
THEORY
UNPUBLISHED//THEORY
PUBLISHED//THEORY
Embodied Meaning In John Adams' El Niño
Curriculum//Ear-Training
The following first-year undergraduate ear-training curriculum is one that was built and implemented successfully by Dr. Bruce Roter, Kari Francis, and myself. It develops the ear in traditional western common-practice, contemporary, and music industry-related sound structures. Areas of development include melodic dictation/transcription, chord progression recognition, harmonic dictation (including voice-leading and harmonies), and rhythmic dictation (one line, as well as two- and three-line drum dictation/transcription.) We are making it open-source, so feel free to make use of it yourself in your undergraduate classroom setting. (Student version and sound files provided here. Instructor copy will be made available on or after May 6, 2021.)
first semester ear-training (student version)
first semester ear-training (audio)
Homeworks 1–7
first semester ear-training (audio)
Homeworks 8–14
first semester ear-training (audio)
Homeworks 15–21
First Semester Ear-Training (Instructor Version)
second semester ear-training (student version)
second semester ear-training (audio)
Homeworks 1–7
second semester ear-training (audio)
Homeworks 8–14
second semester ear-training (audio)
Homeworks 15–21
second Semester Ear-Training (Instructor Version)
Music Theory ideas in incubation (informal notes)
1. Flexible scale-degrees 6 and 7 as
opposed to the 3 standard forms of the
minor scale (a la Gary S.
Karpinski's presentation in the
Manual for Ear Training and Sight
Singing)
2. Triadic cadence names that are more
specific than "progressive" and
"conclusive" when they don't fit into
traditional cadence
nomenclature; subdominant
cadence (ends on IV, iv) supertonic
cadence (ends on ii); supertonic-tonic
cadence (ii–I), etc.
3. Secondary Modal Borrowing: For
example, consider the following harmonic progression: C F#ø7 B7b9 Emaj7...the
progression continues in C major. From the
perspective of E major, where this chord
progression ends, the preceding two
chords can be seen as a iiø7 V7b9 from E
minor (the parallel minor of E major). This is
an instance of modal borrowing; however, it
is from the perspective of a chord which is
not a tonic, but a locally tonicized chord
(which incidentally is not the expected Em
or iii chord in the more global C major).
From this perspective, the Emaj7 is a
Picardy 3rd and maj7 borrowed from E
minor's parallel major. However, Picardy
3rds are usually the purview of tonic
chords, not any and all possible triads. This
situation then, proposes two different
instances of modal borrowing, both with a
"secondary" quality to them. The ii-V is an
instance of secondary modal borrowing
since it is borrowing from the parallel minor
of a tonicized chord. The tonicized chord is
an instance of "secondary" modal
borrowing in the sense that it achieves the
possibility of a Picardy third only as a very
localized tonic rather than a global one.
4. Double function in the cadential
V7sus chord.
5. Melodic Dictation In Pedagogy: Why
Contour Matters In Taking Melodic
Dictation. Some students will insist that
they "got the right note" if, for instance, they
move from sol up to do at the conclusion of
a melodic line when, in fact, it moved
from sol down to do. The pitch class is
correct while the pitch is incorrect and the
contour is incorrect. Would the rest of the
world recognize these types of scenarios
as the "correct" tunes if we took well-known
tunes and completely altered the registers
and directionality of the melodic lines of our
favorite well-known songs? Obviously this
is taking the same concept to the point of absurdity, but by so doing it does help
make the point that we need to be able to
hear directionality as a basic listening
component in melodic
dictation/transcription.
6. Pedagogy: Making Explicit The
Reasons For Note Specificity. Some
students have a tendency to see a teacher
who requires note specificity as the sign of
a bullheaded instructor rather than viewing
such specificity as a practical necessity of
all musicians. For example, a student might
say "I know I said the answer was A C E G,
but of course you know I meant Ab C E Gb.
Same thing. You are so specific." Explicitly
pointing out (and even demonstrating) to
students the musical situations in which the
lack of specificity completely breaks down
in terms of achieving compositional and
performance accuracy which would be
demanded of any musician in any musical
scenario may effectively break students of
such habits.
7. Distinguishing swing at the beat
division level and beat subdivision
level: At the beat division level, the beat is
divided into two unequal parts (long-short)
somewhere between two straight eighths
per beat and straight triplet eighths in
which the first two eighths are tied while the
third is not. At the beat subdivision level,
the divided beat (8th note, assuming a
quarter note beat unit) is divided into two
unequal parts (long-short) somewhere
between two straight 16ths per 8th and
straight triplet 16ths in which the first two
16ths are tied while the third is not.
