Emmanuel and Lev{\'{e}}, Florence},
year = {2019},
title = {Learning Sonata Form Structure on Mozart's String
Quartets},
doi = {10.5334/tismir.27},
issn = {2514-3298},
journal = {Transactions of the International Society for Music
Information Retrieval},
keywords = {computational music analysis,music analysis with
computers,music structure,musical form,sonata form},
mendeley-tags= {music analysis with computers},
number = {1},
pages = {82--96},
url = {http://transactions.ismir.net/articles/10.5334/tismir.27/},
volume = {2}
}
@Book{ assis.ea2019-glossario,
author = {Assis, Janilson Pinheiro de and Sousa, Roberto Pequeno de
and Dias, Carlos Tadeu dos Santos},
year = {2019},
title = {Gloss\'{a}rio de {Estat\'{i}stica}},
address = {Mossor\'{o}, RN},
isbn = {978-85-5757-104-4},
language = {pt},
publisher = {EDUFERSA}
}
@Article{ bisesi.ea2019-computational,
author = {Bisesi, Erica and Friberg, Anders and Parncutt, Richard},
year = {2019},
title = {A Computational Model of Immanent Accent Salience in
Tonal Music},
abstract = {We describe the first stage of a two-stage semi-
algorithmic approach to music performance rendering. In
the first stage, we estimate the perceptual salience of
immanent accents (phrasing, metrical, melodic, harmon- ic)
in the musical score. In the second, we manipulate timing,
dynamics and other performance parameters in the vicinity
of immanent accents (e. g., getting slower and/or louder
near an accent). Phrasing and metrical accents emerge from
the hierarchical structure of phras- ing and meter; their
salience depends on the hierarchical levels that they
demarcate, and their salience. Melodic accents follow
melodic leaps; they are strongest at con- tour peaks and
(to a lesser extent) valleys; and their sali- ence depends
on the leap interval and the distance of the target tone
from the local mean pitch. Harmonic accents depend on
local dissonance (roughness, non-harmonicity,
non-diatonicity) and chord/key changes. The algorithm is
under development and is being tested by comparing its
predictions with music analyses, recorded performances and
listener evaluations. 1.},
address = {Stockolm, Sweden},
doi = {10.3389/fpsyg.2019.00317},
issn = {1664-1078},
journal = {Frontiers in Psychology},
keywords = {Computational modeling,Immanent accents,Music
analysis,Music expression,Salience,computational
musicology,music analysis with computers},
mendeley-tags= {computational musicology,music analysis with computers},
month = {mar},
pages = {1--19},
url = {https://www.frontiersin.org/article/10.3389/fpsyg.2019.00317/full},
volume = {10}
}
@Book{ bruce2019-estatistica,
author = {Bruce, Peter},
year = {2019},
title = {Estat{\'{i}}stica Pr{\'{a}}tica para Cientista de Dados},
address = {Rio de Janeiro},
isbn = {9788490225370},
keywords = {statistics},
mendeley-tags= {statistics},
publisher = {Alta Books}
}
@InProceedings{ clark.ea2019-alternative,
author = {Clark, Beach and Arthur, Claire},
year = {2019},
title = {Alternative measures: A musicologist workbench for
popular music},
abstract = {The objective of this project is to create a digital
“workbench” for quantitative analysis of popular
music. The workbench is a collection of tools and data
that allow for efficient and effective analysis of popular
music. This project integrates software from pre-existing
analytical tools including music21 but adds methods for
collecting data about popular music. The workbench
includes tools that allow analysts to compare data from
multiple sources. Our working prototype of the workbench
contains several novel analytical tools which have the
potential to generate new musicological insights through
the combination of various datasets. This paper
demonstrates some of the currently available tools as well
as several sample analyses and features computed from this
data that support trend analysis. A future release of the
workbench will include a user-friendly UI for
non-programmers.},
booktitle = {Proceedings of the Sound and Music Computing
Conferences},
isbn = {9788409085187},
issn = {25183672},
pages = {407--414}
}
@InProceedings{ condit-schultz.ea2019-humdrumr,
author = {Condit-Schultz, Nathaniel and Arthur, Claire},
year = {2019},
title = {HUMDRUMR : a new take on an old approach to Computational
Musicology},
address = {Delft, Netherlands},
booktitle = {Proceedings of the 20th International Society for Music
Information Retrieval Conference},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {715--722}
}
@Article{ crayencour.ea2019-learning,
author = {Crayencour, Helene-Camille and Cella, Carmine-Emanuele},
year = {2019},
title = {Learning, Probability and Logic: Toward a Unified
Approach for Content-Based Music Information Retrieval},
abstract = {Within the last fifteen years, the field of Music
Information Retrieval (MIR) has made tremendous progress
in the development of algorithms for organizing and
analyzing the ever-increasing large and varied amount of
music and music-related data available digitally. However,
the development of content-based methods to enable or
improve multimedia retrieval still remains a central
challenge. In this perspective paper, we critically look
at the problem of automatic chord estimation from audio
recordings as a case study of content-based algorithms,
and point out several bottlenecks in current approaches:
expressiveness and flexibility are obtained to the expense
of robustness and vice-versa; available multimodal sources
of information are little exploited; modeling
multi-faceted and strongly interrelated musical
information is limited with current architectures; models
are typically restricted to short-term analysis that does
not account for the hierarchical temporal structure of
musical signals. Dealing with music data requires the
ability to handle both uncertainty and complex relational
structure at multiple levels of representation.
Traditional approaches have generally treated these two
aspects separately, probability and learning being the
standard way to represent uncertainty in knowledge, while
logical representation being the standard way to represent
knowledge and complex relational information. We advocate
that the identified hurdles of current approaches could be
overcome by recent developments in the area of Statistical
Relational Artificial Intelligence (StarAI) that unifies
probability, logic and (deep) learning. We show that
existing approaches used in MIR find powerful extensions
and unifications in StarAI, and we explain why we think it
is time to consider the new perspectives offered by this
promising research field.},
doi = {10.3389/fdigh.2019.00006},
issn = {2297-2668},
journal = {Frontiers in Digital Humanities},
keywords = {audio,chord recognition,content-based,mir,music
information retrieval,music information retrieval
(MIR),statistical relational artificial,statistical
relational artificial intelligence},
mendeley-tags= {music information retrieval},
number = {April},
pages = {1--25},
volume = {6}
}
@InProceedings{ feisthauer.ea2019-modeling,
author = {Feisthauer, Laurent and Bigo, Louis and Giraud, Mathieu},
year = {2019},
title = {Modeling and learning structural breaks in sonata forms},
abstract = {Expositions of Sonata Forms are structured towards two
cadential goals, one being the Medial Caesura (MC). The MC
is a gap in the musical texture between the Transition
zone (TR) and the Secondary thematic zone (S). It appears
as a climax of energy accumulation initiated by the TR,
dividing the Exposition in two parts. We introduce
high-level features relevant to formalize this energy gain
and to identify MCs. These features concern rhythmic,
harmonic and textural aspects of the music and
characterize either the MC, its preparation or the texture
contrast between TR and S. They are used to train a LSTM
neural network on a corpus of 27 movements of string
quartets written by Mozart. The model correctly locates
the MCs on 14 movements within a leave-one-piece-out
validation strategy. We discuss these results and how the
network manages to model such structural breaks.},
address = {Utrecht, Netherlands},
booktitle = {Proc. International Society for Music Information
Retrieval Conference 2019},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
url = {https://hal.archives-ouvertes.fr/hal-02162936}
}
@Article{ georges.ea2019-visualizing,
author = {Georges, Patrick and Nguyen, Ngoc},
year = {2019},
title = {Visualizing music similarity: clustering and mapping 500
classical music composers},
doi = {10.1007/s11192-019-03166-0},
isbn = {0123456789},
issn = {0138-9130},
journal = {Scientometrics},
keywords = {Canonical correlation,Dendrograms,Hierarchical
clustering,Mapping classical music
composers,Multidimensional scaling,Music information
retrieval,Similarity measures,canonical
correlation,dendrograms,hierarchical
clustering,information retrieval,mapping classical music
composers,multidimensional scaling,music,music
similarity,similarity measures},
mendeley-tags= {music similarity},
number = {0123456789},
publisher = {Springer International Publishing},
url = {http://link.springer.com/10.1007/s11192-019-03166-0}
}
@Book{ geron2019-maos,
author = {G{\'{e}}ron, Aur{\'{e}}lion},
year = {2019},
title = {M{\~{a}}os {\`{a}} Obra Aprendizado de M{\'{a}}quina com
Scikit-Learn & TensorFlow: Conceitos, Ferramentas e
T{\'{e}}cnicas para a Constru{\c{c}}{\~{a}}o de Sistemas
Inteligentes},
address = {Rio de Janeiro},
isbn = {978-85-508-03814},
keywords = {Aprendizado de M{\'{a}}quina,Ci{\^{e}}ncia da
computa{\c{c}}{\~{a}}o},
pages = {576},
publisher = {Alta Books}
}
@InProceedings{ gotham.ea2019-taking,
author = {Gotham, Mark and Ireland, Matthew T},
year = {2019},
title = {Taking Form: a representation standard, conversion code,
and example corpus for recording, visualizing, and
studying analysis of musical form},
address = {Delft, Netherlands},
booktitle = {Proceedings of the 20th International Society for Music
Information Retrieval Conference},
keywords = {computational musicology},
mendeley-tags= {computational musicology}
}
@Article{ hall2019-minor-mode,
author = {Hall, Matthew J.},
year = {2019},
title = {Minor-Mode Sonata-Form Dynamics in Haydn's String
Quartets},
abstract = {The predominance of major-mode works in the repertoire
corresponds with the view that minor-mode works are
exceptions to a major-mode norm. For example, Charles
Rosen's Sonata Forms, James Hepokoski and Warren Darcy's
Sonata Theory, and William Caplin's Classical Form all
theorize from the perspective of a major-mode default.
Although certain canonical minor-mode works have received
sustained scholarly attention, minor-mode sonata style in
general is less often studied. Despite their relatively
fewer numbers, minor-mode works comprise a substantial
corpus. Among the string quartets of Joseph Haydn, the
minor mode is represented in every opus beginning with Op.
9; even Haydn's last unfinished quartet, “Op. 103,”
was to be in the minor. The},
journal = {Haydn: Online Journal of the Haydn Society of North
America},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {1},
url = {https://www.rit.edu/affiliate/haydn/sites/rit.edu.affiliate.haydn/files/article_pdfs/Hall.MinorModeQuartet
for PDF.pdf},
volume = {9}
}
@InProceedings{ janssen.ea2019-algorithmic,
author = {Janssen, Berit and Collins, Tom and Ren, Iris Yuping},
year = {2019},
title = {Algorithmic Ability to Predict the Musical Future:
Datasets and Evaluation},
address = {Delft, Netherlands},
booktitle = {Proceedings of the 20th International Society for Music
Information Retrieval Conference},
doi = {10.5281/zenodo.3527780},
keywords = {music information retrieval},
mendeley-tags= {music information retrieval},
pages = {208--215}
}
@Article{ kant.ea2019-structure,
author = {Kant, David and Polansky, Larry},
year = {2019},
title = {The {Structure} of {Morphological} {Space}},
volume = {57},
issn = {2325-7180},
url = {https://muse.jhu.edu/article/778501},
doi = {10.1353/pnm.2019.0022},
language = {en},
number = {1},
urldate = {2023-02-23},
journal = {Perspectives of New Music},
tags = {musical contour},
pages = {441--498}
}
@Article{ koops.ea2019-annotator,
author = {Koops, Hendrik Vincent and de Haas, W. Bas and Burgoyne,
John Ashley and Bransen, Jeroen and Kent-Muller, Anna and
Volk, Anja},
year = {2019},
title = {Annotator subjectivity in harmony annotations of popular
music},
doi = {10.1080/09298215.2019.1613436},
issn = {xxxx-xxxx},
journal = {Journal of New Music Research},
keywords = {Annotator subjectivity,annotator
subjectivity,harmony,inter-rater,inter-rater
agreement,music analysis with computers},
mendeley-tags= {music analysis with computers},
number = {0},
pages = {1--21},
publisher = {Taylor \& Francis},
url = {https://doi.org/09298215.2019.1613436},
volume = {0}
}
@PhDThesis{ lago2019-deep,
author = {Lago, Paula Mu{\~{n}}oz},
year = {2019},
title = {A Deep Learning Approach to generate Beethoven's 10th
Symphony},
keywords = {machine learning},
mendeley-tags= {machine learning},
school = {Universidad Complutense de Madrid},
type = {Trabajo de Fin de Grado}
}
@InProceedings{ melkonian.ea2019-what,
author = {Melkonian, Orestis and Ren, Iris Yuping and Swierstra,
Wouster and Volk, Anja},
year = {2019},
title = {What Constitutes a Musical Pattern ?},
address = {Berlin},
booktitle = {Proceedings of the 7th ACM SIGPLAN International Workshop
on Functional Art, Music, Modeling, and Design (FARM
'19)},
keywords = {19,2019,2019 association for computing,august
23,berlin,clustering,contravariance,edit
distance,evaluation,farm,germany,machinery,music analysis
with computers,musical patterns,transformation},
mendeley-tags= {music analysis with computers}
}
@Book{ mills2019-applied,
author = {Mills, Terence C.},
year = {2019},
title = {Applied Time Series Analysis: A Practical Guide to
Modeling and Forecasting Terence},
address = {London, UK},
isbn = {9789048187676},
issn = {18761100},
keywords = {Autoregression,Basic characteristics,Estimation of
correlation,Mathematical models,Time series
analysis,statistics},
mendeley-tags= {statistics},
publisher = {Academic Press}
}
@Article{ moss.ea2019-statistical,
author = {Moss, Fabian Claude and Neuwirth, Markus and Harasim,
Daniel and Rohrmeier, Martin},
year = {2019},
title = {Statistical characteristics of tonal harmony: a corpus
study of Beethoven's string quartets},
doi = {10.1371/journal.pone.0217242},
isbn = {1111111111},
journal = {PLoS ONE},
pages = {1--16},
url = {https://journals.plos.org/plosone/article?id=10.1371/journal.pone.0217242}
}
@PhDThesis{ moss2019-transitions,
author = {Moss, Fabian Claude},
year = {2019},
title = {Transitions of Tonality: A Model-Based Corpus Study},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
school = {{\'{E}}cole Polytehcnique F{\'{e}}d{\'{e}}rale de Lausanne},
type = {Ph.D. Thesis}
}
@InProceedings{ nuttall.ea2019-contributing,
author = {Nuttall, Thomas and Garc{\'{i}}a-Casado, Miguel and
N{\'{u}}{\~{n}}ez-Tarifa, V{\'{i}}ctor and Repetto, Rafael
Caro and Serra, Xavier},
year = {2019},
title = {Contributing to New Musicological Theories with
Computational Methods: The Case of Centonization in
Arab-Andalusian Music},
abstract = {Arab-Andalusian music was formed in the medieval Islamic
territories of Iberian Peninsula, drawing on local
traditions and assuming Arabic influences. The expert
performer and researcher of the Moroccan tradition of this
music, Amin Chaachoo, is developing a theory, whose last
formulation was recently published in La Mu-sique
Hispano-Arabe, al-Ala (2016), which argues that
centonization, a melodic composition technique used in
Gregorian chant, was also utilized for the creation of
this repertoire. In this paper we aim to contribute to
Chaachoo's theory by means of tf-idf analysis. A highorder
n-gram model is applied to a corpus of 149 prescriptive
transcriptions of heterophonic recordings, representing
each as an unordered multiset of patterns. Computing the
tf-idf statistic of each pattern in this corpus provides a
means by which we can rank and compare motivic content
across nawabāt, distinct musical forms of the tradition.
For each nawba, an empirical comparison is made between
patterns identified as significant via our approach and
those proposed by Chaachoo. Ultimately we observe
considerable agreement between the two pattern sets and go
further in proposing new, unique and as yet undocumented
patterns that occur at least as frequently and with at
least as much importance as those in Chaachoo's
proposals.},
address = {Delft, Netherlands},
booktitle = {Proceedings of the 20th International Society for Music
Information Retrieval Conference},
doi = {10.5281/zenodo.3527784},
keywords = {music information retrieval},
mendeley-tags= {music information retrieval},
pages = {223--228}
}
@InProceedings{ ortloff.ea2019-towards,
author = {Ortloff, Anna-marie and G{\"{u}}ntner, Lydia and Schmidt,
Thomas},
year = {2019},
title = {Towards a Graphical User Interface for Quantitative
Analysis in Digital Musicology},
abstract = {computational musicology},
address = {Hamburg, Germany},
booktitle = {Proc. Mensch und Computer 2019 - Workshopband},
doi = {10.18420/muc2019-ws-568},
keywords = {Digital Musicology,Digital Musicology Statistical
Musicology User Cen,Distant Hearing,Statistical
Musicology,User Centered Design,Visualization},
mendeley-tags= {Digital Musicology Statistical Musicology User Cen},
pages = {535--538},
publisher = {Gesellschaft f{\"{u}}r Informatik e.V.},
url = {https://dl.gi.de/handle/20.500.12116/25202}
}
@InProceedings{ parmer.ea2019-evolution,
author = {Parmer, Thomas and Ahn, Yong-Yeol},
year = {2019},
title = {Evolution of the Informational Complexity of Contemporary
Western Music},
abstract = {We measure the complexity of songs in the Million Song
Dataset (MSD) in terms of pitch, timbre, loudness, and
rhythm to investigate their evolution from 1960 to 2010.
By comparing the Billboard Hot 100 with random samples, we
find that the complexity of popular songs tends to be more
narrowly distributed around the mean, supporting the idea
of an inverted U-shaped relationship between complexity
and hedonistic value. We then examine the temporal
evolution of complexity, reporting consistent changes
across decades, such as a decrease in average loudness
complexity since the 1960s, and an increase in timbre
complexity overall but not for popular songs. We also
show, in contrast to claims that popular songs sound more
alike over time, that they are not more similar than they
were 50 years ago in terms of pitch or rhythm, although
similarity in timbre shows distinctive patterns across
eras and similarity in loudness has been increasing.
Finally, we show that musical genres can be differentiated
by their distinctive complexity profiles.},
address = {Delft, The Netherlands},
archiveprefix= {arXiv},
arxivid = {1907.04292},
booktitle = {Proceedings of the 20th International Society for Music
Information Retrieval Conference},
doi = {10.5281/zenodo.3527772},
eprint = {1907.04292},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
pages = {175--182},
url = {http://arxiv.org/abs/1907.04292}
}
@Article{ simonetta.ea2019-convolutional,
author = {Simonetta, Federico and Cancino-chac{\'{o}}n, Carlos and
Widmer, Gerhard and Ntalampiras, Stavros},
year = {2019},
title = {A convolutional approach to melody line identification in
symbolic scores},
archiveprefix= {arXiv},
arxivid = {arXiv:1906.10547v1},
eprint = {arXiv:1906.10547v1},
journal = {Computing Research Repository},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
url = {https://arxiv.org/pdf/1906.10547.pdf},
volume = {abs/1906.1}
}
@Article{ sousa2019-composing,
author = {de Sousa, Daniel Moreira},
year = {2019},
title = {Composing with Textures : A Proposal for Formalization of
Textural Spaces},
journal = {MusMat - Brazilian Journal of Music and Mathematics},
keywords = {music analysis,music composition,music theory,musical
texture,textural spaces,theory of integer},
tags = {music theory},
number = {1},
pages = {19--48},
volume = {3}
}
@PhDThesis{ sousa2019-textural,
author = {de Sousa, Daniel Moreira},
year = {2019},
title = {Textural design: A Compositional Theory for the
Organization of Musical Texture},
keywords = {Arrays,Compositional Designs,Musical Composition,Musical
Texture,Pre compositional Strategy,music theory},
mendeley-tags= {music theory},
school = {Universidade Federal do Rio de Janeiro},
type = {Ph.D. Thesis}
}
@Article{ sturm.ea2019-machine,
author = {Sturm, Bob L. and Ben-Tal, Oded and Monaghan, {\'{U}}na
and Collins, Nick and Herremans, Dorien and Chew, Elaine
and Hadjeres, Ga{\"{e}}tan and Deruty, Emmanuel and
Pachet, Fran{\c{c}}ois},
year = {2019},
title = {Machine learning research that matters for music
creation: A case study},
abstract = {Research applying machine learning to music modelling and
generation typically proposes model architectures,
training methods and datasets, and gauges system
performance using quantitative measures like sequence
likelihoods and/or qualitative listening tests. Rarely
does such work explicitly question and analyse its
usefulness for and impact on real-world practitioners, and
then build on those outcomes to inform the development and
application of machine learning. This article attempts to
do these things for machine learning applied to music
creation. Together with practitioners, we develop and use
several applications of machine learning for music
creation, and present a public concert of the results. We
reflect on the entire experience to arrive at several ways
of advancing these and similar applications of machine
learning to music creation.},
doi = {10.1080/09298215.2018.1515233},
issn = {0929-8215},
journal = {Journal of New Music Research},
keywords = {Applied machine learning,computational creativity,folk
music,music generation,music information retrieval},
mendeley-tags= {music information retrieval},
month = {jan},
number = {1},
pages = {36--55},
url = {https://www.tandfonline.com/doi/full/10.1080/09298215.2018.1515233},
volume = {48}
}
@Article{ temperley2019-second-position,
author = {Temperley, David},
year = {2019},
title = {Second-Position Syncopation in European and American
Vocal Music},
abstract = {I define a second-position syncopation as one involving a
long note or accent on the second quarter of a half-note
or quarter-note unit. I present a corpus analysis of
second-position syncopation in 19th-century European and
American vocal music. I argue that the analysis of
syncopation requires consideration of other musical
features besides note-onset patterns, including pitch
contour, duration, and text-setting. The corpus analysis
reveals that second-position syncopation was common in
English, Scottish, Euro-American, and African-American
vocal music, but rare in French, German, and Italian vocal
music. This suggests that the prevalence of such
syncopations in ragtime and later popular music was at
least partly due to British influence.},
doi = {10.18061/emr.v14i1-2.6986},
issn = {1559-5749},
journal = {Empirical Musicology Review},
keywords = {19th-century scottish song,8th-note beat,a phrase from
a,a short note on,a strong quarter-note beat,distinctive
rhythmic,f igure 1a shows,first of all,followed by a
longer,gesture,inside the box,it connects,music
analysis,note on the following,of historical interest
in,rhythm,scotch snap,several respects,syncopation,the
phrase features a,this rhythmic pattern is,vocal
music,with},
mendeley-tags= {music analysis},
month = {nov},
number = {1-2},
pages = {66},
url = {http://emusicology.org/article/view/6986},
volume = {14}
}
@InProceedings{ tymoczko.ea2019-romantext,
author = {Tymoczko, Dmitri and Gotham, Mark and Cuthbert, Michael
and Ariza, Christopher},
year = {2019},
title = {The RomanText Format: A Flexible and Standard Method for
Representing Roman Numerial Analyses},
address = {Delft, The Netherlands},
booktitle = {Proceedings of the 20th International Society for Music
Information Retrieval Conference},
doi = {10.5281/zenodo.3527756},
keywords = {computer and music},
mendeley-tags= {computer and music},
pages = {123--129},
url = {https://zenodo.org/record/3527756#.XteB7Z7Yq9Z}
}
@Article{ warrenburg.ea2019-tests,
author = {Warrenburg, Lindsay A and Huron, David},
year = {2019},
title = {Tests of contrasting expressive content between first and
second musical themes},
abstract = {Since the eighteenth century, music theorists have noted
the tendency for Western art-music works to contain themes
exhibiting contrasting expressive content. In music
exhibiting two main themes, the first theme is commonly
characterised as ‘stronger' or ‘fiery', whereas the
second theme tends to be ‘gentler' or ‘cantabile'. An
examination of 1063 musical works indicates that second
themes are less likely to be in the minor mode, but are
more likely to be legato, slower in tempo, and involve a
quieter dynamic level. Some observations are made
regarding changes in the treatment of first and second
themes over different stylistic periods.},
doi = {10.1080/09298215.2018.1486435},
journal = {Journal of New Music Research},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
number = {1},
pages = {21--35},
publisher = {Routledge},
url = {https://doi.org/10.1080/09298215.2018.1486435},
volume = {48}
}
@InProceedings{ wu.ea2019-distinguishing,
author = {Wu, Yusong and Li, Shengchen},
year = {2019},
title = {Distinguishing Chinese Guqin and Western Baroque pieces
based on statistical model},
booktitle = {Proceedings of Computer Music Multidisciplinary Research
2019},
keywords = {computational musicology,machine learning,music
similarity,statistics},
mendeley-tags= {music similarity},
pages = {1--12},
url = {https://lukewys.github.io/publications/CMMR2019}
}
@InProceedings{ bigo.ea2018-relevance,
author = {Bigo, Louis and Feisthauer, Laurent and Giraud, Mathieu
and Lev{\'{e}}, Florence},
year = {2018},
title = {Relevance of musical features for cadence detection},
abstract = {Cadences, as breaths in music, are felt by the listener
or studied by the theorist by combining harmony, melody,
texture and possibly other musical aspects. We formalize
and discuss the significance of 44 cadential features,
correlated with the occurrence of cadences in scores.
These features describe properties at the arrival beat of
a cadence and its surroundings, but also at other onsets
heuristically identified to pinpoint chords preparing the
cadence. The representation of each beat of the score as a
vector of cadential features makes it possible to
reformulate cadence detection as a classification task. An
SVM classifier was run on two corpora from Bach and Haydn
totaling 162 perfect authentic cadences and 70 half
cadences. In these corpora, the classifier correctly
identified more than 75pct of perfect authentic cadences
and 50pct of half cadences, with low false positive rates.
The experiment results are consistent with common
knowledge that classification is more complex for half
cadences than for authentic cadences.},
address = {Paris},
booktitle = {Proceedings of 19th International Conference on Music
Information Retrieval},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
url = {https://hal.archives-ouvertes.fr/hal-01801060/}
}
@Article{ chon.ea2018-exploratory,
author = {Chon, Song Hui and Huron, David and DeVlieger, Dana},
year = {2018},
title = {An Exploratory Study of Western Orchestration: Patterns
through History},
abstract = {Changes in instrument combination patterns in Western
classical orchestral music are traced over a three hundred
year period from 1701 to 2000. Using a stratified sample
of sonorities from 180 orchestral works by 147 composers,
various empirical analyses are reported. These include
analyses of instrumentation presence, instrument usage,
ensemble size, common instrument combinations, instrument
clusterings, and their changes over time. In addition, the
study reports associations of different instruments with
various dynamic levels, different tempos, pitch class
doublings, affinities between instruments and chord
factors, as well as interactions between pitch, dynamics,
and tempo. Results affirm many common intuitions and
historical observations regarding orchestration, but also
reveal a number of previously unrecognized patterns of
instrument use.},
doi = {10.18061/emr.v12i3-4.5773},
issn = {1559-5749},
journal = {Empirical Musicology Review},
keywords = {1855,1885,1906,1914,1952,1964,berlioz,century,composers
have written a,defined as the
art,e,forsyth,g,gevaert,instrument
combinations,instrumentation,kennan,music analysis with
computers,music history,number of treatises on,o
rchestration might be,of combining musical
instruments,orchestration,rimsky-korsakov,since the mid-19
th,sonorous effect,to produce a distinctive,widor},
mendeley-tags= {music analysis with computers},
month = {jun},
number = {3-4},
pages = {116},
url = {http://emusicology.org/article/view/5773},
volume = {12}
}
@Article{ garcia-vico.ea2018-overview,
author = {Garc{\'{i}}a-Vico, A. M. and Carmona, C. J. and
Mart{\'{i}}n, D. and Garc{\'{i}}a-Borroto, M. and del
Jesus, M. J.},
year = {2018},
title = {An overview of emerging pattern mining in supervised
descriptive rule discovery: taxonomy, empirical study,
trends, and prospects},
abstract = {Emerging pattern mining is a data mining task that aims
to discover discriminative patterns, which can describe
emerging behavior with respect to a property of interest.
In recent years, the description of datasets has become an
interesting field due to the easy acquisition of knowledge
by the experts. In this review, we will focus on the
descriptive point of view of the task. We collect the
existing approaches that have been proposed in the
literature and group them together in a taxonomy in order
to obtain a general vision of the task. A complete
empirical study demonstrates the suitability of the
approaches presented. This review also presents future
trends and emerging prospects within pattern mining and
the benefits of knowledge extracted from emerging
patterns. WIREs Data Mining Knowl Discov 2018, 8:e1231.
doi: 10.1002/widm.1231. This article is categorized under:
Fundamental Concepts of Data and Knowledge > Knowledge
Representation Fundamental Concepts of Data and Knowledge
> Motivation and Emergence of Data Mining.},
doi = {10.1002/widm.1231},
issn = {19424795},
journal = {Wiley Interdisciplinary Reviews: Data Mining and
Knowledge Discovery},
keywords = {computer},
mendeley-tags= {computer},
number = {1},
pages = {1--22},
volume = {8}
}
@Misc{ kempfert.ea2018-where,
author = {Kempfert, Katherine C. and Wong, Samuel W. K.},
year = {2018},
title = {Where Does Haydn End and Mozart Begin? Composer
Classification of String Quartets},
abstract = {For humans and machines, perceiving differences between
string quartets by Joseph Haydn and Wolfgang Amadeus
Mozart has been a challenging task, because of stylistic
and compositional similarities between the composers.
Based on the content of music scores, this study
identifies and quantifies distinctions between these
string quartets using statistical and machine learning
techniques. Our approach develops new musically meaningful
summary features based on the sonata form structure. Many
of these proposed summary features are found to be
important for distinguishing between Haydn and Mozart
string quartets. Leave-one-out classification accuracy
rates exceed 91\%, significantly higher than has been
attained for this task in prior work. These results
indicate there are identifiable, musically insightful
differences between string quartets by Haydn versus
Mozart, such as in their low accompanying voices, Cello
and Viola. Our quantitative approaches can expand the
longstanding dialogue surrounding Haydn and Mozart,
offering empirical evidence of claims made by
musicologists. Our proposed framework, which interweaves
musical scholarship with learning algorithms, can be
applied to other composer classification tasks and
quantitative studies of classical music in general.},
archiveprefix= {arXiv},
arxivid = {1809.05075},
booktitle = {arXiv},
eprint = {1809.05075},
keywords = {music analysis,music history},
mendeley-tags= {music analysis,music history},
month = {sep},
pages = {1--21},
url = {http://arxiv.org/abs/1809.05075},
urldate = {2018-09-13}
}
@PhDThesis{ libin2018-x,
author = {Libin, Daniel M},
year = {2018},
title = {X Section and Ethos in Sonata Forms by Haydn, Mozart, and
early Beethoven},
keywords = {music theory},
mendeley-tags= {music theory},
school = {The State University of New Jersey},
type = {Ph.D. Thesis}
}
@Article{ mackay2018-another,
author = {MacKay, James S.},
year = {2018},
title = {Another Look at Chromatic Third-Related Key Relationships
in Late Haydn: Parallel Keys and Remote Modulation in
Selected String Quartet Minuets},
abstract = {As asserted by Ethan Haimo in a 1990 article, Joseph
Haydn's Piano Trio in A-flat major, Hob. XV: 14 (1789-90),
comprises his first use of a chromatic third relationship
between movements of an instrumental work, with a I-flat
VI-I tonal plan. This harmonic strategy, immediately taken
up by Beethoven in his Piano Trio in G major, Op. 1 no. 2
(slow movement in E, VI) and his Piano Sonata in C major,
Op. 2 no. 3 (slow movement in E, III), quickly became a
conventional feature of early 19 th-century tonality. Such
third-related shifts in Haydn's instrumental music occur
earlier than 1790, especially in his string quartet
Minuet-Trio movements, often built around a parallel
major-parallel minor pairing of keys and their relatives.
