Maria Martinez Ayerza High in the air -...
Transcript of Maria Martinez Ayerza High in the air -...
Maria Martinez Ayerza
High in the air Sight reading, transposition and memory skills
for recorder players
Conservatorium van Amsterdam, march 2006
Thesis for the completion of the advanced music studies
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Table of contents Page
Fingering symbols 2
Introduction 3
1. Sight reading 4
1.1. General information
1.2. Specific aspects of sight-reading concerning recorder players
1.2.1. Real pitch
1.2.2. Suggestions for the development of sight-reading skills
2. Transposition 10
2.1. Definition
2.2. Specific aspects of transposition concerning recorder players
2.2.1. Transposing while sight-reading
- Method I: changing the clef and key signature
- Method 2: use of intervallic structures
- Method 3: use of harmonic analysis
2.2.2. The recorder as a transposing instrument
- Transposing instruments
- Observations on teaching G-alto
2.2.3. Open and shaded tonalities
3. Memory skills 19
3.1. General information
3.2. Specific aspects of memory skills concerning recorder players
Bibliography 24
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Fingering symbols
This paper uses the standard fingering nomenclature:
Strikethrough numbers indicate half-covered holes (as in 01234567)
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Introduction
Sight-reading, transposition and memory are essential performance sub-skills for advanced
musicians. They make players more flexible, improve performance efficiency, increase self-
confidence and reduce dependency on the written score: a trait that remains typical of
classical music education in conservatories. These three skills are interrelated. The
development of one of them will reinforce the others, since they share a basic cognitive
process: the assimilation and recognition of musical patterns.
The development of music psychology during the past century has provided abundant
information about the cognitive processes underlying sight-reading, transposition and
memory skills that have significant implications for teachers and musicians. Nevertheless, a
detailed description of these psychological procedures is beyond the practical purposes of this
paper.
The fact that this thesis is especially addressed to recorder players responds to the
insufficient attention that sight-reading, transposition and memory skills usually receive in the
recorder education at music schools and conservatories. Therefore, this essay aims to provide
basic background information concerning the aforementioned skills; discuss specific issues of
these abilities which are directly relevant for recorder players; give basic advice to advanced
players willing to improve their sight-reading, transposition and memory skills and provide
both players and composers with a clear guide of the size, pitch and range of recorders.
This paper is divided in three sections, dealing with sight-reading, transposition and
memory skills respectively. Each section starts with a general introduction (for which the
main information sources are scientific articles, books and methods), followed by the
discussion of specific topics related to the recorder (for which an important information
source has been my own experience, next to existing recorder methods).
This research is addressed to advanced recorder players, teachers willing to stimulate
the development of sight-reading, transposition or memory skills of their students, and other
musicians interested on the acquisition and development of these skills, since many of the
principles exposed in this paper are applicable to other instruments as well.
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1. Sight-reading
1.1. General information
- Definition and advantages
The musical term sight-reading refers to the performance of unfamiliar music from the
score without previous rehearsal. This skill is typical of Western classical music, where
musical notation is essential for the composition, conservation and transmission of musical
works1. Developing sight-reading skills offers considerable advantages for any musician: it
reduces the necessary study time to be able to perform a piece in public, it is crucial for the
musical activities of accompanists and orchestral musicians and it makes the player more self-
confident and reliable.
- How does it work?
The sight-reading of music relies on the short-term memory of the player, where the
information deciphered from the score is stored for a few seconds in the form of information
chunks (musically meaningful units). This process is easy to understand through an analogy
with language: if one reads a text, the smallest possible information chunk is one letter, if you
read music, one tone. If you are familiar with the language of a text, your mind will
automatically group several letters together: you will perceive a word like ‘example’ as a
meaningful unit and not as the sum of 7 letters. In the same way, the assimilation of certain
musical structures (like scales, arpeggios or sequences) makes them easy to recognize as
musically meaningful units and allows the player to sight-read more comfortably.
