MUSIC
La
musique est la langue du cur
[Music
is the language of the heart]
Rousseau
While most elements
of Accelerative Learning can be found in education in some form
or other, the genuinely innovative element which Accelerative Learning
brings to today's classrooms is the systematic use of music in the
instruction process. While the coupling of music and messages is extensively
used in advertising and in entertainment, music in education, outside
official music classes, tends to be restricted to use with young children
in kindergarten and primary school. Although we know from experience that
words synchronised with music or rhythm are easier to learn than words
alone, preparation of materials in this form with older children or adults
are usually only found in music or drama classes, and perhaps in some
language classes. The idea of a mathematics class relaxing to the sounds
of Handel's Watermusic while the teacher recites a list of formulae,
or an English class listening to Pachelbel's Canon while the teacher
reads excerpts from a novel, tends to elicit a variety of responses from
today's educators, ranging from amusement to disbelief. This form of learning,
however, is not new, and has been shown to be effective. As Rose (1985)
points out, the coupling of music and recital of words was already used
by the ancient Greeks.
.....audiences
would attend a festival in the Panathenes [of the Panatheneia] once
every four years. A presenter would chant the entire Iliad to the heartbeat
rhythm of a softly playing lyre. From memory. Records show that many
of the audience could remember large passages afterwards. (p.97)
Although the
music used has changed, the technique of presenting words and music simultaneously
in order to enhance retention of materials has been reintroduced in Accelerative
Learning. Two major rationales for this can be identified in Lozanov's
(1978) original work. The first was Lozanov's belief that music has the
potential to create a state of relaxed alertness in the students which
he calls psychorelaxation. Lozanov (1978) found that the body rhythms
of students adjusted to the rhythms of the baroque music he used. He recorded
a significant increase in alpha brain waves during the passive concert
sessions with a corresponding decrease in beta waves. He also recorded
a drop in blood pressure and a slowing of the pulse. According to the
relaxation and anxiety research discussed below, this state may be conducive
to better performance.
The second rationale
for the use of music in the instruction process was the idea of whole
brain learning. Lozanov (1978) believed that the interaction of both hemispheres
together with the neo-cortex had a positive effect on retention rates
of learned materials. Research by Claycomb (1978) supports this claim.
Other models on brain functioning, such as the Triune Brain system (McLean
1973), the Taxon and Locale Memory system (O'Keefe & Nadel 1978) and
the Holographic Memory system (Pribram & Coleman 1979) also suggest,
according to Stein et al. (1982), that multiple channels of input
will increase information retention.
In Accelerative
Learning language and music are presented simultaneously resulting
in a complex interaction between both hemispheres and the neo-cortex.
Strict lateralisation of music and language processing, as has been shown
by Duffy et al (1981), can no longer generally be supported since
it has been demonstrated that different and extended areas of both hemispheres
undergo changes during musical tasks (Petsche et al 1985). While
Duffy et al (1981) suggested that language is processed by the
left hemisphere while music is processed by the right hemisphere, Petsche
et al (1985) found that subjects listening to a Mozart symphony
generated totally different topographic patterns of changes of the E.E.G.
parameters studied. The latter's findings support the proposition of Bever
and Chiarello (1974) who suggested that the holistic appreciation of music
of naive listeners is usually processed by the right hemisphere, whereas
musically trained listeners tend to use their "analytical" left
hemisphere.
The most detailed
research on the role of music in Accelerative Learning has been
carried out by Lehmann (1982,1983,1984) in the G.D.R. whose major findings
are reported in translation in Lehmann and Gassner-Roberts (1988). In
this publication Lehmann and Gassner-Roberts (1988:47) offer an even more
detailed description of the relative roles of the two cerebral hemispheres
in the processing of music and language:
In righthanded
people and at least 60% of lefthanders the rhythm of music appears to
be processed by the left (speech) hemisphere, while melody, tonality,
timbre (in speech: intonation, pitch, gestures, mimicry), etc. seem
to be processed by the right hemisphere. Although both hemispheres interact
closely, each has specific tasks to fulfill.
Lehmann's work
draws on the findings of music therapy which have shown that "the
use of music for therapeutic purposes and for rehabilitation of the learning-disabled
children can lead to a behaviour modification which contributes to mental
and physiological recovery" (Lehmann & Gassner-Roberts 1988:3).