8. Help! I can't hear intervals! A multi-
contextualization process for
scaffolding the aural recognition of
intervals. An example: The basic idea is
varying small contexts for individual
intervals we are studying. Let's take the
major 2nd for example. I'll use a referent of
C Major.
a. Play the major 2nd melodically, then
harmonically.
b. Play it as an add-note chord: C major, then
Cadd2
c. Play the major 2nd melodically, then
harmonically.
d. Play C major with a doubled root (C-E-G-
C), then Cadd9
e. Play the major 2nd melodically, then
harmonically.
f. Play a whole-tone scale beginning on C
(WT-0)
g. Play the major 2nd melodically, then
harmonically.
h. Play a whole-tone 4-note cluster chord with
a bass note of C.
i. Play the major 2nd melodically, then
harmonically.
j. Play C and D as a M9.
k. Play C4, D5, C5 melodically.
l. Play C4, D4, C4 melodically.
m. Play C4, D4, C4, Bb3 melodically to orient
it to a different key context (new tonal
center.)
n. Play a Gsus4 (G-C-D) going to G major (G-
B-D) *4-3 suspension.
o. Play Gsus 4 without resolving it.
p. Play a major 9 (C-D)
q. Play Cmaj9
r. Play a major 9 (C-D)
s. Play C9
t. Play a major 9 (C-D)
u. Play a C-9
v. Play a major 9 (C-D)
w. Play a Cø9
x. Play a major 9 (C-D)
y. Play a Cº9
z. Play a major 9.
aa. Play a Csus2, then C (CEG)
In this way, we can help them not be so "hit or
miss" with intervals, but scaffold their listening
experience through small musical contexts for those intervals. We can simultaneously
introduce them to sounds (both traditional and
contemporary) that make use of those
intervals.
9. Measuring Strength Of, And
Conformance To, Tonic Perception In
Melody: Create various melodies intentionally
crafted with the intent of measuring how much
listener conformance to (or deviation from) the
perception of a particular tonic(s) occur(s)
depending upon the structure of a given
melody.
10. Examples Of Negative Musical Space
In Pitch And Rhythm (and Timbre?):
This idea comes from Bert Ligon in his
textbook entitled Jazz Theory Resources (p.
23) where he states "Negative space is
implied space created by a positive image.
Visual artists depend on the recognition of
negative space. The concept of negative
space is also important in music. Any pitches
that are played (positive space) may imply
other pitches that are not played. A certain
pitch may be stressed by playing a number
of pitches around that pitch that point to that
pitch, while never actually playing the pitch.
...As with pitches, any rhythm that is played
(positive space) may imply a rhythm not
played (negative space)." Perhaps an
example would be a ii-V which implies a
certain tonic resolution, but never actually
provides it. Another example could be
running a major scale from low do up to
high ti and then simply stopping. In certain
contexts, we may feel an implication
that ti implies a resolution to do, whether or
not this implication is actualized. When these
types of implication are not realized, they are
examples of negative musical space.
Informal Thoughts On Semiotics: Means Of Communication
(These thoughts are indebted to Kofi Agawu, Diana Deutch, Robert Hatten, David Huron, Charles Sanders Pearce, Janna K. Saslaw, Indre Viskontas, and more.)