For instance, in Haydn's String Quartet in F major, Op. 50
no. 5 (Der Traum), third movement, Haydn effects a
chromatic third modulation in two stages: touching briefly
upon the parallel key (f minor) in the trio, then moving
immediately to its relative major, A-flat (i.e. flat III
of F major). As for works written after 1790, the Minuet
and Trio of the Emperor Quartet in C major, Op. 76 no. 3,
demonstrates the opposite strategy: after beginning the
trio in the relative minor, Haydn shifts modally to its
parallel key, A major, as the passage develops (VI of C
major). As demonstrated by the above-mentioned quartet
movements and others drawn from Opp. 74, 76, and 77, such
two-stage chromatic third shifts at the formal level and
this procedure's affinity with modal mixture, provides a
new paradigm for understanding remote modulations, both in
the late Classical period and beyond.},
journal = {Haydn: Online Journal of the Haydn Society of North
America},
keywords = {haydn},
mendeley-tags= {haydn},
number = {3},
pages = {1--27},
url = {https://www.academia.edu/42811788/Another_Look_at_Chromatic_Third_Related_Key_Relationships_in_Late_Haydn_Parallel_Keys_and_Remote_Modulation_in_Selected_String_Quartet_Minuets?email_work_card=view-paper},
volume = {2}
}
@Article{ mathew2018-interesting,
author = {Mathew, Nicholas},
year = {2018},
title = {Interesting Haydn: On Attention's Materials},
doi = {10.1525/jams.2018.71.3.655},
issn = {0003-0139},
journal = {Journal of the American Musicological Society},
keywords = {haydn},
mendeley-tags= {haydn},
number = {3},
pages = {655--701},
volume = {71}
}
@Article{ neuwirth.ea2018-annotated,
author = {Neuwirth, Markus and Harasim, Daniel and Moss, Fabian
Claude and Rohrmeier, Martin},
year = {2018},
title = {The Annotated Beethoven Corpus (ABC): A Dataset of
Harmonic Analyses of All Beethoven String Quartets},
doi = {10.3389/fdigh.2018.00016},
issn = {2297-2668},
journal = {Frontiers in Digital Humanities},
keywords = {beethoven,corpus research,digital
musicology,ground,ground truth,harmony,music,symbolic
music data},
number = {July},
pages = {1--5},
url = {https://www.frontiersin.org/article/10.3389/fdigh.2018.00016/full},
volume = {5}
}
@Article{ sampaio2018-contour,
author = {{Sampaio}, {Marcos da Silva}},
year = {2018},
title = {Contour Similarity Algorithms},
abstract = {The Musical Contour literature provides multiple
algorithms for melodic contour similarity. However, most
of them are limited in use by the melody length of input
data. In this paper I review these algorithms, propose two
new algorithms, compare them in three experiments with
contours from the Bach Chorales, from a Schumann song and
automated generated, and present a brief review of the
contour and similarity literature.},
journal = {MusMat - Brazilian Journal of Music and Mathematics},
keywords = {Algorithms,Computational Musicology,Melodic
Similarity,Music Analysis,Music Contour Theory,music
contour},
mendeley-tags= {music contour},
number = {2},
pages = {58--78},
url = {https://musmat.org/wp-content/uploads/2018/12/08-contour-similarity-algorithm.pdf},
volume = {2}
}
@Article{ sears.ea2018-simulating,
author = {Sears, David R.W. and Pearce, Marcus Thomas and Caplin,
William Earl and McAdams, Stephen},
year = {2018},
title = {Simulating melodic and harmonic expectations for tonal
cadences using probabilistic models},
abstract = {This study examines how the mind's predictive mechanisms
contribute to the perception of cadential closure during
music listening. Using the Information Dynamics of Music
model (or IDyOM) to simulate the formation of schematic
expectations—a finite-context (or n-gram) model that
predicts the next event in a musical stimulus by acquiring
knowledge through unsupervised statistical learning of
sequential structure—we predict the terminal melodic and
harmonic events from 245 exemplars of the five most common
cadence categories from the classical style. Our findings
demonstrate that (1) terminal events from cadential
contexts are more predictable than those from
non-cadential contexts; (2) models of cadential strength
advanced in contemporary cadence typologies reflect the
formation of schematic expectations; and (3) a significant
decrease in predictability follows the terminal note and
chord events of the cadential formula.},
doi = {10.1080/09298215.2017.1367010},
issn = {17445027},
journal = {Journal of New Music Research},
keywords = {Cadence,expectation,music analysis with computers,n-gram
models,segmental grouping,statistical learning},
mendeley-tags= {music analysis with computers},
number = {1},
pages = {29--52},
publisher = {Routledge},
url = {https://doi.org/10.1080/09298215.2017.1367010},
volume = {47}
}
@Article{ selfridge-field2018-substantial,
author = {Selfridge-Field, Eleanor},
year = {2018},
title = {Substantial musical similarity in sound and notation:
Perspectives from digital musicology},
journal = {Colorado Technology Law Journal},
keywords = {music similarity},
mendeley-tags= {music similarity},
number = {2},
pages = {249--284},
url = {https://heinonline.org/HOL/P?h=hein.journals/jtelhtel16&i=277},
volume = {16}
}
@InProceedings{ shaw2018-differentiae,
author = {Shaw, Rebecca},
year = {2018},
title = {Differentiae in the cantus manuscript database},
abstract = {When approaching the study of medieval plainchant, one is
inevitably confronted with its immensity, spanning several
centuries and a wide geographic area. Even at a specific
time and place, its notation and liturgy varies depending
on the type of institution: local churches were influenced
by the cathedral tradition, whilst monastic houses were
influenced by local dioceses and their order, each of
which regulated the liturgy to varying degrees. As such,
each extant manuscript contains elements that could be
regionally and/or globally standardized and/or not
standardized, making large-scale data collection and
analysis a daunting task. One method of tracing the
relationships between manuscripts of different provenances
is to examine a shared, stable feature, like differentiae
in antiphoners. Differentiae, melodic formulas that set
the final two words of the doxology, are always included
at the end of psalm recitations in antiphonal psalmody and
appear in conjunction with every antiphon in an
antiphoner, regardless of the manuscript's provenance.
This paper describes an ongoing project to standardize the
differentiae field of the Cantus Manuscript Database so as
to enable cross-manuscript comparisons. With over 1,400
unique differentiae across 144 manuscripts (900s-1500s)
processed to date, this project will enable scholars to
explore hitherto unanswerable questions about not only the
function of differentiae, but also, more broadly, chant
transmission. To demonstrate the musicological potential
of the differentiae standardization project, this paper
includes a case study that interrogates the most commonly
used definition of these melodic formulas: that they
provided melodic transitions from psalm recitations to
antiphon openings. The existence of this melodic
connection is contested amongst scholars and its exact
nature has never been clearly defined, due to the lack of
available and standardized data. This paper demonstrates
and defines the melodic relationship between differentiae
and antiphon openings for the first of eight modes, whilst
considering the ramifications of this relationship on the
use of differentiae as mnemonic devices for the
recollection of antiphon melodies.},
address = {New York, New York, USA},
booktitle = {Proceedings of the 5th International Conference on
Digital Libraries for Musicology - DLfM '18},
doi = {10.1145/3273024.3273028},
isbn = {9781450365222},
keywords = {Antiphonal psalmody,Antiphons,Differentia,Manuscript
indices,Mnemonic
devices,Mode,Plainchant,Standardization,computational
musicology},
mendeley-tags= {computational musicology},
pages = {38--46},
publisher = {ACM Press},
url = {http://dl.acm.org/citation.cfm?doid=3273024.3273028}
}
@Article{ waltham-smith2018-haydns,
author = {Waltham-Smith, Naomi},
year = {2018},
title = {Haydn's impropriety},
abstract = {Haydn is known for his playful (mis)use of cadential
formulas. Examining examples of this predilection and
processes of cadential liquidation, this article develops
a theory of the use of musical material. This entails a
deconstruction of the Adornian dialectic between generic
convention and particular expression and-following Jacques
Derrida's notion of exappropriation-between proper and
improper, and propriety and impropriety.},
doi = {10.1215/00222909-4450660},
issn = {00222909},
journal = {Journal of Music Theory},
keywords = {Cadence,Deconstruction,Exappropriation,Haydn,Liquidation,music
analysis},
mendeley-tags= {music analysis},
number = {1},
pages = {119--144},
volume = {62}
}
@InProceedings{ wei.ea2018-computational,
author = {Wei{\ss}, Christof and Balke, Stefan and Abe{\ss}er,
Jakob and M{\"{u}}ller, Meinard},
year = {2018},
title = {Computational Corpus Analysis: a Case Study on Jazz
Solos},
abstract = {For musicological studies on large corpora, the
compilation of suitable data constitutes a time-consuming
step. In particular, this is true for high-quality
symbolic representations that are generated manually in a
tedious process. A recent study on Western classical music
has shown that musical phenomena such as the evolution of
tonal complexity over history can also be analyzed on the
basis of audio recordings. As our first contribution, we
transfer this corpus analysis method to jazz music using
the Weimar Jazz Database, which contains high-level
symbolic transcriptions of jazz solos along with the audio
recordings. Second, we investigate the influence of the
input representation type on the corpus-level
observations. In our experiments , all representation
types led to qualitatively similar results. We conclude
that audio recordings can build a reasonable basis for
conducting such type of corpus analysis.},
address = {Paris},
booktitle = {Proceedings of the 19th International Society for Music
Information Retrieval},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
number = {October},
url = {http://ismir2018.ircam.fr/doc/pdfs/23_Paper.pdf}
}
@Article{ wei.ea2018-investigating,
author = {Wei{\ss}, Christof and Mauch, Matthias and Dixon, Simon
and M{\"{u}}ller, Meinard},
year = {2018},
title = {Investigating style evolution of Western classical music:
A computational approach},
abstract = {In musicology, there has been a long debate about a
meaningful partitioning and description of music history
regarding composition styles. Particularly, concepts of
historical periods have been criticized since they cannot
account for the continuous and interwoven evolution of
style. To systematically study this evolution, large
corpora are necessary suggesting the use of computational
strategies. This article presents such strategies and
experiments relying on a dataset of 2000 audio recordings,
which cover more than 300 years of music history. From the
recordings, we extract different tonal features. We
propose a method to visualize these features over the
course of history using evolution curves. With the curves,
we re-trace hypotheses concerning the evolution of chord
transitions, intervals, and tonal complexity. Furthermore,
we perform unsupervised clustering of recordings across
composition years, individual pieces, and composers. In
these studies, we found independent evidence of historical
periods...},
doi = {10.1177/1029864918757595},
isbn = {1029864918},
issn = {10298649},
journal = {Musicae Scientiae},
keywords = {composer style,computational musicology,corpus
analysis,music analysis with computers,music information
retrieval,style analysis,tonal audio features},
mendeley-tags= {music analysis with computers},
number = {March},
url = {https://www.researchgate.net/publication/323619682_Investigating_style_evolution_of_Western_classical_music_A_computational_approach}
}
@Article{ abdallah.ea2017-digital,
author = {Abdallah, Samer and Benetos, Emmanouil and Gold, Nicolas
and Hargreaves, Steven and Weyde, Tillman and Wolff,
Daniel},
year = {2017},
title = {The digital music lab: A big data infrastructure for
digital musicology},
abstract = {In musicology and music research generally, the
increasing availability of digital music, storage
capacities, and computing power enable and require new and
intelligent systems. In the transition from traditional to
digital musicology, many techniques and tools have been
developed for the analysis of individual pieces of music,
but large-scale music data that are increasingly becoming
available require research methods and systems that work
on the collection-level and at scale. Although many
relevant algorithms have been developed during the past 15
years of research in Music Information Retrieval, an
integrated system that supports large-scale digital
musicology research has so far been lacking. In the
Digital Music Lab (DML) project, a collaboration among
music librarians, musicologists, computer scientists, and
human-computer interface specialists, the DML software
system has been developed that fills this gap by providing
intelligent large-scale music analysis with a
user-friendly interactive interface supporting
musicologists in their exploration and enquiry. The DML
system empowers musicologists by addressing several
challenges: distributed processing of audio and other
music data, management of the data analysis process and
results, remote analysis of data under copyright, logical
inference on the extracted information and metadata, and
visual web-based interfaces for exploring and querying the
music collections. The DML system is scalable and based on
SemanticWeb technology and integrates into Linked Data
with the vision of a distributed system that enables music
research across archives, libraries, and other providers
of music data. A first DML system prototype has been set
up in collaboration with the British Library and I Like
Music Ltd. This system has been used to analyse a diverse
corpus of currently 250,000 music tracks. In this article,
we describe the DML system requirements, design,
architecture, components, and available data sources,
explaining their interaction. We report use cases and
applications with initial evaluations of the proposed
system.},
doi = {10.1145/2983918},
issn = {15564711},
journal = {Journal on Computing and Cultural Heritage},
keywords = {Big data,Digital musicology,Music information
retrieval,Semantic web,computational musicology},
mendeley-tags= {computational musicology},
number = {1},
pages = {1--21},
volume = {10}
}
@InProceedings{ bigo.ea2017-sketching,
author = {Bigo, Louis and Giraud, Mathieu and Groult, Richard and
Guiomard-Kagan, Nicolas and Lev{\'{e}}, Florence},
year = {2017},
title = {Sketching Sonata Form Structure in Selected Classical
String Quartets},
abstract = {Many classical works from 18th and 19th centuries are
sonata forms, exhibiting a piece-level tonal path through
an exposition, a development and a recapitulation and
in-volving two thematic zones as well as other elements.
The computational music analysis of scores with such a
large-scale structure is a challenge for the MIR community
and should gather different analysis techniques. We
propose first steps in that direction, combining analysis
features on symbolic scores on patterns, harmony, and
other elements into a structure estimated by a Viterbi
algorithm on a Hid-den Markov Model. We test this strategy
on a set of first movements of Haydn and Mozart string
quartets. The pro-posed computational analysis strategy
finds some pertinent features and sketches the sonata form
structure in some pieces that have a simple sonata form.},
address = {Suzhou, China},
booktitle = {Proceedings of the 18th International Society for Music
Information Retrieval Conference (ISMIR)},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
pages = {752--759},
url = {https://ismir2017.smcnus.org/wp-content/uploads/2017/10/228_Paper.pdf}
}
@Book{ bruce.ea2017-practical,
author = {Bruce, Peter and Bruce, Andrew},
year = {2017},
title = {Practical Statistics for Data Scientists},
abstract = {Statistical methods are a key part of of data science,
yet very few data scientists have any formal statistics
training. Courses and books on basic statistics rarely
cover the topic from a data science perspective. This
practical guide explains how to apply various statistical
methods to data science, tells you how to avoid their
misuse, and gives you advice on what's important and
what's not. Many data science resources incorporate
statistical methods but lack a deeper statistical
perspective. If you're familiar with the R programming
language, and have some exposure to statistics, this quick
reference bridges the gap in an accessible, readable
format.},
address = {Sebastopol, CA},
isbn = {9781491952894},
keywords = {computer},
mendeley-tags= {computer},
publisher = {O'Reilly Media}
}
@Article{ garfinkle.ea2017-patternfinder,
author = {Garfinkle, David and Arthur, Claire and Schubert, Peter
and Cumming, Julie and Fujinaga, Ichiro},
year = {2017},
title = {PatternFinder: Content-Based Music Retrieval with
music21},
abstract = {Content-Based Music Retrieval (CBMR) for symbolic music
aims to find all similar occurrences of a musical pattern
within a larger database of symbolic music. To the best of
our knowledge there does not currently exist a
distributable CBMR software package integrated with a
music analysis toolkit that facilitates extendability with
new CBMR methods. This project presents a new MIR tool
called "PatternFinder" satisfying these goals.
PatternFinder is built with the computational musicology
Python package music21, which provides a flexible platform
capable of working with many music notation formats. To
achieve polyphonic CBMR, we implement seven geometric
algorithms developed at the University of Helsinki-four of
which are being implemented and released publicly for the
first time. The application of our MIR tool is then
demonstrated through a musicological investigation of
Renaissance imitation masses, which borrow melodic or
contrapuntal material from a pre-existing musical work. In
addition, we show Pattern-Finder's ability to find a
contrapuntal pattern over a large dataset, Palestrina's
104 masses. Our investigations demonstrate the relevance
of our tool for musicological research as well as its
potential application for locating music within digital
music libraries.},
doi = {10.1145/3144749.3144751},
isbn = {9781450353472},
journal = {ACM International Conference Proceeding Series},
keywords = {Content-based music retrieval,Imitation
masses,Music21,Point-set similarity,Polyphonic
search,Symbolic music
similarity,Time-scaled,Time-warped,Transpositioninvariant,music
information retrieval},
mendeley-tags= {music information retrieval},
number = {October},
pages = {5--8}
}
@Article{ gentil-nunes2017-nestings,
author = {Gentil-Nunes, Pauxy},
year = {2017},
title = {Nestings and {Intersections} between {Partitional}
{Complexes}},
volume = {I},
url = {https://musmat.org/wp-content/uploads/2018/06/09-Pauxy.pdf},
abstract = {The formalization of musical texture is the main
objective of Partitional Analysis. Each integer partition
corresponds to a specific textural configuration and is
used as a tool to organize and systematize the work with
textures through the compositional process. Partitional
complexes, on the other hand, are sets of partitions,
observed in the analysis of musical excerpts, that work in
tune to create stable temporal domains where a referential
partition projects, extends or presents itself as
dominant. The number of partitions and complexes for a
certain instrumental, vocal or electronic medium is finite
and implies nestings and intersections that can provide
important information about textural possibilities
available to the composer. In the present work, the
relationships establishedbetween distinct partitional
complexes are discussed, as well as the characterization
of an hierarchy related to the number of total choices
that each complex offers to the composer.},
language = {English},
number = {2},
journal = {MusMat - Brazilian Journal of Music and Mathematics},
keywords = {Rhythmic partitioning},
pages = {93--108}
}
@InBook{ gentil-nunes2017-partitiogram,
author = {Gentil-Nunes, Pauxy},
year = {2017},
title = {Partitiogram, Mnet, Vnet and Tnet: Embedded Abstractions
Inside Compositional Games},
chapter = {12},
pages = {111--118},
address = {Berlin},
publisher = {Springer},
booktitle = {The Musical-Mathematical Mind: Patterns and
Transformations}
}
@InCollection{ gentil-nunes2017-teorias,
author = {Gentil-Nunes, Pauxy},
year = {2017},
title = {Teorias anal\'{i}ticas sobre a textura musical no Brasil},
address = {Salvador},
booktitle = {Teoria e An\'{a}lise Musical em Perspectiva Did\'{a}tica},
chapter = {9},
editor = {Nogueira, Ilza},
keywords = {music theory},
mendeley-tags= {music theory},
pages = {139--151},
publisher = {TeMA},
url = {https://tema.mus.br/novo/series.html}
}
@Article{ georges2017-western,
author = {Georges, Patrick},
year = {2017},
title = {Western classical music development: a statistical
analysis of composers similarity, differentiation and
evolution},
abstract = {This paper proposes a statistical analysis that captures
similarities and differences between classical music
composers with the eventual aim to understand why
particular composers 'sound' different even if their
'lineages' (influences network) are similar or why they
'sound' alike if their 'lineages' are different. In order
to do this we use statistical methods and measures of
association or similarity (based on presence/absence of
traits such as specific 'ecological' characteristics and
personal musical influences) that have been developed in
biosystematics, scientometrics, and bibliographic
coupling. This paper also represents a first step towards
a more ambitious goal of developing an evolutionary model
of Western classical music.},
doi = {10.1007/s11192-017-2387-x},
issn = {0138-9130},
journal = {Scientometrics},
keywords = {Classical
composers,Differentiation,Evolution,Imitation,Influences
network,Similarity indices,music analysis with computers},
mendeley-tags= {music analysis with computers},
month = {jul},
number = {1},
pages = {21--53},
url = {http://link.springer.com/10.1007/s11192-017-2387-x},
volume = {112}
}
@Article{ greenberg2017-beginnings,
author = {Greenberg, Yoel},
year = {2017},
title = {Of beginnings and ends a corpus-based inquiry into the
rise of the recapitulation},
abstract = {This article investigates the sources of the
recapitulation using statistical methods. The
recapitulation has traditionally been viewed as an
expansion of small ternary forms, resulting in a top-down
approach, whereby the repeat of expositional material is
explained in rotational terms. Here I present a bottom-up
approach, demonstrating that the recapitulation arose as a
concatenation between two previously independent
practices: the double return of the opening theme in the
tonic in the middle of the second half of a two-part form,
and the thematic matching between the ends of the two
halves of two-part form. Drawing on a corpus of more than
seven hundred instrumental works dated 1650-1770, I
demonstrate that these two practices arose and functioned
independently from each other, increasing in frequency and
in length, before being subsumed into an overarching
rotational practice.},
doi = {10.1215/00222909-4149546},
issn = {00222909},
journal = {Journal of Music Theory},
keywords = {Big data,Double return,End-rhyme,Recapitulation,Sonata
form,music theory},
mendeley-tags= {music theory},
number = {2},
pages = {171--200},
volume = {61}
}
@Article{ inman2017-trimodular,
author = {Inman, Samantha M.},
year = {2017},
title = {Trimodular Block Strategies in Haydn's Sonata Movements
by Samantha M. Inman},
abstract = {This study combines concepts from Hepokoski and Darcy,
and Caplin, to examine Haydn's approaches to the
trimodular block (TMB). The first part of the article
proposes three categories of TMBs based on which modules
of a given TMB lie within S and the stability of the
opening of TM3. Subsequent parts use these three
categories to identify patterns in Haydn's instrumental
movements containing TMBs. Data regarding the fundamental
features of forty-one movements are combined with in-depth
analyses of three representative movements, one for each
TMB category. While some traits remain consistent across
all three categories, other traits typical of a single
category in Haydn's output correlate with specific
recapitulatory strategies.},
journal = {Haydn: Online Journal of the Haydn Society of North
America},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {Spring},
pages = {1--27},
volume = {7}
}
@Article{ janssen.ea2017-finding,
author = {Janssen, Berit and van Kranenburg, Peter and Volk, Anja},
year = {2017},
title = {Finding Occurrences of Melodic Segments in Folk Songs
Employing Symbolic Similarity Measures},
abstract = {Much research has been devoted to the classification of
folk songs, revealing that variants are recognised based
on salient melodic segments, such as phrases and motifs,
while other musical material in a melody might vary
considerably. In order to judge similarity of melodies on
the level of melodic segments, a successful similarity
measure is needed which will allow finding occurrences of
melodic segments in folk songs reliably. The present study
compares several such similarity measures from different
music research domains: correlation distance, city block
distance, Euclidean distance, local align-ment, wavelet
transform and structure induction. We evaluate the
measures against annotations of phrase occurrences in a
corpus of Dutch folk songs, observing whether the
mea-sures detect annotated occurrences at the correct
positions. Moreover, we investigate the influence of music
represen-tation on the success of the various measures,
and analyse the robustness of the most successful measures
over subsets of the data. Our results reveal that
structure induction is a promising approach, but that
local alignment and city block distance perform even
better when applied to adjusted music representations.
These three methods can be combined to find occurrences
with increased precision.},
doi = {10.1080/09298215.2017.1316292},
issn = {0929-8215},
journal = {Journal of New Music Research},
keywords = {music analysis with computers,music
similarity,occurrences,pattern
matching,segments,symbolic},
mendeley-tags= {music analysis with computers},
month = {apr},
number = {2},
pages = {118--134},
url = {https://www.tandfonline.com/doi/full/10.1080/09298215.2017.1316292},
volume = {46}
}
@Book{ kostka.ea2017-tonal,
author = {Kostka, Stefan M. and Payne, Dorothy and Alm{\'{e}}n,
Byron},
year = {2017},
title = {Tonal Harmony: with an Introduction to Post-Tonal Music},
address = {New York},
edition = {8},
isbn = {9788578110796},
keywords = {music theory},
mendeley-tags= {music theory},
publisher = {McGraw-Hill Education}
}
@Article{ kranenburg.ea2017-documenting,
author = {van Kranenburg, Peter and de Bruin, Martine and Volk,
Anja},
year = {2017},
title = {Documenting a song culture: the Dutch Song Database as a
resource for musicological research},
abstract = {The Dutch Song Database is a digital repository
documenting Dutch song culture in past and present. It
contains more than 173 thousand references to song
occurrences in the Dutch and Flemish language, from the
Middle Ages up to the present, as well as over 18 thousand
descriptions of song sources, such as song books,
manuscripts and field recordings, all adhering to high
quality standards. In this paper, we present the history
and functionality of the database, and we demonstrate how
the Dutch Song Database facilitates and enables
musicological research by presenting its contents and
search functionalities in a number of exemplary cases. We
discuss difficulties and impediments that were encountered
during the development of the database, and we sketch a
future prospect for further development in the European
context.},
doi = {10.1007/s00799-017-0228-4},
issn = {14321300},
journal = {International Journal on Digital Libraries},
keywords = {Database,Dutch song culture,History,Information
retrieval,Literature,Metadata,Musicology,computational
musicology},
mendeley-tags= {computational musicology},
number = {1},
pages = {13--23},
publisher = {Springer Berlin Heidelberg},
volume = {20}
}
@Article{ mackay2017-case,
author = {MacKay, James S.},
year = {2017},
title = {A Case for Declassifying the IAC as a Cadence Type:
Cadence and Thematic Design in Selected Early- to
Middle-Period Haydn Sonatas},
journal = {Ad Parnassum},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {30},
pages = {1--27},
volume = {15}
}
@Book{ pal.ea2017-practical,
author = {Pal, Avishek and Prakash, PKS},
year = {2017},
title = {Practical Time Series Analysis: Master Time Series Data
Processing, Visualization, and Modeling using Python},
address = {Birmingham; Mumbai},
booktitle = {Packt Publishing},
isbn = {9781788290227},
keywords = {statistics},
mendeley-tags= {statistics},
publisher = {Packt Publishing},
url = {https://www.packtpub.com/big-data-and-business-intelligence/practical-time-series-analysis}
}
@Article{ panteli.ea2017-computational,
author = {Panteli, Maria and Benetos, Emmanouil and Dixon, Simon},
year = {2017},
title = {A computational study on outliers in world music},
abstract = {The comparative analysis of world music cultures has been
the focus of several ethnomusicological studies in the
last century. With the advances of Music Information
Retrieval and the increased accessibility of sound
archives, large-scale analysis of world music with
computational tools is today feasible. We investigate
music similarity in a corpus of 8200 recordings of folk
and traditional music from 137 countries around the world.
In particular, we aim to identify music recordings that
are most distinct compared to the rest of our corpus. We
refer to these recordings as ‘outliers'. We use signal
processing tools to extract music information from audio
recordings, data mining to quantify similarity and detect
outliers, and spatial statistics to account for
geographical correlation. Our findings suggest that
Botswana is the country with the most distinct recordings
in the corpus and China is the country with the most
distinct recordings when considering spatial correlation.
Our analysis includes a comparison of musical attributes
and styles that contribute to the ‘uniqueness' of the
music of each country.},
doi = {10.1371/journal.pone.0189399},
isbn = {1111111111},
issn = {19326203},
journal = {PLoS ONE},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
number = {12},
pages = {1--29},
pmid = {29253027},
volume = {12}
}
@InCollection{ sampaio2017-teoria,
author = {{Sampaio}, {Marcos da Silva}},
year = {2017},
title = {A Teoria de Rela{\c{c}}{\~{o}}es de Contornos no Brasil},
abstract = {The Theory of Musical Contours was initially developed by
Robert Morris, Elizabeth Marvin and Michael Friedmann as a
support for the study of musical contours. Since the
1980s, dozens of authors have used it as a basis for their
studies. In Brazil, this theory has been used both as a
support for Analysis and for Musical Composition. In this
work we present the approaches, applications of this
theory in studies carried out in Brazil and its
peculiarities. We identified the role of postgraduate
students in the use of this theory and the tendency to
apply it in the area of Musical Composition.},
address = {Salvador, BA},
booktitle = {Teoria e An{\'{a}}lise Musical em perspectiva
did{\'{a}}tica},
chapter = {8},
editor = {Nogueira, Ilza},
keywords = {music contour},
mendeley-tags= {music contour},
pages = {123--138},
publisher = {EDUFBA}
}
@Article{ urberg2017-pasts,
author = {Urberg, Michelle},
year = {2017},
title = {Pasts and futures of digital humanities in musicology:
Moving towards a “Bigger Tent”},
abstract = {Musicologists and music theorists have traditionally been
early adopters of technological tools to assist with
research. The earliest digital humanities projects in
musicology and music theory came directly out of
humanities computing and quantitative analytical
technologies developed in the 1980s, but newer projects
created since the mid-2000s still reflect this past of
algorithmic analysis and archival compilation, retrieval,
and display. Computational and archival research is,
currently, only one branch of digital humanities. The
umbrella of digital humanities research now also includes
digital publishing, philosophies of digital research, and
“born digital” projects that cannot exist outside of a
digital medium (e.g., virtual reality or 3D modeling).
This shift in the digital humanities represents a move to
a “bigger tent” that includes more types of projects.