He states, however, that:
Contrary
to the use of music in music therapy and pedagogy for the learning-
disabled, music in the normal learning process has to be seen as a medium
of communication additional to language. In this process the experience
gained from the use of music therapy has to be utilized, but always
keeping in mind the specifics of the learning behaviour of the average
student. However, music has an ideal combination of cognitive, affective
and psychomotor elements which stimulate and activate the psychic reserves
of the learner so that these reserves can be utilized in the learner's
learning behaviour, thus improving his/her mental capacity. (p.3)
Lehmann believes
that the function of the music in Accelerative Learning is twofold.
On the one hand it relaxes the students, on the other it broadens and
changes the potential perceptions of the students. He claims that "the
change of perception through music can influence the attitude to learning"
and "effect an expansion of attention" (Lehmann & Gassner-Roberts
1988:29).
Assuming that
there are sound physiological and psychological reasons for using music
in the instruction process, can the research back up the claims for the
consequent improved performance? We will now look in detail at studies
which have investigated the effect of background music either during learning
or during testing or both. We will also look at different music styles
in order to find out which type of music may be the most effective.
Bordon and Schuster
(1976) found that baroque music by Vivaldi and Bach resulted in a significant
improvement in scores in a Spanish paired-associates task as compared
to when this music was not played during the learning period in a laboratory
setting. This study is further discussed in the suggestion section
below. The findings for significantly improved performance as a result
of baroque background music in a laboratory setting are supported by Renigers
(1981), Baur (1982), and by Stein et al. (1982). In the natural
teaching environment they are supported by Schiffler (1986b) This study
is discussed in detail in chapter 4.
While all the
laboratory studies investigated the effect of baroque music on learning,
Schuster and Mouzon (1982) also included classical music for investigation.
The effects of three treatment conditions - no music, baroque music as
background to presenting rare English words and their definitions, and
classical music in the same context - on the recall score immediately
after the learning task and on retention scores 7 days later, were investigated
in this study. It must be pointed out that the format for the immediate
and the delayed tests was not identical. In the immediate test students
were required to provide the appropriate definition of the words presented.
This can be described as testing the students' recall ability. In the
delayed tests students were required to match words to the correct definition.
This can be described as testing the students' recognition ability.
Subjects were
228 volunteer college students divided into 18 treatment groups. They
were sequentially given four vocabulary lists to learn, two of which were
classified as easy and two as hard. Subjects' recall scores on a preliminary
test were used as a covariate. Music was presented for three minutes before
the presentation session and during the three minute presentation when
the words and their definitions were read out aloud by the experimenter.
Subjects in the baroque music condition received excerpts from Handel's
Watermusic, while subjects in the classical music condition received
excerpts from Rimsky-Korsakoff's Scheherazade Suite, The Young Princess
and the Young Prince. Subjects in the control condition had the same
amount of time devoted to the learning task with the same oral presentation,
but no music was played. The same conditions were reinstated during the
testing. Affective ratings were also taken at various times during the
experiment.
Results showed
that when music was played during the learning session, the control group
performed lowest, with the classical condition next and the baroque condition
performing best. All differences between groups were statistically significant
for both immediate recall and retention. Music played during testing resulted
in significantly improved performance for immediate recall but not for
retention. The best results were achieved when subjects had learned with
baroque music and had been tested with baroque music. The authors concluded
that this condition was best because it also had the highest affective
ratings for pleasantness and alertness.
The results of
Schuster and Mouzon (1982) suggest two possible explanations for the positive
effect of music on learning. Firstly, they indicate that students experience
the learning environment with a music background as more pleasant than
no music conditions which may lead to improved performance. This view
is also held by Lozanov (1978) who refers to it as a "placebo effect"
and Lehmann (Lehmann & Gassner-Roberts 1988:23) who refers to the
work of Metzger (1961) which discusses the close relationship between
mood and achievement. Secondly, the findings show for the first time in
this context that recall is positively affected by the reinstatement of
the learning conditions during testing. Therefore another effect, such
as context-cueing, as suggested by Smith (1985), may be produced by the
use of music in the learning environment.
Smith (1985:591)
states that a number of dimensions of background context, such as general
physical environment (Godden & Baddeley 1975), drug states (Eich 1980),
mood states (Bartlett & Santrock 1979), or background colours (Dulsky
1935) have shown to be effective for inducing context-dependent memory.