Consistent mouth sounds (two subcategories: (a) "unpitched"—though emphasis, use of pauses between words, repetition as a signal of intentionality (Deutch and Viskontas), word order and the general contour can indicate meaning and question, statement, amount of emphasis attributed, choice of specific words that are synonyms to various degrees can have various amounts of overlap in meaning, noting that denotation and connotation can shift over time with usage and context, etc. and (b) tone languages in which around five? tones are used in relative contour and are attached to the meaning of the words themselves, (c) whistle languages (Diana Deutch refers to them in Indre Viskontas's Cadence, Season 1: Episode 1 or 2), (d) music as a language, (e) Morse code as a language, (f) texture used in consistent ways to express meaning as a language (Braille), (g) flag movements such as those used at Signal Point during the U.S. Civil War, (h) any visual art medium is communicative of meaning(s)
Consistently-drawn shapes (two subcategories: (a) pictorial, as in Chinese characters that indicate entire words) and (b) spelling languages in which the drawings represent sounds strung together to make words; subcategory: capitalization can be used to indicate weight, value, importance, draw attention to, yell, show excitement
Punctuation as meaning are consistently-drawn shapes attributing the dependency of one idea upon another idea (comma), the amount of connectedness between ideas in a single thought (semicolon), the communication that a basic idea has concluded at some level of depth (period), the idea that a string of connected thoughts go together at a deeper level (paragraph indentation), (same concept on out to chapter, book, volumes in a set)
Facial expressions
Bodily movements
Conducting as gesture to evoke mood and character
Hand Gestures: Sign language: there are many, not just ASL; these are hand motions used in consistent ways to express meaning; these, I believe, can be of the. spelling or "pictorial" ("whole-word-based") variety; for example, you can spell your name, but you can also make one symbol for the word "sunset"
Gestural communication in non-human species: examples include cat tail motions, ear direction, echolocation, distance from other organisms, placement of body so as to position for the best line of sight toward all traffic-flow directions, fight-flight-frisson response (a la David Huron talks), dog tail wagging (situational with multiple meanings), types of barks, fish communication moving away from electrodes, dolphin communication (extensively documented—communication distance is also significant), whale song (likewise extensively documented—communication distance is also significant), birdsong, crickets, cicadas, bees
Informal Thoughts On Directionality And Numbering Systems
(These thoughts are indebted to Brent Auerbach, Louise Becker, Cadwallader and Gagne, Thomas Christenesen et al., Alan Forte, Gary S. Karpinski, Timothy Koozin, Lerdahl and Jackendoff, Lippius, Justin London, Padgett, Janna K. Saslaw, Arnold Schoenberg, Craig Sikes, John Snyder, Joseph N. Straus, Dmitri Tymoczko, Indre Viskontas, Elizabeth Wallace, and more.)
Pitch is "higher" when it vibrates at a faster frequency, "lower" when it vibrates at a slower frequency.
The sun "rises" and "sets".
Guitar Directionality and Numbering Systems: As you move "higher" on the fretboard, you move closer to your body. As you move "lower" on the fretboard, you move away from your body. Guitar "numbering" systems use T, 1, 2, 3, 4 (thumb, index finger, middle finger, ring finger, pinky). (In classical settings, p (pulgar—Latin for thumb), i (indece—Latin for index), m (medio—Latin for middle), and a (anular—Latin for ring) are used to label fingers. A chord chart diagram for fretting a chord visualizes the guitar fretboard as if you were holding the guitar vertically and facing you. It also limits the frets shown to basically those necessary to fret the chord. If "higher" on the neck of the guitar, it will indicate the fret number you are looking at as the first fret shown. The counting system for frets is fret zero equates to an open string (not usually stated in this way) and each fret "ascending" the fretboard increases by one. (When we "fret" a note, we do not literally place our fingers on the fret, we place them "in front of" (just further away from the "body" of the guitar on the "neck" of the guitar than) the fret we indicate. Guitar tablature uses "lower" on the page to indicate a "lower"-sounding string (though as we typically play a guitar, the "lowest"-sounding string is "higher" (or higher from the ground as a reference point). Traditional music notation also uses lines on a page in a "lower" sound finding its location "lower" on the page.
Piano Directionality and Numbering Systems:
As you move "higher" on the keyboard, you move to the right of your body as a reference point. As you move "lower" on the keyboard, you move to the left of your body as a reference point. Piano "numbering" systems use 1, 2, 3, 4, 5 (thumb, index finger, middle finger, ring finger, pinky). A piano chart diagram may place dots on the locations of the notes to be played in a given chord. Typically, the amount of the keyboard shown is about an octave or a little more, or just framing the visual space needed to show which notes will be played. (A post-tonal numbering system might indicate either C as zero and "ascend" numerically by half-step (yet another counting system: steps—whole and half-steps related to diatonic (fuzzy mod7-based system which uses letters and inflections of those letters as "stand-ins" for numbers) versus chromatic (mod12-based system like our modern calendar; also note that our Arabic counting system is base 10 or mod-10 relating to the number of digits on our hands) counting methods based perhaps on the constuction of the music to be played to it) to B or choose the chord root as a zero starting point and "ascend" numerically from there. The piano chart will take the keyboard and rotate it toward you as if it were facing you on the page. It maintains the same right-left directionality as the piano keyboard itself. If a particular register is desired, one could indicate this by using octave designations in addition to pitch-class lettering.
Note the following piano, guitar, and calendar numbering comparison-contrasts "side-by-side":
Piano: 1 (thumb), 2 (index finger), 3 (middle finger), 4 (ring finger), 5 (pinky)
Guitar system 1: p (thumb), i (index finger), m (middle finger), a (ring finger), *pinky unused?