Musicological and musico-theoretical scholarship is slowly
moving in this direction. Music librarians have been at
the forefront of identifying and promoting new digital
tools and archives, even though these projects have tended
to remain at the periphery of musico-theoretical
discourse. They should be on the lookout for “bigger
tent” projects, such as medieval and renaissance
projects like the Isabelle D'Este Archive, Opening the
Geesebook, and the Experience of Worship. These projects
are characterized by being iterative and multi-modally
engaging, as well as emerging from communities of practice
and intentionally engaging a public audience. Music
librarians should also be aware of systemic challenges to
creating and supporting digital projects because these
issues are at the center of libraries supporting all types
of digital scholarship.},
doi = {10.1080/10588167.2017.1404301},
issn = {15409503},
journal = {Music Reference Services Quarterly},
keywords = {Digital humanities,Digital scholarship,Music
librarianship,Music theory,Musicology,musicology},
mendeley-tags= {musicology},
number = {3-4},
pages = {134--150},
publisher = {Routledge},
url = {https://doi.org/10.1080/10588167.2017.1404301},
volume = {20}
}
@InCollection{ abdallah.ea2016-analysing,
author = {Abdallah, Samer and Gold, Nicolas and Marsden, Alan},
year = {2016},
title = {Analysing Symbolic Music with Probabilistic Grammars},
abstract = {This book provides an in-depth introduction and overview
of current research in computational music analysis. Its
seventeen chapters, written by leading researchers,
collectively represent the diversity as well as the
technical and philosophical sophistication of the work
being done today in this intensely interdisciplinary
field. A broad range of approaches are presented,
employing techniques originating in disciplines such as
linguistics, information theory, information retrieval,
pattern recognition, machine learning, topology, algebra
and signal processing. Many of the methods described draw
on well-established theories in music theory and analysis,
such as Forte's pitch-class set theory, Schenkerian
analysis, the methods of semiotic analysis developed by
Ruwet and Nattiez, and Lerdahl and Jackendoff's Generative
Theory of Tonal Music. The book is divided into six parts,
covering methodological issues, harmonic and pitch-class
set analysis, form and voice-separation, grammars and
hierarchical reduction, motivic analysis and pattern
discovery and, finally, classification and the discovery
of distinctive patterns. As a detailed and up-to-date
picture of current research in computational music
analysis, the book provides an invaluable resource for
researchers, teachers and students in music theory and
analysis, computer science, music information retrieval
and related disciplines. It also provides a
state-of-the-art reference for practitioners in the music
technology industry.},
address = {Cham},
booktitle = {Computational Music Analysis},
chapter = {7},
doi = {10.1007/978-3-319-25931-4_7},
editor = {Meredith, David},
isbn = {9783319259314},
issn = {0098-7484},
pages = {157--189},
pmid = {1689},
publisher = {Springer International Publishing},
url = {http://link.springer.com/10.1007/978-3-319-25931-4_7}
}
@InProceedings{ bountouridis.ea2016-music,
author = {Bountouridis, Dimitrios and Koops, Hendrik Vincent and
Wiering, Frans and Veltkamp, Remco C.},
year = {2016},
title = {Music Outlier Detection Using Multiple Sequence Alignment
and Independent Ensembles},
abstract = {The automated retrieval of related music documents, such
as cover songs or folk melodies belonging to the same
tune, has been an important task in the field of Music
Information Retrieval (MIR). Yet outlier detection, the
process of identifying those documents that deviate
significantly from the norm, has remained a rather
unexplored topic. Pairwise comparison of music sequences
(e.g. chord transcriptions, melodies), from which outlier
detection can potentially emerge, has been always in the
center of MIR research but the connection has remained
uninvestigated. In this paper we firstly argue that for
the analysis of musical collections of sequential data,
outlier detection can benefit immensely from the
advantages of Multiple Sequence Alignment (MSA). We show
that certain MSA-based similarity methods can better
separate inliers and outliers than the typical similarity
based on pairwise comparisons. Secondly, aiming towards an
unsupervised outlier detection method that is data-driven
and robust enough to be generalizable across different
music datasets, we show that ensemble approaches using an
entropy-based diversity measure can outperform supervised
alternatives.},
address = {Tokyo},
booktitle = {Proc. of 9th International Conference, SISAP 2016},
doi = {10.1007/978-3-319-46759-7_22},
editor = {Amsaleg, Laurent and Houle, Michael E. and Schubert,
Erich},
isbn = {9783319467597},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {286--300},
publisher = {Springer Berlin Heidelberg},
url = {http://link.springer.com/10.1007/978-3-319-46759-7_22}
}
@Article{ bourne2016-perceiving,
author = {Bourne, Janet},
year = {2016},
title = {Perceiving Irony in Music: The Problem in Beethoven's
String Quartets},
abstract = {Hatten (1994) writes that if musical passages are
“inappropriate to the context of the movement . . . an
ironic interpretation would be one way to reconcile that
inappropriateness as a compositional effect rather than a
flaw” (185). Is there something systematic that prompts
listeners to interpret musical “inappropriateness” as
ironic? Building upon Hatten's work, this article explores
how a listener might infer irony in Beethoven's music by
drawing on cognitive principles and analogies shared by
music and language. I create an analytical framework that
draws conditions from language psychologists' empirical
studies of verbal and situational irony (Colston 2001,
Lucariello 1994). The first condition is a violation of
expectations established through a norm or schema. I use
Caplin's (1998) theory of formal function, Gjerdingen's
(2007) schema theory, and Hepokoski and Darcy's (2006)
Sonata Theory to measure violation of expectation as
defined by Beethoven and his audience's shared stylistic
knowledge. Since listeners develop expectations in music
simply by listening (Meyer 1956), this paper incorporates
“common ground,” Clark's (1996) term for the
information, knowledge, and cultural norms that the
composer and listener share. The second condition is
blatantly failing to fulfill one or more of the
“maxims” defined by the linguist H.P. Grice (1975),
who argues that a person implicitly follows the maxims in
any “cooperative” conversation. I apply this framework
to analyze three Beethoven string quartet movements that
Hatten and others have described as “ironic”: op.
95/iv, op. 131/v, and op. 130/i. I close by discussing
implications for musical communication as a whole.
[ABSTRACT FROM AUTHOR]},
doi = {10.30535/mto.22.3.2},
issn = {1067-3040},
journal = {Music Theory Online},
keywords = {aesthetics,alla breve,coda,contradiction,discourse
marker,irony,literature,music
analysis,musical,pathos,philosophy,situational ethics},
mendeley-tags= {music analysis},
number = {3},
volume = {22}
}
@InProceedings{ brinkman.ea2016-musical,
author = {Brinkman, Alan and Shanahan, Daniel and Sapp, Craig
Stuart},
year = {2016},
title = {Musical {Stylometry}, {Machine} {Learning}, and
{Attribution} {Studies}: {A} {Semi}-{Supervised}
{Approach} to the {Works} of {Josquin}},
address = {San Francisco},
url = {http://icmpc.org/icmpc14/files/ICMPC14_Proceedings.pdf},
abstract = {Compositional authorship is often assigned though factors
external to the musical text, such as biographical records
and surveys of source attributions; however, such
methodologies often fall short and are potentially
unreliable. On the other hand, determining compositional
authorship through internal factors—through stylistic
traits of composers derived from the music itself—is
often fraught with errors and biases. One of the
underlying assumptions in the field of stylometry is that,
while it is difficult for humans to perform a truly
unbiased analysis of authorial attribution, computational
methods can provide clearer and more objective guidelines
than would otherwise be apparent to readers or listeners,
and thus might provide corroboration or clues for further
investigation. This paper discusses machine-learning
approaches for evaluating attribution for compositions by
Josquin des Prez. We explore musical characteristics such
as melodic sequences, counterpoint motion, rhythmic
variability, and other entry measures to search for
features inherent to a composer's works or style, and we
hope that employing such an approach—one that explicitly
states which factors led to the decision-making
process—can serve to inform scholars looking at other
works and composers.},
booktitle = {Proceedings of the {International} {Conference} on
{Music} {Perception} and {Cognition}},
keywords = {Computational Musicology},
pages = {91--97}
}
@InCollection{ burgoyne.ea2016-music,
author = {Burgoyne, John Ashley and Fujinaga, Ichiro and Downie, J
Stephen},
year = {2016},
title = {Music {Information} {Retrieval}},
language = {en},
booktitle = {A {New} {Companion} to {Digital} {Humanities}},
publisher = {John Wiley \& Sons, Ltd},
collaborator = {Schreibman, Susan and Siemens, Ray},
pages = {213--228}
}
@Article{ caplin.ea2016-continuous,
author = {Caplin, William Earl and Martin, Nathan John},
year = {2016},
title = {The Continuous Exposition and the Concept of Subordinate
Theme},
abstract = {James Hepokoski and Warren Darcy's Sonata Theory promotes
a fundamental distinction between sonata expositions that
are either two-part or continuous. We contend that this
binary opposition misconstrues the commonality of formal
procedures operative in Classical sonata form. Advocating
a form-functional approach, we hold that all sonata
expositions contain a subordinate theme (or at least
sufficient functional elements of such a theme), even if
the boundary between the transition and subordinate theme
is obscured. We illustrate three categories of such a
blurred boundary: (1) the transition lacks a functional
ending but the subordinate theme still brings an
initiating function of some kind; (2) the transition ends
normally but the subordinate theme lacks a clear
beginning; and (3) the transition lacks an ending and the
subordinate theme lacks a beginning, thus effecting a
complete fusion of these thematic functions. We extend
these considerations to another formal type - minuet form
- in order to place the technique of fusion as it arises
in sonata-form expositions in a broader perspective. In
further comparing a theory of formal functions to Sonata
Theory, we invoke thesonata clockmetaphor, first
introduced by Hepokoski and Darcy, and show that our
respective clocks have differenthourmarkers and run at
different speeds. We conclude by examining some of the
main conceptual differences that account for the divergent
views of expositional structures offered by Sonata Theory
and a theory of formal functions, arguing against the
former's claim that the medial caesura is a necessary
condition for the appearance of a subordinate theme.},
doi = {10.1111/musa.12060},
issn = {02625245},
journal = {Music Analysis},
keywords = {music theory},
mendeley-tags= {music theory},
number = {1},
pages = {4--43},
volume = {35}
}
@InCollection{ collins.ea2016-using,
author = {Collins, Tom and Arzt, Andreas and Frostel, Harald and
Widmer, Gerhard},
year = {2016},
title = {Using Geometric Symbolic Fingerprinting to Discover
Distinctive Patterns in Polyphonic Music Corpora},
abstract = {This book provides an in-depth introduction and overview
of current research in computational music analysis. Its
seventeen chapters, written by leading researchers,
collectively represent the diversity as well as the
technical and philosophical sophistication of the work
being done today in this intensely interdisciplinary
field. A broad range of approaches are presented,
employing techniques originating in disciplines such as
linguistics, information theory, information retrieval,
pattern recognition, machine learning, topology, algebra
and signal processing. Many of the methods described draw
on well-established theories in music theory and analysis,
such as Forte's pitch-class set theory, Schenkerian
analysis, the methods of semiotic analysis developed by
Ruwet and Nattiez, and Lerdahl and Jackendoff's Generative
Theory of Tonal Music. The book is divided into six parts,
covering methodological issues, harmonic and pitch-class
set analysis, form and voice-separation, grammars and
hierarchical reduction, motivic analysis and pattern
discovery and, finally, classification and the discovery
of distinctive patterns. As a detailed and up-to-date
picture of current research in computational music
analysis, the book provides an invaluable resource for
researchers, teachers and students in music theory and
analysis, computer science, music information retrieval
and related disciplines. It also provides a
state-of-the-art reference for practitioners in the music
technology industry.},
address = {Cham},
booktitle = {Computational Music Analysis},
chapter = {17},
doi = {10.1007/978-3-319-25931-4_17},
editor = {Meredith, David},
isbn = {9783319259314},
issn = {0098-7484},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
pages = {445--474},
pmid = {1689},
publisher = {Springer International Publishing},
url = {http://link.springer.com/10.1007/978-3-319-25931-4_17}
}
@InCollection{ couprie2016-algorithmique,
author = {Couprie, Pierre},
year = {2016},
title = {Algorithmique et technologies numériques dans la
notation musicale},
language = {fr},
booktitle = {Musiques {Orales}, leur notation et encodage
num\'{e}rique},
publisher = {Les éditions de l'immatériel},
collaborator = {Martin, Sylvaine Leblond},
pages = {99--115}
}
@PhDThesis{ fortes2016-modelagem,
author = {Rafael Fortes},
year = {2016},
title = {Modelagem e particionamento de Unidades Musicais
Sistêmicas},
school = {Universidade Federal do Rio de Janeiro},
type = {Master's Thesis}
}
@InCollection{ hamanaka.ea2016-implementing,
author = {Hamanaka, Masatoshi and Hirata, Keiji and Tojo, Satoshi},
year = {2016},
title = {Implementing Methods for Analysing Music Based on Lerdahl
and Jackendoff's Generative Theory of Tonal Music},
abstract = {This book provides an in-depth introduction and overview
of current research in computational music analysis. Its
seventeen chapters, written by leading researchers,
collectively represent the diversity as well as the
technical and philosophical sophistication of the work
being done today in this intensely interdisciplinary
field. A broad range of approaches are presented,
employing techniques originating in disciplines such as
linguistics, information theory, information retrieval,
pattern recognition, machine learning, topology, algebra
and signal processing. Many of the methods described draw
on well-established theories in music theory and analysis,
such as Forte's pitch-class set theory, Schenkerian
analysis, the methods of semiotic analysis developed by
Ruwet and Nattiez, and Lerdahl and Jackendoff's Generative
Theory of Tonal Music. The book is divided into six parts,
covering methodological issues, harmonic and pitch-class
set analysis, form and voice-separation, grammars and
hierarchical reduction, motivic analysis and pattern
discovery and, finally, classification and the discovery
of distinctive patterns. As a detailed and up-to-date
picture of current research in computational music
analysis, the book provides an invaluable resource for
researchers, teachers and students in music theory and
analysis, computer science, music information retrieval
and related disciplines. It also provides a
state-of-the-art reference for practitioners in the music
technology industry.},
address = {Cham},
booktitle = {Computational Music Analysis},
chapter = {9},
doi = {10.1007/978-3-319-25931-4_9},
editor = {Meredith, David},
isbn = {9783319259314},
issn = {0098-7484},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
pages = {221--249},
pmid = {1689},
publisher = {Springer International Publishing},
url = {http://link.springer.com/10.1007/978-3-319-25931-4_9}
}
@InCollection{ herremans.ea2016-composer,
author = {Herremans, Dorien and Martens, David and S{\"{o}}rensen,
Kenneth},
year = {2016},
title = {Composer Classification Models for Music-Theory
Building},
abstract = {This book provides an in-depth introduction and overview
of current research in computational music analysis. Its
seventeen chapters, written by leading researchers,
collectively represent the diversity as well as the
technical and philosophical sophistication of the work
being done today in this intensely interdisciplinary
field. A broad range of approaches are presented,
employing techniques originating in disciplines such as
linguistics, information theory, information retrieval,
pattern recognition, machine learning, topology, algebra
and signal processing. Many of the methods described draw
on well-established theories in music theory and analysis,
such as Forte's pitch-class set theory, Schenkerian
analysis, the methods of semiotic analysis developed by
Ruwet and Nattiez, and Lerdahl and Jackendoff's Generative
Theory of Tonal Music. The book is divided into six parts,
covering methodological issues, harmonic and pitch-class
set analysis, form and voice-separation, grammars and
hierarchical reduction, motivic analysis and pattern
discovery and, finally, classification and the discovery
of distinctive patterns. As a detailed and up-to-date
picture of current research in computational music
analysis, the book provides an invaluable resource for
researchers, teachers and students in music theory and
analysis, computer science, music information retrieval
and related disciplines. It also provides a
state-of-the-art reference for practitioners in the music
technology industry.},
address = {Cham},
booktitle = {Computational Music Analysis},
chapter = {14},
doi = {10.1007/978-3-319-25931-4_14},
editor = {Meredith, David},
isbn = {9783319259314},
issn = {0098-7484},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
pages = {369--392},
pmid = {1689},
publisher = {Springer International Publishing},
url = {http://link.springer.com/10.1007/978-3-319-25931-4_14}
}
@InCollection{ hirata.ea2016-algebraic,
author = {Hirata, Keiji and Tojo, Satoshi and Hamanaka, Masatoshi},
year = {2016},
title = {An Algebraic Approach to Time-Span Reduction},
abstract = {This book provides an in-depth introduction and overview
of current research in computational music analysis. Its
seventeen chapters, written by leading researchers,
collectively represent the diversity as well as the
technical and philosophical sophistication of the work
being done today in this intensely interdisciplinary
field. A broad range of approaches are presented,
employing techniques originating in disciplines such as
linguistics, information theory, information retrieval,
pattern recognition, machine learning, topology, algebra
and signal processing. Many of the methods described draw
on well-established theories in music theory and analysis,
such as Forte's pitch-class set theory, Schenkerian
analysis, the methods of semiotic analysis developed by
Ruwet and Nattiez, and Lerdahl and Jackendoff's Generative
Theory of Tonal Music. The book is divided into six parts,
covering methodological issues, harmonic and pitch-class
set analysis, form and voice-separation, grammars and
hierarchical reduction, motivic analysis and pattern
discovery and, finally, classification and the discovery
of distinctive patterns. As a detailed and up-to-date
picture of current research in computational music
analysis, the book provides an invaluable resource for
researchers, teachers and students in music theory and
analysis, computer science, music information retrieval
and related disciplines. It also provides a
state-of-the-art reference for practitioners in the music
technology industry.},
address = {Cham},
booktitle = {Computational Music Analysis},
chapter = {10},
doi = {10.1007/978-3-319-25931-4_10},
editor = {Meredith, David},
isbn = {9783319259314},
issn = {0098-7484},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
pages = {251--270},
pmid = {1689},
publisher = {Springer International Publishing},
url = {http://link.springer.com/10.1007/978-3-319-25931-4_10}
}
@Article{ huron.ea2016-are,
author = {Huron, David and Trevor, Caitlyn},
year = {2016},
title = {Are Stopped Strings Preferred in Sad Music?},
abstract = {String instruments may be played either with open strings
(where the string vibrates between the bridge and a hard
wooden nut) or with stopped strings (where the string
vibrates between the bridge and a performer's finger
pressed against the fingerboard). Compared with open
strings, stopped strings permit the use of vibrato and
exhibit a darker timbre. Inspired by research on the
timbre of sad speech, we test whether there is a tendency
to use stopped strings in nominally sad music.
Specifically, we compare the proportion of potentially
open-to-stopped strings in a sample of slow, minor-mode
movements with matched major-mode movements. By way of
illustration, a preliminary analysis of Samuel Barber's
famous Adagio from his Opus 11 string quartet shows that
the selected key (B-flat minor) provides the optimum key
for minimizing open string tones. However, examination of
a broader controlled sample of quartet movements by Haydn,
Mozart and Beethoven failed to exhibit the conjectured
relationship. Instead, major-mode movements were found to
avoid possible open strings more than slow minor-mode
movements.},
doi = {10.18061/emr.v11i2.4968},
issn = {1559-5749},
journal = {Empirical Musicology Review},
keywords = {barber,music analysis with computers,s adagio,sad
music,stopped strings,string instruments},
mendeley-tags= {music analysis with computers},
number = {2},
pages = {261},
volume = {11}
}
@Article{ kroher.ea2016-corpus,
author = {Kroher, Nadine and D{\'{i}}az-B{\'{a}}{\~{n}}ez,
Jos{\'{e}}-Miguel and Mora, Joaquin and G{\'{o}}mez, Emilia},
year = {2016},
title = {Corpus COFLA: A Research Corpus for the Computational
Study of Flamenco Music},
abstract = {Flamenco is a music tradition from Southern Spain that
attracts a growing community of enthusiasts around the
world. Its unique melodic and rhythmic elements, the
typically spontaneous and improvised interpretation, and
its diversity regarding styles make this still largely
undocumented art form a particularly interesting material
for musicological studies. In prior works, it has already
been demonstrated that research on computational analysis
of flamenco music, despite it being a relatively new
field, can provide powerful tools for the discovery and
diffusion of this genre. In this article, we present
corpusCOFLA, a data framework for the development of such
computational tools. The proposed collection of audio
recordings and metadata serves as a pool for creating
annotated subsets that can be used in development and
evaluation of algorithms for specific music information
retrieval tasks. First, we describe the design criteria
for the corpus creation and then provide various examples
of subsets drawn from the corpus. We showcase possible
research applications in the context of computational
study of flamenco music and give perspectives regarding
further development of the corpus.},
archiveprefix= {arXiv},
arxivid = {1510.04029},
doi = {10.1145/2875428},
eprint = {1510.04029},
issn = {1556-4673},
journal = {Journal on Computing and Cultural Heritage},
keywords = {Computational ethnomusicology,Flamenco,Research
corpus,computational musicology},
mendeley-tags= {computational musicology},
month = {may},
number = {2},
pages = {1--21},
url = {https://dl.acm.org/doi/10.1145/2875428},
volume = {9}
}
@InCollection{ meredith2016-analysing,
author = {Meredith, David},
year = {2016},
title = {Analysing Music with Point-Set Compression Algorithms},
abstract = {This book provides an in-depth introduction and overview
of current research in computational music analysis. Its
seventeen chapters, written by leading researchers,
collectively represent the diversity as well as the
technical and philosophical sophistication of the work
being done today in this intensely interdisciplinary
field. A broad range of approaches are presented,
employing techniques originating in disciplines such as
linguistics, information theory, information retrieval,
pattern recognition, machine learning, topology, algebra
and signal processing. Many of the methods described draw
on well-established theories in music theory and analysis,
such as Forte's pitch-class set theory, Schenkerian
analysis, the methods of semiotic analysis developed by
Ruwet and Nattiez, and Lerdahl and Jackendoff's Generative
Theory of Tonal Music. The book is divided into six parts,
covering methodological issues, harmonic and pitch-class
set analysis, form and voice-separation, grammars and
hierarchical reduction, motivic analysis and pattern
discovery and, finally, classification and the discovery
of distinctive patterns. As a detailed and up-to-date
picture of current research in computational music
analysis, the book provides an invaluable resource for
researchers, teachers and students in music theory and
analysis, computer science, music information retrieval
and related disciplines. It also provides a
state-of-the-art reference for practitioners in the music
technology industry.},
address = {Cham},
booktitle = {Computational Music Analysis},
chapter = {13},
doi = {10.1007/978-3-319-25931-4_13},
editor = {Meredith, David},
isbn = {9783319259314},
issn = {0098-7484},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
pages = {335--366},
pmid = {1689},
publisher = {Springer International Publishing},
url = {http://link.springer.com/10.1007/978-3-319-25931-4_13}
}
@Article{ ponce-de-leon.ea2016-data-based,
author = {{Ponce de Le{\'{o}}n}, Pedro J. and I{\~{n}}esta,
Jos{\'{e}} M. and Calvo-Zaragoza, Jorge and Rizo, David},
year = {2016},
title = {Data-based melody generation through multi-objective
evolutionary computation},
abstract = {Genetic-based composition algorithms are able to explore
an immense space of possibilities, but the main difficulty
has always been the implementation of the selection
process. In this work, sets of melodies are utilized for
training a machine learning approach to compute fitness,
based on different metrics. The fitness of a candidate is
provided by combining the metrics, but their values can
range through different orders of magnitude and evolve in
different ways, which makes it hard to combine these
criteria. In order to solve this problem, a
multi-objective fitness approach is proposed, in which the
best individuals are those in the Pareto front of the
multi-dimensional fitness space. Melodic trees are also
proposed as a data structure for chromosomic
representation of melodies and genetic operators are
adapted to them. Some experiments have been carried out
using a graphical interface prototype that allows one to
explore the creative capabilities of the proposed system.
An Online Supplement is provided and can be accessed at
http://dx.doi.org/10.1080/17459737.2016.1188171, where the
reader can find some technical details, information about
the data used, generated melodies, and additional
information about the developed prototype and its
performance.},
doi = {10.1080/17459737.2016.1188171},
issn = {17459745},
journal = {Journal of Mathematics and Music},
keywords = {algorithmic composition,composition,evolutionary
algorithms,machine learning,melody,multi-objective
optimization,tree representation},
mendeley-tags= {algorithmic composition},
number = {2},
pages = {173--192},
url = {https://doi.org/10.1080/17459737.2016.1188171},
volume = {10}
}
@InCollection{ rizo.ea2016-interactive,
author = {Rizo, David and Illescas, Pl{\'{a}}cido R. and
I{\~{n}}esta, Jos{\'{e}} M.},
year = {2016},
title = {Interactive Melodic Analysis},
abstract = {This book provides an in-depth introduction and overview
of current research in computational music analysis. Its
seventeen chapters, written by leading researchers,
collectively represent the diversity as well as the
technical and philosophical sophistication of the work
being done today in this intensely interdisciplinary
field. A broad range of approaches are presented,
employing techniques originating in disciplines such as
linguistics, information theory, information retrieval,
pattern recognition, machine learning, topology, algebra
and signal processing. Many of the methods described draw
on well-established theories in music theory and analysis,
such as Forte's pitch-class set theory, Schenkerian
analysis, the methods of semiotic analysis developed by
Ruwet and Nattiez, and Lerdahl and Jackendoff's Generative
Theory of Tonal Music. The book is divided into six parts,
covering methodological issues, harmonic and pitch-class
set analysis, form and voice-separation, grammars and
hierarchical reduction, motivic analysis and pattern
discovery and, finally, classification and the discovery
of distinctive patterns. As a detailed and up-to-date
picture of current research in computational music
analysis, the book provides an invaluable resource for
researchers, teachers and students in music theory and
analysis, computer science, music information retrieval
and related disciplines. It also provides a
state-of-the-art reference for practitioners in the music
technology industry.},
address = {Cham},
booktitle = {Computational Music Analysis},
chapter = {8},
doi = {10.1007/978-3-319-25931-4_8},
editor = {Meredith, David},
isbn = {9783319259314},
issn = {0098-7484},
pages = {191--219},
pmid = {1689},
publisher = {Springer International Publishing},
url = {http://link.springer.com/10.1007/978-3-319-25931-4_8}
}
@InProceedings{ rizo.ea2016-standard,
author = {Rizo, David and Marsden, Alan},
year = {2016},
title = {A standard format proposal for hierarchical analyses and
representations},
abstract = {In the realm of digital musicology, standardizations
efforts to date have mostly concentrated on the
representation of music. Analyses of music are
increasingly being generated or communicated by digital
means. We demonstrate that the same arguments for the
desirability of standardization in the representation of
music apply also to the representation of analyses of
music: proper preservation, sharing of data, and
facilitation of digital processing. We concentrate here on
analyses which can be described as hierarchical and show
that this covers a broad range of existing analytical
formats. We propose an extension of MEI (Music Encoding
Initiative) to allow the encoding of analyses
unambiguously associated with and aligned to a
representation of the music analysed, making use of
existing mechanisms within MEI's parent TEI (Text Encoding
Initiative) for the representation of trees and graphs.},
address = {New York, New York, USA},
booktitle = {Proceedings of the 3rd International workshop on Digital
Libraries for Musicology - DLfM 2016},
doi = {10.1145/2970044.2970046},
isbn = {9781450347518},
keywords = {Encodings,Music analysis,Music
representations,Standards,computer and music},
mendeley-tags= {computer and music},
pages = {25--32},
publisher = {ACM Press},
url = {http://dl.acm.org/citation.cfm?doid=2970044.2970046}
}
@Article{ sampaio.ea2016-contour,
author = {{Sampaio}, {Marcos da Silva} and Kroger, Pedro},
year = {2016},
title = {Contour Algorithms Review},
abstract = {In this paper, we present some problems of two Music
Contour Relations Theory operations algorithms: the
Refinement of Contour Reduction Algorithm, which was
developed by Rob Schultz, and the Equivalence Contour
Class Prime Form algorithm, which was developed by
Elizabeth Marvin and Paul Laprade. We also propose two
alternative algorithms to solve these problems.},
journal = {MusMat - Brazilian Journal of Music and Mathematics},
keywords = {algorithm,equivalent contour classes,music contour,music
contour theory,reduction algorithm},
mendeley-tags= {music contour},
number = {1},
pages = {72--85},
url = {https://grupomusmat.files.wordpress.com/2016/12/07-sampaio.pdf},
volume = {1}
}
@Book{ schreibman.ea2016-new,
year = {2016},
title = {A new companion to Digital Humanities},
address = {West Sussex, England},
editor = {Schreibman, Susan and Siemens, Ray and Unsworth, Johm},
isbn = {9781118680599},
keywords = {computer},
mendeley-tags= {computer},
publisher = {John Wiley \& Sons Ltd}
}
@Article{ schultz2016-normalizing,
author = {Schultz, Rob D.},
year = {2016},
title = {Normalizing Musical Contour Theory},
doi = {10.1215/00222909-3448746},
issn = {0022-2909},
journal = {Journal of Music Theory},
keywords = {149,1995,50,advantages that numerical
representa-,analytical notation,contour,elizabeth west
marvin,has cited three distinct,melody,music
contour,normalization,numerical representation of
contour,of musical contour theory,pitch,rhythm,shed in the
development,the advent of the,was a water-},
mendeley-tags= {music contour},
number = {1},
pages = {23--50},
url = {http://jmt.dukejournals.org/lookup/doi/10.1215/00222909-3448746},
volume = {60}
}
@InCollection{ velarde.ea2016-wavelet-based,
author = {Velarde, Gissel and Meredith, David and Weyde, Tillman},
year = {2016},
title = {A Wavelet-Based Approach to Pattern Discovery in
Melodies},
abstract = {This book provides an in-depth introduction and overview
of current research in computational music analysis. Its
seventeen chapters, written by leading researchers,
collectively represent the diversity as well as the
technical and philosophical sophistication of the work
being done today in this intensely interdisciplinary
field. A broad range of approaches are presented,
employing techniques originating in disciplines such as
linguistics, information theory, information retrieval,
pattern recognition, machine learning, topology, algebra
and signal processing. Many of the methods described draw
on well-established theories in music theory and analysis,
such as Forte's pitch-class set theory, Schenkerian
analysis, the methods of semiotic analysis developed by
Ruwet and Nattiez, and Lerdahl and Jackendoff's Generative
Theory of Tonal Music. The book is divided into six parts,
covering methodological issues, harmonic and pitch-class
set analysis, form and voice-separation, grammars and
hierarchical reduction, motivic analysis and pattern
discovery and, finally, classification and the discovery
of distinctive patterns. As a detailed and up-to-date
picture of current research in computational music
analysis, the book provides an invaluable resource for
researchers, teachers and students in music theory and
analysis, computer science, music information retrieval
and related disciplines. It also provides a
state-of-the-art reference for practitioners in the music
technology industry.},
address = {Cham},
booktitle = {Computational Music Analysis},
chapter = {12},
doi = {10.1007/978-3-319-25931-4_12},
editor = {Meredith, David},
isbn = {9783319259314},
issn = {0098-7484},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
pages = {303--333},
pmid = {1689},
publisher = {Springer International Publishing},
url = {http://link.springer.com/10.1007/978-3-319-25931-4_12}
}
@Article{ velardo.ea2016-symbolic,
author = {Velardo, Valerio and Vallati, Mauro and Jan, Steven},
year = {2016},
title = {Symbolic Melodic Similarity: State of the Art and Future
Challenges},
abstract = {The invention of software in the mid-20th century was as
big a breakthrough for modern humans as the mastery over
fire was for our prehistoric ancestors; the addition of
cognitive fluidity to hardware has resulted in an
explosion of experimentation and creativity (which also
poses some challenges). As is the case with any new
technology, humans immediately set about using software to
connect with one another and extend our networks of
distributed cognition. Computer musicians are uniquely
positioned to predict the future by composing it and
coding it, because as a group we combine the imagination
and daring of artists with the technology that can make
the imaginary real.},
isbn = {8187672641},
issn = {1531-5169},
journal = {Computer Music Journal},
keywords = {kyma,music similarity,systems},
mendeley-tags= {music similarity},
number = {1},
pages = {10--24},
url = {http://www.mitpressjournals.org/doi/pdf/10.1162/COMJ_a_00359},
volume = {40}
}
@PhDThesis{ warrenburg2016-examining,
author = {Warrenburg, Lindsay Alison},
year = {2016},
title = {Examining Contrasting Expressive Content within First and
Second Musical Themes},
pages = {2016},
school = {The Ohio State University},
type = {Master Thesis},
url = {https://etd.ohiolink.edu/pg_10?::NO:10:P10_ETD_SUBID:114166}
}
@PhDThesis{ wei2016-computational,
author = {Wei{\ss}, Christof},
year = {2016},
title = {Computational Methods for Tonality-Based Style Analysis
of Classical Music Audio Recordings},
abstract = {With the tremendously growing impact of digital
technology, the ways of accessing music crucially changed.
Nowadays, streaming services, download platforms, and
private archives provide a large amount of music
recordings to listeners. As tools for organizing and
browsing such collections, automatic methods have become
important. In the area of Music Informa- tion Retrieval,
researchers are developing algorithms for analyzing and
comparing music data with respect to musical
characteristics. One typical application scenario is the
classification of music recordings according to categories
such as musical genres. In this thesis, we approach such
classification problems with the goal of discriminating
subgenres within Western classical music. In particular,
we focus on typical categories such as historical periods
or individual composers. From a musicological point of
view, this classi- fication problem relates to the
question of musical style, which constitutes a rather
ill-defined and abstract concept. Usually, musicologists
analyze musical scores in a manual fashion in order to
acquire knowledge about style and its determining factors.