Recent studies about the acquisition of sight-reading skills (like Goolsby, 1994 and
Waters, 1997) have shown that good readers scan the page more efficiently than poor readers,
looking for eventually difficult passages that they are therefore able to prepare to a higher
standard. In addition to this, good readers seem to be able to recall more fragments of a piece
they have just played than poor ones. This is relevant because similar musical material can
come back several times during a piece, and to improve the performance level in a second
interpretation of the same work.
How can musicians improve their sight-reading skills?
Psychologists agree on two determinant factors that help improving the development of
sight-reading skills in musicians:
- Experience (sight-reading regularly)
- Familiarity with the repertoire: the greater the knowledge of a certain style, the more
fluent the sight-reading.
1 A very interesting vision on the function and problems of Western notation can be found in chapter 4 of Nicholas Cook’s Music. A very short introduction (2000).
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Experience can be acquired by sight-reading regularly, during practice sessions,
rehearsals and even in public performances. It is essential to choose pieces with growing
technical and expressive demands.
Familiarity with the repertoire can be built up listening to recordings or improvising on
the chosen style. Both ways help to assimilate the recurring patterns of the chosen style.
Lehmann & McArthur (2002) suggest the following strategies to practice sight-reading:
Practicing for performance Practicing sight-reading
Correct your mistakes Maintain rhythm and meter Look at hands while playing Avoid looking at hands
The details are important The big picture is important Correct fingering is crucial Get to notes however you can Avoid errors and omissions Errors and omissions are OK
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1.2. Specific aspects of sight-reading concerning recorder players
1.2.1. Real pitch
The sounding pitch of recorders is often confusing for listeners. As early as 1619,
Michael Praetorius pointed out in his Syntagma Musicum that recorders actually sound an
octave higher than is usually indicated. Many modern editions have appeared with wrong
clefs, in which the notated pitch is an octave lower than intended. For example, the Schott
edition of the C major concerto RV 4432 by Antonio Vivaldi is notated like this:
This actually corresponds to the compass of an alto recorder. The correct notation for
sopranino implies the use of an ottava (8) sign above the clef, indicating that the sounding
pitch is one octave higher than written:
The following table illustrates the sounding and written pitch of different types of
recorders. The first column shows the real pitch in treble or bass clef, the second, the clef in
which music for the instrument should be notated. In the case of instruments in different tones
(keys) than C and F (the standard modern fingering systems), the right column includes also
instructions to write a transposed part.
Instrument
Lowest note (real pitch)
Lowest note (written pitch)
Piccolino in F
Garklein in C
Sopranino in G
transp. 1 tone down (F-fingerings, + 2 flats)
Sopranino in F
Sixth flute in D
transp. 1 tone down (C-fingerings + 2 flats)
Soprano in C (Fifth flute)
2 Originalmusik für Blockflöte OFB 113
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Instrument
Lowest note (real pitch)
Lowest note (written pitch)
Fourth flute in Bb
transp. 1 tone up (C-fingerings + 2 sharps)
Third flute in A
transp. minor 3rd up (C-fingerings + 3 flats)
Alternative: Maj. 3rd down, F-fing., + 4 flats
Alto in G
1 tone down (F-fingerings, + 2 flats)
Alto in F
(Alto in Eb)
1 tone up (F-fingerings, + 2 sharps)
Voice flute in d
1 tone down (C-fingerings, + 2 flats)
Tenor in c
Basset in g
1 tone down (F-fingerings, +2 flats)
Basset in f
Great bass in c
Double bass in f
Contrabass in c
Sub-contrabass Bb
5th up, F-fingerings, + 1 sharp
Sub-contrabass F
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Next to the existing variety of commercially available recorder sizes (shown in the table
above), another factor contributes to the expansion of the recorder family: makers build
instruments using different pitch reference standards. Renaissance instruments are often tuned
in A=512 Hz. or A=466 Hz.; modern instruments in A=440 Hz.; baroque instruments in
A=415 Hz. or A=392 Hz. (French baroque pitch). All these pitches are a half-step apart.