Smith (1985), independent of Accelerative Learning, investigated
whether memory is likewise affected by acoustic background stimuli. Subjects
in this study were 54 volunteer adult students. No music/noise conditions
were compared with Mozart, Jazz and white noise. For the Jazz condition
two instrumental pieces entitled People Make the World Go Around
and Destiny's Children were used. For the Mozart condition the
Piano Concerto No. 24 in C Minor was used, and for the white noise
condition noise recorded at subjectively similar sound levels from a white
noise generator was used.
Smith's study
consisted of two experiments. The first compared Mozart, Jazz and quiet
conditions, the second Jazz, white noise and quiet conditions. Smith found
that if music or white noise was used during learning then the reinstatement
of the same condition improved recall performance. When learning took
place in quiet conditions, performance was unaffected by the testing condition.
Both experiments showed no significant differences between conditions
on initial recall, but the first experiment showed that significantly
less forgetting occured in the condition which had Mozart for both learning
and testing. The noise/noise condition was next, followed by the Jazz/Jazz
condition with the quiet/quiet condition being last.
It is interesting
to note that in Smith's (1985) study the white noise condition performed
better in terms of retention of materials than both the Jazz and the quiet
conditions. These findings are difficult to interpret in the light of
the conclusions of Schuster and Mouzon (1982) who felt that the music
played may have produced a more favourable environment in affective terms.
While subjects in the Mozart/Mozart condition in Smith's (1985) study
may have performed best because they felt best, it is difficult to imagine
that subjects in the white noise condition would have felt better than
either the Jazz or the quiet condition since this type of background stimulus
is usually either not consciously perceived or perceived as an irritant.
A study by Jellison
(1977), reported in Brislan (1986), for example, showed that subjects
who received white noise as a background when placed in a stress situation
reported significantly more stress than subjects who had received background
music. While both Bach's Air on a G-String and Dvorāk's New
World Symphony had been effective in significantly decreasing anxiety
scores on the State-Trait Anxiety Inventory (STAI), white noise resulted
in significantly increased anxiety scores.
Smith (1985:600)
explains the fact that music or noise can serve as a memory cue while
quiet does not in the following way:
One idea
is that white noise and unpopular music selections are far less likely
than quiet conditions to be encountered frequently during the 48-hr
retention interval, and therefore should serve as more distinctive cues
than the more common experience of relative quiet. Another idea is that
subjects encode an experimentally presented music or noise selection,
but they do not encode the absence of experimentally presented sounds
any more than they might encode the absence of any type of stimulus,
such as pain or food. This assumes, of course, that subjects are not
expecting to hear experimentally presented background music or sound.
At the time of testing, a replayed background sound could act as a memory
cue if its encoded representation is associated with learned material,
but the reinstatement of quiet conditions would not cue memory if there
were no encoded representation of quiet.
While this is
a plausible conclusion to arrive at in the light of other studies on context-dependent
memory, it does not explore the reasons for the superiority of the Mozart/Mozart
condition in this study or the superiority of the baroque music in Schuster
and Mouzon (1982). Perhaps there is indeed an added effect of the subjects'
liking of the background environment as suggested by Schuster and Mouzon
(1982). Judging from polarity profiles collected by Lehmann (1982), it
is quite possible that the Mozart condition was experienced as the most
pleasant by the adult students in this study. Would this mean that teenagers
who generally prefer rock music to classical or baroque music (Felix 1986)
would perform better with such music as a background to learning?
A study by Mullikin
and Henk (1985) investigating the effectiveness of background music on
comprehension performance in reading with 45 4th-8th grade children at
a private school does not support this notion. No music conditions were
compared to classical and rock music conditions. For the classical condition
Mascagni's Cavalleria Rusticana, described as "a soft composition
with a slow, methodical cadence" (p.355) was used. For the rock condition
music from an album by a popular rock group (not further described) was
used. The two music selections were administered at the same volume.
Nine children
were randomly selected from each grade level. The sample was approximately
half male and half female, and approximately one third was black. Each
grade was tested separately in intact groups. The study was carried out
over three consecutive days. Each day the children read one of 15 social
studies passages of equal difficulty and answered 10 comprehension questions.
During this time either no music or classical or rock music was played.
For each level the order of treatments and reading passages was randomised.