This thesis contributes with computational methods for
realizing such analyses on comprehensive corpora of audio
recordings. Though it is hard to extract explicit
information such as note events from audio data, the
computational analysis of audio recordings might bear
great potential for musi- cological research. One reason
for this is the limited availability of symbolic scores in
high quality. The style analysis experiments presented in
this thesis focus on the fields of harmony and tonality.
In the first step, we use signal processing techniques for
computing chroma representations of the audio data. These
semantic “mid-level” representations capture the pitch
class content of an audio recording in a robust way and,
thus, constitute a suitable starting point for subsequent
processing steps. From such chroma representations, we
derive measures for quantitatively describing stylistic
properties of the music. Since chroma features suppress
timbral characteristics to a certain extent, we hope to
achieve invariance to timbre and instrumentation for our
analysis methods. Inspired by the characteristics of the
chroma representations, we model in this thesis specific
concepts from music theory and propose algorithms to
measure the occurence of certain tonal structures in audio
recordings. One of the proposed methods aims at estimating
the global key of a piece by considering the particular
role of the final chord. Another contribution of this
thesis is an automatic method to visualize modulations
regarding diatonic scales as well as scale types over the
course of a piece. Furthermore, we propose novel
techniques for estimating the presence of specific
interval and chord types and for measuring more abstract
notions such as tonal complexity. In first experiments, we
show the features' behavior for individual pieces and
discuss their musical meaning. On the basis of these novel
types of audio features, we perform comprehensive
experiments for analyzing and classifying audio recordings
regarding musical style. For this purpose, we apply
methods from the field of machine learning. Using
unsupervised clustering methods, we investigate the
similarity of musical works across composers and
composition years. Even though the underlying feature
representations may be imprecise and error-prone in some
cases, we can observe interesting tendencies that may
exhibit some musical meaning when analyzing large
databases. For example, we observe an increase of tonal
complexity during the 19th and 20th century on the basis
of our features. As an essential contribution of this
dissertation, we perform automatic classification
experiments according to historical periods (“eras”)
and composers. We compile two datasets, on which we test
common classifiers using both our tonal features and
standardized audio features. Despite the vagueness of the
task and the complexity of the data, we obtain good
results for the classification with respect to historical
periods. This indicates that the tonal features proposed
in this thesis seem to robustly capture some stylistic
properties. In contrast, using standardized timbral
features for classification often leads to overfitting to
the training data resulting in worse performance.
Comparing different types of tonal features revealed that
features relating to interval types, tonal complexity, and
chord progressions are useful for classifying audio
recordings with respect to musical style. This seems to
validate the hypothesis that tonal characteristics can be
discriminative for style analysis and that we can measure
such characteristics directly from audio recordings. In
summary, the interplay between musicology and audio signal
processing can be very promising. When applied to a
specific example, we have to be careful with the results
of computational methods, which, of course, cannot compete
with the experienced judgement of a musicologist. For
analyzing comprehensive corpora, however,
computer-assisted techniques provide interesting
opportunities to recognize fundamental trends and to
verify hypotheses.},
doi = {10.1016/j.anr.2016.04.002},
isbn = {0278-4319},
issn = {20937482},
keywords = {depression,kidney diseases,meta-analysis,music analysis
with computers,quality of life,self-management},
mendeley-tags= {music analysis with computers},
pmid = {28057311},
school = {Technische Universit{\"{a}}t Ilmenau},
type = {Ph.D. Dissertation},
url = {https://www.db-thueringen.de/servlets/MCRFileNodeServlet/dbt_derivate_00039054/ilm1-2017000293.pdf}
}
@Article{ white.ea2016-yale-classical,
author = {White, Christopher William and Quinn, Ian},
year = {2016},
title = {The Yale-Classical Archives Corpus},
abstract = {The Yale-Classical Archives Corpus (YCAC) contains
harmonic and rhythmic information for a dataset of Western
European Classical art music. This corpus is based on data
from classicalarchives.com, a repository of thousands of
user-generated MIDI representations of pieces from several
periods of Western European music history. The YCAC makes
available metadata for each MIDI file, as well as a list
of pitch simultaneities ("salami slices") in the MIDI
file. Metadata include the piece's composer, the
composer's country of origin, date of composition, genre
(e.g., symphony, piano sonata, nocturne, etc.),
instrumentation, meter, and key. The processing step
groups the file's pitches into vertical slices each time a
pitch is added or subtracted from the texture, recording
the slice's offset (measured in the number of quarter
notes separating the event from the file's beginning),
highest pitch, lowest pitch, prime form, scale-degrees in
relation to the global key (as determined by experts), and
local key information (as determined by a windowed
key-profile analysis). The corpus contains 13,769 MIDI
files by 571 composers yielding over 14,051,144 vertical
slices. This paper outlines several properties of this
corpus, along with a representative study using this
dataset.},
doi = {10.18061/emr.v11i1.4958},
issn = {1559-5749},
journal = {Empirical Musicology Review},
keywords = {academic inquiry,allowing scholars to quantify,amounts
of,as the fields of,c omputational analysis of,common
practice,corpus analysis,evidence,experiment with such
methods,historical trends and bolster,intuitive
observations with large,large data sets has,machine
learning,music,music theory and musicology,style,there
arises a need,tonality,transformed many aspects of},
mendeley-tags= {music},
number = {1},
pages = {50},
url = {http://emusicology.org/article/view/4958/4397},
volume = {11}
}
@Article{ widmer2016-getting,
author = {Widmer, Gerhard},
year = {2016},
title = {Getting closer to the essence of music: The con
espressione manifesto},
abstract = {This text offers a personal and very subjective view on
the current situation of Music Information Research (MIR).
Motivated by the desire to build systems with a somewhat
deeper understanding of music than the ones we currently
have, I try to sketch a number of challenges for the next
decade of MIR research, grouped around six simple truths
about music that are probably generally agreed on but
often ignored in everyday research.},
archiveprefix= {arXiv},
arxivid = {1611.09733},
doi = {10.1145/2899004},
eprint = {1611.09733},
issn = {21576912},
journal = {ACM Transactions on Intelligent Systems and Technology},
keywords = {music information retrieval},
mendeley-tags= {music information retrieval},
number = {2},
pages = {1--14},
url = {http://www.cp.jku.at/research/projects/ConEspressione/pubs/manifesto.pdf},
volume = {8}
}
@Book{ aggarwal2015-data,
author = {Aggarwal, Charu C.},
year = {2015},
title = {Data Mining},
address = {Cham},
doi = {10.1007/978-3-319-14142-8},
isbn = {978-3-319-14141-1},
keywords = {computer},
mendeley-tags= {computer},
publisher = {Springer International Publishing},
url = {https://linkinghub.elsevier.com/retrieve/pii/030438358190152X
http://link.springer.com/10.1007/978-3-319-14142-8}
}
@Article{ balen.ea2015-corpus,
author = {Balen, Jan Van and Burgoyne, John Ashley and
Bountouridis, Dimitrios and Müllensiefen, Daniel and
Veltkamp, Remco C.},
year = {2015},
title = {Corpus {Analysis} {Tools} {For} {Computational} {Hook}
{Discovery}.},
copyright = {Creative Commons Attribution 4.0, Open Access},
url = {https://zenodo.org/record/1415038},
doi = {10.5281/ZENODO.1415038},
abstract = {Compared to studies with symbolic music data, advances in
music description from audio have overwhelmingly focused
on ground truth reconstruction and maximizing prediction
accuracy, with only a small fraction of studies using
audio description to gain insight into musical data. We
present a strategy for the corpus analysis of audio data
that is optimized for interpretable results. The approach
brings two previously unexplored concepts to the audio
domain: audio bigram distributions, and the use of
corpus-relative or “second-order” descriptors. To test
the real-world applicability of our method, we present an
experiment in which we model song recognition data
collected in a widely-played music game. By using the
proposed corpus analysis pipeline we are able to present a
cognitively adequate analysis that allows a model
interpretation in terms of the listening history and
experience of our participants. We find that our
corpus-based audio features are able to explain a
comparable amount of variance to symbolic features for
this task when used alone and that they can supplement
symbolic features profitably when the two types of
features are used in tandem. Finally, we highlight new
insights into what makes music recognizable.},
language = {en},
urldate = {2023-02-23},
month = oct,
note = {Publisher: Zenodo}
}
@Article{ barbosa.ea2015-evaluating,
author = {Barbosa, Jeronimo and Mckay, Cory and Fujinaga, Ichiro},
year = {2015},
title = {Evaluating automated classification techniques for folk
music genres from the Brazilian Northeast},
journal = {Proceedings of the 15th Brazilian Symposium on Computer
Music},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {3--12}
}
@PhDThesis{ birson2015-haydns,
author = {Birson, Adem Merter},
year = {2015},
title = {Haydn's dramatic dissonances: chromaticism and formal
process in his string quartets, opp. 9 and 17},
keywords = {music analysis},
mendeley-tags= {music analysis},
school = {Cornell University},
type = {Ph.D. Dissertation}
}
@InProceedings{ devaney.ea2015-theme,
author = {Devaney, Johanna and Arthur, Claire and Condit-Schultz,
Nathaniel and Nisula, Kirsten},
year = {2015},
title = {Theme and variation encodings with roman numerals
(TaVERn): A new data set for symbolic music analysis},
abstract = {The Theme And Variation Encodings with Roman Numerals
(TAVERN) dataset consists of 27 complete sets of theme and
variations for piano composed between 1765 and 1810 by
Mozart and Beethoven. In these theme and variation sets,
comparable harmonic structures are realized in different
ways. This facilitates an evaluation of the effectiveness
of automatic analysis algorithms in generalizing across
different musical textures. The pieces are encoded in
standard **kern format, with analyses jointly encoded
using an extension to **kern. The harmonic content of the
music was analyzed with both Roman numerals and function
labels in duplicate by two different expert analyzers. The
pieces are divided into musical phrases, allowing for
multiple-levels of automatic analysis, including chord
labeling and phrase parsing. This paper describes the
content of the dataset in detail, including the types of
chords represented, and discusses the ways in which the
analyzers sometimes disagreed on the lower-level harmonic
content (the Roman numerals) while converging at similar
high-level structures (the function of the chords within
the phrase).},
address = {M{\'{a}}laga, Spain},
booktitle = {Proceedings of the 16th International Society for Music
Information Retrieval Conference, ISMIR 2015},
isbn = {9788460688532},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {728--734},
publisher = {International Society for Music Information Retrieval},
url = {http://ismir2015.uma.es/articles/261_Paper.pdf}
}
@Article{ frieler.ea2015-is,
author = {Frieler, Klaus and Jakubowski, Kelly and Mullensiefen,
Daniel},
year = {2015},
title = {Is it the song and not the singer? Hit song prediction
using structural features of melodies},
journal = {Musikpsychologie Bd.},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {41--54},
url = {https://www.researchgate.net/publication/281826659_Is_it_the_Song_and_Not_the_Singer_Hit_Song_Prediction_Using_Structural_Features_of_Melodies},
volume = {25}
}
@InProceedings{ gentil-nunes2015-analise,
author = {Gentil-Nunes, Pauxy},
year = {2015},
title = {An\'{a}lise formal de estruturas r\'{i}tmicas de {Meyer}
em diagrama de {Hasse}},
volume = {2 - Processos criativos},
url = {14º Col\'{o}quio de Pesquisa do PPGM/UFRJ},
abstract = {O presente trabalho é parte de uma pesquisa mais ampla,
desenvolvida no âmbito do Programa de P\'{o}s-Graduação
em Música da UFRJ – Grupo MusMat e consiste na
formalização do conjunto de estruturas r\'{i}tmicas
propostas por Leonard Meyer (1960), baseadas na
pros\'{o}dia musical, resultando em sua taxonomia
exaustiva e na definição de relações entre elementos
(perfis r\'{i}tmicos). Repercussões e cr\'{i}ticas do
trabalho de Meyer são revisadas e avaliadas. São
apresentadas também pequenas an\'{a}lises, como exemplos
de aplicação elementar da formalização proposta.},
language = {pt},
keywords = {An\'{a}lise Musical;, An\'{a}lise Particional,
Composição Musical, Reticulado de Young},
pages = {153--169}
}
@InProceedings{ koops.ea2015-corpus-based,
author = {Koops, Hendrik Vincent and Volk, Anja and {Bas de Haas},
W.},
year = {2015},
title = {Corpus-based rhythmic pattern analysis of ragtime
syncopation},
abstract = {This paper presents a corpus-based study on rhythmic
patterns in the RAG-collection of approximately 11.000
symbolically encoded ragtime pieces. While characteristic
musical features that define ragtime as a genre have been
debated since its inception, musicologists argue that
specific syncopation patterns are most typical for this
genre. Therefore, we investigate the use of syncopation
patterns in the RAG-collection from its beginnings until
the present time in this paper. Using computational
methods, this paper provides an overview on the use of
rhythmical patterns of the ragtime genre, thereby offering
valuable new insights that complement musicological
hypotheses about this genre. Specifically, we measure the
amount of syncopation for each bar using Longuet-Higgins
and Lee's model of syncopation, determine the most
frequent rhythmic patterns, and discuss the role of a
specific short-long-short syncopation pattern that
musicologists argue is characteristic for ragtime. A
comparison between the ragtime (pre-1920) and modern
(post-1920) era shows that the two eras differ in
syncopation pattern use. Onset density and amount of
syncopation increase after 1920. Moreover, our study
confirms the musicological hypothesis on the important
role of the short-long-short syncopation pattern in
ragtime. These findings are pivotal in developing ragtime
genre-specific features.},
address = {Malaga, Spain},
booktitle = {Proceedings of the 16th International Society for Music
Information Retrieval Conference, ISMIR 2015},
isbn = {9788460688532},
keywords = {music information retrieval},
mendeley-tags= {music information retrieval},
pages = {483--489}
}
@PhDThesis{ mastic2015-normative,
author = {Mastic, Timothy R.},
year = {2015},
title = {Normative wit: Haydn's personal Sonata Form},
keywords = {music analysis},
mendeley-tags= {music analysis},
school = {University of Oregon},
type = {Master Thesis},
url = {https://www.academia.edu/10763858/Normative_Wit_Haydns_Personal_Sonata_Form}
}
@Book{ meredith2015-computational,
year = {2015},
title = {Computational Music Analysis},
address = {New York},
editor = {Meredith, David},
isbn = {9783319259291},
keywords = {music similarity},
mendeley-tags= {music similarity},
publisher = {Springer}
}
@InProceedings{ papasarantopoulos.ea2015-computational,
author = {Papasarantopoulos, Nikos and Poulakis, Nick and
Anagnostopoulou, Christina},
year = {2015},
title = {A computational analysis study of children's songs from
different countries},
address = {Manchester, UK},
booktitle = {Proceedings of the Ninth Triennial Conference of the
European Society for the Cognitive Sciences of Music},
editor = {Ginsborg, J. and Lamont, A. and Phillips, M. and Bramley,
S.},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {626--630}
}
@Article{ pugin2015-challenge,
author = {Pugin, Laurent},
year = {2015},
title = {The Challenge of Data in Digital Musicology},
abstract = {Most of our work in the humanities is increasingly driven
by digital technology. Musicology is no exception and the
field is undergoing the same revolution as all disciplines
in the humanities. There are at least two key areas in
which digital technology is transforming research: access
and scale. Technology, and the internet in particular, has
radically changed how we can access data, but also how we
can make research results accessible to others.
Correlatively, the scope of projects can be broadened to a
completely new extent. What does this mean for musicology?
Scholars in musicology base their work on a wide range of
materials. Since most of the music that forms our heritage
in Western culture has been preserved in a text-based
form, this is by far, the most widely used type of
material for musicological studies. Handwritten and
printed sources constitute the core data, but historical
studies also rely on various types of textual and archival
material, be they letter writings, libretti, or
inventories of diverse kind. These are essential for
understanding the socio-economic context in which the
music sources were written or produced and for better
understanding of specific aspects, such as performance
practice of the time. Performance practice study itself
may also be based on sound recordings when focusing on
relatively recent history, as it is often the case for
studies in ethno-musicology or in folk-songs (Cook, 2010).
Obtaining access to the sources has always been a struggle
for musicologists. Only a few years ago, studying a
particular source meant first locating the relevant
sources using printed bibliographies, writing to the
holding library, and then waiting for a microfilm to be
prepared and sent out. The process could take months and
be unpredictably expensive, with no guarantee of success.
Such an obstacle seriously reduced the breadth of research
musicologists could reasonably envisage, with a consequent
inclination toward close-reading approaches on a
restricted set of sources. With the coming of the digital
world, the situation changed. Many resources are now
available online, including the bibliographic finding
aids, which makes locating sources significantly easier.
Collections are being digitized and made accessible
online, which greatly facilitates access to them for
musicologists. This is also the case for secondary
sources. Some projects are composer-specific, such as the
Digital Archive of the Beethoven-Haus, others are
repertoire-oriented, such as the digital image archive for
medieval manuscripts (DIAMM) or based on a particular
library collection, such as the Julliard Manuscript
Collection, to cite only three examples. In the archives,
digital cameras are often allowed and can be used to
capture sources quickly. It is now straightforward for
scholars to store thousands of images on their personal
computer, in the cloud, or even share them on community
websites, although this in its turn raises new copyright
concerns. What other issues need to be addressed? Digital
access in musicology is still overwhelmingly linked to
images. Several important digital musicology research
projects, such as the OCVE and the Edirom projects,
focusing mostly on philological issues have been very
successful in relying extensively on digital image
resources (Bradley and Vetch, 2007; Bohl et al., 2011).
However, digital musicology projects that address a wide
range of other issues, such as music analysis or music
searching, require access to the music itself in digital
form, are referred to as content-based resources.
Musicology has never been behind other disciplines for
experimenting with computational approaches in these
domains, quite on the Frontiers in Digital Humanities |
www.frontiersin.org August 2015 | Volume 2 | Article 4 1
Pugin Data in digital musicology contrary. However,
obtaining or accessing high quality datasets remains a
serious hurdle, especially on a large scale, in a similar
way to accessing sources a couple of decades ago. It is a
major barrier that needs to be removed if digital
musicology research is to be taken to the next level.
Several initiatives have laid down the basis for
large-scale content-based resources. First and foremost,
the CCARH with its KernScores repository 1 , which
represents years of careful data creation and curation is
made available for research and is an invaluable
contribution. The Josquin Research Project (JRP 2) at
Stanford is a groundbreaking project that is currently
building a considerable dataset of pieces of Josquin des
Prez and of other composers of the time (1400–1500).
Another is the Electronic Locator of Vertical Interval
Successions project at McGill Uni-versity (ELVIS 3). These
two projects pursue similar goals and follow more or less
comparable strategies: respectively creating or collecting
a large collection of data and making it accessi-ble and
analyzable by integrating state-of-the-art analysis tools
Humdrum and Music21. Their output in terms of counterpoint
analysis is a breakthrough and opens new perspectives for
style analysis and composition attribution. The use of the
harmonic and melodic intervals in ELVIS illuminates areas
in which inno-vative research might be needed to address
the question of how to represent music appropriately for
such corpus-based analysis undertakings. These are
undoubtedly models to follow, but they also illustrate how
much still needs to be done. They hold a few thousand
pieces 4},
doi = {10.3389/fdigh.2015.00004},
issn = {2297-2668},
journal = {Frontiers in Digital Humanities},
keywords = {ccarh,content-based music resources,digital
musicology,edited and reviewed by,eleanor
selfridge-field,music analysis,music
encoding,musicology,the packard,usa},
mendeley-tags= {musicology},
number = {August},
pages = {19--21},
volume = {2}
}
@Article{ riley2015-sonata,
author = {Riley, Matthew},
year = {2015},
title = {The sonata principle reformulated for Haydn post-1770 and
a typology of his recapitulatory strategies},
doi = {10.1080/02690403.2015.1008862},
issn = {02690403},
journal = {Journal of the Royal Musical Association},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {1},
pages = {1--39},
volume = {140}
}
@Article{ schubert.ea2015-another,
author = {Schubert, Peter and Cumming, Julie},
year = {2015},
title = {Another lesson from Lassus: Using computers to analyse
counterpoint},
abstract = {The authors report on experiments they have run using the
computer to search a small corpus of Renaissance pieces
(the famous Lassus duos of 1577) for recurring
contrapuntal combinations. They liken these combinations
(or 'modules' as Jessie Ann Owens has called them) to
words in a text, and the process of finding them, to work
done by linguists such as John Sinclair on large corpora
of text. The program used was devised by a team at McGill
University as part of the ELVIS ('Electronic Locator of
Vertical Interval Successions') project. The interval
successions are identified by the vertical intervals and
the melodic motions that connect them, in the manner of
Tinctoris's counterpoint treatise (1477), which
illustrates most of the possible ways two vertical
intervals can be connected. The authors find that some
short interval successions appear, as we would expect, in
repetitions of thematic material (i.e. as parts of
soggetti associated with specific text phrases). Others,
however, occur in apparently run-of-the-mill counterpoint:
in the middle of words, in the middle of melismas, across
phrase boundaries and embellished in a variety of ways.
These often exhibit surprising consistency as to semitone
position and possible modal associations. [ABSTRACT FROM
AUTHOR]},
doi = {10.1093/em/cav088},
issn = {03061078},
journal = {Early Music},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
number = {4},
pages = {577--586},
url = {https://www.academia.edu/20226339/Another_Lesson_from_Lassus_Using_Computers_to_Analyze_Counterpoint},
volume = {43}
}
@PhDThesis{ sousa2015-perspectivas,
author = {de Sousa, Daniel Moreira},
year = {2015},
title = {Perspectivas para a an{\'{a}}lise textural a partir da
media{\c{c}}{\~{a}}o entre a Teoria dos Contornos e a
An{\'{a}}lise Particional},
abstract = {O Contorno Textural é uma proposta original que surge a
partir de uma nova aplicação da Teoria dos Contornos
Musicais, desenvolvida principalmente por Friedmann
(1985), Morris (1987) e Marvin e Laprade (1987), no campo
textural, através da utilização de alguns conceitos
da Análise Particional (GENTIL-NUNES e CARVALHO, 2003). O
principal objetivo do Contorno Textural é permitir a
realização de um estudo aprofundado das progressões
texturais através da observação de uma curva de
complexidade textural, constituída a partir da
aplicação do conceito de abstração de níveis da
Teoria dos Contornos na organização hierárquica das
configurações texturais. São destacadas algumas
ferramentas conceituais tanto da Teoria dos Contornos
quanto da Análise Particional utilizadas na
formulação do Contorno Textural. Um conjunto de
ferramentas e conceitos originais elaborados durante a
pesquisa são demonstrados em pequenos exemplos de
diferentes compositores. A abordagem analítica é
explorada na análise da Introdução da Sagração da
Primavera de Igor Stravinsky (1913/1989) e do Prélude
à L'après-midi d'un faune de Claude Debussy
(1892/1981), considerando também possíveis relações
entre a textura e o contorno melódico de seus
respectivos temas iniciais. A aplicação em processo
criativo foi realizada na obra Skyline para vibrafone
solo, cujo as escolhas texturais, assim como a
definição de outros parâmetros como o espaço de
alturas, o ritmo e o andamento, foram norteadas pela
escolha prévia de um contorno. Três aplicativos
computacionais foram desenvolvidos para facilitar a
implementação da presente proposta e suas
características e funções são detalhadas:
Operadores Particionais (GENTIL-NUNES; MOREIRA, 2013),
Contour Analyzer (MOREIRA, 2014c) e Jacquard (MOREIRA,
2015b).},
keywords = {Análise Musical,Análise
Particional,Composição,Progressão Textural,Teoria
dos Contornos,music contour},
mendeley-tags= {music contour},
school = {Universidade Federal do Rio de Janeiro},
type = {Disserta{\c{c}}{\~{a}}o de mestrado},
url = {https://www.dropbox.com/s/7ak966u7k7rt4x0/Perspectivas
para a an{\'{a}}lise textural a partir da
media{\c{c}}{\~{a}}o entre a Teoria dos Contornos e a
An{\'{a}}lise Particional %28Daniel Moreira%29.pdf?dl=0
https://www.academia.edu/14877490/Perspectivas_para_a_an{\'{a}}lise_textural_a}
}
@InProceedings{ wei.ea2015-tonal,
author = {Wei{\ss}, Christof and Muller, Meinard},
year = {2015},
title = {Tonal complexity features for style classification of
classical music},
abstract = {We propose a set of novel audio features for classifying
the style of classical music. The features rely on
statistical measures based on a chroma feature
representation of the audio data and describe the tonal
complexity of the music, independently from the
orchestration or timbre of the music. To analyze this
property, we use a dataset containing piano and orchestral
music from four general historical periods including
Baroque, Classical, Romantic, and Modern. By applying
dimensionality reduction techniques, we derive
visualizations that demonstrate the discriminative power
of the features with regard to the music styles. In
classification experiments, we evaluate the features'
performance using an SVM classifier. We investigate the
influence of artist filtering with respect to the
individual composers on the classification performance. In
all experiments, we compare the results to the performance
of standard features. We show that the introduced features
capture meaningful properties of musical style and are
robust to timbral variations. {\textcopyright} 2015 IEEE.},
booktitle = {ICASSP, IEEE International Conference on Acoustics,
Speech and Signal Processing - Proceedings},
doi = {10.1109/ICASSP.2015.7178057},
isbn = {9781467369978},
issn = {15206149},
keywords = {Musical Style Classification,Tonal Features,music
analysis with computers},
mendeley-tags= {music analysis with computers},
number = {June 2016},
pages = {688--692}
}
@Article{ birson2014-use,
author = {Birson, Adem Merter},
year = {2014},
title = {The Use of Minor Mode and Playing With Sonority in the
Expositions of Haydn's String Quartets, Opp. 9 and 17},
abstract = {Haydn's early string quartets have been receiving more
scholarly attention than previously within the last
decade. Whether they treat these works as part of larger
discussions of the entire ouvre of Haydn's quartets, or as
the focus of studies in their own right, scholars have
recently been willing to break from the traditional focus
on quartets beginning from Op. 33 and allow for deeper
engagement with the early quartets on terms more broadly
conceived. This study aims to add to the growing body of
knowledge on Opp. 9 and 17 by demonstrating how the first
movements of Op. 9 no. 1 in C major, Op. 17 no. 2 in F
major and Op. 17 no. 6 in D major each employ the minor
mode at analogous moments in the exposition, with a
disruptive effect on both the harmonic progression and the
emotional register of the music. The impact of these modal
digressions is analyzed, as they lead to climactic moments
of fixation on a dissonant sonority. This momentarily
freezes all four voices of the ensemble in a chromatic
harmony that lends an expressive, at times even eccentric,
character to the tonal drama. Thus important musical
moments are uncovered, which have mostly gone unnoticed
due to a general lack of emphasis of the early quartets as
serious works. This approach opens up new avenues to
understanding of the harmonic and expressive capability of
Haydn's approach to sonata form.},
journal = {Haydn: Online Journal of the Haydn Society of North
America},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {1},
pages = {1--30},
volume = {4}
}
@InProceedings{ cambouropoulos.ea2014-idiom-independent,
author = {Cambouropoulos, Emilios and Kaliakatsos-Papakostas,
Maximos and Tsougras, Costas},
year = {2014},
title = {An Idiom-independent Representation of Chords for
Computational Music Analysis and Generation},
abstract = {In this paper we focus on issues of harmonic representa-
tion and computational analysis. A new idiom- independent
representation is proposed of chord types that is
appropriate for encoding tone simultaneities in any
harmonic context (such as tonal, modal, jazz, octatonic,
atonal). The General Chord Type (GCT) representation,
allows the re-arrangement of the notes of a harmonic
simultaneity such that abstract idiom-specific types of
chords may be derived; this encoding is inspired by the
standard roman numeral chord type labeling, but is more
general and flexible. Given a consonance-dissonance
classification of intervals (that reflects culturally-
dependent notions of consonance/dissonance), and a scale,
the GCT algorithm finds the maximal subset of notes of a
given note simultaneity that contains only con- sonant
intervals; this maximal subset forms the base upon which
the chord type is built. The proposed representa- tion is
ideal for hierarchic harmonic systems such as the tonal
system and its many variations, but adjusts to any other
harmonic system such as post-tonal, atonal music, or
traditional polyphonic systems. The GCT representa- tion
is applied to a small set of examples from diverse musical
idioms, and its output is illustrated and analysed showing
its potential, especially, for computational music
analysis \& music information retrieval.},
address = {Athens, Greece},
booktitle = {Proc. Joint 40th International Computer Music Conference
(ICMC) and 11th Sound and Music Computing (SMC) Conference
(ICMC- SMC2014)},
doi = {10.13140/2.1.4128.1281},
isbn = {9789604661374},
keywords = {computer and music},
mendeley-tags= {computer and music},
number = {September},
pages = {1002--1009},
url = {https://www.researchgate.net/profile/Emilios_Cambouropoulos/publication/266614715_An_Idiom-independent_Representation_of_Chords_for_Computational_Music_Analysis_and_Generation/links/54354b240cf2bf1f1f286e3e.pdf}
}
@Article{ cortens2014-expositions,
author = {Cortens, Evan},
year = {2014},
title = {The Expositions of Haydn's String Quartets: A Corpus
Analysis},
journal = {Haydn: Online Journal of the Haydn Society of North
America},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {1},
url = {https://www.rit.edu/affiliate/haydn/expositions-haydn's-string-quartets-corpus-analysis},
volume = {4}
}
@Article{ david.ea2014-vers,
author = {David, Laurent and Giraud, Mathieu and Groult, Richard
and Lev{\'{e}}, Florence and Louboutin, Corentin},
year = {2014},
title = {Vers une analyse automatique des formes sonates},
journal = {Journ{\'{e}}es d'Informatique Musicale (JIM 2014)},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
pages = {113--118},
url = {https://hal.archives-ouvertes.fr/hal-01009166/document}
}
@PhDThesis{ donato2014-statistical,
author = {Donato, Stephanie M},
year = {2014},
title = {Statistical Analysis and Graphic Representation of the
Correlation of Bach and Chopin Preludes},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
school = {University of Vermont},
type = {Honors College Thesis},
url = {https://scholarworks.uvm.edu/hcoltheses/25/}
}
@InProceedings{ giraud.ea2014-towards,
author = {Giraud, Mathieu and Lev{\'{e}}, Florence and Mercier,
Florent and Rigaudi{\`{e}}re, Marc and Thorez, Donatien},
year = {2014},
title = {Towards modeling texture in symbolic data},
booktitle = {Proceedings of 15th International Society for Music
Information Retrieval Conference},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {59--64}
}
@Article{ grave2014-listening,
author = {Grave, Floyd K.},
year = {2014},
title = {Listening for Tertiary Rhetoric in Haydn's Op. 77 String
Quartets},
abstract = {In a pair of recent essays, Elaine Sisman has advanced a
novel approach to the critical analysis of
eighteenth-century instrumental works whose invention and
publication fall within the familiar custom of the opus
group. Citing George Kennedy's distinction between two
species of rhetoric—primary (the speech act itself) and
secondary (involved with the reflective practice of
rhetorical analysis)—Sisman proposes a third kind, a
tertiary rhetoric by which we may imagine the works in an
opus group to be engaged in conversation among themselves.
Because the rhetorical field envisaged by Sisman's concept
normally comprises a full set of six works (or two
sub-groups of three each), the possibilities of tertiary
rhetoric are naturally limited in an opus that a composer
has left unfinished—limited but not necessarily
vitiated. In a famous case of the unfinished opus, Haydn's
Op. 77, which comprises just two quartets, we can discern
an array of complementary relationships, stylistic
dichotomies, and telling points of intersection by which
the two pieces are variously opposed or bound together.