It is possible to consider an instrument tuned to a certain pitch as a different size tuned to
another. For example: an F-alto in 440 can be considered as a G alto in 392. The following
table shows how five different f-altos, tuned to different pitches, can be considered as five
different models in A=440:
A= 392 (-1 tone) A = 415 (-1 semitone) A = 440 (reference) A = 466 (+1 semitone) A = 512 (+1 tone) Alto in F (392) = Alto en Eb (440)
Alto in F (415) = Alto in E (440)
Alto in F
Alto in F (466) = Alto in F# /Gb (440)
Alto in F (512) = Alto in G (440)
With this information, it is possible to fill the chromatic gaps of the table on pages 7-8,
obtaining a fully chromatic range of recorders:
Instrument
Lowest note (real pitch)
Lowest note (as written)
Soprano in b
transp. 1 semitone up, C-fingerings + 5 flats
Alto in Ab
transp. min. 3rd down, F-fingerings + 3 flats
Alto in F#/Gb
Chr.semitone down, F-fing., +7 flats, or Diat.semitone down, F-fing, + 5 sharps
Alto in e
Diatonic semitone up, F-fingerings, + 5 flats
Tenor in c#(db)
Chr.semitone down, C-fing., +7 flats, or Diat.semitone down, C-fing, + 5 sharps
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1.2.2. Suggestions for the development of sight-reading skills
As mentioned above, the development of sight-reading skills depends on two main
factors: experience and familiarity with the repertoire. Integrating short sight-reading sessions
(of around 20-30 minutes) two times a week in the regular practice routine should be enough
to enhance the sight-reading skills of a player. Since recorder players usually deal with very
different music styles, it is recommendable also to vary the style of the material used for
sight-reading, as long as the chosen pieces are technically challenging for the player (overly
simple works will not stimulate any development).
During a sight-reading practice session, the following procedure can be followed:
- Scan the score before playing. Focus first on understanding the musical form: look
for repetitions, da capo and dal segno signs.
- Identify technically difficult passages and try to prepare them mentally.
- Play the piece, making a clever tempo choice. Do not stop or correct eventual
mistakes: concentrate on the overview of the piece.
- After the first performance, evaluate your playing. Have a look at the problematic
passages, but do not practice them on your instrument. Try to elaborate strategies to perform
them better on a second run through.
- If certain passages continue to be technically problematic, spend no longer than five
minutes on them between your second and third run through.
- After the third run through, move on to another piece.
This way of practicing focuses on the importance of mental preparation: many
players tend to repeat difficult passages over and over in an unvaried manner, while looking
for possible alternatives can make it feel much easier.
When sight-reading non - original recorder music, players might need to transpose on
the spot. Therefore, the next chapter focuses on the development of transposition skills and
the means by which recorder players deal with the great variety of instruments of the recorder
family.
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2. Transposition
2.1 Definition
According to The New Grove Dictionary of Music and Musicians, transposition is
‘the notation or performance of music at a pitch different from that in which it was originally
conceived or notated, by raising or lowering all the notes in it by a given interval.’
Considering, for example, the following fragments:
Example I Example II
Example II is a transposition of the first one a fourth up.
2.2 Specific aspects of transposition concerning recorder players
Two aspects of transposition are especially relevant for recorder players:
a) Transposing while sight-reading
b) Considering certain recorder models as transposing instruments
2.2.1 Transposing while sight-reading
The ability of transposing while sight-reading is very practical for recorder players in
a variety of situations:
- when trying out different transpositions or instrumentations for a piece
- when playing unconventional recorder models (like a fourth flute in Bb)
Hereunder three different transposition methods are presented, based respectively on
the imagination of a new clef and key signature, the recognition of intervallic structures and
the harmonic analysis of a piece.