Each child read a total of three passages and answered 30 questions.
Results were
consistent across all grade levels. The rock condition performed the least
well, with the no music condition next and the classical condition performing
best. All differences between conditions were statistically significant.
It is interesting to note that while the trend for the two music selections
was clear, there were 3 subjects for whom the rock condition yielded better
results than the classical condition. Although the results of this study
show that classical music is more effective in a reading comprehension
task with teenage children, they show that not all children are affected
in the same way.
While the results
of Schuster and Mouzon (1982), Smith (1985) and Mullikin and Henk (1985)
suggest that certain styles of music are more effective in learning than
others, caution has to be taken with drawing definite conclusions about
which type of music may be most effective. There are not only distinctions
between styles, such as baroque or rock music, in terms of tempo, melody,
rhythm and timbre, but also between pieces within the same period such
as baroque and between movements within the same piece. It is therefore
important to know excactly which part of a musical piece was used in the
investigation. All too often, however, studies do not report this information
in detail. In Schuster and Mouzon (1982), for example, music was played
for three minutes during the learning task, yet the music used was described
as Handel's Watermusic which is a piece of 20 minutes duration
with distinct variations in tempo, rhythm and melody. In the light of
Lehmann's (1982) findings, it is quite possible that students may react
differently to the different sections of this work which range in mood
from a very solemn overture to cheerful dancing music and in tempo from
adagio to allegro. Similar variations can be found in rock
and pop music. It is therefore important to know exactly which piece was
used, since differences in rhythm and instrumentation may have an effect
on the outcome.
The differential
effect on learning of musical pieces within the same period or style has
been shown by Schuster (1985) who investigated the effect of various styles
of background music on vocabulary learning with 256 volunteer adult subjects.
The different styles of music investigated were baroque, classical, dissonant,
Japanese, march, meditative and rock. The study used a mixed analysis
of variance (ANOVA) design with between subject factors of type of music,
music selection replication, suggestion, order of lists learned and subject
gender. Dependent variables were as in Schuster and Mouzon (1982), the
immediate recall and recognition after 7 days of 25 vocabulary items per
list and affective ratings. One of the baroque pieces was identical to
the one used in Schuster and Mouzon (1982). Schuster reports that neither
recall immediately after learning nor retention scores were significantly
affected by any of the background music when compared to the no music
control groups.
However, there
were significant differences between the individual music pieces for recall
scores. Two selections of each style were used, and the one topping the
list for recall performance, after scores had been adjusted according
to the pre-test performance, was one of the dissonant selections, way
ahead of the baroque and classical pieces. The inconsistency of the findings
is highlighted by the fact, however, that the other dissonant selection
was in 14th place out of 16 on the same list! In the light of Schuster
and Mouzon's (1982) speculations about a positive correlation between
affective ratings of the condition in which learning took place and consequent
performance, it is interesting to note that the dissonant music was rated
the least liked of all music conditions in Schuster (1985). Unfortunately
no information is given as to the relative affective ratings of the individual
pieces within each style.
Why Schuster's
(1985) study showed radically different results in terms of the influence
of music on learning in general from the studies reviewed above is difficult
to ascertain. The study was well designed and controlled. Schuster's main
speculation was that background music is probably most effective in the
SALT or suggestopedic setting, and would therefore be better investigated
in the natural classroom environment. However, of the above studies only
Schiffler (1986b) investigated the effectiveness of music in this environment.
All other studies took place in laboratory settings. And Schiffler's findings
were the most conservative of all. Although he found a better performance
with adults in intensive teaching settings as a result of using music
in the instruction process, he reported a reduction of this effect when
teaching took place for only four lessons a week, as is normal in the
natural teaching environment.
Another type
of music was investigated in a study by Davidson and Powell (1986) who
looked at the effect of "Easy-listening" background music on
fifth-grade science students' on-task performance. Twenty-six students
were observed over 42 class sessions over a period of four months. Observations
were recorded every three minutes. A significant increase in on-task behaviour
was found for the total class and the male subjects. Although the female
subjects also showed increased on-task performance, the effect was inhibited
by a ceiling effect since the mean pre-treatment score had already been
99%.