The strands of an imaginary dialogue are thus in place, a
musical conversation from which fresh insight into the
music and its composer can be gained as we listen to the
quartets' discourse over such topics as tonal orientation,
thematic construction, motivic process, ensemble play,
rhetorical strategy, and the ingredients of structural
cohesion.},
journal = {Haydn: Online Journal of the Haydn Society of North
America},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {Spring},
pages = {1--27},
volume = {4}
}
@PhDThesis{ gustar2014-statistics,
author = {Gustar, Andrew},
year = {2014},
title = {Statistics in Historical Musicology},
keywords = {music and mathematics},
mendeley-tags= {music and mathematics},
school = {Open University},
type = {Ph.D. Dissertation}
}
@Article{ hunter2014-unisons,
author = {Hunter, Mary},
year = {2014},
title = {Unisons in Haydn's String Quartets by Mary Hunter},
abstract = {In this essay, I build on Janet Levy's work on the
signification of unisons, and that of Armin Raab on their
structural functions in Haydn's quartets to examine how
unisons convey meanings in these works. I argue that one
of the most salient characteristics of the unison in the
quartets is its capacity for both syntactic and semantic
ambiguity. I also briefly discuss the peculiar status on
the unison in a genre especially valued for its complex
“conversational” textures. I.},
journal = {Haydn: Online Journal of the Haydn Society of North
America},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {Spring},
volume = {4}
}
@Article{ mackay2014-sonata,
author = {MacKay, James S.},
year = {2014},
title = {Sonata form Experimentation in Joseph Haydn's String
Quartets, Opus 17},
abstract = {In 1963, Jens Peter Larsen published an article entitled
“Sonata Form Problems,” in which he outlines some of
Haydn's unique solutions to sonata-exposition structures.
Using Larsen's hypotheses, coupled with William Caplin's
insights in Classical Form, and James Hepokoski and Warren
Darcy's ground-breaking Elements of Sonata Theory, I will
examine the diversity of Haydn's formal procedures in
certain movements of his oft-neglected Opus 17 string
quartets of 1771. These works provide a staggering array
of sonata-form possibilities, many of which deviate
provocatively from the High Classical sonata form model.
In a brief overview of the Opus 17 quartets' 17
sonata-form movements (presented in tabular form), we will
explore the diversity of Haydn's formal procedures. Four
of James Hepokoski and Warren Darcy's five sonata-form
“types” (from their Elements of Sonata Theory) are
employed in Opus 17: Type 1 sonatas (which lack a
development section), Type 2 sonatas (which omit the main
theme from the recapitulation), Type 3 sonatas (the
“textbook” form), and Type 4 sonatas (a sonata-rondo
blend). Following this overview, we will turn in depth to
three specific movements from this opus: the slow
movements of Opus 17, nos. 1 and 3, and the sonata-rondo
finale of Opus 17, no. 1. In these works, Haydn's fondness
for anomalous thematic structures will be explored and
examined as viable alternatives to normative sonata-form
design. Haydn's formal inventiveness in his Opus 17
quartets strongly suggests that he was not seeking to
problematize sonata form, but rather, positing a wide
range of solutions for the balance of thematic and
developmental activity in these works.},
journal = {Haydn: Online Journal of the Haydn Society of North
America},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {1},
pages = {1--31},
url = {https://www.rit.edu/affiliate/haydn/sonata-form-experimentation-joseph-haydn's-string-quartets-opus-17},
volume = {4}
}
@InProceedings{ rodriguez-lopez.ea2014-symbolic,
author = {Rodr{\'{i}}guez-L{\'{o}}pez, Marcelo and Volk, Anja},
year = {2014},
title = {Symbolic Segmentation: A Corpus-Based Analysis of Melodic
Phrases},
abstract = {Gestalt-based segmentation models constitute the current
state of the art in automatic segmentation of melodies.
These models commonly assume that segment boundary
perception is mainly triggered by local discontinuities,
i.e. by abrupt changes in pitch and/or duration between
neighbouring notes. This paper presents a statistical
study of a large corpus of boundary-annotated vocal
melodies to test this assumption. The study focuses on
analysing the statistical behaviour of pitch and duration
in the neighbourhood of annotated phrase boundaries. Our
analysis shows duration discontinuities to be
statistically regular and homogeneous, and contrarily
pitch discontinuities to be irregular and heterogeneous.
We conclude that pitch discontinuities, when modelled as a
local and idiom-independent phenomenon, can only serve as
a weak predictor of segment boundary perception in vocal
melodies.},
address = {Cham},
booktitle = {Proc. 10th International Symposium on Computer Music
Multidisciplinary Research (CMMR)},
editor = {Aramaki, Mitsuko and Derrien, Olivier and
Kronland-Martinet, Richard and Ystad, S{\o}lvi},
isbn = {978-3-319-12976-1},
keywords = {Interval Size,Music Information Retrieval,Phrase
Boundary,Pitch Interval,Segmentation Model,music
information retrieval},
mendeley-tags= {music information retrieval},
pages = {548--557},
publisher = {Springer International Publishing},
url = {https://link.springer.com/chapter/10.1007/978-3-319-12976-1_33}
}
@Article{ rumph2014-what,
author = {Rumph, Stephen},
year = {2014},
title = {What Beethoven learned from K464},
doi = {10.1017/S1478570613000377},
journal = {Eighteenth Century Music},
keywords = {music history},
mendeley-tags= {music history},
number = {1},
pages = {55--77},
publisher = {Cambridge University Press},
volume = {11}
}
@InProceedings{ serra2014-creating,
author = {Serra, Xavier},
year = {2014},
title = {Creating research corpora for the computational study of
music: The case of the CompMusic project},
abstract = {A fundamental concern in music information research is
the use of appropriate data sets, research corpora, from
which to perform the needed data processing tasks. These
corpora have to be suited for the specific research
problems to be addressed and the design criteria with
which to create them is a research task to which not much
attention has been paid. In the CompMusic project we are
studying several non-western art music traditions and a
major effort has been the creation of appropriate data
collections with which to study and characterise the
melodic and rhythmic aspects of these traditions. In this
article we go over the criteria used to create these
collections and we describe the specificities of each of
the collections gathered.},
address = {London, UK},
booktitle = {Proceedings of the AES International Conference},
isbn = {9781632662842},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {1--9},
url = {https://repositori.upf.edu/bitstream/handle/10230/44221/serra_aes53_crea.pdf?sequence=1&isAllowed=y}
}
@InProceedings{ wei.ea2014-quantifying,
author = {Wei{\ss}, Christof and M{\"{u}}ller, Meinard},
year = {2014},
title = {Quantifying and Visualizing Tonal Complexity},
abstract = {In Western classical music, the structure of a piece is
reinforced by the contrasting harmonic nature of its
sections. The structural parts are characterized by the
presence of certain chords or chord changes. A section
that is harmonically stable may be followed by a
contrasting section that feels unstable or tense. In the
sonata form, for example, the unstable development part is
located between the stable exposition and recapitulation
phases. In this paper, we try to measure this kind of
harmonic stability and present visualizations for such
analyses. To this end, we propose novel features for
quantifying tonal complexity and discuss their
musicological implications. The features are based on
statistical measures calculated from chroma
representations of the music recording. The
characteristics of tonal complexity apply to different
time scales. To illustrate this time scale dependence for
the proposed features, we use hierarchical visualizations
based on previously introduced scape plot representations.
On a fine temporal level, tonal complexity is related the
character of chords or scales. For example, in a
modulating transition phase, we usually find more complex
chords than at the beginning of a piece. To analyze such
differences, we study the feature values for isolated
chords. Looking at a coarser level, the presence of
modulations is an indication for a segment's complexity.
In the sonata form, for example, the development usually
contains several modulations. To account for this
property, we calculate the complexity features based on a
coarse resolution of the chroma features. For evaluation
of this coarse-scale complexity, we analyze Beethoven's
sonatas where we find higher complexity in the development
parts.},
address = {Berlin},
booktitle = {Proceedings ofthe 9th Conference on Interdisciplinary
Musicology},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
number = {January 2014},
url = {https://www.researchgate.net/publication/303667504_Quantifying_and_Visualizing_Tonal_Complexity}
}
@InProceedings{ anagnostopoulou.ea2013-melodic,
author = {Anagnostopoulou, Christina and Giraud, Mathieu and
Poulakis, Nick},
year = {2013},
title = {Melodic contour representations in the analysis of
children's songs},
address = {Utrecht, Netherlands},
booktitle = {Proceedings of the Third International Workshop on Folk
Music Analysis},
editor = {van Kranenburg, Peter and Anagnostopoulou, Christina and
Volk, Anja},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {40--43}
}
@InProceedings{ gentil-nunes2013-partitional,
author = {Gentil-Nunes, Pauxy},
year = {2013},
title = {Partitional Analysis and Rhythmic Partitioning:
Mediations Between Rhythm and Texture},
address = {Vilnius, Lituania},
booktitle = {13th International Music Theory Conference},
keywords = {music theory},
mendeley-tags= {music theory},
pages = {44--51},
url = {http://pmc.lmta.lt/EN.html}
}
@Article{ huron2013-virtuous,
author = {Huron, David},
year = {2013},
title = {On the Virtuous and the Vexatious in an Age of Big Data},
doi = {10.1525/mp.2013.31.1.4},
issn = {0730-7829},
journal = {Music Perception},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
month = {sep},
number = {1},
pages = {4--9},
url = {https://online.ucpress.edu/mp/article/31/1/4/62591/On-the-Virtuous-and-the-Vexatious-in-an-Age-of-Big},
volume = {31}
}
@Article{ ludwig2013-expecting,
author = {Ludwig, Alexander Raymond},
year = {2013},
title = {Expecting the Unexpected: Haydn's Three-Part
Expositions},
doi = {10.7202/1015482ar},
issn = {1209-3696},
journal = {Lumen: Selected Proceedings from the Canadian Society for
Eighteenth-Century Studies},
keywords = {music analysis},
mendeley-tags= {music analysis},
pages = {31},
url = {https://www.erudit.org/en/journals/lumen/2013-v32-lumen0563/1015482ar/
http://id.erudit.org/iderudit/1015482ar},
volume = {32}
}
@Article{ mackay2013-franz,
author = {MacKay, James S.},
year = {2013},
title = {Franz Joseph Haydn and the Five-Octave Classical
Keyboard: Registral Extremes, Formal Emphases and Tonal
Strategies},
abstract = {The Classical keyboard in its various forms (harpsichord,
clavichord and fortepiano) typically had a modest
five-octave range (FF–f 3 ) prior to ca. 1800. This
essay examines how this range influenced the tonal shape
of Joseph Haydn's keyboard music written after 1765. The
author explores how Haydn used registral extremes to
emphasize major formal junctures, cadences and
modulations. Finally, he explores how the presence or
absence of the keyboard's extreme pitches contributes to
key character, examining the different contexts in which
Haydn uses them in three tonalities: D minor, C major and
A major. Avant environ 1800, les diff{\'{e}}rentes formes
d'instruments {\`{a}} clavier classiques (clavecin,
clavicorde et pianoforte) comportaient un modeste ambitus
de cinq octaves (de deux octaves et demie sous le do
central {\`{a}} fa deux octaves et demie au-dessus du do
central). Le pr{\'{e}}sent essai analyse comment cet
ambitus influe sur le contour tonal de la musique pour
clavier de Joseph Haydn, {\'{e}}crite apr{\`{e}}s 1765.
L'auteur d{\'{e}}montre comment Haydn utilisait les
extr{\'{e}}mit{\'{e}}s du registre pour mettre en relief
les principaux points de jonction formels, les cadences et
les modulations importantes. Enfin, il signale comment la
pr{\'{e}}sence ou l'absence des hauteurs extr{\^{e}}mement
graves ou aigu{\"{e}}s du clavier contribue {\`{a}}
accentuer le caract{\`{e}}re de la tonalit{\'{e}}. Pour ce
faire, il {\'{e}}tudie diff{\'{e}}rents contextes dans
lesquels Haydn les emploie : r{\'{e}} mineur, do majeur et la majeur.},
doi = {10.7202/1014521ar},
issn = {0710-0353},
journal = {Canadian University Music Review},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {1-2},
pages = {126--144},
volume = {23}
}
@Article{ sampaio.ea2013-implementation,
author = {{Sampaio}, {Marcos da Silva} and Kroger, Pedro and
Menezes, Mara Pinheiro and da Rocha, Jean Menezes and
Ourives, Natanael de Souza and de Carvalho, Dennis
Queiroz},
year = {2013},
title = {The Implementation of a Contour Module for Music21},
journal = {ART Music Review},
keywords = {music contour},
mendeley-tags= {music contour},
url = {http://www.revista-art.com/the-implementation-of-a-contour-module-for-music21},
volume = {24}
}
@Article{ savage.ea2013-toward,
author = {Savage, Patrick and Brown, Steven},
year = {2013},
title = {Toward a new comparative musicology},
abstract = {We propose a return to the forgotten agenda of
comparative musicology, one that is updated with the
paradigms of modern evolutionary theory and scientific
methodology. Ever since the field of comparative
musicology became redefined as ethnomusicology in the
mid-20th century, its original research agenda has been
all but abandoned by musicologists, not least the
overarching goal of cross-cultural musical comparison. We
outline here five major themes that underlie the
re-establishment of comparative musicology: (1)
classification, (2) cultural evolution, (3) human history,
(4) universals, and (5) biological evolution. Throughout
the article, we clarify key ideological, methodological
and terminological objections that have been levied
against musical comparison. Ultimately, we argue for an
inclusive, constructive, and multidisciplinary field that
analyzes the world's musical diversity, from the broadest
of generalities to the most culture-specific particulars,
with the aim of synthesizing the full range of theoretical
perspectives and research methodologies available.},
doi = {10.31234/osf.io/q3egp},
journal = {Analytical Approaches to World Music},
keywords = {Biomusicology,Constructive,Ethnomusicology,Humanities,Ideology,Musicology,Problem
of universals,Psychology,Scientific method,Social
science,Sociocultural evolution,computational musicology},
mendeley-tags= {computational musicology},
number = {2},
pages = {148--197},
url = {https://www.researchgate.net/publication/283088191_Toward_a_new_comparative_musicology},
volume = {2}
}
@Book{ tabachnick.ea2013-using,
author = {Tabachnick, Barbara G. and Fidell, Linda S.},
year = {2013},
title = {Using multivariate statistics},
address = {Boston Munich},
edition = {6. ed., international ed},
series = {Always learning},
isbn = {978-0-205-89081-1 978-1-292-02131-7},
language = {eng},
publisher = {Pearson},
annote = {Previous ed.: Boston, Mass.; London: Allyn and Bacon,
2006. - Includes bibliographical references and index}
}
@Article{ temperley.ea2013-statistical,
author = {Temperley, David and de Clercq, Trevor},
year = {2013},
title = {Statistical Analysis of Harmony and Melody in Rock
Music},
abstract = {We present a corpus of harmonic analyses and melodic
tran- scriptions of rock songs. After explaining the
creation and notation of the corpus, we present results of
some explorations of the corpus data. We begin by
considering the overall dis- tribution of scale-degrees in
rock. We then address the issue of key-finding: how the
key of a rock song can be identified from harmonic and
melodic information. Considering both the distribution of
melodic scale-degrees and the distribution of chords
(roots), as well as the metrical placement of chords,
leads to good key-finding performance. Finally, we discuss
how songs within the corpus might be categorized with
regard to their pitch organization. Statistical
categorization methods point to a clustering of songs that
resembles the major/minor distinction in common-practice
music, though with some im- portant differences. 1.},
doi = {10.1080/09298215.2013.839525},
issn = {17445027},
journal = {Journal of New Music Research},
keywords = {statistics},
mendeley-tags= {statistics},
number = {3},
pages = {187--204},
url = {http://davidtemperley.com/wp-content/uploads/2015/11/temperley-declercq-jnmr.pdf},
volume = {42}
}
@Book{ triola2013-elementary,
author = {Triola, Mario F.},
year = {2013},
title = {Elementary Statistics},
address = {Boston},
doi = {10.1136/bmj.1.5135.1458},
edition = {10},
isbn = {9780808924395},
issn = {0959-8138},
keywords = {statistics},
mendeley-tags= {statistics},
publisher = {Pearson Addison Wesley}
}
@PhDThesis{ white2013-some,
author = {White, Christopher William},
year = {2013},
title = {Some Statistical Properties of Tonality, 1650-1900},
abstract = {This dissertation investigates the statistical properties
present within corpora of common practice music, involving
a data set of more than 8,000 works spanning from 1650 to
1900, and focusing specifically on the properties of the
chord progressions contained therein. In the first
chapter, methodologies concerning corpus analysis are
presented and contrasted with text-based methodologies. It
is argued that corpus analyses not only can show
large-scale trends within data, but can empirically test
and formalize traditional or inherited music theories,
while also modeling corpora as a collection of discursive
and communicative materials. Concerning the idea of corpus
analysis as an analysis of discourse, literature
concerning musical communication and learning is reviewed,
and connections between corpus analysis and statistical
learning are explored. After making this connection, we
explore several problems with models of musical
communication (e.g., music's composers and listeners
likely use different cognitive models for their respective
production and interpretation) and several implications of
connecting corpora to cognitive models (e.g., a model's
dependency on a particular historical situation). Chapter
2 provides an overview of literature concerning
computational musical analysis. The divide between
top-down systems and bottom-up systems is discussed, and
examples of each are reviewed. The chapter ends with an
examination of more recent applications of information
theory in music analysis. Chapter 3 considers various ways
corpora can be grouped as well as the implications those
grouping techniques have on notions of musical style. It
is hypothesized that the evolution of musical style can be
modeled through the interaction of corpus statistics,
chronological eras, and geographic contexts. This idea is
tested by quantifying the probabilities of various
composers' chord progressions, and cluster analyses are
performed on these data. Various ways to divide and group
corpora are considered, modeled, and tested. In the fourth
chapter, this dissertation investigates notions of
harmonic vocabulary and syntax, hypothesizing that music
involves syntactic regularity in much the same way as
occurs in spoken languages. This investigation first
probes this hypothesis through a corpus analysis of the
Bach chorales, identifying potential syntactic/functional
categories using a Hidden Markov Model. The analysis
produces a three-function model as well as models with
higher numbers of functions. In the end, the data suggest
that music does indeed involve regularities, while also
arguing for a definition of chord function that adds
subtlety to models used by traditional music theory. A
number of implications are considered, including the
interaction of chord frequency and chord function, and the
preeminence of triads in the resulting syntactic models.
Chapter 5 considers a particularly difficult problem of
corpus analysis as it relates to musical vocabulary and
syntax: the variegated and complex musical surface. One
potential algorithm for vocabulary reduction is presented.
This algorithm attempts to change each chord within an
n-grams to its subset or superset that maximizes the
probability of that trigram occurring. When a corpus of
common-practice music is processed using this algorithm, a
standard tertian chord vocabulary results, along with a
bigram chord syntax that adheres to our intuitions
concerning standard chord function. In the sixth chapter,
this study probes the notion of musical key as it concerns
communication, suggesting that if musical practice is
constrained by its point in history and progressions of
chords exhibit syntactic regularities, then one should be
able to build a key-finding model that learns to identify
key by observing some historically situated corpus. Such a
model is presented, and is trained on the music of a
variety of different historical periods. The model then
analyzes two famous moments of musical ambiguity: the
openings of Beethoven's Eroica and Wagner's prelude to
Tristan und Isolde. The results confirm that different
corpus-trained models produce subtly different behavior.
The dissertation ends by considering several general and
summarizing issues, for instance the notion that there are
many historically-situated tonal models within Western
music history, and that the difference between listening
and compositional models likely accounts for the gap
between the complex statistics of the tonal tradition and
traditional concepts in music theory.},
isbn = {9781303715631},
keywords = {0290:Linguistics,0413:Music,Communication and the
arts,Computation,Data
mining,Language,Linguistics,Modeling,Music,Music
theory,Musicology,literature and linguistics,music and
mathematics},
mendeley-tags= {music and mathematics},
number = {December},
pages = {332},
pmid = {1495950055},
school = {Yale University},
type = {Ph.D. Dissertation},
url = {https://search.proquest.com/docview/1495950055?accountid=26641%5Cnhttp://link.periodicos.capes.gov.br/sfxlcl41?url_ver=Z39.88-2004&rft_val_fmt=info:ofi/fmt:kev:mtx:dissertation&genre=dissertations+%26+theses&sid=ProQ:ProQuest+Dissertations+%26+Theses+Glob}
}
@InProceedings{ wiering.ea2013-digital,
author = {Wiering, Frans and Benetos, Emmanouil},
year = {2013},
title = {Digital Musicology and MIR : Papers , Projects and
Challenges},
abstract = {In this paper we report on the ISMIR 2013 Demo and Late
Breaking Session entitled Digital Musicology and MIR. Five
papers were discussed as examples of interest- ing MIR
contributions to musicology. Two important projects,
Transforming Musicology and CompMusic, were briefly
presented. Finally, this paper reports the first results
of a questionnaire about challenges from Digital
Musicology for MIR research. The most important out- comes
are that lack of suitable musical data is still an im-
portant obstacle and that there is a great demand for
tools and methods that make integrated access and analysis
of symbolic and audio data possible.},
address = {Curitiba},
booktitle = {Proceedings of the 14th International Society for Music
Information Retrieval Conference},
editor = {{Brito Jr}, Alceu de Souza and Gouyen, Fabien and Dixon,
Simon},
keywords = {music information retrieval},
mendeley-tags= {music information retrieval},
pages = {2--5},
url = {http://www.staff.science.uu.nl/$\sim$wieri103/publications/WieringBenetosDigitalMusicologyAndMIRfinal.pdf}
}
@Article{ bakulina2012-loosening,
author = {Bakulina, Olga Ellen},
year = {2012},
title = {The Loosening Role of Polyphony: Texture and Formal
Functions in Mozart's “Haydn” Quartets},
abstract = {This essay demonstrates that texture can act as a
form-defining factor by focusing on one specific textural
type: imitative polyphony. Mozart's six quartets dedicated
to Haydn illustrate this claim. Building on William
Caplin's form-functional theory and his distinction
between tight-knit and loose organization, imitative
texture is shown to serve two purposes: as a loosening
device, and as a means of textural and phrase-structural
contrast. To deepen our understanding of polyphony's
formal and expressive roles, two new concepts are
proposed: contrast pair and imitative presentation. The
contrast-pair principle is then explored in select
Viennese quartets by Mozart's contemporaries.},
doi = {10.7202/1018577ar},
issn = {1918-512X},
journal = {Intersections: Canadian Journal of Music},
keywords = {music analysis},
mendeley-tags= {music analysis},
month = {sep},
number = {1-2},
pages = {7--42},
url = {http://id.erudit.org/iderudit/1018577ar},
volume = {32}
}
@Article{ ludwig2012-hepokoski,
author = {Ludwig, Alexander},
year = {2012},
title = {Hepokoski and Darcy's Haydn},
abstract = {In their massive book Elements of Sonata Theory, James
Hepokoski and Warren Darcy frequently allude to or
explicitly detail Joseph Haydn's well- known proclivity
for using humor and wit. By constantly qualifying Haydn's
music as witty or humorous, they succeed only in
marginalizing both Haydn and his music. But given Haydn's
status and influence as a composer in the late eighteenth
century, this marginalization, historically speaking,
hardly seems accurate. I propose two modifications that
will enhance the overall effectiveness of Hepokoski and
Darcy's theory, particularly as it relates to Haydn's
compositional practices, and thereby soften the theory's
current marginalization of Haydn. First, extracting the
concept of "deformation" entirely and replacing it with a
lower-level default will allow the direct examination of
defaults between composers instead of juxtaposing defaults
and deformations. Second, reconfiguring the foundational
binary opposition from "two-part" or "continuous"
expositions to those "with" or "without" medial caesuras
will effectively open for consideration the previously
excluded "three-part" exposition, a structural type
prominent in Haydn's works. These two changes will help
Hepokoski and Darcy's sonata theory to more fair-mindedly
consider Haydn's music, thereby reshaping their theory
into a more versatile, robust, and historically faithful
tool.},
journal = {Haydn: Online Journal of the Haydn Society of North
America},
keywords = {music theory},
mendeley-tags= {music theory},
number = {2},
pages = {1--27},
volume = {2}
}
@PhDThesis{ sampaio2012-teoria,
author = {{Sampaio}, {Marcos da Silva}},
year = {2012},
title = {A Teoria de Rela{\c{c}}{\~{o}}es de Contornos Musicais:
inconsist{\^{e}}ncias, solu{\c{c}}{\~{o}}es e ferramentas},
abstract = {Contorno {\'{e}} o perfil, desenho ou formato de um
objeto. Em M{\'{u}}sica, contornos podem ser
abstra{\'{i}}dos de qualquer par{\^{a}}metro, como altura,
densidade, ritmo, timbre, e intensidade. O estudo de
rela{\c{c}}{\~{o}}es de contornos musicais {\'{e}}
importante porque tais rela{\c{c}}{\~{o}}es s{\~{a}}o
facilmente reconhec{\'{i}}veis auditivamente por
m{\'{u}}sicos e leigos, e porque, assim como conjuntos de
notas e motivos, contornos podem ajudar a dar
coer{\^{e}}ncia a uma obra musical. A Teoria de
Rela{\c{c}}{\~{o}}es de Contornos Musicais foi
desenvolvida por autores como Michael L. Friedmann, Robert
D. Morris, e Elizabeth W. Marvin e Paul Laprade. Esta
teoria fornece conceitos e opera{\c{c}}{\~{o}}es que
ajudam a dar precis{\~{a}}o no estudo das
rela{\c{c}}{\~{o}}es de contornos musicais. Eu descobri
que o algoritmo de forma prima de classes de contornos
equivalentes de Marvin e Laprade {\'{e}} inconsistente.
Baseado na inconsist{\^{e}}ncia deste algoritmo, levantei
duas hip{\'{o}}teses: a Teoria dos Contornos cont{\'{e}}m
inconsist{\^{e}}ncias em outros pontos al{\'{e}}m deste
algoritmo; e a inconsist{\^{e}}ncia deste algoritmo
implica em erros nos desdobramentos e nos resultados das
an{\'{a}}lises de obras musicais baseadas nesta teoria.
Este trabalho teve duas partes. A primeira teve como
objetivo principal verificar a exist{\^{e}}ncia de
inconsist{\^{e}}ncias na Teoria dos Contornos e propor
solu{\c{c}}{\~{o}}es. A segunda teve como objetivo compor
um grupo de composi{\c{c}}{\~{o}}es com eventual uso de
rela{\c{c}}{\~{o}}es de contornos musicais. A metodologia
de verifica{\c{c}}{\~{a}}o de inconsist{\^{e}}ncias
consistiu no desenvolvimento do programa MusiContour e na
realiza{\c{c}}{\~{a}}o de testes funcionais. Ent{\~{a}}o,
programei e testei um conjunto de 37 opera{\c{c}}{\~{o}}es
e conceitos da Teoria dos Contornos. Com a pesquisa que
originou este trabalho pude verificar que a primeira
hip{\'{o}}tese, das inconsist{\^{e}}ncias em outros pontos
da Teoria dos Contornos, {\'{e}} verdadeira, e que a
segunda hip{\'{o}}tese, do impacto da inconsist{\^{e}}ncia
do algoritmo de Marvin e Laprade, {\'{e}} falsa. Os
principais resultados deste trabalho s{\~{a}}o os novos
algoritmos de forma prima de classes de contornos
equivalentes e de redu{\c{c}}{\~{a}}o de contornos,
revis{\~{a}}o de conceitos, opera{\c{c}}{\~{o}}es,
defini{\c{c}}{\~{a}}o de novas opera{\c{c}}{\~{o}}es, o
programa MusiContour, a organiza{\c{c}}{\~{a}}o
did{\'{a}}tica do texto sobre a teoria, e a composi{\c{c}}{\~{a}}o e apresenta{\c{c}}{\~{a}}o de sete obras musicais.},
keywords = {Composi{\c{c}}{\~{a}}o Musical,Contornos
musicais,Programa de computador para M{\'{u}}sica,Teoria
Musical,Teoria de Rela{\c{c}}{\~{o}}es de Contornos
Musicais,music contour},
mendeley-tags= {music contour},
pages = {230},
school = {Universidade Federal da Bahia},
type = {Ph.D. Thesis},
url = {https://repositorio.ufba.br/ri/handle/ri/10555}
}
@Article{ volk.ea2012-melodic,
author = {Volk, Anja and van Kranenburg, Peter},
year = {2012},
title = {Melodic similarity among folk songs: An annotation study
on similarity-based categorization in music},
doi = {10.1177/1029864912448329},
issn = {1029-8649},
journal = {Musicae Scientiae},
keywords = {categorization,melodic similarity,music
similarity,musical features,tune families},
mendeley-tags= {music similarity},
number = {0},
pages = {317--339},
volume = {16}
}
@Misc{ wong2012-feature-based,
author = {Wong, Lawson},
year = {2012},
title = {Feature-Based Analysis of Haydn String Quartets},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
pages = {1--11},
url = {https://ocw.mit.edu/courses/music-and-theater-arts/21m-269-studies-in-western-music-history-quantitative-and-computational-approaches-to-music-history-spring-2012/assignments/MIT21M_269S12_assn_final1.pdf}
}
@PhDThesis{ bellmann2011-categorization,
author = {Bellmann, H{\'{e}}ctor G.},
year = {2011},
title = {Categorization of Tonal Music Style: A quantitative
investigation},
keywords = {between-measures index,entropy,global average dot
product,intermodal in- dex,key determination,modulation
index,music analysis,music data mining,music pattern
recognition,music stylometry,musicXML,musical style
taxonomy,notation complexity,quantitative music
research,rhythm pattern,style classification,style
theory,tonal music style,within-measures index},
mendeley-tags= {music analysis},
number = {December},
school = {Griffith University},
type = {Ph.D. Dissertation},
url = {https://www120.secure.griffith.edu.au/rch/file/1cf4aba7-cf39-ef53-ec9e-4708168fd5ca/1/Bellmann_2012_02Thesis.pdf}
}
@PhDThesis{ burgoyne2011-stochastic,
author = {Burgoyne, John Ashley},
year = {2011},
title = {Stochastic processes and database-driven Musicology},
abstract = {For more than a decade, music information science and
musicology have been at what Nicholas Cook has described
as a 'moment of opportunity' for collaboration on
database-driven musicology. The literature contains
relatively few examples of mathematical tools that are
suitable for analysing temporally structured data like
music, however, and there are surprisingly few large
databases of music that contain information at the
semantic levels of interest to musicologists. This
dissertation compiles a bibliography of the most important
concepts from probability and statistics for analysing
musical data, reviews how previous researchers have used
statistics to study temporal relationships in music, and
presents a new corpus of carefully curated chord labels
from more than 1000 popular songs from the latter half of
the twentieth century, as ranked by Billboard magazine's
Hot 100 chart. The corpus is based on a careful sampling
methodology that maintained cost efficiency while ensuring
that the corpus is well suited to drawing conclusions
about how harmonic practises may have evolved over time
and to what extent they may have affected songs'
popularity. This dissertation also introduces techniques
new to the musicological community for analysing databases
of this size and scope, most importantly the
Dirichlet-multinomial distribution and constraint-based
structure learning for causal Bayesian networks. The
analysis confirms some common intuitions about harmonic
practises in popular music and suggests several intriguing
directions for further research.},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
school = {McGill University},
type = {Ph.D. Thesis},
url = {https://escholarship.mcgill.ca/concern/theses/d217qt98k?locale=en}
}
@Article{ burstein2011-true,
author = {Burstein, L. Poundie},
year = {2011},
title = {True or False? Re-Assessing the Voice-Leading Role of
Haydn's So-Called “False Recapitulations”},
journal = {Journal of Schenkerian Studies},
keywords = {music analysis},
mendeley-tags= {music analysis},
pages = {1--37},
volume = {5}
}
@PhDThesis{ collins2011-improved,
author = {Thomas Edward Collins},
year = {2011},
title = {Improved methods for pattern discovery in music, with
applications in automated stylistic composition},
month = {August},
school = {The Open University},
url = {https://oro.open.ac.uk/30103/},
abstract = {Computational methods for intra-opus pattern discovery
(discovering repeated patterns within a piece of music)
and stylistic composition (composing in the style of
another composer or period) can offer insights into how
human listeners and composers undertake such activities.