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Method 1: Changing the clef and key signature
This graphic is a representation of the circle of fifths. Outside the circle appear the
major (in capitals) and minor tonalities (in small letters), inside, the number of accidentals in
the key signature of every tonality. Enharmonic tonalities always make the sum of twelve
accidentals (for example: C# Major has seven sharps and Db Major five flats, together they
make twelve.)
The circle of fifths is the basis of a basic transposition method for tonal music that
can be illustrated through this example.
from J.S. Bach, Musikalisches Opfer BWV 1080
To transpose this melody a minor third down:
a) Find out the original tonality (in this case, c-minor)
b) Find out the new tonality (a minor third under the original one, therefore: a minor)
c) Find out the new clef. The first original note is C. The new first note must be a
minor third below: A. Find out in which clef the first tone is called "a", in this case, c on the
first line. This is the imaginary clef to use.
d) Check the graphic above. Find the original tonality and the new one. Count the
steps between both following the shortest way (in this case 3 steps to the right). The arrows
inside the circle indicate the two possible directions: to the right (when adding sharps to the
original key signature) or to the left (when adding flats). Then check the following table:
Steps 1 – 2 – 3 – 4 – 5 – 6 – 7 – 8 – 9 – 10 – 11 – 12
To the right (adding sharps) F – C – G – D – A – E – B – F# – C# – G# – D# – A#
To the left (adding flats) B – E – A – D – G – C – F – Bb – Eb – Ab – Db – Gb
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Having taken three steps to the right, whenever the tones F, C and G receive an accidental in
the transposed version, you must read them a half-step higher than notated.
At the end of this process, you would read:
When making a transposition in which you need to add flats, the corresponding steps
must be lowered by a half-step. To simplify this calculation, you can also make use of the
following table:
Interval Up Down
Minor second diatonic: + 5 flats (b, e, a ,d ,g down) or chromatic: + 7 sharps (all up)
diatonic: + 5 sharps (f, c, g, d, a up) or chromatic: + 7 flats (all down)
Major second + 2 sharps (f, c up) + 2 flats (b, e down) Minor third + 3 flats (b, e, a down) + 3 sharps (f, c, g up) Major third + 4 sharps (f, c, g, d up) + 4 flats (b, e, a, d down)
Perfect fourth + 1 flat (b down) + 1 sharp (f up) Augmented fourth + 6 sharps (f, c, g, d, a, e up) + 6 flats (b, e, a, d, g, c down)
Once you have established the new tonality, and before you start playing, run through
some scales and arpeggios in the new tonality. Make sure you that you are aware of where the
half-tone steps are, so as to be able to use them as checkpoints.
The main advantage of this system is that we continue to be conscious of the real
pitch. The problem is that to be able to transpose to any tonality one must be able to read in
all the clefs (seven in total), and having to replace the accidentals mentally can create
confusion or insecurity.
A similar transposition method was already being employed by amateur recorder
players in the seventeenth century: the anonymous Italian handbook Tutto il bisognevole...,
probably written around 1670, includes a table of transpositions based on clef and key
signature changes, so that amateurs are able to play their favourite songs and opera arias if the
original vocal range is out of the recorder compass.
- Method 2: Use of intervallic structures
This system is based on the mental recognition of the intervals that conform the
melody we want to transpose. In the example used before, we recognize the following
intervals:
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This method is especially suitable to transpose previously memorized melodies, since
it is necessary to avoid thinking note names to make use of it. This might sound complicated,
but we often do it unconsciously: when we whistle or sing a familiar tune, our mind
automatically applies the melodic intervals independently of the chosen starting pitch.
The application of this transposition method when playing recorder implies training
the ability of automatically playing any interval from any fingering, as suggested by Walter
van Hauwe in The Modern Recorder Player, volume II, part I ("About scales and arpeggios").
Following Van Hauwe's principles, to transpose the given fragment a minor third down, the
first step is finding the new first fingering. If the above example is played on a tenor recorder,
the first fingering in the original tonality is 02. If the player wishes to transpose the fragment
a minor third down, the first fingering will be a minor third below 02 (0 12). The player can
then perform the melody by reproducing its intervallic structure.
