Surprising Connections in Extended Just Intonation Investigations and Reflections on Tonal Change
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Riemann's Functional Framework for Extended Jazz Harmony James
Riemann’s Functional Framework for Extended Jazz Harmony James McGowan The I or tonic chord is the only chord which gives the feeling of complete rest or relaxation. Since the I chord acts as the point of rest there is generated in the other chords a feeling of tension or restlessness. The other chords therefore must 1 eventually return to the tonic chord if a feeling of relaxation is desired. Invoking several musical metaphors, Ricigliano’s comment could apply equally well to the tension and release of any tonal music, not only jazz. Indeed, such metaphors serve as essential points of departure for some extended treatises in music theory.2 Andrew Jaffe further associates “tonic,” “stability,” and “consonance,” when he states: “Two terms used to refer to the extremes of harmonic stability and instability within an individual chord or a chord progression are dissonance and consonance.”3 One should acknowledge, however, that to the non-jazz reader, reference to “tonic chord” implicitly means triad. This is not the case for Ricigliano, Jaffe, or numerous other writers of pedagogical jazz theory.4 Rather, in complete indifference to, ignorance of, or reaction against the common-practice principle that only triads or 1 Ricigliano 1967, 21. 2 A prime example, Berry applies the metaphor of “motion” to explore “Formal processes and element-actions of growth and decline” within different musical domains, in diverse stylistic contexts. Berry 1976, 6 (also see 111–2). An important precedent for Berry’s work in the metaphoric dynamism of harmony and other parameters is found in the writings of Kurth – particularly in his conceptions of “sensuous” and “energetic” harmony. -
Echo-Enabled Harmonics up to the 75Th Order from Precisely Tailored Electron Beams E
LETTERS PUBLISHED ONLINE: 6 JUNE 2016 | DOI: 10.1038/NPHOTON.2016.101 Echo-enabled harmonics up to the 75th order from precisely tailored electron beams E. Hemsing1*,M.Dunning1,B.Garcia1,C.Hast1, T. Raubenheimer1,G.Stupakov1 and D. Xiang2,3* The production of coherent radiation at ever shorter wave- phase-mixing transformation turns the sinusoidal modulation into lengths has been a long-standing challenge since the invention a filamentary distribution with multiple energy bands (Fig. 1b). 1,2 λ of lasers and the subsequent demonstration of frequency A second laser ( 2 = 2,400 nm) then produces an energy modulation 3 ΔE fi doubling . Modern X-ray free-electron lasers (FELs) use relati- ( 2) in the nely striated beam in the U2 undulator (Fig. 1c). vistic electrons to produce intense X-ray pulses on few-femto- Finally, the beam travels through the C2 chicane where a smaller 4–6 R(2) second timescales . However, the shot noise that seeds the dispersion 56 brings the energy bands upright (Fig. 1d). amplification produces pulses with a noisy spectrum and Projected into the longitudinal space, the echo signal appears as a λ λ h limited temporal coherence. To produce stable transform- series of narrow current peaks (bunching) with separation = 2/ limited pulses, a seeding scheme called echo-enabled harmonic (Fig. 1e), where h is a harmonic of the second laser that determines generation (EEHG) has been proposed7,8, which harnesses the character of the harmonic echo signal. the highly nonlinear phase mixing of the celebrated echo EEHG has been examined experimentally only recently and phenomenon9 to generate coherent harmonic density modu- at modest harmonic orders, starting with the 3rd and 4th lations in the electron beam with conventional lasers. -
Perceived Triad Distance: Evidence Supporting the Psychological Reality of Neo-Riemannian Transformations Author(S): Carol L
