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Pythagorean tuning | A Wisdom Archive on Pythagorean tuning |  | Pythagorean tuning A selection of articles related to Pythagorean tuning |  |
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Pythagorean tuning
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ARTICLES RELATED TO Pythagorean tuning |  |  |  | Pythagorean tuning: Encyclopedia II - Pythagorean tuning - MethodPythagorean tuning is based on a stack of perfect fifths, each tuned in the ratio 3:2, the next simplest ratio after 2:1, which is the ratio of an octave. The two notes A and D, for example, are tuned so that their frequencies are in the ratio 3:2 — if D is tuned to 200 Hz, then the A is tuned to 300 Hz. The E a fifth above that A is also tuned in the ratio 3:2 — with the A at 300 Hz, this puts the E at 450 Hz, 9:4 above the original D. When describing tunings, it is usual to speak of all notes as being within an octave of each other, an ...
See also:Pythagorean tuning, Pythagorean tuning - Method, Pythagorean tuning - Discography, Pythagorean tuning - Source Read more here: » Pythagorean tuning: Encyclopedia II - Pythagorean tuning - Method |
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 |  |  | Pythagorean tuning: Encyclopedia II - Just intonation - Why isn't just intonation used much?Some fixed just intonation scales and systems, such as the diatonic scale above, produce wolf intervals. The above scale allows a minor tone to occur next to a semitone which produces the awkward ratio 32:27 for C:A, and still worse, a minor tone next to a fourth giving 40:27 for E:A. Moving A down to 10/9 alleviates these difficulties but creates new ones: D:A becomes 27:20, and A:F# becomes 32:27.
You can have more frets on a guitar to handle both A's, 9/8 with G and 10/9 with G so that C:A can be played as 6:5 while D:A can still b ...
See also:Just intonation, Just intonation - The diatonic scale in just intonation, Just intonation - Why isn't just intonation used much?, Just intonation - Singing in just intonation, Just intonation - Bagpipe tuning, Just intonation - Non-western tuning, Just intonation - Western composers who specified just intonation Read more here: » Just intonation: Encyclopedia II - Just intonation - Why isn't just intonation used much? |
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 |  |  | Pythagorean tuning: Encyclopedia II - Just intonation - Western composers who specified just intonationMost composers don't specify how instruments are to be tuned, although historically most have assumed one tuning system which was common in their time; in the 20th century most composers assumed equal temperament would be used. However, a few have specified just intonation systems for some or all of their compositions, including Glenn Branca, Wendy Carlos, Stuart Dempster, Arnold Dreyblatt, Kyle Gann, Kraig Grady, Lou Harrison, Ben Johnston, Elodie Lauten, Pauline Oliveros, Harry Partch, Robert Rich, Terry Riley, James Tenney, Ernesto Rodrig ...
See also:Just intonation, Just intonation - The diatonic scale in just intonation, Just intonation - Why isn't just intonation used much?, Just intonation - Singing in just intonation, Just intonation - Bagpipe tuning, Just intonation - Non-western tuning, Just intonation - Western composers who specified just intonation Read more here: » Just intonation: Encyclopedia II - Just intonation - Western composers who specified just intonation |
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 |  |  | Pythagorean tuning: Encyclopedia II - Just intonation - Non-western tuningIn Indian music, the basic unaltered diatonic scale is considered to be 1/1, 9/8, 5/4, 4/3, 3/2, 27/16, 15/8, 2/1. This would appear problematic, since (27/16):(5/4) = 27:20 (a wolf interval), not 4:3. But Indian music uses melodies over a drone dyad (usually 1/1 and 3/2), so these two pitches (27/16 and 5/4) would seldom be heard sounding together. See sargam and swara.
[The just scale with the ratios 1/1, 9/8, 5/4, 4/3, 3/2, *5/3*, 15/8, 2/1 gives (5/3):(5/4) = 4:3 (a perfect fourth), and allows these notes to sound together in a co ...