A great advantage of this way of transposing is its universal versatility. It is possible
to apply it to tonal music, like the given example, but also to non-tonal music (based on
pentatonic, whole-tone or octotonic scales, church modes or even atonal)which can be studied
with this approach. Next to van Hauwe’s book, the method Recorder Revisited by Erik
Bosgraaf offers multiple exercises through which players can internalize the intervallic
distance between fingerings.
- Method 3: Use of harmonic analysis
The harmonic method is based on the harmonic function of the notes and their
position in a certain chord. For example:
Telemann, Fantasia TWV 40:12 (arranged for alto recorder)
The harmonic scheme of this fragment can be applied to any other tonality. Knowing
the function and disposition of the chords (indicated in the example by the figured bass) it is
possible to transpose the fragment. This method can rarely be used independently, since
compositions are not always as harmonically clear as this example. Nevertheless, good
understanding of the harmony of a piece combined with any of the other transposition
methods described above can be extremely helpful.
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The recorder as a transposing instrument
- Transposing instruments
The New Grove Dictionary online defines transposing instruments as follows:
‘Instruments for which the music is not notated at the actual pitch of the sound, but is transposed upwards or downwards by some specific musical interval. Transposition is traditionally reckoned
relative to the pitch C (…) The intention is to maintain the relationship between notation and execution (fingering etc.) among instruments of a similar kind but of different pitch.’
Many modern woodwind instruments are transposing: a clarinet in Bb, for example
sounds a major second lower than notated. If the player reads
the sounding pitch will be
Published parts for clarinet in Bb are transposed one tone up so that the player can
read comfortably.
Because of the development of this transposing system, woodwind players often learn
one set of fingerings (‘in C’) that they use on all the members of their instrumental family.
Recorder players, on the contrary, usually learn two sets of fingerings (for instruments in C
and in F, which became a standard in the 1940s). Next to instruments in C and F, recorders in
G (like Renaissance altos), D (like the baroque voice flute and sixth flute) and Bb are
relatively common. Most players and teachers consider these models as transposing
instruments, although learning a third or fourth fingering system is also an option for
frequently played models, such as G-alto or voice flute.
In the past, many recorder sizes were considered transposing instruments. In England,
in the late seventeenth century and first half of the eighteenth, the names third flute, fourth
flute, fifth flute and sixth flute designated different kinds of recorders tuned respectively a
third, fourth, fifth and sixth above an F-alto recorder, the standard model at the time. These
models were transposing instruments: music was adjusted so that players could always read
F-fingerings. This is the case in the solo part of the concerto in F for soprano recorder and
strings by Giuseppe Sammartini (1695-1750) and in the concerti for sixth flute by John
Baston (fl. 1708-39), William Babell (c.1690-1723) and Robert Woodcock (1690 - 1728).
A logical order to learn new fingering systems could be the following:
1) Renaissance alto in G: this is a good instrument to play early solo and ensemble
repertoire. In the earliest known treatises mentioning the recorder family, like Musica
Getutscht (1511) by Sebastian Virdung, Musica Instrumentalis Deudsch (1529) by Martin
Agricola and Opera intitulata Fontegara (1535) by Sylvestro Ganassi, G-alto was the highest
model.
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2) Voice flute in D: the system to learn its fingerings is basically the same than for
the G-alto. Learning to sight-read music for voice flute allows the student to perform a large
amount of baroque music originally written for transverse flute whilst keeping the original
tonality.
3) Recorders in B flat (like the baroque fourth flute or some Renaissance models of
tenor, bass and sub-contrabass).
4) Recorders in other keys.
- Observations on learning G-alto as a transposing or non-transposing instrument
To illustrate how models in other tones than F or C can be introduced to students, G-
alto has been taken as an example: the following remarks are also valid for other models. It is
important to learn G-fingerings on an instrument in G (and not, for example, on one in F), to
create the right association between fingering and pitch, and to enhance the perception of
sound and character differences with other models.