Yale University Department of Music Perceived Triad Distance: Evidence Supporting the Psychological Reality of Neo-Riemannian Transformations Author(s): Carol L. Krumhansl Source: Journal of Music Theory, Vol. 42, No. 2, Neo-Riemannian Theory (Autumn, 1998), pp. 265-281 Published by: Duke University Press on behalf of the Yale University Department of Music Stable URL: http://www.jstor.org/stable/843878 . Accessed: 03/04/2013 14:34 Your use of the JSTOR archive indicates your acceptance of the Terms & Conditions of Use, available at . http://www.jstor.org/page/info/about/policies/terms.jsp . JSTOR is a not-for-profit service that helps scholars, researchers, and students discover, use, and build upon a wide range of content in a trusted digital archive. We use information technology and tools to increase productivity and facilitate new forms of scholarship. For more information about JSTOR, please contact [email protected]. Duke University Press and Yale University Department of Music are collaborating with JSTOR to digitize, preserve and extend access to Journal of Music Theory. http://www.jstor.org This content downloaded from 128.84.127.82 on Wed, 3 Apr 2013 14:34:27 PM All use subject to JSTOR Terms and Conditions PERCEIVED TRIAD DISTANCE: EVIDENCE SUPPORTING THE PSYCHOLOGICAL REALITY OF NEO-RIEMANNIAN TRANSFORMATIONS CarolL. Krumhansl This articleexamines two sets of empiricaldata for the psychological reality of neo-Riemanniantransformations. Previous research (summa- rized, for example, in Krumhansl1990) has establishedthe influence of parallel, P, relative, R, and dominant, D, transformationson cognitive representationsof musical pitch. The present article considers whether empirical data also support the psychological reality of the Leitton- weschsel, L, transformation.Lewin (1982, 1987) began workingwith the D P R L family to which were added a few other diatonic operations. -
Download the Just Intonation Primer
THE JUST INTONATION PPRIRIMMEERR An introduction to the theory and practice of Just Intonation by David B. Doty Uncommon Practice — a CD of original music in Just Intonation by David B. Doty This CD contains seven compositions in Just Intonation in diverse styles — ranging from short “fractured pop tunes” to extended orchestral movements — realized by means of MIDI technology. My principal objectives in creating this music were twofold: to explore some of the novel possibilities offered by Just Intonation and to make emotionally and intellectually satisfying music. I believe I have achieved both of these goals to a significant degree. ——David B. Doty The selections on this CD process—about synthesis, decisions. This is definitely detected in certain struc- were composed between sampling, and MIDI, about not experimental music, in tures and styles of elabora- approximately 1984 and Just Intonation, and about the Cageian sense—I am tion. More prominent are 1995 and recorded in 1998. what compositional styles more interested in result styles of polyphony from the All of them use some form and techniques are suited (aesthetic response) than Western European Middle of Just Intonation. This to various just tunings. process. Ages and Renaissance, method of tuning is com- Taken collectively, there It is tonal music (with a garage rock from the 1960s, mendable for its inherent is no conventional name lowercase t), music in which Balkan instrumental dance beauty, its variety, and its for the music that resulted hierarchic relations of tones music, the ancient Japanese long history (it is as old from this process, other are important and in which court music gagaku, Greek as civilization). -
HSK 6 Vocabulary List
HSK 6 Vocabulary List No Chinese Pinyin English HSK 1 呵 ā to scold in a loud voice; to yawn HSK6 to suffer from; to endure; to tide over (a 2 挨 āi HSK6 difficult period); to delay to love sth too much to part with it (idiom); 3 爱不释手 àibùshìshǒu HSK6 to fondle admiringly 4 爱戴 àidài to love and respect; love and respect HSK6 5 暧昧 àimèi vague; ambiguous; equivocal; dubious HSK6 hey; ow; ouch; interjection of pain or 6 哎哟 āiyō HSK6 surprise 7 癌症 áizhèng cancer HSK6 8 昂贵 ángguì expensive; costly HSK6 law case; legal case; judicial case; 9 案件 ànjiàn HSK6 CL:宗[zong1],樁|桩[zhuang1],起[qi3] 10 安居乐业 ānjūlèyè live in peace and work happily (idiom) HSK6 11 案例 ànlì case (law); CL:個|个[ge4] HSK6 12 按摩 ànmó massage HSK6 13 安宁 ānníng peaceful; tranquil; calm; composed HSK6 14 暗示 ànshì to hint; to suggest; suggestion; a hint HSK6 15 安详 ānxiáng serene HSK6 find a place for; help settle down; arrange 16 安置 ānzhì HSK6 for; to get into bed; placement (of cooking) to boil for a long time; to 17 熬 áo HSK6 endure; to suffer 18 奥秘 àomì profound; deep; a mystery HSK6 bumpy; uneven; slotted and tabbed joint; 19 凹凸 āotú HSK6 crenelation to hold on to; to cling to; to dig up; to rake; 20 扒 bā to push aside; to climb; to pull out; to strip HSK6 off 21 疤 bā scar HSK6 to be eager for; to long for; to look forward 22 巴不得 bābudé HSK6 to the Way of the Hegemon, abbr. -