See also:Just intonation, Just intonation - The diatonic scale in just intonation, Just intonation - Why isn't just intonation used much?, Just intonation - Singing in just intonation, Just intonation - Bagpipe tuning, Just intonation - Non-western tuning, Just intonation - Western composers who specified just intonation Read more here: » Just intonation: Encyclopedia II - Just intonation - Non-western tuning |
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 |  |  | Pythagorean tuning: Encyclopedia II - Just intonation - The diatonic scale in just intonationIt is possible to tune the familiar diatonic scale or chromatic scale in just intonation, in many ways, all of which make certain chords purely tuned and as consonant as possible, and others considerably more dissonant and indeed seeming out-of-tune to modern ears (see below for more on this).
The prominent notes of a given scale are tuned so that the ratios of their frequencies are comprised of relatively small integers. For example, in the key of G major, the ratio of the frequencies of the not ...
See also:Just intonation, Just intonation - The diatonic scale in just intonation, Just intonation - Why isn't just intonation used much?, Just intonation - Singing in just intonation, Just intonation - Bagpipe tuning, Just intonation - Non-western tuning, Just intonation - Western composers who specified just intonation Read more here: » Just intonation: Encyclopedia II - Just intonation - The diatonic scale in just intonation |
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 |  |  | Pythagorean tuning: Encyclopedia II - Mathematics of musical scales - TemperamentWestern common practice music usually cannot be played in just intonation, even when it is confined to a single key. This is because the supertonic chord, or ii-chord, which is the most important of the minor triads in a major key, serves to bridge between the dominant and subdominant, having a root at once a minor third below the root of the subdominant triad, and hence sharing two of its notes, and a fifth above the root of the dominant triad or dominant seventh chord. The problem becomes still worse when modulation, the key changes so imp ...
See also:Mathematics of musical scales, Mathematics of musical scales - Pythagorean tuning, Mathematics of musical scales - Just intonation, Mathematics of musical scales - Temperament, Mathematics of musical scales - Equal temperament, Mathematics of musical scales - Sound samples, Mathematics of musical scales - Source Read more here: » Mathematics of musical scales: Encyclopedia II - Mathematics of musical scales - Temperament |
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 |  |  | Pythagorean tuning: Encyclopedia II - Musical tuning - Comparisons and controversies between tuningsAll musical tuning have advantages and disadvantages. Twelve tone equal temperament is the standard and most usual tuning system used in western music today because it gives the advantage of modulation to any key without dramatically going out of tune, as all keys are equally and slightly out of tune. However, just intonation provides the advantage of being entirely in tune, with at least some, and possible a great deal, loss in ease of modulation. Referring to 12-tet the composer Terry Riley, who has written music for both tuning systems, h ...
See also:Musical tuning, Musical tuning - Subjects in general, Musical tuning - Ways of tuning the twelve-note chromatic scale, Musical tuning - Tunings of other scale systems, Musical tuning - Comparisons and controversies between tunings Read more here: » Musical tuning: Encyclopedia II - Musical tuning - Comparisons and controversies between tunings |
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 |  |  | Pythagorean tuning: Encyclopedia II - Interval music - Interval number and qualityIn diatonic or tonal theory intervals are labelled according to their diatonic function and according to the number of members or degrees they span in a diatonic scale.
The interval number of a note from a given tonic note is the number of staff positions enclosed within the interval, as shown at right. Intervals larger than an octave are called compound intervals; for example, a tenth is known as a compound third. Intervals larger than a thirteenth are rarely spoken of, since going above this by stacking thirds would re ...