G-alto as a non-transposing instrument
When learning G-alto as a non-transposing instrument, G-fingerings must be learnt as
a completely new system. This means creating the association
0 1234567
with all its consequences: if we raise finger 7, we get an A, if then we raise finger 6, we get B,
and so on.) The problem of this system is that F and G fingerings are only one tone apart: they
are so close that the player might shift or confuse the pitches3. To avoid, it is useful to
establish some checkpoints from the beginning, namely:
- The lowest tone and its octave:
- The semitones of the G major scale:
To internalize this checkpoints, we can use exercises like
3 Except in the cases of students with absolute pitch.
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that repeat the semitone link and consequently help the player to remember it. When this step
is assimilated we can start introducing minor scales with different half-tone steps (harmonic,
melodic, etc.), for example:
These exercises can be combined with the performance of pieces in G with very
simple modulations, gradually adding other modes or tonalities.
G-alto as a transposing instrument
Considering G-alto as a transposing instrument implies relating it to the closest
fingering system: F. Consequently, the player will think in F, but the instrument will sound
one tone higher. If the player reads
the sounding pitch will be
This means that music should be transposed one tone down to be able to play it in
real pitch. Since there are not many modern editions specifically arranged for G-alto, it is
really necessary (apart from very practical) for players to be able to sight-read G-fingerings.
A good piece to start could be the Ricercata Terza by Giovanni Bassano, which is constructed
mainly with scales and sequences and which begins and ends in G.
Bassano's Ricercata starts like this:
To transpose one tone down, we have to add two flats to the key signature and
imagine the same heights on a C clef on the fourth line (see ‘transposing a written tonal
melody’). 4
The main advantage of this system is that the same method (transposing one tone
down) can be applied to recorders in D in relation to C-fingerings. A student who can play G-
alto as a transposing instrument will also be able to learn quickly how to deal with
instruments in D.
4 In this case, the sounding pitch will in addition be an octave higher than notated.
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2.2.3 Open and shaded tonalities
The recorder, because of its lack of keys, is a diatonic instrument. Walter van Hauwe
explains it as follows in The Modern Recorder Player:
‘the principle underlying recorder playing is simply that starting from the fingering 01234567 an interval of a major second results from the lifting of each consecutive finger.
The inevitable imperfection of the recorder results in exceptions which prove the rule.’5
There is a clear difference in sound quality between the diatonic tones obtained by
lifting consecutive fingers and the chromatic steps in between. These are produced by ‘fork
fingerings’, so called because they comprise one or more open finger holes between two
closed ones (for example 012 456 or 01234 67). Fork fingerings produce softer, darker and
more unstable tones than diatonic fingerings (with consecutive closed holes, for example
012345) - hence the choice of the adjectives "shaded" (for tonalities featuring several fork
fingerings) and "open" (for tonalities featuring several diatonic fingerings).
For recorders in which holes 6 and 7 are single (like Renaissance models and some
copies of Baroque instruments), the chromatic steps between the fingerings 0 1234567 - 0
123456 and 0 123456 – 0 12345 are very weak. The introduction of double holes, probably by
the maker Paul Bressan (1663 – 1731) contributed improving the sound quality of the lowest
four semitones of the recorder. Modern recorders like the ones developed by Maarten Helder
and Nikolas Tarasov have keys for finger number 7. Therefore in these models, chromatic
steps are more stable.
On Renaissance recorders, the difference between open and shaded fingerings is even
more extreme than on Baroque or modern ones. Pieces with one or two sharps sound brighter
and stable. Flats result darker, softer and unstable. In the standard baroque repertoire, key
signatures featuring more than three accidentals are rare. A remarkable exception is Georg
Philipp Telemann's sonata in F minor (TWV 41:f1), as well as collections like L'art de
Preluder, by Jacques Martin Hotteterre, or L'Alphabet de la Musique, by Johann Christian
Schickhardt that include pieces in all the tonalities.