Guitar system 2: T (thumb), 1 (index finger), 2 (middle finger), 3 (ring finger), 4 (pinky)
2 Interchangeable Calendar Counting Systems (Illustrated Here with examples of Years followed by Centuries Counting Methods (equal sign placed in between the two counting systems): 0-99 = 1st century; 2000s=21st century
Directionality in Schenkerian Analytical Practice: "deeper" levels of structure on a Schenkerian graph are shown "higher" on the page; the "background" is at the "top" of the page and moves toward the "foreground" at the "bottom" of the page
"Hypometer"-Meter-Hypermeter: Meter and hypermeter are given two distinct terms, but are continuous concepts/experiences. Both terms have to do with the regular interaction of multiple levels of pulse streams. Meter is typically more closely associated with the levels of pulse streams notated by note values we have standard symbols for. As we move into pulse streams related by longer timespans that exceed the human temporal perception window, (and require pulse streams present within that temporal perception window in order to perceive), we begin to count these pulse streams in "measures" or "formal sections", etc. The same concept could be extended in the opposite direction by moving into "hypometer", which we might understand as moving into relationships between multiple levels of pulse streams that are too fast to our perception to be considered reasonable for distinct note values on sheet music. (As you move to faster and faster pulse streams, at some point a type of perceptual "fusion" occurs in which the distinct attack points are so fast that we perceive them as a steady tone, much like the visual analogue of a nickelodeon.
Directionality in Theology: We often tend to refer to God as "up" even as the globe is "round".
Informal Thoughts On Building-Out An Open-Ended Index Of Pop And Jazz Harmonies
(These thoughts are indebted to Alan Forte, Micheal Houlahan and Philip Tacka, Mark Levine, David Liebman, Stefan Caris Love, Felipe Salles, Joseph N. Straus, and more.)
What if we considered creating an open-ended index of pop and jazz harmonies using a hybrid post-tonal approach alongside common current voicings? We could place the normal order (normal form) number alongside the pop label. The reason I say open-ended is because pop and jazz harmonic usage may (and does) change over time. For example, G7#9,b13 could be expressed alongside (02478)/4. The second of these two labels is in normal order (normal form), but not prime form and has a slash-chord look to it as is used in pop music labels. It might be helpful in this hybrid approach to leave the post-tonal label in normal order rather than putting in prime form in order to highlight a sound-over-sight approach. The slash-chord approach to the notation allows us to understand which of these tones in this sonority is to be understood as the bass-root, as bass and root are often synonymous (though certainly, not always) in much jazz literature. Following the two chord labels, we could then show pictures of some common voicings of the chord as possibilities, noting that other arrangements of the tones might be selected or become more popular voicings. One voicing that could be shown for the example above could voice the chord as G (m7) F (+3) A# (m2) B (d4) Eb.
An example from popular music might be a Bbadd4. This pop chord label could be expressed alongside (0457)/0 rather than its inversion in prime form (0237), again, prioritizing a sound-over-sight approach.
Informal "What If"?
(These thoughts are indebted to Joseph N. Straus, brilliant.org lesson on polar coordinate graphing, and more.)
Currently, our equal-temperament system is a mod12-based system. What if we created (unless it already exists and I'm not aware of it) a mod8-based equal-temperament system, thusly.
C=0, C three-quarters sharp (or D half-flat)= pi/4, D sharp (or Eb)=pi/2, E half-sharp (or F half-flat)= 3pi/4, F# (or Gb)=pi, G half-sharp (or A three-quarters flat)=5pi/4, A=3pi/2, A three-quarters sharp (or B half-flat)= 7pi/4
Let's try it out, start making some physical and software instruments that are based on this system, and start acclimatizing our ears to the myriad of sound worlds we could create with it (or any other modular equal-temperament systems)!
Possible Reconsideration Of Some Music-Theoretic Terminologies?
(These thoughts are indebted to William E. Caplin, Andrew Davis, Hepakoski and Darcy,
Stefan Kostka and Dorothy Payne, and more.)
Should we consider re-evaluating music-theoretic terminologies which may have negative connotations and updating those terms with more neutral terminologies? Some examples for consideration might include the following: (I have put the terms we might consider changing in italics.)
-Authentic Cadence
-Imperfect Authentic Cadence
-Perfect Authentic Cadence
-Centric
-Deformation
-Minimalism
-Nonfunctional harmonic structures
-Normal Form (Normal Order)
-Retardation
-Retrogression