See also:Interval music, Interval music - Frequency ratios, Interval music - Interval number and quality, Interval music - Shorthand notation, Interval music - Enharmonic intervals, Interval music - Steps and skips, Interval music - Pitch class intervals, Interval music - Ordered and unordered pitch and pitch class intervals, Interval music - Generic and specific intervals, Interval music - Cents, Interval music - Comparison of different interval naming systems, Interval music - Consonant and dissonant intervals, Interval music - Inversion, Interval music - Interval roots, Interval music - Interval cycles, Interval music - Other intervals, Interval music - Sources Read more here: » Interval music: Encyclopedia II - Interval music - Interval number and quality |
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 |  |  | Pythagorean tuning: Encyclopedia II - Interval music - Interval number and qualityIn diatonic or tonal theory intervals are labelled according to their diatonic function and according to the number of members or degrees they span in a diatonic scale.
The interval number of a note from a given tonic note is the number of staff positions enclosed within the interval, as shown at right. Intervals larger than an octave are called compound intervals; for example, a tenth is known as a compound third. Intervals larger than a thirteenth are rarely spoken of (but see 8va for use of 15ma).
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See also:Interval music, Interval music - Frequency ratios, Interval music - Interval number and quality, Interval music - Shorthand notation, Interval music - Enharmonic intervals, Interval music - Steps and skips, Interval music - Pitch class intervals, Interval music - Ordered and unordered pitch and pitch class intervals, Interval music - Generic and specific intervals, Interval music - Cents, Interval music - Comparison of different interval naming systems, Interval music - Consonant and dissonant intervals, Interval music - Inversion, Interval music - Interval roots, Interval music - Interval cycles, Interval music - Other intervals, Interval music - Sources Read more here: » Interval music: Encyclopedia II - Interval music - Interval number and quality |
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 |  |  | Pythagorean tuning: Encyclopedia II - Wolf interval - Temperament and the wolfThe average value of the twelve fifths must equal the 700 cents of equal temperament. If eleven of them have a flattened meantone value of 700-ε cents, the wolf will equal 700+11ε cents. In terms of frequency ratios, the product of the fifths must be 128, and if f is the size of the meantone fifths, 128/f11 will be the size of the wolf. In 1/4-comma meantone, the meantone fifth is of size 51/4, 3.422 cents flatter than 700 cents, and so the wolf is 37.637 cents sharper than 700 cents, which is 35.683 cen ...
See also:Wolf interval, Wolf interval - Temperament and the wolf, Wolf interval - Sound files demonstrating the wolf Read more here: » Wolf interval: Encyclopedia II - Wolf interval - Temperament and the wolf |
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 |  |  | Pythagorean tuning: Encyclopedia II - Meantone temperament - Meantone temperamentsThe term meantone temperament is sometimes used to refer specifically to quarter-comma meantone. However, systems which flatten the fifth by differing amounts but which still equate the major whole tone, which in just intonation is 9/8, with the minor whole tone, tuned justly to 10/9, are also called meantone systems. Since (9/8) / (10/9) = (81/80), the syntonic comma, the fundamental character of a meantone tuning is that all intervals are generated from fifths, and the syntonic comma is tempered to a unison. While the term meanto ...
See also:Meantone temperament, Meantone temperament - Meantone temperaments, Meantone temperament - Wolf intervals and extended meantones Read more here: » Meantone temperament: Encyclopedia II - Meantone temperament - Meantone temperaments |
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 |  |  | Pythagorean tuning: Encyclopedia II - Equal temperament - ExplanationThe distance between each step and the next is aurally the same for any two adjacent steps; though, because steps form a geometric sequence, the difference in frequency increases from one to the next. A linear sequence of one frequency difference would create ever smaller intervals (ratios), such as the harmonic series. See also logarithmic scale.
Equal temperaments allow the use of integer notation; a single integer can be used to represent the pitch. The pitch classes can then be expressed in terms of modular arithmetic modulo the number of divisions of the octave, and this expedites mathematic ...
See also:Equal temperament, Equal temperament - Explanation, Equal temperament - History, Equal temperament - Twelve-tone equal temperament, Equal temperament - Cent values of equal temperament, Equal temperament - Non-12 TET, Equal temperament - Sources Read more here: » Equal temperament: Encyclopedia II - Equal temperament - Explanation |
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