Unfortunately
no titles of the music used were given in this study. "Easy-listening"
background music was defined as: "the type of music which has a melodic
melody line over non-dissonant chordal structures and is non-percussive
in beat. The orchestration is traditional in that there is a rich use
of strings and winds. Easy-listening music is more lushly orchestrated
than pop music." (p.30) Although the authors appear to refer to contemporary
music this definition is not too far removed from Lehmann's (1982) recommendations
for music selections for the concert sessions in the G.D.R.
While Lozanov
(1978) recommended a variety of pieces from the baroque and the classical
periods, Lehmann (1982:15), after extensive research with polarity profiles,
narrowed these selections down to an even more precise period:
Im
Sinne einer psychologisch harmonisierenden Wirkung auf die Rezipienten
haben sich melodisch geprägte langsame Sätze der Instrumentalmusik der
Frühklassik und der Wiener Klassik in der suggestopädischen Praxis besonders
bewährt, d.h. eine Musik, die sich aus einer Folge von langsamen Sätzen
mit jeweils charakteristischer Melodik zusammensetzt, einer Melodik,
die so strukturiert ist, daß sich zwar unterschiedliche musikalische
Themen ablösen, eine einheitlich-ruhige, gelöste Affektlage aber ständig
beibehalten bleibt. Die besondere Eignung von Streichermusik der Frühklassik
und Wiener Klassik für suggestopädische Zwecke führen die Mitarbeiter
der Forschungsstelle für Mnemologie unter Berücksichtigung von Erkenntnissen
der Musiktherapie
vor
allem darauf zurück, daß es dem Durchschnittshörer möglich ist, sich
mit dieser Musik rascher und stärker zu identifizieren als mit der häufig
als distanziert und kühl erlebten, in ihrer Struktur nicht selten komplizierten
und überdies gedanklich stark befrachteten Musik der Gegenwart. Mit
dieser Feststellung soll indes keineswegs der Eindruck erweckt werden,
daß andere Musik als die der Frühklassik und der Wiener Klassik für
suggestopädische Zwecke ungeeignet sei.
[In the sense
of a psychologically harmonising effect on the recipients, melodic slow
movements of the early classical period and the Vienna classical period
have been shown to be most successful in the practice of suggestopdia,
i.e. music which comprises a succession of slow movements, each with
a characteristic melody, a melody so structured that although different
musical themes follow each other, an evenly calm and relaxed affective
quality is constantly retained. The members of the Research Institute
for Mnemology, in the light of findings in music therapy, attribute
the suitability for suggestopedic purposes of the string music of the
early classical period and the Vienna classical period especially to
the fact that it is easier for the average listener to identify more
quickly and profoundly with this music than with contemporary music
which is often experienced as cool and distant and not seldom as complicated
and intellectually charged. This statement should not, however, give
the impression that other music than that of the early classical period
and the Vienna classical period, would be unsuitable for suggestopedic
purposes.]
As Lehmann himself
suggests, it may not be necessary to adhere strictly to prescribed music
selections since other types of music may share characteristics with the
above. He suggests that "better" pop music shows basically the
same liguistic symbols as the music of the pre-classical period, the Vienna
classical period and the early 19th century" (Lehmann & Gassner-Roberts
1988:30). There may also be a difference in affective reactions to different
types of music between adult students and children. Lozanov (1978) claims
that it is unimportant whether or not students like the music used. However,
this view is not shared by the researchers in the G.D.R. (Lehmann &
Gassner-Roberts 1988) who do not only believe that liking the music is
important, but that students' attitudes towards the music can be transformed
from negative to positive as a result of taking part in a suggestopedic
course. Lozanov's claim is further refuted by a study on children's attitude
towards music in their learning environment (Felix 1986) which showed
that teenage students would be more receptive to Accelerative Learning
in their classroom if the music was more to their liking.
While the majority
of studies looked at the effects of music during the learning task, some
studies have also investigated the effect of music during testing only.
Results here, however, are not as consistent as they are with music during
learning. Of the two studies already discussed above, Schuster and Mouzon
(1982) reported that baroque and classical music during testing had a
significant effect on immediate recall but not on retention of vocabulary,
while Smith (1985) reported no significant effect of classical music,
jazz or white noise as a background during testing.
Render, Hull
and Moon (1984), too, found no significant effect on vocabulary recall
when baroque music was played during testing only. In this study four
groups of volunteer undergraduate students (N=62) were given four multiple
choice tests under four different conditions each: (a) guided relaxation
before testing, (b) baroque music during testing, (c) a combination of
both (a) and (b), and (d) neither relaxation nor music. Overall, findings
did not show a significant effect for any of the three treatment conditions,
although the general pattern was for the relaxation condition to perform
high and the control condition low.