Two studies are reported that demonstrate improved
computational methods for pattern discovery in music. In
the first, regression models are built with the aim of
predicting subjective assessments of a pattern's salience,
based on various quantifiable attributes of that pattern,
such as the number of notes it contains. Using variable
selection and cross-validation, a formula is derived for
rating the importance of a discovered pattern. In the
second study, a music analyst undertook intra-opus pattern
discovery for works by Domenico Scarlatti and Johann
Sebastian Bach, forming a benchmark of target patterns.
The performance of two existing algorithms and one of my
own creation, called SIACT (Structure Induction Algorithm
with Compactness Trawling), is evaluated by comparison
with this benchmark. SIACT out-performs the existing
algorithms with regard to recall and, more often than not,
precision. A third experiment is reported concerning human
judgements of music excerpts that are, to varying degrees,
in the style of mazurkas by Frededric Chopin. This acts as
an evaluation for two computational models of musical
style, called Racchman-Oct2010 and Racchmaninof-Oct2010
(standing for RAndom Constrained CHain of MArkovian Nodes
with INheritance Of Form), which are developed over two
chapters. The latter of these models applies SIACT and the
formula for rating pattern importance, using temporal and
registral positions of discovered patterns from an
existing template piece to guide the generation of a new
passage of music. The precision and runtime of pattern
discovery algorithms, and their use for audio
summarisation are among topics for future work. Data and
code related to this thesis is available on the
accompanying CD or at http://www.tomcollinsresearch.net}
}
@InProceedings{ cruz-alcazar.ea2011-musical,
author = {Cruz-Alc{\'{a}}zar, Pedro P. and Vidal-Ruiz, Enrique and
P{\'{e}}rez-Cort{\'{e}}s, Juan C.},
year = {2011},
title = {Musical Style Identification Using Grammatical Inference:
The Encoding Problem},
abstract = {Un modelo de estilo identificaci{\'{o}}n musical basado
en inferencia gramatical (GI) se presenta. Bajo este
modelo, las gram{\'{a}}ticas regulares se utilizan para
modelar el estilo musical. Clasificaci{\'{o}}n de estilo
se puede utilizar para implementar o mejorar la
recuperaci{\'{o}}n de contenido basado en bases de datos
multimedia, la musicolog{\'{i}}a y educaci{\'{o}}n
musical. En este trabajo, varias t{\'{e}}cnicas de GI se
utilizan para aprender, a partir de ejemplos de
melod{\'{i}}as, una gram{\'{a}}tica estoc{\'{a}}stica para
cada uno de los tres estilos musicales diferentes. Luego,
cada una de las gram{\'{a}}ticas aprendido proporciona un
valor de confianza de una composici{\'{o}}n que pertenece
a la gram{\'{a}}tica, que puede ser utilizado para
clasificar las melod{\'{i}}as de prueba. Una
cuesti{\'{o}}n muy importante en este caso es el uso de un
esquema de codificaci{\'{o}}n de la m{\'{u}}sica adecuada,
los sistemas de codificaci{\'{o}}n que se presentan
diferentes y en comparaci{\'{o}}n, alcanzando una tasa de
error de clasificaci{\'{o}}n del 3%.ABSTRACTA Musical
Style Identification model based on Grammatical Inference
(GI) is presented. Under this model, regular grammars are
used for modeling Musical Style. Style Classification can
be used to implement or improve content based retrieval in
multimedia databases, musicology or music education. In
this work, several GI Techniques are used to learn, from
examples of melodies, a stochastic grammar for each of
three different musical styles. Then, each of the learned
grammars provides a confidence value of a composition
belonging to that grammar, which can be used to classify
test melodies. A very important issue in this case is the
use of a proper music coding scheme, so different coding
schemes are presented and compared, achieving a 3 %
classification error rate.},
booktitle = {Proc. Iberoamerican Congress on Pattern Recognition},
doi = {10.1007/978-3-540-24586-5_46},
editor = {Sanfeliu, A. and Shulcloper, J. Ruiz-},
keywords = {computer and music},
mendeley-tags= {computer and music},
pages = {375--382},
publisher = {Springer Berlin Heidelberg}
}
@InProceedings{ cuthbert.ea2011-feature,
author = {Cuthbert, Michael Scott and Ariza, Christopher and
Friedland, Lisa},
year = {2011},
title = {Feature Extraction and Machine Learning on Symbolic Music
using the music21 Toolkit},
booktitle = {Proceedings of International Symposium on Music
Information Retrieval},
url = {http://ismir2011.ismir.net/papers/PS3-6.pdf}
}
@Article{ duncan2011-blurring,
author = {Duncan, Stuart Paul},
year = {2011},
title = {Blurring the Boundaries: Toward a Multivalent Reading of
Three First-Movement Sonata Forms in Haydn's Op. 50 String
Quartets},
issn = {1711-9235},
journal = {Musicological Explorations},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {0},
pages = {5--40},
volume = {12}
}
@Book{ keefe2011-mozarts,
author = {Keefe, Simon P.},
year = {2011},
title = {Mozart's Viennese instrumental music: A study of
stylistic re-invention},
address = {Woodbridge},
isbn = {9781843833192},
keywords = {music history},
mendeley-tags= {music history},
pages = {1--217},
publisher = {Boydell Press}
}
@Article{ neuwirth2011-joseph,
author = {Neuwirth, Markus},
year = {2011},
title = {Joseph Haydn's “witty” play on Hepokoski and Darcy's
Elements of Sonata Theory. James Hepokoski/Warren Darcy,
Elements of Sonata Theory: Norms, Types, and Deformations
in the Late-Eighteenth-Century Sonata, New York: Oxford
University Press 2006.},
abstract = {This paper presents a detailed integration process for
XML schemata\ncalled BInXS. BInXS adopts a global-as-view
integration approach\nthat builds a global schema from a
set of heterogeneous XML schemata\nrelated to a same
application domain. This bottom-up approach maps\nall
element and attribute definitions in XML schemata to
correspondent\nconcepts at the global schema, allowing
access to all data available\nat the XML sources. The
integration process is semi-automatically\nperformed over
conceptual representations of the XML schemata,
which\nprovides a better understanding of the semantics of
the XML data\nto be unified. A conceptual schema is
generated by a set of conversion\nrules that are applied
to a schema definition for XML data. Once\nthis conceptual
schema is the result of a meticulous analysis of\nthe XML
logical model, it is able to abstract the
particularities\nof semistructured and XML data, like
elements with mixed contents\nand elements with
alternative representations. Therefore, the
further\nunification of such conceptual schemata
implicitly deals with structural\nconflicts inherent to
semistructured and XML data. In addition, BInXS\nsupports
a mapping strategy based on XPath expressions in order
to\nmaintain correspondences among global concepts and
data at the XML\nsources.},
doi = {10.31751/586},
issn = {1862-6742},
journal = {Zeitschrift der Gesellschaft f{\"{u}}r Musiktheorie
[Journal of the German-Speaking Society of Music Theory]},
keywords = {music theory},
mendeley-tags= {music theory},
number = {1},
pages = {199--220},
url = {https://www.gmth.de/zeitschrift/artikel/586.aspx},
volume = {8}
}
@Article{ riley2011-haydns,
author = {Riley, Matthew},
year = {2011},
title = {Haydn's Missing Middles},
abstract = {Haydn's play on expectations and conventions and his
deliberate grammatical mistakes are well-known. Yet one
notable syntactic irregularity to be found in his music
has been overlooked: the use of a sentential theme which
lacks the first half of the continuation phrase (to use
the terms of William E. Caplin's functional theory of
Classical form). This type of theme moves straight from
its presentation phrase to its cadential progression, so
there is no pre-cadential section of the continuation
phrase which expresses a specifically medial function.
Moreover, the theme's dimensions are irregular: its second
part is only half the length of its first. Most cases of
the 'missing middle' occur in the main themes of sonata
allegros, the middle being supplied later in the movement,
usually in the subordinate theme. These points are
illustrated by brief analyses of the first movements of
Symphony No. 85 and the Sonata Hob. XVI:21, and a longer
analysis of the first movement of the Sonata Hob. XVI:49.
{\textcopyright} 2011 The Author. Music Analysis
{\textcopyright} 2011 Blackwell Publishing Ltd.},
doi = {10.1111/j.1468-2249.2011.00309.x},
issn = {02625245},
journal = {Music Analysis},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {1},
pages = {37--57},
volume = {30}
}
@PhDThesis{ sapp2011-computational,
author = {Sapp, Craig Stuart},
year = {2011},
title = {Computational Methods for the Analysis of Musical
Structure},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
school = {Stanford University},
type = {Ph.D. Dissertation},
url = {https://stacks.stanford.edu/file/druid:br237mp4161/dissertation-submitted-augmented.pdf}
}
@Article{ volk.ea2011-unfolding,
author = {Volk, Anja and Wiering, Frans and Kranenburg, Peter Van},
year = {2011},
title = {Unfolding the potential of computational musicology},
journal = {Proceedings of the13th International Conference on
Informatics and Semiotics in Organisations (ICISO)},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
pages = {137--144},
url = {http://www.cs.uu.nl/groups/MG/multimedia/publications/art/CompMus_Volketal.pdf}
}
@Article{ ammirante.ea2010-melodic,
author = {Ammirante, Paolo and Thompson, William Forde},
year = {2010},
title = {Melodic Accent as an Emergent Property of Tonal Motion},
abstract = {In a previous continuation tapping study (Ammirante,
Thompson, \& Russo, in press), each tap triggered a
discrete tone in a sequence randomly varying in pitch
height and contour. Although participants were instructed
to ignore the tones, pitch distance and pitch contour
influenced intertap interval (ITI) and tap velocity (TV).
The current study replicated these findings with original
melodies. Results were interpreted as an effect of
apparent tonal motion, with deviation in ITI and TV
mirroring implied tonal acceleration. Due to overlapping
perceptual and motor representations, participants may
have failed to disambiguate acceleration implied by tonal
motion from the acceleration of their finger trajectory.
Dissociative effects of pitch distance on ITI and pitch
contour on TV implied that pitch distance influences the
initial finger extension while pitch contour influences
later finger flexion. Acceleration in ITI and TV were also
both correlated with melodic accent strength values from
perceptual data (Thomassen, 1982), suggesting that
perception and production of melodic accent emerge from
shared action associations.},
doi = {10.18061/1811/47559},
issn = {1559-5749},
journal = {Empirical Musicology Review},
keywords = {music theory},
mendeley-tags= {music theory},
number = {3},
pages = {94--107},
url = {https://kb.osu.edu/handle/1811/47559},
volume = {5}
}
@PhDThesis{ bakulina2010-polyphony,
author = {Bakulina, Olga},
year = {2010},
title = {Polyphony as a loosening technique in Mozart's Haydn
quartets},
keywords = {music analysis},
mendeley-tags= {music analysis},
school = {McGill University},
type = {MA Thesis},
url = {http://digitool.library.mcgill.ca/webclient/StreamGate?folder_id=0&dvs=1459686324642$\sim$853}
}
@Article{ burstein2010-mid-section,
author = {Burstein, L. Poundie},
year = {2010},
title = {Mid-section cadences in Haydn's sonata-form movements},
doi = {10.1556/SMus.51.2010.1-2.7},
issn = {00393266},
journal = {Studia Musicologica},
keywords = {Heinrich christoph koch,Joseph
haydn,Sonata-form,Third-level default medial caesura,music
analysis},
mendeley-tags= {music analysis},
number = {1-2},
pages = {91--107},
volume = {51}
}
@Book{ caplin.ea2010-musical,
author = {Caplin, William Earl and Hepokoski, James A. and Webster,
James},
year = {2010},
title = {Musical Form, Forms \& Formenlehre: Three Methodological
Reflections},
abstract = {In Musical Form, Forms, and Formenlehre, three eminent
music theorists reflect on the fundamentals of "musical
form." They discuss how to analyze form in music and
question the relevance of analytical theories and methods
in general. They illustrate their basic concepts andc
oncerns by offering some concrete analyses of works by
Mozart (Idomeneo Overture, Jupiter Symphony) and Beethoven
(First and Pastoral Symphony, Egmont Overture, and Die
Ruinen von Athen Overture).The volume is divided into
three parts, focusing on Caplin's "theory of formal
functions," Hepokoski's concept of "dialogic form," and
Webster's method of "multivalent analysis" respectively.
Each part begins with a basic essay by one of the three
authors. Subsequently, the two opposing authors comment on
issues and analyses they consider to be problematic or
underdeveloped, in a style that ranges from the gently
critical to the overtly polemical. Finally, the author of
the initial essay is given the opportunity to reply to the
comments, and to further refine his own fundamental ideas
on musical form.},
address = {Leuven, Belgium},
edition = {2},
isbn = {9789058678225},
keywords = {music theory},
mendeley-tags= {music theory},
pages = {179},
publisher = {Leuven University Press},
url = {https://books.google.com/books?id=YhAgAJDAK9sC&pgis=1}
}
@Article{ conklin2010-discovery,
author = {Conklin, Darrell},
year = {2010},
title = {Discovery of distinctive patterns in music},
abstract = {This paper proposes a new view of pattern discovery in
music: inductive querying a corpus for maximally general
distinctive patterns. A pattern is distinctive if it is
over-represented with respect to an anticorpus, and
maximally general distinctive if no subsuming pattern is
also distinctive. An algorithm for maximally general
distinctive pattern discovery is presented and applied to
folk song melodies from three geographic regions, and to
chord sequences from three music genres. Distinctive
patterns are applicable to a wide range of music analysis
tasks where an anticorpus can be defined and contrasted
with an analysis corpus. {\textcopyright} 2010 - IOS Press
and the authors. All rights reserved.},
doi = {10.3233/IDA-2010-0438},
editor = {Conklin, Darrell and Anagnostopoulou, Christina and
Ramirez, Rafael},
issn = {15714128},
journal = {Intelligent Data Analysis},
keywords = {Pattern discovery,anticorpus,chord sequences,computer and
music,distinctive pattern,folk songs,subsumption},
mendeley-tags= {computer and music},
month = {sep},
number = {5},
pages = {547--554},
url = {https://www.medra.org/servlet/aliasResolver?alias=iospress&doi=10.3233/IDA-2010-0438},
volume = {14}
}
@InProceedings{ cuthbert.ea2010-music21,
author = {Cuthbert, Michael Scott and Ariza, Christopher},
year = {2010},
title = {Music21 A Toolkit for Computer-Aided Musicology and
Symbolic Music Data},
booktitle = {Proceedings of International Symposium on Music
Information Retrieval},
keywords = {music visualization,p1},
mendeley-tags= {music visualization,p1},
pages = {637--642},
url = {http://ismir2010.ismir.net/proceedings/ismir2010-108.pdf}
}
@Article{ grier2010-reinstatement,
author = {Grier, James},
year = {2010},
title = {The Reinstatement of Polyphony in Musical Construction:
Fugal Finales in Haydn's Op. 20 String Quartets},
doi = {10.1525/jm.2010.27.1.55.JM2701},
journal = {The Journal of Musicology},
keywords = {music history},
mendeley-tags= {music history},
number = {1},
pages = {55--83},
volume = {27}
}
@PhDThesis{ harte2010-towards,
author = {Harte, Christopher},
year = {2010},
title = {Towards automatic extraction of harmony information from
music signals},
keywords = {Electronic Engineering,computer and music},
mendeley-tags= {computer and music},
school = {Queen Mary, University of London},
type = {Ph.D. Dissertation},
url = {http://qmro.qmul.ac.uk/jspui/handle/123456789/534}
}
@Article{ mearns.ea2010-characterisation,
author = {Mearns, Lesley and Tidhar, Dan and Dixon, Simon},
year = {2010},
title = {Characterisation of composer style using high-level
musical features},
address = {New York, New York, USA},
doi = {10.1145/1878003.1878016},
isbn = {9781450301619},
journal = {Proceedings of 3rd international workshop on Machine
learning and music - MML '10},
keywords = {computer and music,counterpoint,machine
learning,music,style},
mendeley-tags= {computer and music},
pages = {37},
publisher = {ACM Press},
url = {http://portal.acm.org/citation.cfm?doid=1878003.1878016}
}
@Article{ neuwirth2010-does,
author = {Neuwirth, Markus},
year = {2010},
title = {Does a 'monothematic' expositional design have
tautological implications for the recapitulation? An
alternative approach to 'altered recapitulations' in
Haydn},
abstract = {'Altered recapitulations,' commonly regarded as a
distinguishing feature of Joseph Haydn's sonata form
movements, are usually explained in terms of the
'monothematic' design of the exposition. According to the
logic used in such analytical studies, recomposing the
recapitulation would have been aimed at restoring the
proportional balance between exposition and
recapitulation, a need that resulted from the omission of
the seemingly redundant, retransposed secondary theme
along with the preceding transition. Though such an
explanation has long been considered indisputable, this
article casts doubt on the validity of the redundancy
principle by showing that Haydn often did retain the
monothematic section in the recapitulation. Rather, the
recomposition of the recapitulation results from two
important structural aspects thus far largely neglected in
the literature: (1) the repetitive formal structure of the
main theme, which is often considerably reworked in the
recapitulation; and (2) the insertion of a separate newly
composed dominant zone in the recapitulation that serves
to compensate for the lack of a structural dominant at the
end of the development section. Finally, it is argued here
that Haydn, who was deeply rooted in the late Baroque
tradition, by no means regarded multiple 'double returns'
as either problematic or redundant, for he may have been
thinking more in terms of an overriding ritornello
structure.},
doi = {10.1556/SMus.51.2010.3-4.9},
issn = {00393266},
journal = {Studia Musicologica},
keywords = {Joseph Haydn,monothematic exposition,music
analysis,recomposed recapitulation,ritornello
principle,sonata form},
mendeley-tags= {music analysis},
number = {3-4},
pages = {369--385},
volume = {51}
}
@Book{ russel.ea2010-artificial,
author = {Russel, Stuart J. and Norvig, Peter},
year = {2010},
title = {Artificial Intelligence: A Modern Approach},
address = {Boston},
publisher = {Pearson},
edition = {3}
}
@Article{ schmuckler2010-melodic,
author = {Schmuckler, Mark A.},
year = {2010},
title = {Melodic Contour Similarity Using Folk Melodies},
issn = {0730-7829},
journal = {Music Perception},
keywords = {music contour,music similarity},
mendeley-tags= {music contour,music similarity},
number = {2},
pages = {169--194},
publisher = {JSTOR},
url = {http://www.jstor.org/stable/10.1525/mp.2010.28.2.169},
volume = {28}
}
@Article{ taminau.ea2010-applying,
author = {Taminau, Jonatan and Hillewaere, Ruben and Meganck, Stijn
and Conklin, Darrell and Now{\'{e}}, Ann and Manderick,
Bernard},
year = {2010},
title = {Applying subgroup discovery for the analysis of string
quartet movements},
abstract = {Descriptive and predictive analyses of symbolic music
data assist in understanding the properties that
characterize specific genres, movements and composers.
Subgroup Discovery, a machine learning technique lying on
the intersection between these types of analysis, is
applied on a dataset of string quartet movements composed
by either Haydn or Mozart. The resulting rules describe
subgroups of movements for each composer, which are
examined manually, and we investigate whether these
subgroups correlate with metadata such as type of movement
or period. In addition to this descriptive analysis, the
obtained rules are used for the predictive task of
composer classification; results are compared with
previous results on this corpus.},
doi = {10.1145/1878003.1878014},
isbn = {9781450301619},
journal = {MML'10 - Proceedings of the 3rd ACM International
Workshop on Machine Learning and Music, Co-located with
ACM Multimedia 2010},
keywords = {Global features,Subgroup discovery,computational
musicology},
mendeley-tags= {computational musicology},
number = {May 2014},
pages = {29--32}
}
@PhDThesis{ bor2009-contour,
author = {Bor, Mustafa},
year = {2009},
title = {Contour reduction algorithms: a theory of pitch and
duration hierarchies for post-tonal music},
keywords = {music contour},
mendeley-tags= {music contour},
number = {April},
publisher = {University of British Columbia},
school = {University of British Columbia},
type = {PhD Dissertation},
url = {http://scholar.google.com/scholar?hl=en&btnG=Search&q=intitle:CONTOUR+REDUCTION+ALGORITHMS+:+A+THEORY+OF+PITCH+AND+DURATION+HIERARCHIES+FOR+POST-TONAL+MUSIC#0}
}
@Article{ chandola.ea2009-anomaly,
author = {Chandola, Varun and Banerjee, Arindam and Kumar, Vipin},
year = {2009},
title = {Anomaly detection: A Survey},
abstract = {The paper presents a revolutionary framework for the
modeling, detection, characterization, identification, and
machine-learning of anomalous behavior in observed
phenomena arising from a large class of unknown and
uncertain dynamical systems. An evolved behavior would in
general be very difficult to correct unless the specific
anomalous event that caused such behavior can be detected
early, and any consequence attributed to the specific
anomaly following its detection. Substantial investigative
time and effort is required to back-track the cause for
abnormal behavior and to recreate the event sequence
leading to such abnormal behavior. The need to
automatically detect anomalous behavior is therefore
critical using principles of state motion, and to do so
with a human operator in the loop. Human-machine
interaction results in a capability for machine
self-learning and in producing a robust decision-support
mechanism. This is the fundamental concept of intelligent
control wherein machine-learning is enhanced by
interaction with human operators. Copyright
{\textcopyright} 2009 Tech Science Press.},
doi = {10.1145/1541880.1541882},
issn = {0360-0300},
journal = {ACM Computing Surveys},
keywords = {Anomaly detection,Decision-making,Machine
intelligence,Nonlinear dynamical
systems,Soft-computing,statistics},
mendeley-tags= {statistics},
month = {jul},
number = {3},
pages = {1--58},
url = {https://dl.acm.org/doi/10.1145/1541880.1541882},
volume = {41}
}
@InCollection{ eisen2009-string,
author = {Eisen, Cliff},
year = {2009},
title = {The string quartet},
address = {Cambridge},
language = {English},
booktitle = {The {Cambridge} {History} of {Eighteenth}-{Century}
{Music}},
publisher = {Cambridge University Press},
pages = {648--660}
}
@PhDThesis{ gentil-nunes2009-analise,
author = {Gentil-Nunes, Pauxy},
year = {2009},
title = {An{\'{a}}lise particional: uma media{\c{c}}{\~{a}}o entre
composi{\c{c}}{\~{a}}o musical e a teoria das
parti{\c{c}}{\~{o}}es},
keywords = {music composition},
mendeley-tags= {music composition},
school = {Universidade Federal do Rio de Janeiro},
type = {Ph.D. Dissertation}
}
@Book{ keefe2009-cambridge,
year = {2009},
title = {The Cambridge History of Eighteenth-Century Music},
address = {Cambridge},
editor = {Keefe, Simon P.},
isbn = {9780521663199},
keywords = {music history},
mendeley-tags= {music history},
publisher = {Cambridge University Press}
}
@Book{ mirka2009-metric,
author = {Mirka, Danuta},
year = {2009},
title = {Metric Manipulations in Haydn and Mozart: Chamber Music
for Strings, 1787-1791},
address = {Oxford},
isbn = {9788578110796},
keywords = {music history},
mendeley-tags= {music history},
publisher = {Oxford University Press}
}
@InProceedings{ peeters.ea2009-is,
author = {Peeters, Geoffroy and Deruty, Emmanuel},
year = {2009},
title = {Is Music Structure Annotation Multi-Dimensional? A
Proposal for Robust Local Music Annotation .},
address = {Graz, Austria},
booktitle = {Proceedings of the 3rd Workshop on Learning the Semantics
of Audio Signals (LSAS)},
editor = {Baumann, Stephan and Burred, Juan Jos{\'{e}} and
N{\"{u}}rnberger, Andreas and Stober, Sebastian},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
pages = {75--90},
url = {http://lsas2009.dke-research.de/proceedings/lsas2009peetersDeruty.pdf}
}
@PhDThesis{ schultz2009-diachronic-transformational,
author = {Schultz, Rob D.},
year = {2009},
title = {A diachronic-transformational theory of musical contour
relations},
keywords = {music contour},
mendeley-tags= {music contour},
school = {University of Washington},
type = {PhD Dissertation}
}
@Article{ sutcliffe2009-before,
author = {Sutcliffe, W. Dean},
year = {2009},
title = {Before the joke: Texture and sociability in the Largo of
Haydn's op. 33, no. 2},
abstract = {The Largo e sostenuto of Haydn's string quartet Op. 33,
No. 2, embodies various forms of sociable interaction.
This entails transactions between thematic materials as
well as the four players themselves, and involves the
imaginative handling of formula as well as the
foregrounding of composer-listener relationships through
overt manipulation and disruption. This movement, as well
as the remarkable finale to which it leads, is also placed
within the wider context of a later-eighteenth-century
aesthetic of sociability. Copyright {\textcopyright}
Taylor \& Francis Group, LLC.},
doi = {10.1080/01411890902922470},
issn = {01411896},
journal = {Journal of Musicological Research},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {2-3},
pages = {92--118},
volume = {28}
}
@Book{ van-rossum.ea2009-python,
author = {Van Rossum, Guido and Drake, Fred L.},
year = {2009},
title = {Python 3 Reference Manual},
isbn = {1441412697},
publisher = {CreateSpace},
address = {Scotts Valley, CA}
}
@InProceedings{ belgacem.ea2008-centrality,
author = {Belgacem, Lucile and Hudry, Olivier},
year = {2008},
title = {Centrality and Distribution of Partitions according to
the Transfer Distance},
address = {Paris},
booktitle = {DIMACS/LAMSADE Workshop on Algorithmic Decision Theory
and Meeting of the COST Action ICO602},
keywords = {centrality,clustering,distance,mathematics,partition,transfer
graph},
mendeley-tags= {mathematics},
url = {http://archive.dimacs.rutgers.edu/Workshops/DecisionTheory3/Belgacem_Hudry.pdf}
}
@Article{ castagna2008-musicologia,
author = {Castagna, Paulo},
year = {2008},
title = {A musicologia enquanto m{\'{e}}todo cient{\'{i}}fico},
abstract = {Resultado da reuni{\~{a}}o de v{\'{a}}rias atividades
ligadas ao estudo te{\'{o}}rico da m{\'{u}}sica a partir
do s{\'{e}}culo XVII, apesar de ra{\'{i}}zes que remontam
{\`{a}} Antiguidade, a musicologia surgiu como o estudo
cient{\'{i}}fico ou acad{\^{e}}mico da m{\'{u}}sica,
particularmente no {\^{a}}mbito do positivismo de Auguste
Comte (1798-1857), diferenciando-se, assim, da abordagem
da m{\'{u}}sica dependente da pr{\'{a}}tica art{\'{i}}stica.},
journal = {Revista do Conservat{\'{o}}rio Brasileiro de Pelotas},
keywords = {musicology},
mendeley-tags= {musicology},
number = {1},
pages = {7--31},
url = {https://periodicos.ufpel.edu.br/ojs2/index.php/RCM/article/view/2430/2281}
}
@Book{ heartz2008-mozart,
author = {Heartz, Daniel},
year = {2008},
title = {Mozart, Haydn and Early Beethoven 1781-1802},
address = {New York and London},
keywords = {music history},
mendeley-tags= {music history},
publisher = {W. W. Norton \& Company}
}
@Article{ november2008-instrumental,
author = {November, Nancy},
year = {2008},
title = {Instrumental arias or sonic tableaux: 'Voice' in Haydn's
string quartets Opp. 9 and 17},
abstract = {The reception of Haydns early string quartets is
chequered. Professional performers tend to avoid the
quartets before Op. 20 (1772). In scholarship, essential
features of 'Classical' string quartets are typically
thought to be in place at the earliest with Op. 20, but
more usually with Op. 33. This essay contributes to a
critique of these assumptions, and offers an alternative
view of the earlier works. The slow movements in
particular, with their solo 'arias' for first violin, have
been considered especially problematic. From a historical
perspective, however, these movements can be understood to
exemplify a fundamentally new mode of expression that was
extolled by mid-eighteenth-century theorists: that of the
tableau. This concept was discussed, for example, by
Jean-Jacques Rousseau and Denis Diderot, and was brought
to the stages of Vienna and Eszterhza in the ballets of
Jean-Georges Noverre and the operas of Gluck and Haydn,
among others. As sonic tableaux, or instrumental 'arias',
movements from Haydns early string quartets epitomize a
dramatic mode that was of fundamental importance to music
of the Classical era.},
doi = {10.1093/ml/gcm130},
issn = {00274224},
journal = {Music and Letters},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {3},
pages = {346--372},
volume = {89}
}
@InProceedings{ volk.ea2008-manual,
author = {Volk, Anja and van Kranenburg, Peter and Garbers,
J{\"{o}}rg and Wiering, Frans and Veltkamp, Remco C and
Grijp, Louis P},
year = {2008},
title = {A manual annotation method for melodic similarity and the
study of melody feature sets},
booktitle = {Proceedings of the International Conference on Music
Information Retrieval (ISMIR)},
keywords = {music similarity},
mendeley-tags= {music similarity},
pages = {101--106}
}
@Book{ gjerdingen2007-music,
author = {Gjerdingen, Robert O.},
year = {2007},
title = {Music in the Galant Style},
address = {New York},
keywords = {music analysis},
mendeley-tags= {music analysis},
publisher = {Oxford University Press}
}
@Book{ johnson.ea2007-applied,
author = {Johnson, Richard A. and Wichern, Dean W.},
year = {2007},
title = {Applied Multivariate Statistical Analysis},
address = {Upper Saddle River, New Jersey},
edition = {6},
isbn = {9780131877153},
keywords = {mathematics},
mendeley-tags= {mathematics},
publisher = {Pearson Prentice Hall},
url = {http://cisco.qu.edu.qa/artssciences/mathphysta/stats/syllabi/Syllabus-
spring
2012/Statistics/Dr_Alodat_STAT_459_L01_Spring_2012.pdf}
}
@Article{ mckay.ea2007-style-independent,
author = {McKay, Cory and Fujinaga, Ichiro},
year = {2007},
title = {Style-independent computer-assisted exploratory analysis
of large music collections},
abstract = {The first goal of this paper is to introduce musi-
cologists and music theorists to the benefits of- fered by
state-of-the-art pattern recognition tech- niques. The
second goal is to provide them with a computer-based
framework that can be used to study large and diverse
collections of music for the purposes of empirically
developing, explor- ing and validating theoretical models.