The following table includes the optimal (open) and non-optimal (shaded) tonalities
for Baroque recorders. Instead of pitches, fingerings are used to indicate the tonic, so that the
same table can be applied to any model. The tonalities considered as ‘optimal’ are the one of
the lowest note of the instrument, those a fifth up and down, and their minor relatives. Non-
optimal tonalities are sorted according to the amount of awkward connections (of the kind
012456-0135, involving several fingers), the sound quality of the tonic and the fifth, and the
eventual use of hole 8. Although open tonalities give the best sound quality and respond to
the diatonic nature of the instrument, shaded tonalities can have a special, contrasting color.
5 Van Hauwe refers here to the interval between the fingerings 0123456 and 012345, which is smaller than a major second.
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Baroque recorders
Optimal (open) Good Non-optimal (shaded)
0-1234567 Major 0-12 minor
0-123467 Major 0-123456 minor
0-123 Major
0-12345 minor
0-1234567 minor
0-135 Major 0-123 minor
0-123456 Major
0-1 minor
0-12 Major 0-12356 minor
0-123456 Major
0-12345 Major
0-1234567 minor
0-1234567 Major 0-135 minor
0-1 Major
0-12456 minor
0-12356 Major 0-123456 minor
0-12456 Major 0-123467 minor
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3 Memory skills
3.1 General information
Soloists and chamber music players often perform compositions by heart. The value of
performing by memory resides mainly in three aspects:
a) Practical reasons (like avoiding page turns or acquiring a better body posture)
b) Improvement of the communication between performer and audience, other
musicians or a conductor.
c) Memorizing a piece implies understanding it well: while memorizing, the
performer internalizes not only the structure, but also the expressive qualities of a musical
work.
The advantages of playing by heart are more obvious in live performances. The absence
of music stands and the possibility of establishing visual contact with the player has positive
effects in the way the audience perceives the performance. The experiments of Davidson
(1993) have demonstrated that visual perception is essential to music making, and that very
complex emotional, cognitive and personal information can be transmitted by movement.
Aaron Williamon (1999) confronted a group of listeners with four different versions of two
movements of Bach’s cello suites, played by the same cellist. One of the versions, identified
by the majority of the participants as the best in technical and expressive qualities, was played
by heart.
- How does it work?
When learning a piece of music, musicians use three kinds of long-time memory:
- Aural: memory of sound (a musician can imagine the forthcoming sounds while
playing and evaluate the performance in real time)
- Visual: memory of images (like a mental image of the written score)
- Kinesthetic: memory of movements
Combining these three types of memory helps players to memorize better.
Chase & Ericsson (1982) developed a theory about the use of retrieval structures in
music performance. According to this theory, our memory stores information in short
fragments or information chunks. Performing a certain fragment triggers the recovery of the
next information chunk, creating a chain that allows the player to play the piece from
beginning to end. Chase and Ericsson point out that performers are able to memorize faster if
they are familiar with the style of the work they are studying. Different pieces written in the
same style make use of similar patterns. If the performer is familiar with the style, he will
recognize them and will be able to memorize the music faster, in the same way that we can
easily identify and learn a text written in our native language. If the style is unfamiliar or too
complex (like atonal music), the player will have difficulties finding logical structures while
memorizing.
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When performing music by heart, different memory layers are active (for example:
players must be conscious of the general structure of the piece but also of small details).
Chaffin & Imreh (1994) studied the process of a pianist learning the third movement of the
Italian Concerto by Bach and noticed seven different memorization layers, organized in three
groups:
Conceptual organization
Non-standard fingerings
Technical difficulties
Reproduction
Phrasing
Dynamics
Tempo
Interpretation
Emotional expressiveness Performance
The hierarchy changed within the process: at the end, the performer was consciously
busy with emotional expressiveness, while the reproduction and interpretation layers had been
almost entirely automatized.