Andrián Pertout
Andrián Pertout Three Microtonal Compositions: The Utilization of Tuning Systems in Modern Composition Volume 1 Submitted in partial fulfilment of the requirements of the degree of Doctor of Philosophy Produced on acid-free paper Faculty of Music The University of Melbourne March, 2007 Abstract Three Microtonal Compositions: The Utilization of Tuning Systems in Modern Composition encompasses the work undertaken by Lou Harrison (widely regarded as one of America’s most influential and original composers) with regards to just intonation, and tuning and scale systems from around the globe – also taking into account the influential work of Alain Daniélou (Introduction to the Study of Musical Scales), Harry Partch (Genesis of a Music), and Ben Johnston (Scalar Order as a Compositional Resource). The essence of the project being to reveal the compositional applications of a selection of Persian, Indonesian, and Japanese musical scales utilized in three very distinct systems: theory versus performance practice and the ‘Scale of Fifths’, or cyclic division of the octave; the equally-tempered division of the octave; and the ‘Scale of Proportions’, or harmonic division of the octave championed by Harrison, among others – outlining their theoretical and aesthetic rationale, as well as their historical foundations. The project begins with the creation of three new microtonal works tailored to address some of the compositional issues of each system, and ending with an articulated exposition; obtained via the investigation of written sources, disclosure -
Generation of Attosecond Light Pulses from Gas and Solid State Media
hv photonics Review Generation of Attosecond Light Pulses from Gas and Solid State Media Stefanos Chatziathanasiou 1, Subhendu Kahaly 2, Emmanouil Skantzakis 1, Giuseppe Sansone 2,3,4, Rodrigo Lopez-Martens 2,5, Stefan Haessler 5, Katalin Varju 2,6, George D. Tsakiris 7, Dimitris Charalambidis 1,2 and Paraskevas Tzallas 1,2,* 1 Foundation for Research and Technology—Hellas, Institute of Electronic Structure & Laser, PO Box 1527, GR71110 Heraklion (Crete), Greece; [email protected] (S.C.); [email protected] (E.S.); [email protected] (D.C.) 2 ELI-ALPS, ELI-Hu Kft., Dugonics ter 13, 6720 Szeged, Hungary; [email protected] (S.K.); [email protected] (G.S.); [email protected] (R.L.-M.); [email protected] (K.V.) 3 Physikalisches Institut der Albert-Ludwigs-Universität, Freiburg, Stefan-Meier-Str. 19, 79104 Freiburg, Germany 4 Dipartimento di Fisica Politecnico, Piazza Leonardo da Vinci 32, 20133 Milano, Italy 5 Laboratoire d’Optique Appliquée, ENSTA-ParisTech, Ecole Polytechnique, CNRS UMR 7639, Université Paris-Saclay, 91761 Palaiseau CEDEX, France; [email protected] 6 Department of Optics and Quantum Electronics, University of Szeged, Dóm tér 9., 6720 Szeged, Hungary 7 Max-Planck-Institut für Quantenoptik, D-85748 Garching, Germany; [email protected] * Correspondence: [email protected] Received: 25 February 2017; Accepted: 27 March 2017; Published: 31 March 2017 Abstract: Real-time observation of ultrafast dynamics in the microcosm is a fundamental approach for understanding the internal evolution of physical, chemical and biological systems. Tools for tracing such dynamics are flashes of light with duration comparable to or shorter than the characteristic evolution times of the system under investigation. -
Notes on the Tunings We Microtonalists Inhabit a Very Different Musical Universe from That of Most "Normal" Musicians