The soft- ware presented in this paper implements tech-
niques from the fields of machine learning, pat- tern
recognition and data mining applied to and considered from
the perspectives of music theory and musicology.},
doi = {10.1.1.149.7958},
journal = {Journal of Interdisciplinary Music Studies},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
number = {1},
pages = {63--85},
url = {http://www.musicstudies.org/spring2007.html},
volume = {1}
}
@Article{ november2007-register,
author = {November, Nancy},
year = {2007},
title = {Register in Haydn's String Quartets: Four Case Studies},
doi = {10.1111/j.1468-2249.2008.00260.x},
issn = {02625245},
journal = {Music Analysis},
keywords = {music history},
mendeley-tags= {music history},
month = {oct},
number = {3},
pages = {289--322},
url = {http://doi.wiley.com/10.1111/j.1468-2249.2008.00260.x},
volume = {26}
}
@InProceedings{ unal.ea2007-statistical,
author = {Unal, Erdem and Georgiou, Panayiotis G. and Narayanan,
Shrikanth S. and Chew, Elaine},
year = {2007},
title = {Statistical modeling and retrieval of polyphonic music},
abstract = {AbstractIn this article, we propose a solution to the
problem of query by example for polyphonic music audio.We
first present a generic mid-level representation for audio
queries. Unlike previous efforts in the literature, the
proposed representation is not dependent on the different
spectral characteristics of different musical instruments
and the accurate location of note onsets and offsets. This
is achieved by first mapping the short term frequency
spectrum of consecutive audio frames to the musical space
(The Spiral Array) and defining a tonal identity with
respect to center of effect that is generated by the
spectral weights of the musical notes. We then use the
resulting single dimensional text representations of the
audio to create n-gram statistical sequence models to
track the tonal characteristics and the behavior of the
pieces. After performing appropriate smoothing, we build a
collection of melodic n-gram models for testing. Using
perplexity-based scoring, we test the likelihood of a
sequence of lexical chords (an audio query) given each
model in the database collection. Initial results show
that, some variations of the input piece appears in the
top 5 results 81pct of the time for whole melody inputs
within a 500 polyphonic melody database. We also tested
the retrieval engine for small audio clips. Using 25s
segments, variations of the input piece are among the top
5 results 75pct of the time.},
address = {Crete},
booktitle = {2007 IEEE 9Th International Workshop on Multimedia Signal
Processing, MMSP 2007 - Proceedings},
doi = {10.1109/MMSP.2007.4412902},
isbn = {1424412749},
keywords = {computer and music},
mendeley-tags= {computer and music},
number = {November},
pages = {405--409}
}
@Article{ geng.ea2006-interestingness,
author = {Geng, Liqiang and Hamilton, Howard J.},
year = {2006},
title = {Interestingness measures for data mining: A Survey},
abstract = {Interestingness measures play an important role in data
mining, regardless of the kind of patterns being mined.
These measures are intended for selecting and ranking
patterns according to their potential interest to the
user. Good measures also allow the time and space costs of
the mining process to be reduced. This survey reviews the
interestingness measures for rules and summaries,
classifies them from several perspectives, compares their
properties, identifies their roles in the data mining
process, gives strategies for selecting appropriate
measures for applications, and identifies opportunities
for future research in this area. {\textcopyright} 2006
ACM.},
doi = {10.1145/1132960.1132963},
issn = {0360-0300},
journal = {ACM Computing Surveys},
keywords = {Association rules,Classification rules,Interest
measures,Interestingness measures,Knowledge
discovery,Summaries,computer},
mendeley-tags= {computer},
month = {sep},
number = {3},
pages = {9},
url = {https://dl.acm.org/doi/10.1145/1132960.1132963},
volume = {38}
}
@Article{ gentil-nunes2006-parsemas,
author = {Gentil-Nunes, Pauxy},
year = {2006},
title = {Parsemas e o m{\'{e}}todo de Fux},
journal = {Revista Pesquisa e M{\'{u}}sica},
keywords = {music theory},
mendeley-tags= {music theory},
pages = {38--47},
url = {https://www.academia.edu/34020077/GENTIL_NUNES_Pauxy_Parsemas_e_o_m{\'{e}}todo_de_Fux_In_Revista_Pesquisa_e_M{\'{u}}sica_Rio_de_Janeiro_Conservat{\'{o}}rio_Brasileiro_de_M{\'{u}}sica_2006b_v_1_p_38_47},
volume = {1}
}
@Book{ grave.ea2006-string,
author = {Grave, Floyd K. and Grave, Margaret},
year = {2006},
title = {The String Quartets of Joseph Haydn},
address = {New York, NY},
doi = {10.2307/831027},
issn = {00030139},
keywords = {music history},
mendeley-tags= {music history},
publisher = {Oxford University Press}
}
@Book{ hepokoski.ea2006-elements,
author = {Hepokoski, James A. and Darcy, Warren},
year = {2006},
title = {Elements of Sonata Theory: Norms, Types and Deformations
in the Late-Eighteenth-Century Sonata},
abstract = {This book analyses the sonata. Both building on and
departing from earlier methods of analysis, it provides an
in-depth examination of the sonata genre. After
establishing the normative features of the sonata, the
authors examine how individual sonatas from Beethoven,
Haydn, and Mozart both adhere to and deviate from those
standards to a variety of effects. Co-authored by a music
theorist and a musicologist, the book provides a
foundational theory and offers insights on individual
works from the Western canon.},
address = {Oxford},
doi = {10.1093/acprof:oso/9780195146400.001.0001},
isbn = {9780195146400},
keywords = {music theory},
mendeley-tags= {music theory},
publisher = {Oxford University Press}
}
@Article{ mcclelland2006-extended,
author = {McClelland, Ryan},
year = {2006},
title = {Extended upbeats in the classical minuet: Interactions
with hypermeter and phrase structure},
abstract = {This article considers the hypermetric properties of
minuets that begin with an upbeat gesture that spans at
least one measure. Analyses of several minuets by Haydn
and Mozart, and a quasi-minuet movement by Brahms,
demonstrate five types of interaction between the extended
upbeat and hypermeter. The analyses describe the evolving
hypermetric structure of the minuets' openings and the
subsequent development of this thematic material. The
extended upbeat emerges in these minuets as a key
compositional element with implications for expressive
meaning and performance. {\textcopyright} 2006 by The
Society for Music Theory. All rights reserved.},
doi = {10.1525/mts.2006.28.1.23},
issn = {01956167},
journal = {Music Theory Spectrum},
keywords = {Anacrusis,Haydn,Hypermeter,Minuet,Upbeat,music analysis},
mendeley-tags= {music analysis},
number = {1},
pages = {23--56},
volume = {28}
}
@InCollection{ miller2006-peak,
author = {Miller, Malcolm},
year = {2006},
title = {Peak Experience High Register and Structure in the
“Razumovsky” Quartets, Op. 59},
address = {Urbana and Chicago},
booktitle = {The String Quartets of Beethoven},
chapter = {3},
editor = {Kinderman, William},
keywords = {music analysis},
mendeley-tags= {music analysis},
publisher = {University of Illinois Press}
}
@Book{ morettin.ea2006-analise,
author = {Morettin, Pedro A. and Toloi, Cl{\'{e}}lia M. C.},
year = {2006},
title = {Analise de S{\'{e}}ries temporais},
address = {S{\~{a}}o Paulo},
edition = {2},
isbn = {9788521203896},
keywords = {statistics},
mendeley-tags= {statistics},
publisher = {Edgard Blucher}
}
@PhDThesis{ proksch2006-cyclic,
author = {Proksch, Bryan Jeffrey},
year = {2006},
title = {Cyclic Integration in the instrumental music of Haydn and
Mozart},
keywords = {music analysis},
mendeley-tags= {music analysis},
school = {University of North Carolina at Chapel Hill},
type = {Ph.D. Dissertation}
}
@InProceedings{ sarg2006-does,
author = {S{\"{a}}rg, Taive},
year = {2006},
title = {Does melodic accent shape the melody contour in Estonian
folk songs ?},
address = {Bologna},
booktitle = {Proceedings of the 9th International Conference on Music
Perception and Cognition (ICMPC-2006) and 6th Triennial
Conference of the European Society for the Cognitive
Sciences of Music (ESCOM)},
keywords = {melodic accent,melody variation,regilaul},
mendeley-tags= {melodic accent},
number = {December},
pages = {1304--1309}
}
@Article{ chew2005-regards,
author = {Chew, Elaine},
year = {2005},
title = {Regards on two regards by Messiaen: Post-tonal music
segmentation using pitch context distances in the spiral
array},
abstract = {This paper describes an O(n) algorithm for segmenting
music automatically by pitch context using the Spiral
Array, a mathematical model for tonality, and applies it
to the segmentation of post-tonal music, namely, Olivier
Messiaen's Regards IV and XVI from his Vingt Regards sur
l'Enfant J{\'{e}}sus . Using the idea of the centre of
effect ( c.e .), a summary point in the interior of the
Spiral Array, segmentation boundaries map to peaks in the
distances between the c.e .'s of adjacent segments of
music. The best-case computed boundaries are, on average,
within 0.94% (for Regard IV ) and 0.11% (for Regard XVI )
of their targets. {\textcopyright} 2005 Taylor \& Francis.},
doi = {10.1080/09298210600578147},
issn = {0929-8215},
journal = {Journal of New Music Research},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
month = {dec},
number = {4},
pages = {341--354},
url = {http://www.tandfonline.com/doi/abs/10.1080/09298210600578147},
volume = {34}
}
@InProceedings{ coutinho.ea2005-computational,
author = {Coutinho, Eduardo and Gimenes, Marcelo and Martins, Joao
M. and Miranda, Eduardo Reck},
year = {2005},
title = {Computational Musicology: An Artificial Life Approach},
booktitle = {2005 Portuguese Conference on Artificial Intelligence},
doi = {10.1109/EPIA.2005.341270},
isbn = {0-7803-9365-1},
month = {dec},
pages = {85--93},
publisher = {Ieee},
url = {http://ieeexplore.ieee.org/lpdocs/epic03/wrapper.htm?arnumber=4145929}
}
@InProceedings{ harte.ea2005-symbolic,
author = {Harte, Cristopher and Sandler, Mark and Abdallah, Samer
and G{\'{o}}mez, Emilia},
year = {2005},
title = {Symbolic Representation Of Musical Chords: A Proposed
Syntax For Text Annotations},
address = {London},
booktitle = {Proceedings of the 4th International Conference on Music
Information Retrieval (ISMIR 2005)},
keywords = {computer and music},
mendeley-tags= {computer and music},
pages = {66--71},
url = {http://en.scientificcommons.org/43256599}
}
@Book{ lockwood2005-beethoven,
author = {Lockwood, Lewis},
year = {2005},
title = {Beethoven: The Music and the Life},
address = {New York},
isbn = {9780393326383},
keywords = {music history},
mendeley-tags= {music history},
publisher = {W. W. Norton \& Company}
}
@PhDThesis{ pearce2005-construction,
author = {Pearce, Marcus Thomas},
year = {2005},
title = {The construction and evaluation of statistical models of
melodic structure in music perception and composition},
abstract = {The prevalent approach to developing cognitive models of
music perception and composition is to construct systems
of symbolic rules and constraints on the basis of
extensive music-theoretic and music-analytic knowledge.
The thesis proposed in this dissertation is that
statistical models which acquire knowledge through the
induction of regularities in corpora of existing music
can, if examined with appropriate methodologies, provide
significant insights into the cognitive processing
involved in music perception and composition. This claim
is examined in three stages. First, a number of
statistical modelling techniques drawn from the fields of
data compression, statistical language modelling and
machine learning are subjected to empirical evaluation in
the context of sequential prediction of pitch structure in
unseen melodies. This investigation results in a
collection of modelling strategies which together yield
significant performance improvements over existing
methods. In the second stage, these statistical systems
are used to examine observed patterns of expectation
collected in previous psychological research on melody
perception. In contrast to previous accounts of this data,
the results demonstrate that these patterns of expectation
can be accounted for in terms of the induction of
statistical regularities acquired through exposure to
music. In the final stage of the present research, the
statistical systems developed in the first stage are used
to examine the intrinsic computational demands of the task
of composing a stylistically successful melody The results
suggest that the systems lack the degree of expressive
power needed to consistently meet the demands of the task.
In contrast to previous research, however, the
methodological framework developed for the evaluation of
computational models of composition enables a detailed
empirical examination and comparison of such models which
facilitates the identification and resolution of their
weaknesses.},
keywords = {music analysis with computers},
mendeley-tags= {music analysis with computers},
school = {City University of London},
type = {Ph.D. Dissertation},
url = {http://openaccess.city.ac.uk/id/eprint/8459/}
}
@InProceedings{ sapp2005-online,
author = {Sapp, Craig Stuart},
year = 2005,
title = {Online database of scores in the {Humdrum} file format},
address = {London, UK},
abstract = {KernScores, an online library of musical data currently
consisting of over 5 million notes, has been created to
assist projects dealing with the computational analysis of
musical scores. The online scores are in a format suitable
for processing with the Humdrum Toolkit for Music
Research, but the website also provides automatic
translations into several other popular data formats for
digital musical scores.},
language = {en},
booktitle = {Proc. 6th {International} {Conference} on {Music}
{Information} {Retrieval}},
tags = {computational musicology},
pages = {2}
}
@Article{ taylor2005-problem,
author = {Taylor, Benedict},
year = {2005},
title = {The problem of the 'Introduction' in Beethoven's late
quartets},
journal = {Ad Parnassum},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {6},
pages = {45--64},
volume = {3}
}
@Book{ andrews.ea2004-integer,
author = {Andrews, George and Eriksson, Kimmo},
year = {2004},
title = {Integer Partitions},
publisher = {Cambridge University Press},
address = {Cambridge}
}
@Book{ beran2004-statistics,
author = {Beran, Jan},
year = {2004},
title = {Statistics in Musicology},
address = {Boca Raton, Fla},
isbn = {1584882190},
keywords = {Interdisciplinary statistics,Musical analysis-Statistical
methods,music and mathematics},
mendeley-tags= {music and mathematics},
publisher = {Chapman \& Hall/CRC},
url = {http://books.google.com/books?hl=en&lr=&id=ZRzoSDUvqOUC&oi=fnd&pg=PR7&dq=STATISTICS+in+MUSICOLOGY&ots=BWjT6F5UDG&sig=xD4FjAMo0NP1moxRraZ6Z1EQu8A}
}
@Article{ caplin2004-classical,
author = {Caplin, William Earl},
year = {2004},
title = {The Classical Cadence: Conceptions and Misconceptions},
abstract = {The article examines notions traditionally attached to
the concept of cadence in general, retains those features
finding genuine expression in "the classical style" (as
defined by the instrumental works of Haydn, Mozart, and
Beethoven), and investigates problematic ideas that have
the potential of producing theoretical and analytical
confusion. It is argued that cadence effects formal
closure only at middle-ground levels of structure; a
cadential progression is highly constrained in its
harmonic content; cadential function precedes the moment
of cadential arrival, whereas the music following this
arrival may be postcadential in function; cadential
content must be distinguished from cadential function;
cadence represents a formal end, not a rhythmic or
textural stop; and cadential strength can be distinguished
in its syntactical and rhetorical aspects. An analysis of
selected musical passages demonstrates that an accurate
identification of cadence has a major impact on the
interpretation of musical form and phrase structure.},
doi = {10.1525/jams.2004.57.1.51},
issn = {00030139},
journal = {Journal of the American Musicological Society},
keywords = {music theory},
mendeley-tags= {music theory},
number = {1},
pages = {51--118},
url = {https://jams.ucpress.edu/content/57/1/51},
volume = {57}
}
@InCollection{ cook2004-computational,
author = {Cook, Nicholas},
year = {2004},
title = {Computational and comparative musicology},
booktitle = {Empirical musicology: Aims, methods, prospects},
chapter = {6},
editor = {Clarke, Eric and Cook, Nicholas},
keywords = {20: Western art music -- Musicology as discipline},
pages = {103--126},
publisher = {Oxford University Press},
url = {http://search.ebscohost.com/login.aspx?direct=true&db=rih&AN=2004-11424&site=ehost-live}
}
@InProceedings{ gentil-nunes.ea2004-densidade,
author = {Gentil-Nunes, Pauxy and Carvalho, Alexandre},
year = {2004},
title = {Densidade e linearidade na configura{\c{c}}{\~{a}}o de
texturas musicais},
address = {Rio de Janeiro},
booktitle = {Anais do 4° Col{\'{o}}quio de Pesquisa do PPGM-UFRJ},
keywords = {music theory},
mendeley-tags= {music theory},
pages = {40--49},
url = {https://www.academia.edu/4393959/GENTIL_NUNES_Pauxy_e_CARVALHO_Alexandre_2003_Densidade_e_linearidade_na_configura{\c{c}}{\~{a}}o_de_texturas_musicais_In_Anais_do_IV_Col{\'{o}}quio_de_Pesquisa_do_Programa_de_P{\'{o}}s_Gradua{\c{c}}{\~{a}}o_da_Escola_de_M{\'{u}}sica_da_UFRJ_Rio_de_Janeiro_UFRJ_2003}
}
@InProceedings{ grachten.ea2004-melodic,
author = {Grachten, Maarten and Arcos, Josep Lluis and
M{\'{a}}ntaras, Ramon L{\'{o}}pez De},
year = {2004},
title = {Melodic Similarity: Looking for a Good Abstraction
Level},
abstract = {Computing melodic similarity is a very general problem
with diverse musical applications ranging from music
analysis to content-based retrieval. Choosing the
appropriate level of representation is a crucial issue and
depends on the type of application. Our research interest
concerns the development of a CBR system for expressive
music processing. In that context, a well chosen distance
measure for melodies is a crucial issue. In this paper we
propose a new melodic similarity measure based on the I/R
model for melodic structure and compare it with other
existing measures. The experimentation shows that the
proposed measure provides a good compromise between
discriminatory power and ability to recognize phrases from
the same song.},
booktitle = {Proceedings of the 5th International Society for Music
Information Retrieval},
isbn = {84-88042-44-2},
keywords = {music similarity},
mendeley-tags= {music similarity}
}
@InProceedings{ kranenburg.ea2004-musical,
author = {Kranenburg, Peter Van and Backer, Eric},
year = {2004},
title = {Musical style recognition - a quantitative approach},
booktitle = {Proceedings of the Conference on Interdisciplinary
Musicology},
keywords = {musicology},
mendeley-tags= {musicology},
pages = {1--10}
}
@Article{ mackay2004-musical,
author = {Mackay, James S.},
year = {2004},
title = {Musical Proportion and Formal Function in Classical
Sonata Form: Three Case Studies from Late Haydn and Early
Beethoven},
journal = {Theory and Practice},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {2004},
pages = {39--67},
volume = {29}
}
@Article{ larson2003-recapitulation,
author = {Larson, Steve},
year = {2003},
title = {Recapitulation Recomposition in the Sonata-Form First
Movements of Haydn ' s String Quartets : Style Change and
Compositional Technique},
journal = {Music Analysis},
keywords = {music history},
mendeley-tags= {music history},
number = {1/2},
pages = {139--177},
volume = {22}
}
@Book{ stowell2003-cambridge,
year = {2003},
title = {The Cambridge Companion to the String Q},
address = {Cambridge, UK},
doi = {10.1192/bjp.112.483.211-a},
editor = {Stowell, Robin},
issn = {0007-1250},
keywords = {music history},
mendeley-tags= {music history},
publisher = {Cambridge University Press}
}
@Article{ straus2003-uniformity,
author = {Straus, Joseph Nathan},
year = {2003},
title = {Uniformity, Balance, and Smoothness in Atonal Voice
Leading},
abstract = {[Unedited] Presents a broadly applicable model for atonal
voice leading, a model of pitch-class counterpoint to
connect any two harmonies. Voice leadings are evaluated by
three criteria: (1) uniformity, the extent to which the
voices move by the same interval distance and thus
approach traditional transposition; (2) balance, the
extent to which the voices move by the same index number
and thus approach traditional inversion; and (3)
smoothness, the extent to which the voices travel the
shortest possible distance. The most uniform, most
balanced, or smoothest way of moving from one set to
another in pitch-class space, or from one set class to
another in a proposed voice-leading space, provides a
standpoint from which to assess any specific compositional
realization in pitch space.},
doi = {10.1525/mts.2003.25.2.305},
isbn = {0195-6167},
issn = {0195-6167},
journal = {Music Theory Spectrum},
keywords = {music theory},
mendeley-tags= {music theory},
number = {2},
pages = {305--352},
volume = {25}
}
@InCollection{ caplin2002-theories,
author = {Caplin, William Earl},
year = {2002},
title = {Theories of musical rhythm in the eighteenth and
nineteenth centuries},
abstract = {Everyone agrees: it is di√cult to talk about rhythm in
music, or, for that matter, the temporal experience in
general. Compared with spatial relations, which appear to
us as fixed and graspable, temporal ones seem fleeting and
intangible. As a result, the lan-guage of time and rhythm
is complex, contentious, and highly metaphorical.
Considering that theorists today continue to have
di√culty dealing with the metrical and durational
organization of music from the eighteenth and nineteenth
centuries – our most familiar music – it should come
as no surprise that theoretical writings from those
centuries often present themselves as perplexing and in
need of explication. Though their manner of formulation
may at times seem odd or convoluted, these theo-rists
nonetheless ask many of the same questions about musical
rhythm that underlie current concerns: What is a metrical
accent? How do the profusion of time signatures relate to
each other? Do the groupings of measures create a sense of
larger-scale rhythm? Can various durational patterns be
organized according to some scheme or another? How does
our understanding of musical rhythm a◊ect performance,
espe-cially tempo, phrasing, and articulation? Like many
other domains of music theory, rhythmic theories are
largely formulated in relation to a distinct compositional
practice. Thus when compositional styles change, theorists
respond by modifying their conceptions and formulating new
ones in order better to reflect such transformations in
practice. The high Baroque style, with its motoric pulses,
regularized accentuations, and dance-derived rhythms,
induced early eighteenth-century theorists to focus in
detail on the classification of various metrical and
durational patterns and to begin accounting for that most
elusive concept – metrical accent. Later in the century,
the emergence of the galant and Classical styles, with
their emphasis on formal articulations, melodic
prominence, and balanced phras-ings, stimulated theorists
to consider the rhythms projected by phrase groupings and
cadential goals. And some nineteenth-century Romantic
idioms, whose phrase rhythms are even more regularized and
symmetrical, encouraged theorists to promote varying (and
often competing) schemes of hypermetrical organization.
Though changes in musical style certainly prompted
theoretical refinement and innovation, a strong conceptual
inertia is evident in these writings. Thus early
eigh-teenth-century rhythmic theory continued to be highly
influenced by elements of the Renaissance mensural system,
and it was not until much later in that century that an
657 Cambridge Histories Online {\textcopyright} Cambridge
University Press, 2008 entirely modern conception of
musical meter found systematic expression. This notion of
meter then functioned as the basis for most
nineteenth-century approaches. So, despite significant
changes in compositional style, the sense of a " common
prac-tice " of rhythmic organization is reflected through
strong conceptual continuities in the theoretical thought
of both centuries. Eighteenth-century theories:
transition, innovation},
address = {Cambridge, UK},
booktitle = {The Cambridge History of Western Music Theory},
chapter = {21},
doi = {10.1017/chol9780521623711.023},
keywords = {music history,music theory},
mendeley-tags= {music history,music theory},
pages = {657--694},
publisher = {Cambridge University Press}
}
@Book{ gil2002-como,
author = {Gil, Ant{\^{o}}nio Carlos},
year = {2002},
title = {Como elaborar projetos de pesquisa},
address = {S{\~{a}}o Paulo},
isbn = {8522431698},
keywords = {research},
mendeley-tags= {research},
publisher = {Atlas}
}
@Misc{ antonicek.ea2001-vienna,
author = {Antonicek, Theophil and Beales, Derek and Botstein, Leon
and Klein, Rudolf and Goertz, Harald},
year = {2001},
title = {Vienna},
booktitle = {Grove Music Online},
keywords = {music history},
mendeley-tags= {music history},
publisher = {Oxford University Press}
}
@Misc{ eisen.ea2001-mozart,
author = {Eisen, Cliff and Rieger, Eva and Eisen, Cliff and Sadie,
Stanley and Angerm{\"{u}}ller, Rudolph and Oldman, C B and
Stafford, William},
year = {2001},
title = {Mozart},
booktitle = {Grove Music Online},
keywords = {music history},
mendeley-tags= {music history},
number = {1},
publisher = {Oxford University Press},
url = {https://doi.org/10.1093/gmo/9781561592630.article.40258}
}
@Article{ grave2001-concerto,
author = {Grave, Floyd K.},
year = {2001},
title = {Concerto Style in Haydn's String Quartets},
journal = {The Journal of Musicology},
keywords = {musicology},
mendeley-tags= {musicology},
number = {1},
pages = {76--97},
url = {https://www.jstor.org/stable/10.1525/jm.2001.18.1.76},
volume = {18}
}
@Article{ la-rue2001-haydn-dedication,
author = {{La Rue}, Jan},
year = {2001},
title = {The Haydn-Dedication Quartets: Allusion or Influence?},
abstract = {ETHICAL DECISION-MAKING ABOUT TRAUMA-RELATED STUDIES
requires a flexible approach that counters assumptions and
biases about victims, assures a favorable ethical
cost-benefit ratio, and pro- motes advancement of
knowledge that can benefit sur- vivors of traumatic
stress. This paper reviews several ethical issues in the
field of traumatic stress: benefit and risks in
trauma-related research, whether trauma-related research
poses unique risks and if so what those might be, informed
consent and mandatory reporting, and supervision of
trauma-related research. For each topic, we review
potential ethical issues, summarize the research conducted
thus far to inform ethical practice, and recommend future
practice, research questions and policies to advance the
field so that research on trauma can continue to be a
win-win situation for all stakeholders in the research
enterprise.},
doi = {10.1525/jm.2001.18.2.361},
issn = {0277-9269},
journal = {Journal of Musicology},
keywords = {music analysis},
mendeley-tags= {music analysis},
month = {apr},
number = {2},
pages = {361--373},
url = {http://jm.ucpress.edu/cgi/doi/10.1525/jm.2001.18.2.361},
volume = {18}
}
@Misc{ manning.ea2001-computers,
author = {Manning, Peter and Selfridge-Field, Eleanor and Reily,
Suzel Ana and Pople, Anthony},
year = {2001},
title = {Computers and music},
booktitle = {Grove Music Online},
doi = {10.1093/gmo/9781561592630.article.40583},
isbn = {9781561592630},
keywords = {computer and music},
mendeley-tags= {computer and music},
pages = {1--37},
publisher = {Oxford University Press},
url = {http://www.oxfordmusiconline.com/grovemusic/view/10.1093/gmo/9781561592630.001.0001/omo-9781561592630-e-0000040583},
volume = {1}
}
@Article{ oliveira2001-musica,
author = {Oliveira, Alda de Jesus},
year = {2001},
title = {M{\'{u}}sica na Escola Brasileira. Frequ{\^{e}}ncia de
elementos musicais em can{\c{c}}{\~{o}}es vern{\'{a}}culas
da Bahia utilizando an{\'{a}}lise manual e por computador:
sugest{\~{o}}es para aplica{\c{c}}{\~{a}}o na
Educa{\c{c}}{\~{a}}o Musical},
address = {Porto Alegre},
journal = {Teses na Educa{\c{c}}{\~{a}}o Musical},
keywords = {music education},
mendeley-tags= {music education},
number = {2},
publisher = {Associa{\c{c}}{\~{a}}o Brasileira de Educa{\c{c}}{\~{a}}o
Musical}
}
@Misc{ webster.ea2001-haydn,
author = {Webster, James and Feder, Georg},
year = {2001},
title = {Haydn, (Franz) Joseph},
booktitle = {Grove Music Online},
doi = {10.1093/gmo/9781561592630.article.44593},
keywords = {music history},
mendeley-tags= {music history},
publisher = {Oxford University Press},
url = {http://www.oxfordmusiconline.com/grovemusic/view/10.1093/gmo/9781561592630.001.0001/omo-9781561592630-e-0000044593}
}
@Book{ drabkin2000-readers,
author = {Drabkin, William},
year = {2000},
title = {A reader's guide to Haydn's early string quartets},
address = {Wesport, CT},
keywords = {music analysis},
mendeley-tags= {music analysis},
publisher = {Greenwood Press}
}
@Misc{ eisen.ea2000-string,
author = {Eisen, Cliff and Baldassare, Antonio and Griffiths,
Paul},
year = {2000},
title = {String quartet},
booktitle = {Grove Music Online},
keywords = {music history},
mendeley-tags= {music history},
publisher = {Oxford University Press},
url = {http://www.oxfordmusiconline.com/subscriber/article/grove/music/40899}
}
@Book{ haydn2000-string,
author = {Haydn, Joseph},
year = {2000},
title = {String Quartets Op 17, Complete},
address = {Mineola, NY},
editor = {Altmann, Wilhelm},
keywords = {music score},
mendeley-tags= {music score},
publisher = {Dover Publications, Inc}
}
@Misc{ kerman.ea2000-beethoven,
author = {Kerman, Joseph and Tyson, Alan and Burnham, Scott G. and
{Douglas Johnson} and Drabkin, William},
year = {2000},
title = {Beethoven, Ludwig van},
booktitle = {Grove Music Online},
doi = {10.1093/gmo/9781561592630.article.40026},
isbn = {9781561592630},
keywords = {musicology},
mendeley-tags= {musicology},
publisher = {Oxford University Press},
url = {http://www.oxfordmusiconline.com/subscriber/article/grove/music/40026}
}
@PhDThesis{ moran2000-techniques,
author = {Moran, John Gregory},
year = {2000},
title = {Techniques of expression in Viennese string music
(1780-1830) : reconstructing fingering and bowing
practices},
abstract = {Though Viennese classical music for strings is central to
the standard repertory and is steadily attracting more
performances by 'historically informed' players, awareness
of the practices of the Viennese players amongst whom
Haydn and Beethoven worked remains limited. Studies of the
string playing practices ostensibly appropriate to
Beethoven have generally been based on instrumental
treatises representative of other traditions, either later
in time or geographically remote. This thesis attempts to
reconstruct the unique traits of the fingering and bowing
practices surrounding Haydn and Beethoven in Vienna
through the surviving evidence most closely connected with
them and the players for whom they composed. The sources
include Haydn's and Beethoven's string fingerings and
slurs; the music of players with whom these composers were
associated, including Krumpholz, Wranitzky, Schuppanzigh,
Mayseder, the Krafts, and Linke; and the rarely considered
technical studies and string treatises of Vienna,
including those by Kauer, Pith!, Pirlinger, and Schweigl.
This thesis begins with a survey of the string players in
the circles of Haydn, Mozart, Schubert, and especially
Beethoven, discussing their significance and playing
styles, contrasting Viennese practices with the more
progressive approaches of Paris. The diversity of Viennese
fingering practices forms the basis for the second
chapter's examination of the wealth of information which
can be conveyed by apparently simple fingerings. Haydn's
and Beethoven's original fingerings, together accounting
for approximately three hundred passages, are the subjects
of chapters three and four. The fifth chapter considers
tone production and the myth of the 'phrasing' slur in
string writing, while the sixth is an investigation of
what constituted the basic repertory of bow strokes. The
final chapter, a case study of a set of marked parts to
Beethoven's op. 59, no. 3 quartet, shows how the various
methods of reconstruction developed in this thesis can be
brought together in the context of a complete work.},
keywords = {music performance},
mendeley-tags= {music performance},
school = {University of London},
type = {Ph.D. Thesis}
}
@Misc{ huron1999-music,
author = {Huron, David},
year = {1999},
title = {Music Research Using Humdrum: A User's Guide},
address = {Stanford, CA},
publisher = {Center for Computer Assisted Research in the Humanities}
}
@Misc{ huron1999-new,
author = {Huron, David},
year = {1999},
title = {The New Empiricism: Systematic Musicology in a Postmodern
Age},
abstract = {A survey of intellectual currents in the philosophy of
knowledge and research methodology is given. This survey
provides the backdrop for taking stock of the
methodological differences that have arisen between
disciplines, such as the methods commonly used in science,
history or literary theory. Postmodernism and scientific
empiricism are described and portrayed as two sides of the
same coin we call skepticism. It is proposed that the
choice of methodological approach for any given research
program is guided by moral and esthetic considerations.