- How do musicians approach this task?
Susan Hallam (1997) interviewed a group of musicians about their memorization
techniques. Her conclusion was that professional musicians show two different approaches to
memorization:
a) Repetition
b) Analysis (harmonic, formal, structural, etc.)
The combination of both systems is advantageous: repetition helps the storage of
aural and kinesthetic information, while analysis contributes to the internalization of patterns,
the knowledge of the form and structure of the piece and the storage of visual information.
How can musicians develop their memory skills?
Aiello & Williamon (2002) suggest that the best way to help students to improve their
memory skills is questioning them about the way they memorize pieces, so that they can
analyze their own working method and try different things. Improvising on the style of the
pieces that must be memorized might help, since it helps to assimilate basic musical patterns.
To learn the structure of a piece, Aiello suggests going through the following checklist:
-Describe and analyze the macro- and microstructure of the piece.
-Where are the landmarks? How do we get to them and out of them?
-How are the different sections of the piece linked?
-Highlight the most important melodic and rhythmic patterns of the piece and
determine their importance.
-Get to know the different entrances of the main themes
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-Get to know the harmonic structure (modulations, cadences)
-Memorize by logical sections
In his detailed study of musical memorization, Rubin-Rabson (1937, 1939, 1940, 1941)
gives similar advices:
-Analyze the piece before practicing it (to understand the big structure and identify
eventual problematic passages)
-Distribute practice over time (it is more efficient to have short but regular
memorizing sessions)
-Rehearse mentally (‘listen’ to the piece in your head and recall the physical
sensations of movement you experiment while performing the piece)
-Learn in sections
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3.2 Specific aspects of memory skills concerning recorder players
The general memorization guidelines suggested by Aiello and Rubin-Rabson, although
specifically directed to piano students, are also pertinent for recorder players. Nevertheless,
there are specific aspects that deserve some extra attention.
The first point to underline is that short but regular practicing sessions will be far more
helpful than long, sporadic ones. Learning a piece by heart is much more than being able to
recall the information expressed on the original score: it implies storing very detailed
structural, technical and expressive information (a few examples: fingerings, tone color
differences, the harmonic function of tones, timing, articulation, or the length of final chords).
It is important for any performer to combine different kinds of memorization exercises, to
stimulate the storage of information in the visual, aural and kinesthetic memory. Some
possible memorization strategies are:
For the visual memory:
a) Mark a few important moments (highlights, or places where you have to
pay special attention) with a colored pencil.
b) Play the piece (or a specific section) from the score, and immediately
after without it, trying to picture it in your mind.
For the aural memory:
a) Listen to a recording of the piece, to get a general impression.
b) Play or sing along with the recording.
c) Play the piece a few times. Identify peculiar motives or passages that
catch your attention.
For the kinesthetic memory:
a) Play the piece without blowing into your instrument, concentrating only
on your finger movements.
b) Try to think through the piece. Listen to it in your head and imagine
yourself playing it on your instrument; feel the movements you usually
make to produce the music.
c) Kinesthetic memory is especially active when learning very complex
contemporary music. Some gestures might be so complex that the player
will not have time to consciously recall every tone. The memory of
movements is then vital to repeat the same gesture efficiently.
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Since the recorder is a melody instrument, players memorizing polyphonic or ensemble
pieces tend to learn melodically rather than harmonically, or in terms of imitation and
counterpoint with the other parts. Some possible solutions for this are:
a) Use the score to make a general analysis of the piece. Pay as much
attention to the other parts as to yours: identify their highlights,
important motives, themes and entrances.
b) Be conscious of the order of events in complicated passages and train
yourself to listen to it. For example:
Aspasia Nasopoulou (*1972): Rodia = SO2H4 (rev. 2005)
c) When you have rests, do not count beats: learn and listen what other
parts are playing. Establish an auditory cue for your next entrance.
d) Remember the global sound of the piece.
e) Be conscious of the harmonic function of your part.
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