Notes on the Tunings We microtonalists inhabit a very different musical universe from that of most "normal" musicians. To a normal musician, the line between dissonance and consonance is clear-cut, and all of the chords in his/her musical vocabulary unambiguously fit into one category or another, as dictated by common practice music theory. But when we abandon the grid of 12-tone equal temperament, our ideas about consonance and dissonance become a lot more complex—we encounter chords that don't sound anything like those of the common practice, and thus don't obviously fit into either category. We are also forced to find new ways of organizing pitches, which lead to new forms of harmonic "functionality" that are quite unexplored. Since these new harmonic structures are so unlike those of the common practice, we might feel as though we are lost in a strange world, with neither map nor compass—save for our trusty ears, that is. To date, there exists nothing that I would call "microtonal music theory"—no one has yet written anything meant to guide composition in microtonal tuning systems. However, there is a great abundance, a plethora even, of what I'll call "tuning theory"—theory describing how to select tunings for the making of music. It is all based, to a greater or lesser degree, on the practice of Just intonation, which involves tuning intervals to exact simple-integer frequency ratios, for the purpose of producing harmony that is smooth, fused, and beatless. This sort of tuning theory has in many ways remained unchanged since the ancient Greeks, who discovered the "special" properties of simple-integer rational intervals by playing with string lengths on their monochords (and other instruments). -
Frequency Spectrum Generated by Thyristor Control J
Electrocomponent Science and Technology (C) Gordon and Breach Science Publishers Ltd. 1974, Vol. 1, pp. 43-49 Printed in Great Britain FREQUENCY SPECTRUM GENERATED BY THYRISTOR CONTROL J. K. HALL and N. C. JONES Loughborough University of Technology, Loughborough, Leics. U.K. (Received October 30, 1973; in final form December 19, 1973) This paper describes the measured harmonics in the load currents of thyristor circuits and shows that with firing angle control the harmonic amplitudes decrease sharply with increasing harmonic frequency, but that they extend to very high harmonic orders of around 6000. The amplitudes of the harmonics are a maximum for a firing delay angle of around 90 Integral cycle control produces only low order harmonics and sub-harmonics. It is also shown that with firing angle control apparently random inter-harmonic noise is present and that the harmonics fall below this noise level at frequencies of approximately 250 KHz for a switched 50 Hz waveform and for the resistive load used. The noise amplitude decreases with increasing frequency and is a maximum with 90 firing delay. INTRODUCTION inductance. 6,7 Literature on the subject tends to assume that noise is due to the high frequency Thyristors are now widely used for control of power harmonics generated by thyristor switch-on and the in both d.c. and a.c. circuits. The advantages of design of suppression components is based on this. relatively small size, low losses and fast switching This investigation has been performed in order to speeds have contributed to the vast growth in establish the validity of this assumption, since it is application since their introduction, when they were believed that there may be a number of perhaps basically a solid-state replacement for mercury-arc separate sources of noise in thyristor circuits. -
Early Experimental and Electronic Music
Early Experimental and Electronic Music Today you will listen to early experimental and electronic music composed in the 1930s, ‘40s, and ‘50s. Think about the following questions as you listen to the music. 1. One of your listening assignments, “Valse Sentimentale,” is played by Clara Rockmore, a virtuoso on the theremin, an early electronic instrument. Look at the YouTube videos of Theremin and Clara Rockmore playing the theremin. How is the instrument played? Why has it been used only infrequently as a serious musical instrument? 2. When was the theremin developed and who was its inventor? 3. As an additional listening assignment, listen to “Good Vibrations” by the Beach Boys (in the listening for Monday). Where do you hear an electro-theremin, which is similar to the theremin, but easier to play? 4. What are the connections between the theremin and modern-day synthesizers? 5. What instrument is being played in “Oriason?” From your reading, what is unusual about the use of this instrument in this recording? 6. Watch the YouTube video of Thomas Bloch playing Messian piece on the Ondes-Martenot. How does is this instrument similar to but yet different from a piano? What does it have in common with the theremin. 6. People often think that experimental music is difficult and not beautiful. Is that true of all the music in these lessons? Is it true sometimes? Give examples. 7. The well-tempered scale usually used in Western music has 12 pitches in an octave. Well-tempered scale (12 pitches in an octave) In the section on Partch in Gann’s American Music in the Twentieth Century, Partch is said to have rebelled against the “acoustic lie” of the well-tempered scale. -