The findings
of Render, Hull & Moon (1984) and Smith (1985), however, are not supported
by Blanchard (1979) who reported significantly increased exam performance
by students when classical or rock and roll music had been played during
testing. Unfortunately the author does not give further details about
the music used. In this study 254 volunteer university students, taking
a traditional final examination, were divided into three groups, equated
as to students' age, weight and educational background. While the control
group sat the 2.5 hours exam under standard exam conditions, the two remaining
groups had either classical or rock and roll music playing in the background.
All subjects' blood-pressure and pulse-rate was taken before, during and
after the exam. Findings were that the blood-pressure of the control group
rose to a much higher level than that of either music group. The control
group also showed much poorer recuperative activity of the heart after
the exam while both music groups displayed excellent recuperation. Exam
scores were 215.9 out of 300 for the control group, 250.9 for the rock
and roll condition and 253.2 for the classical condition. The difference
between the control group's performance and that of both experimental
groups was statistically significant.
Blanchard's (1979)
results strongly support the use of music during testing, both for increasing
academic performance and for the physiological benefits associated with
background music. However, looking at the findings of all studies discussed,
it appears that music during testing only may not be as effective as music
either during learning or especially both during learning and testing.
The findings of Schuster and Mouzon (1982) and Smith (1985) indicate that
the reinstatement during testing of the musical background used during
learning may yield the best results in terms of retention of materials.
Conclusions
- Music. Judging from the findings of these studies it
can be said that background music appears to have a positive effect in
the learning environment. While most studies found a positive effect on
the recall of vocabulary, one reported better reading performance and
another better on-task behaviour asssociated with the use of background
music. Of the ten studies which investigated the effectiveness of music
during learning, nine reported significant positive effects either on
short-term or on long-term memory. Of the eight studies which looked at
the effects of music immediately after the learning task, six reported
significant positive results. Of the seven studies which looked at the
effects of music after 48 hours or even later, six again reported significant
positive results.
The effect of
music during testing has not been as extensively investigated, and findings
are not as consistent as the above. While one study found a significant
positive effect on performance when either classical or rock and roll
music was played during testing, two studies found no significant effect
when classical, baroque or jazz music was played during testing. Another
study reported a significant positive effect of classical and baroque
music played during testing on vocabulary recall when students were tested
immediately after learning but not when testing took place after one week.
There is an indication, however, that best results are achieved when the
same music is played both during learning and during testing. The two
studies which investigated the effect of the reinstatement of the learning
conditions during testing found this.
In terms of the
effectiveness of different types of music, the findings of the majority
of studies discussed here lend strong support to the special effectiveness
of baroque and classical pieces, as originally suggested by Lozanov (1978).
However, it must be pointed out that this type of music has also been
most extensively used and tested. Other types of music have only been
sporadically tested in the same context. Yet the three studies which investigated
jazz or rock music did not find these types of music to be effective in
learning. One study, however, found rock music effective during testing.
A study which investigated the effect of easy-listening music, which shared
characteristics with the classical music found most effective for suggestopedic
teaching in the GDR, also found this type of music effective in improving
on-task behaviour. When making statements about the relative effectiveness
of music in learning, it is important to give either exact titles or an
accurate description of the musical piece used. It is not possible to
state categorically that classical music is more effective in learning
than pop music, since it appears that the individual properties of the
pieces are important factors in the outcome.
Although there
is strong support for the effectiveness of music in learning, we still
know little about how the reported effects of music on learning are actually
achieved. In the context of the studies reviewed here the effectiveness
of music can be explained in several ways. Music appears to create a more
pleasant learning environment in terms of affective criteria (Schuster
& Mouzon 1982) which may improve performance. It further appears to
have the potential to affect concentration and attention rate and in turn
improve on-task behaviour (Davidson & Powell 1986). Music also appears
to be associated with physiological effects such as a lowered heartrate
(Blanchard 1979) and increased alpha brain waves (Lozanov 1978) which
may be instrumental in improved performance. Finally, studies which included
the reinstatement of music during testing (Schuster & Mouzon 1982,
Smith 1985) indicate that context-cuing may be involved.
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