Careful assessment of these risks may suggest choosing an
unorthodox method, such as quantitative methods in
history, or deconstruction in science. It is argued that
methodological tools (such as Ockham's razor) should not
be mistaken for philosophical world-views. The article
advocates a broadening of methodological education in both
arts and sciences disciplines. In particular, it advocates
and defends the use of quantitative empirical methodology
in various areas of music scholarship.},
booktitle = {Ernest Bloch Lectures},
keywords = {computational musicology,evolution,lecture,music
cognition,psychology,theory},
mendeley-tags= {computational musicology},
url = {http://www.musiccog.ohio-state.edu/Music220/Bloch.lectures/2.Origins.html}
}
@Article{ klein1999-texture,
author = {Klein, Michael},
year = {1999},
title = {Texture, Register, and Their Formal Roles in the Music of
Witold Lutos{\l}awski},
doi = {10.2307/24044509},
journal = {Indiana Theory Review},
keywords = {music theory},
mendeley-tags= {music theory},
pages = {37--70},
url = {https://www.jstor.org/stable/24044509},
volume = {20}
}
@Article{ schmuckler1999-testing,
author = {Schmuckler, Mark A.},
year = {1999},
title = {Testing Models of Melodic Contour Similarity},
journal = {Music Perception},
keywords = {music contour},
mendeley-tags= {music contour},
number = {3},
pages = {295--326},
volume = {16}
}
@Article{ suurpaa1999-continuous,
author = {Suurpaa, Lauri},
year = {1999},
title = {Continuous Exposition and Tonal Structure in Three Late
Haydn Works},
doi = {10.1525/mts.1999.21.2.02a00020},
issn = {0195-6167},
journal = {Music Theory Spectrum},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {2},
pages = {174--199},
volume = {21}
}
@Article{ temperley1999-whats,
author = {Temperley, David},
year = {1999},
title = {What's Key for Key? The Krumhansl-Schmuckler Key-Finding
Algorithm Reconsidered},
abstract = {This study examines the Krumhansl-Schmuckler key-finding
model, in which the distribution of pitch classes in a
piece is compared with an ideal distribution or "key
profile" for each key. Several changes are proposed.
First, the formula used for the matching process is
somewhat simplified. Second, alternative values are
proposed for the key profiles themselves. Third, rather
than summing the durations of all events of each pitch
class, the revised model divides the piece into short
segments and labels each pitch class as present or absent
in each segment. Fourth, a mechanism for modulation is
proposed; a penalty is imposed for changing key from one
segment to the next. An implementation of this model was
subjected to two tests. First, the model was tested on the
fugue subjects from Bach's Well-Tempered Clavier; the
model's performance on this corpus is compared with the
performances of other models. Second, the model was tested
on a corpus of excerpts from the Kostka and Payne harmony
textbook (as analyzed by Kostka). Several problems with
the modified algorithm are discussed, concerning the rate
of modulation, the role of harmony in key finding, and the
role of pitch "spellings." The model is also compared with
Huron and Parncutt's exponential decay model. The tests
presented here suggest that the key-profile model, with
the modifications proposed, can provide a highly
successful approach to key finding.},
doi = {10.2307/40285812},
issn = {0730-7829},
journal = {Music Perception},
month = {oct},
number = {1},
pages = {65--100},
url = {https://online.ucpress.edu/mp/article/17/1/65/62051/Whats-Key-for-Key-The-KrumhanslSchmuckler},
volume = {17}
}
@Article{ burstein1998-surprising,
author = {Burstein, L. Poundie},
year = {1998},
title = {Surprising Returns: The VII \# in Beethoven's Op. 18 No.
3, and Its Antecedents in Haydn},
isbn = {9788578110796},
issn = {1098-6596},
journal = {Music Analysis},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {3},
pages = {295--312},
url = {http://www.jstor.org/stable/854418},
volume = {17}
}
@Book{ caplin1998-classical,
author = {Caplin, William Earl},
year = {1998},
title = {Classical Form: A Theory of Formal Functions for the
Instrumental Music of Haydn, Mozart, and Beethoven},
address = {New York},
booktitle = {Nordamerikanische Musiktheorie},
isbn = {0195104803},
keywords = {music theory},
mendeley-tags= {music theory},
publisher = {Oxford University Press}
}
@Article{ morris1998-voice-leading,
author = {Morris, Robert Daniel},
year = {1998},
title = {Voice-leading spaces},
issn = {0195-6167},
journal = {Music Theory Spectrum},
keywords = {music theory},
mendeley-tags= {music theory},
number = {2},
pages = {175--208},
publisher = {JSTOR},
url = {http://www.jstor.org/stable/746047},
volume = {20}
}
@Book{ sutcliffe1998-haydn,
year = {1998},
title = {Haydn Studies},
address = {Cambridge},
editor = {Sutcliffe, W. Dean},
isbn = {9780521028356},
keywords = {haydn,music history},
mendeley-tags= {haydn,music history},
publisher = {Cambridge University Press}
}
@Book{ weisstein1998-crc,
author = {Weisstein, Eric W.},
year = {1998},
title = {CRC Concise Encyclopedia of Mathematics},
address = {Boca Raton, FL},
keywords = {Mathematics--Encyclopedias,mathematics},
mendeley-tags= {mathematics},
pages = {1973},
publisher = {CRC Press},
url = {http://scholar.google.com/scholar?hl=en&btnG=Search&q=intitle:CRC+Concise+Encyclopedia+of+Mathematics#0}
}
@Article{ nettheim1997-bibliography,
author = {Nettheim, Nigel},
year = {1997},
title = {A bibliography of statistical applications in
musicology},
abstract = {Statistical applications in musicology appear in widely
scattered publications. The present bibliography, mainly
of English language publications, extends back to the
beginning of the present century. The analysis of musical
scores is emphasized, but applications in the social
sciences arc also touched upon, as well as those to
performance studies and algorithmic composition.
Statistical techniques include simple summarization,
graphical methods, time series analysis, information
theory, Zipf's law, Markov chains, fractals, and neural
networks. Several cases of misapplication of statistics
are noted. Commentary is provided on the field and its
sub-fields. {\textcopyright} 1997, Taylor \& Francis
Group, LLC. All rights reserved.},
doi = {10.1080/08145857.1997.10415974},
issn = {1949453X},
journal = {Musicology Australia},
keywords = {music and mathematics},
mendeley-tags= {music and mathematics},
number = {1},
pages = {94--106},
volume = {20}
}
@Book{ rosen1997-classical,
author = {Rosen, Charles},
year = {1997},
title = {The Classical Style: Haydn, Mozart, Beethoven},
address = {New York, NY},
edition = {Expanded e},
isbn = {0393040208},
keywords = {music history},
mendeley-tags= {music history},
publisher = {W. W. Norton \& Company},
url = {https://pt.scribd.com/doc/124143289/Charles-Rosen-The-Classical-Style-Haydn-Mozart-Beethoven}
}
@Book{ sisman1997-haydn,
author = {Sisman, Elaine},
year = {1997},
title = {Haydn and his World},
address = {Princeton, NJ},
isbn = {0691057982},
keywords = {music history},
mendeley-tags= {music history},
publisher = {Princeton University Press}
}
@Book{ grier1996-critical,
author = {Grier, James},
year = {1996},
title = {The Critical Editing of Music: History, Method, and
Practice},
address = {New York, NY},
keywords = {musicology},
mendeley-tags= {musicology},
publisher = {Cambridge University Press}
}
@Article{ huron.ea1996-what,
author = {Huron, David and Royal, Mathew},
year = {1996},
title = {What is melodic accent? Converging evidence from musical
practice},
issn = {0730-7829},
journal = {Music Perception},
keywords = {music theory},
mendeley-tags= {music theory},
number = {4},
pages = {489--516},
publisher = {JSTOR},
url = {http://www.jstor.org/stable/40285700},
volume = {13}
}
@Article{ huron1996-melodic,
author = {Huron, David},
year = {1996},
title = {The Melodic Arch in Western Folksongs},
issn = {1057-9478},
journal = {Computing in Musicology},
pages = {3--23},
url = {https://csml.som.ohio-state.edu/Huron/Publications/huron.arch.text.html},
volume = {10}
}
@Book{ lerdahl.ea1996-generative,
author = {Lerdahl, Fred and Jackendoff, Ray S.},
year = {1996},
title = {A Generative Theory of Tonal Music},
isbn = {9780262621076},
keywords = {music theory},
mendeley-tags= {music theory},
publisher = {MIT Press}
}
@Article{ grave1995-metrical,
author = {Grave, Floyd K.},
year = {1995},
title = {Metrical Dissonance in Haydn},
journal = {The Journal of Musicology},
keywords = {musicology},
mendeley-tags= {musicology},
number = {2},
pages = {168--202},
url = {https://www.jstor.org/stable/764104?Search=yes&resultItemClick=true&searchText=au%3A&searchText=%22grave%22&searchUri=%2Faction%2FdoBasicSearch%3FQuery%3Dau%253A%2522grave%2522&ab_segments=0%2Fbasic_SYC-4341%2Ftest&refreqid=search%3Adea0fe7557373c9b7c9f88},
volume = {13}
}
@Misc{ huron1995-humdrum,
author = {Huron, David},
year = {1995},
title = {The Humdrum Toolkit: Reference Manual},
address = {Menlo Park, CA},
publisher = {Center for Computer Assisted Research in the Humanities}
}
@Book{ kostka.ea1995-tonal,
author = {Kostka, Stefan M. and Payne, Dorothy},
year = {1995},
title = {Tonal harmony, with an introduction to twentieth-century
music},
address = {New York, NY},
edition = {3rd},
isbn = {0072415703},
keywords = {music theory},
mendeley-tags= {music theory},
publisher = {McGraw-Hill}
}
@Book{ duckles.ea1994-music,
author = {Duckles, Vincent H and Keller, Michael A},
year = {1994},
title = {Music Reference and Research Materials: An Annotated
Bibliography},
address = {New York},
edition = {4th},
keywords = {music},
mendeley-tags= {music},
publisher = {Schirmer Books}
}
@Book{ winter.ea1994-beethoven,
year = {1994},
title = {The Beethoven Quartet Companion},
address = {Berkeley, CA},
editor = {Winter, Robert and Martin, Robert},
keywords = {music history},
mendeley-tags= {music history},
publisher = {University of California Press}
}
@Article{ camilleri1993-computational,
author = {Camilleri, Lelio},
year = {1993},
title = {Computational Musicology A Survey on Methodologies and
Applications},
abstract = {Cet article traite de J'utilisation de l'i.nformatique
dans les {\'{e}}tudes de musique. Il pr{\'{e}}sente une
introduction aux diff{\'{e}}rents aspects de la
musicologie computationnelle el aux r{\'{e}}cents
d{\'{e}}veloppe- ments dan!'> ce domaine. Il passe en
revue les principales applications de l'informatique en
musicologie historique ct en analyse quelques exemples et
leurs implications. Ensuite sont d{\'{e}}crites les
applications de l'ordinateur aux {\'{e}}ludes analytiques
en cc qui concerne leurs aspects m{\'{e}}thodologiques.
Des exemples de syst{\`{e}}mes d'analyse automatique sont
expliqu{\'{e}}s avec les conclusions th{\'{e}}oriques que
l'on peut cn tirer. L'article s'ach{\`{e}}ve par une
analyse rapide de d{\'{e}}veloppements
cn\,jsageablc.$\sim$ dans le futur.},
journal = {Revue Informatique et Statistique dans les Sciences
humaines},
keywords = {computational musicology},
mendeley-tags= {computational musicology},
pages = {51--65},
volume = {XXIX}
}
@Article{ morris1993-new,
author = {Morris, Robert Daniel},
year = {1993},
title = {New Directions in the Theory and Analysis of Musical
Contour},
doi = {10.1525/mts.1993.15.2.02a00040},
issn = {0195-6167},
journal = {Music Theory Spectrum},
month = {oct},
number = {2},
pages = {205--228},
url = {http://caliber.ucpress.net/doi/abs/10.1525/mts.1993.15.2.02a00040},
volume = {15}
}
@Book{ lockwood1992-beethoven,
author = {Lockwood, Lewis},
year = {1992},
title = {Beethoven: studies in the creative process},
address = {Cambridge, MA; London},
isbn = {0674063627 (acid-free paper)},
publisher = {Harvard University Press}
}
@Book{ sutcliffe1992-haydn,
author = {Sutcliffe, W. Dean},
year = {1992},
title = {Haydn: String Quartets, Op. 50},
address = {Cambridge},
editor = {Rushton, Julian},
keywords = {music history},
mendeley-tags= {music history},
publisher = {Cambridge University Press}
}
@Article{ yudkin1992-beethovens,
author = {Yudkin, Jeremy},
year = {1992},
title = {Beethoven's "Mozart" Quartet},
journal = {Journal of the American Musicological Society},
keywords = {music history},
mendeley-tags= {music history},
number = {1},
pages = {30--74},
volume = {45}
}
@Article{ wheelock1991-engaging,
author = {Wheelock, Gretchen A.},
year = {1991},
title = {Engaging Strategies in Haydn's Opus 33 String Quartets},
journal = {Eighteenth-Century Studies},
keywords = {music history},
mendeley-tags= {music history},
number = {1},
pages = {1--30},
volume = {25}
}
@Article{ gerling1989-teoria,
author = {Gerling, Cristina Capparelli},
year = {1989},
title = {A Teoria de Heinrich Schenker: uma breve
introdu{\c{c}}{\~{a}}o},
journal = {Em Pauta},
keywords = {music theory},
mendeley-tags= {music theory},
number = {1},
pages = {22--34},
volume = {1}
}
@InProceedings{ rabiner1989-tutorial,
author = {Rabiner, Lawrence R.},
year = {1989},
title = {A Tutorial on Hidden Markov Models and Selected
Applications in Speech Recognition},
booktitle = {Proceedings of the IEEE},
doi = {10.1016/b978-0-08-051584-7.50027-9},
keywords = {computer},
mendeley-tags= {computer},
pages = {257--286}
}
@Article{ drabkin1988-fingering,
author = {Drabkin, William},
year = {1988},
title = {Fingering in haydn's string quartets},
doi = {10.1093/earlyj/XVI.1.50},
issn = {03061078},
journal = {Early Music},
keywords = {music history},
mendeley-tags= {music history},
number = {1},
pages = {50--57},
volume = {16}
}
@Book{ landon.ea1988-haydn,
author = {Landon, Howard Chandler Robbins and Jones, David Wyn},
year = {1988},
title = {Haydn: his life and music},
address = {Bloomington \& Indianapolis},
keywords = {haydn},
mendeley-tags= {haydn},
publisher = {Indiana University Press}
}
@PhDThesis{ marvin1988-generalized,
author = {Marvin, Elizabeth West},
year = {1988},
title = {A generalized theory of musical contour: its application
to melodic and rhythmic analysis of non-tonal music and
its perceptual and pedagogical implications},
abstract = {This dissertation proposes the thesis that abstract
theories of pitch- and set-class structure do not reflect
listeners' aural perception of sounding music as
effectively as theories modelling the articulation of
these underlying structures on the musical surface. This
position is supported by a review of pertinent
music-theoretical and music-psychological research. Based
upon the data collected by various music-psychologists,
published elsewhere but compared and critiqued here, this
study concludes that listeners generally use figural cues
drawn from musical context --- for example, melodic
shapes, changes of direction, relative durationnal
patterns, and so on --- to retain and recognize musical
ideas in short-term memory. These figural cues may be
represented in precise notation and compared with one
another by application and generalization of Robert
Morris's contour theories. Morris's comparison matrix and
contour equivalence relations are introduced here,
followed by this author's generalization of the thwory to
duration space and development of similarity relations for
melodic contours of relative pitch height and rhythmic
contours of relative suration successions. The similarity
relations for musical contours build upon previous wort of
Dabid Lewin, Robert Morris, and John Rahn. While the
efficacy of these theories for modelling perceivable
patterns in musical contexts cannot be proven without
further psychological testing, their applicability to
musical analysis is demonstrated. Analyses drawn form the
music of Bartok, Webern, Berg, and Var{\`{e}}se illustrate
ways in which melodic and rhythmic contour relationships
may be used to shape a formal scheme to differentiate
melody from accompaniment, to associate musical ideas that
belong to different set classes, and to create unity
throuth varied repetition. The concluding chapter explores
avenues for future work. A section on music-psychological
experimentation offers a critical overview of research in
this area and proposes ideas for future experimentation.
Second, the implications of music-psychological research
for the pedagogy of non-tonal music theory are considered
and a model curriculum for non-tonal music theory
proposed. The dissertation concludes by proposing a number
of ways in which contour theory might be generalized to
other domains and illustrates the application of one such
generalization to the analysis of chord spacing in a piano
work of Luigi Dallapiccola.},
keywords = {music contour},
mendeley-tags= {music contour},
school = {University of Rochester},
type = {PhD Dissertation},
url = {http://www.mendeley.com/research/a-generalized-theory-of-musical-contour-its-application-to-melodic-and-rhythmic-analysis-of-nontonal-music-and-its-perceptual-and-pedagogical-implications/}
}
@Book{ rosen1988-sonata,
author = {Rosen, Charles},
year = {1988},
title = {Sonata Forms},
address = {New York and London},
edition = {Rev. Ed.},
keywords = {music theory},
mendeley-tags= {music theory},
publisher = {W. W. Norton \& Company}
}
@Book{ berry1987-structural,
author = {Berry, Wallace},
year = {1987},
title = {Structural functions in music},
address = {New York},
isbn = {0486253848},
keywords = {music theory,musical analysis},
mendeley-tags= {music theory},
publisher = {Dover Publications, Inc},
url = {http://books.google.com/books?hl=en&lr=&id=J4iXm-uoSRUC&oi=fnd&pg=PR11&dq=Structural+Functions+in+Music&ots=k-2Zkuqv_I&sig=gDaGMcfIa7GyNE2CzlOvrS19w2Q}
}
@Article{ marvin.ea1987-relating,
author = {Marvin, Elizabeth West and Laprade, Paul A.},
year = {1987},
title = {Relating musical contours: Extensions of a Theory for
Contour},
issn = {0022-2909},
journal = {Journal of Music Theory},
keywords = {music contour},
mendeley-tags= {music contour},
number = {2},
pages = {225--267},
publisher = {JSTOR},
url = {http://www.jstor.org/stable/843709},
volume = {31}
}
@Book{ morris1987-composition,
author = {Morris, Robert Daniel},
year = {1987},
title = {Composition with pitch-classes: A theory of compositional
design},
keywords = {music contour},
mendeley-tags= {music contour},
publisher = {Yale University Press},
url = {http://www.getcited.org/pub/102618473}
}
@Book{ berry1986-form,
author = {Berry, Wallace},
year = {1986},
title = {Form in music: an examination of traditional techniques
of musical form and their applications in historical and
contemporary styles},
address = {Englewood Cliffs, N.J},
edition = {2nd},
isbn = {0133292851},
keywords = {Musical form,music theory},
mendeley-tags= {music theory},
pages = {439},
publisher = {Prentice-Hall}
}
@Book{ keller1986-great,
author = {Keller, Hans},
year = {1986},
title = {The Great Haydn Quartets: Their interpretation},
address = {London},
archiveprefix= {arXiv},
arxivid = {arXiv:1011.1669v3},
edition = {1},
eprint = {arXiv:1011.1669v3},
isbn = {9788578110796},
issn = {1098-6596},
keywords = {History,Music,haydn},
mendeley-tags= {haydn},
pmid = {25246403},
publisher = {J. M. Dent \& Sons Ltd}
}
@Article{ friedmann1985-methodology,
author = {Friedmann, Michael L.},
year = {1985},
title = {A Methodology for the Discussion of Contour: Its
Application to Schoenberg's Music},
doi = {10.2307/843614},
issn = {00222909},
journal = {Journal of Music Theory},
keywords = {music contour},
mendeley-tags= {music contour},
number = {2},
pages = {223--248},
url = {http://links.jstor.org/sici?sici=0022-2909(198523)29:2%3C223:AMFTDO%3E2.0.CO;2-E&origin=crossref},
volume = {29}
}
@Article{ caplin1983-tonal,
author = {Caplin, William Earl},
year = {1983},
title = {Tonal function and metrical accent: A historical
perspective},
doi = {10.2307/746092},
issn = {15338339},
journal = {Music Theory Spectrum},
keywords = {music theory},
mendeley-tags= {music theory},
number = {1},
pages = {1--14},
volume = {5}
}
@Article{ thomassen1983-erratum,
author = {Thomassen, Joseph M.},
year = {1983},
title = {Erratum: "melodic accent: experiments and a tentative
model" [J. Acoust. Soc. Am. 71, 1596-1605 (1982)].},
issn = {0001-4966},
journal = {The Journal of the Acoustical Society of America},
keywords = {Humans,Models,Music,Probability,Psychoacoustics,Psychological,music
theory},
mendeley-tags= {music theory},
month = {jan},
number = {1},
pages = {373},
pmid = {6826904},
url = {http://www.ncbi.nlm.nih.gov/pubmed/6826904},
volume = {73}
}
@Article{ levy1982-texture,
author = {Levy, Janet M.},
year = {1982},
title = {Texture as a Sign in Classic and Early Romantic Music},
doi = {10.2307/830985},
issn = {0003-0139},
journal = {Journal of the American Musicological Society},
keywords = {music theory},
mendeley-tags= {music theory},
month = {oct},
number = {3},
pages = {482--531},
url = {https://online.ucpress.edu/jams/article/35/3/482/49237/Texture-as-a-Sign-in-Classic-and-Early-Romantic},
volume = {35}
}
@Article{ thomassen1982-melodic,
author = {Thomassen, Joseph M.},
year = {1982},
title = {Melodic accent: Experiments and a tentative model},
doi = {10.1121/1.387814},
issn = {00014966},
journal = {The Journal of the Acoustical Society of America},
keywords = {music theory},
mendeley-tags= {music theory},
number = {6},
pages = {1596},
url = {http://link.aip.org/link/JASMAN/v71/i6/p1596/s1&Agg=doi},
volume = {71}
}
@InProceedings{ andrews1981-submediant,
author = {Andrews, Harold L.},
year = {1981},
title = {The Submediant in Haydn's Development Sections},
address = {Washington, DC},
booktitle = {Haydn Studies: Proceedings of the International Haydn
Conference},
keywords = {music analysis},
mendeley-tags= {music analysis},
pages = {465--471},
publisher = {W. W. Norton \& Company}
}
@Article{ cleveland1981-lowess,
author = {Cleveland, William S.},
year = {1981},
title = {{LOWESS}: A Program for Smoothing Scatterplots by Robust
Locally Weighted Regression},
volume = {35},
issn = {00031305},
shorttitle = {LOWESS},
url = {https://www.jstor.org/stable/2683591?origin=crossref},
doi = {10.2307/2683591},
language = {en},
number = {1},
urldate = {2023-04-12},
journal = {The American Statistician},
month = feb,
pages = {54}
}
@Book{ larsen.ea1981-proceedings,
year = {1981},
title = {Proceedings of the International Haydn Conference},
address = {New York and London},
booktitle = {Haydn Studies},
editor = {Larsen, Jens Peter and Serwer, Howard and Webster,
James},
keywords = {haydn},
mendeley-tags= {haydn},
publisher = {W. W. Norton \& Company}
}
@InProceedings{ levy1981-gesture,
author = {Levy, Janet M.},
year = {1981},
title = {Gesture, Form and Syntax in Haydn's Music},
address = {Washington, DC},
booktitle = {Haydn Studies: Proceedings of the International Haydn
Conference},
keywords = {music analysis},
mendeley-tags= {music analysis},
pages = {355--363},
publisher = {W. W. Norton \& Company}
}
@InProceedings{ moe-jr-1981-significance,
author = {{Moe Jr.}, Orin},
year = {1981},
title = {The Significance of Haydn's Op. 33},
address = {Washington, DC},
booktitle = {Haydn Studies: Proceedings of the International Haydn
Conference},
keywords = {haydn},
mendeley-tags= {haydn},
pages = {445--450},
publisher = {W. W. Norton \& Company}
}
@InProceedings{ saslav1981-alla,
author = {Saslav, Isidor},
year = {1981},
title = {The alla breve “March”: Its Evolution and Meaning in
Haydn's String Quartets},
address = {Washington, DC},
booktitle = {Haydn Studies: Proceedings of the International Haydn
Conference},
keywords = {haydn},
mendeley-tags= {haydn},
pages = {308--314},
publisher = {W. W. Norton \& Company}
}
@InProceedings{ sisman1981-haydns,
author = {Sisman, Elaine},
year = {1981},
title = {Haydn's Hybrid Variations},
address = {Washington, DC},
booktitle = {Haydn Studies: Proceedings of the International Haydn
Conference},
keywords = {music analysis},
mendeley-tags= {music analysis},
pages = {509--515},
publisher = {W. W. Norton \& Company}
}
@Book{ ratner1980-classic,
author = {Ratner, Leonard G},
year = {1980},
title = {Classic Music: Expression, Form and Style},
address = {New York},
keywords = {music history},
mendeley-tags= {music history},
publisher = {Schirmer Books}
}
@Article{ cleveland1979-robust,
author = {Cleveland, William S.},
year = {1979},
title = {{Robust} Locally Weighted Regression and Smoothing
Scatterplots},
volume = {74},
issn = {0162-1459, 1537-274X},
url = {http://www.tandfonline.com/doi/abs/10.1080/01621459.1979.10481038},
doi = {10.1080/01621459.1979.10481038},
language = {en},
number = {368},
urldate = {2023-04-12},
journal = {Journal of the American Statistical Association},
month = dec,
pages = {829--836}
}
@Book{ kerman1979-beethoven,
author = {Kerman, Joseph},
year = {1979},
title = {The Beethoven Quartets},
address = {New York, NY},
keywords = {music history},
mendeley-tags= {music history},
publisher = {WW Norton \& Company}
}
@Article{ webster1977-bass,
author = {Webster, James},
year = {1977},
title = {The Bass Part in Haydn's Early String Quartets},
issn = {0264-1615},
journal = {The Musical Quarterly},
keywords = {music history},
mendeley-tags= {music history},
number = {3},
pages = {390--424},
url = {https://www.jstor.org/stable/pdf/741433.pdf},
volume = {63}
}
@Book{ andrews1976-theory,
author = {Andrews, George E.},
year = {1976},
title = {The {Theory} of {Partitions}},
address = {London},
series = {Encyclopedia of {Mathematics} and its {Applications}},
volume = {2},
language = {en},
publisher = {Addison-Wesley Publishing Company},
editor = {Turán, Paul}
}
@Book{ kohs1976-musical,
author = {Kohs, Ellis Bonoff},
year = {1976},
title = {Musical Form: Studies in analysis and synthesis},
address = {Boston},
keywords = {music theory},
mendeley-tags= {music theory},
publisher = {Houghton Mifflin}
}
@Article{ webster1975-chronology,
author = {Webster, James},
year = {1975},
title = {The Chronology of Haydn's String Quartets},
journal = {The Musical Quarterly},
keywords = {haydn,music history},
mendeley-tags= {haydn,music history},
number = {1},
pages = {17--46},
volume = {61}
}
@Book{ barrett-ayres1974-joseph,
author = {Barrett-Ayres, Reginald},
year = {1974},
title = {Joseph Haydn and the String quartet},
address = {New York},
keywords = {haydn},
mendeley-tags= {haydn},
publisher = {Schirmer Books}
}
@InCollection{ geiringer1973-rise,
author = {Geiringer, Karl},
year = {1973},
title = {The Rise of Chamber Music},
address = {Oxford},
booktitle = {The New Oxford history of music. Vol. 7, Age of
enlightenment 1745-1790},
chapter = {IX},
editor = {Wellesz, Egon and Sternfeld, Frederick W},
isbn = {0 19 316307 1},
keywords = {music history},
mendeley-tags= {music history},
pages = {515--573},
publisher = {Oxford University Press}
}
@InCollection{ pauly1973-chamber,
author = {Pauly, Reinhard G.},
year = {1973},
title = {Chamber Music, Divertimento, Serenade},
address = {Englewood Cliffs, NJ},
booktitle = {Music in the classic period},
chapter = {9},
keywords = {music history},
mendeley-tags= {music history},
pages = {140--158},
publisher = {Prentice-Hall}
}
@Article{ mann1970-beethovens,
author = {Mann, Alfred},
year = {1970},
title = {Beethoven's Contrapuntal Studies with Haydn},
journal = {The Musical Quarterly},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {4},
pages = {711--726},
url = {http://www.jstor.org/stable/740934},
volume = {56}
}
@Article{ bartha1969-thematic,
author = {Bartha, D{\'{e}}nes},
year = {1969},
title = {Thematic Profile and Character in the Quartet-Finales of
Joseph Haydn (A Contribution to the Micro-Analysis of
Thematic Structure)},
doi = {10.2307/901267},
issn = {00393266},
journal = {Studia Musicologica Academiae Scientiarum Hungaricae},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {1/4},
pages = {35--62},
volume = {11}
}
@Article{ oster1961-register,
author = {Oster, Ernst},
year = {1961},
title = {Register and the Large-Scale Connection},
doi = {10.2307/842870},
issn = {00222909},
journal = {Journal of Music Theory},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {1},
pages = {54},
volume = {5}
}
@Book{ hoboken1957-joseph,
author = {van Hoboken, Anthony},
year = {1957},
title = {Joseph Haydn: thematisch-bibliographisches
Werkverzeichnis},
address = {Mainz},
keywords = {music history},
mendeley-tags= {music history},
publisher = {Schott \& Co., Ltd.},
url = {https://archive.org/details/JosephHaydnThematisch-bibliographischesWerkverzeichnis}
}
@Article{ silbert1950-ambiguity,
author = {Silbert, Doris},
year = {1950},
title = {Ambiguity in the string quartets of Joseph Haydn},
doi = {10.1093/mq/XXXVI.4.562},
journal = {Musical Quarterly},
keywords = {music analysis},
mendeley-tags= {music analysis},
number = {1},
pages = {562----573},
url = {http://mq.oxfordjournals.org/content/XXXVI/4/562.extract},
volume = {36}
}
@Book{ geiringer1946-haydn,
author = {Geiringer, Karl},
year = {1946},
title = {Haydn: a creative life in Music},
address = {New York},
keywords = {music history},
mendeley-tags= {music history},
publisher = {W. W. Norton \& Company}
}
@Article{ fisher.ea1928-limiting,
author = {Fisher, R. A. and Tippett, L. H.C.},
year = {1928},
title = {Limiting forms of the frequency distribution of the
largest or smallest member of a sample},
doi = {10.1017/S0305004100015681},
issn = {14698064},
journal = {Mathematical Proceedings of the Cambridge Philosophical
Society},
keywords = {mathematics},
mendeley-tags= {mathematics},
number = {2},
pages = {180--190},
volume = {24}
}
@Book{ sapp-kern,
title = {Kern Scores},
editor = {Sapp, Craig},
publisher = {Center for Computer Assisted Research in the Humanities
at Stanford University},
note = {Available at \url{https://kern.ccarh.org}. Accessed on:
Jun. 2, 2023}
}