Partch 43 Tone Scale © Copyright Juhan Puhm 2016 Puhm Juhan Copyright © Scale Tone 43 Partch N Our Door with Our Common Scales
! "#$!%&'()#! *+!",-$!.)&/$! ! ! ! 01#&-!%1#2 !!! "#$!%&'()#!*+!",-$!.)&/$"#$!%&'()#!*+!",-$!.)&/$!!!! One can only imagine the years Harry Partch spent formulating his 43 tone scale and then the lifetime spent realizing it. A pinnacle of Just Intonation, a fair bit of time can be spent unraveling the intricacies of the 43 tone scale and coming to terms with the choices Partch made. What are some of the features of this scale? For starters the scale is a pure Just Intonation scale, no tempering of any intervals whatsoever. All pitches are given exact ratios and so all intervals are exact as well. For the most part all the music we listen to is constructed of up to 5 limit ratios. Partch expanded our common tonality to include 7 and 11 limit ratios. It can be argued that 2, 3 and 5 limit ratios are the language of harmony and any higher limit ratios are not harmonic in the least bit, regardless of what people would like to pretend. Possibly some 7 limit ratios can be said to push the bounds of what can be considered harmonic. Since our current 12 note scale and instruments do not even remotely support or approximate any 7 or 11 limit ratios, 7 and 11 limit ratios are completely outside the realm of our listening and composing experience. The equal tempered tritone and minor seventh intervals do not approximate 7 limit ratios. It would be incorrect to think of the minor seventh approximating the 7 limit ratio of 7/4, which is almost one-third of a semitone lower (969 cents). Our tempered minor seventh (1000 cents) is firmly in the realm of two perfect fourths (4/3 * 4/3 = 16/9, (996 cents)) or further removed, a minor third above the dominant (3/2 * 6/5 = 9/5 (1018 cents)). -
An Introduction Via Perspectives on Consonant Triads
Introduction and Basics The Consonant Triad Geometry of Triads Extension of Neo-Riemannian Theory Symmetries of Triads What is Mathematical Music Theory? An Introduction via Perspectives on Consonant Triads Thomas M. Fiore http://www-personal.umd.umich.edu/~tmfiore/ Introduction and Basics The Consonant Triad Geometry of Triads Extension of Neo-Riemannian Theory Symmetries of Triads What is Mathematical Music Theory? Mathematical music theory uses modern mathematical structures to 1 analyze works of music (describe and explain them), 2 study, characterize, and reconstruct musical objects such as the consonant triad, the diatonic scale, the Ionian mode, the consonance/dissonance dichotomy... 3 compose 4 ... Introduction and Basics The Consonant Triad Geometry of Triads Extension of Neo-Riemannian Theory Symmetries of Triads What is Mathematical Music Theory? Mathematical music theory uses modern mathematical structures to 1 analyze works of music (describe and explain them), 2 study, characterize, and reconstruct musical objects such as the consonant triad, the diatonic scale, the Ionian mode, the consonance/dissonance dichotomy... 3 compose 4 ... Introduction and Basics The Consonant Triad Geometry of Triads Extension of Neo-Riemannian Theory Symmetries of Triads Levels of Musical Reality, Hugo Riemann There is a distinction between three levels of musical reality. Physical level: a tone is a pressure wave moving through a medium, “Ton” Psychological level: a tone is our experience of sound, “Tonempfindung” Intellectual level: a tone is a position in a tonal system, described in a syntactical meta-language, “Tonvorstellung”. Mathematical music theory belongs to this realm. Introduction and Basics The Consonant Triad Geometry of Triads Extension of Neo-Riemannian Theory Symmetries of Triads Work of Mazzola and Collaborators Mazzola, Guerino.