

|
Volume 2, No. 1 |
September 2004 |
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COMPARING TWO
APPROACHES FOR TEACHING RHYTHM READING SKILLS TO FIRST-GRADE CHILDREN:
A PILOT STUDY
Delores Gauthier
Western Michigan University
gauthier@wmich.edu
Robert E. Dunn
Case Western Reserve University
red5@po.cwru.edu
Introduction
The long-term goal of many music programs
is to help students become proficient, at least at an elementary level, with
reading, writing and performing musical notation. Jacques-Dalcroze (1921)
believed that the primary function of rhythmic education is to make it possible
for children to play, create symbols for, and perform rhythms from those symbols.
The National Standards for Music Education, adopted by MENC in the 1990s (MENC,
1994), includes Content Standard 5: Reading and Notating Music. The K-4
achievement recommendations state that students should be able to “read whole,
half, dotted half, quarter and eighth notes and rests in 2/4, 3/4 and 4/4 meter
signatures” (standard 5a, p. 14), and “use standard symbols to notate meter and
rhythm . . . in simple patterns presented by the teacher” (standard 5d, p. 14).
First grade appears to be an appropriate
place to begin experiences with reading some form of rhythmic notation.
Davidson and Colley (1987) found that while pre-kindergarten and kindergarten
children were more likely to be able to attend to either pulse or pattern, most
first graders were able to recollect both. Gembris’ (2002) review of rhythm
studies found that children age five and older are able to handle rhythms within
a steady meter. Anderson and Lawrence (2001) found that children in grades one
and two can read and create simple music notation. Campbell and Scott-Kassner
(1995) concluded that a child in first grade is capable of distinguishing
between long and short, and can perform, read and write rhythms using quarter,
eighth and half notes. So how does one begin?
Given that it is appropriate to perform,
read and write simple rhythms in first grade, how should the process begin? In
learning any aspect of music, the musical sound/concept must be experienced and
internalized before it is labeled and children begin to manipulate it
symbolically (Petzold, 1966). Though many approaches and methods books (e.g.,
Choksy, 1999; Frazee & Kreuter, 1987, Campbell & Scott Kassner, 1995) may agree
that sound comes before symbol, there is a wide variance of how, and how quickly,
one gets from “rote” to “note.”
Persellin (1992), found that
first graders performed rhythm patterns more effectively when visual icons were
linked with auditory sounds or kinesthetic motions. Some approaches use verbal
syllables, including counting numbers (one two three and four), or syllables (ta
ta ti ti ta) or words that fall into simple rhythms (pear pear ap-ple pear, or
walk walk run-ning walk). (e.g., Choksy, 1999; Frazee & Kreuter, 1987, Campbell
and Scott Kassner, 1995). Hand movements or body movements are sometimes
employed to show notes of different durations. The musical symbols are linked
with these activities. Many pedagogical approaches recommend such multi-modal
learning approaches (hear, see, move and say) for more effective learning, among
then Kodaly and Orff (e.g., Choksy, 1999; Frazee & Kreuter, 1987).
One commonality these
approaches share is beginning with the quarter note as the basis of the beat.
The eighth note is approached as an equal subdivision of the beat. Both of the
researchers taught beginning rhythmic and notation skills in the public schools
for many years based on this approach, labeled from here forward as the
Subdivision Approach, not questioning its validity as the most effective method.
Most approaches continue to do so.
As musical rhythms have an
aspect of mathematical proportionality, it may be instructive to compare the
learning rhythms and math. Cognitively, one would not begin with division or
subdivision in teaching basic math. Rather, math instruction begins in the
preschool and early grades with addition. Division, as a mathematical concept,
is not approached until third grade in many school curricula (National Council
of Teachers of Mathematics, 2000). Following this math parallel, why should the
understanding of rhythmic relationships begin with (sub)division, a relatively
complex concept? Might a more effective method of rhythmic reading begin with
simple addition as well?
As part of her “Generative
Theory of Music Learning,” Eunice Boardman (1988a, 1988b) proposed an approach
to music learning and literacy from an addition-based approach. In her "Additive
Approach" to learning rhythmic reading, she proposed that learning rhythm should
be based on the underlying shortest sound. This is not a new concept. Records
of Greek music-making talk about “chronos prontos,” the smallest unit of musical
time “by which all other lengths were measured” (Warner, 1991, p. 15). Adding
shorter sounds together becomes the basis for all longer durational values.
For example, if we were
working with a simple chant made of quarter notes and eighth notes in 4/4 time,
the eighth note becomes the shortest sound, the building block for the rest of
the example. In this case, the eighth note and the quarter note represent a
relationship of 2:1 (two short sounds to the long sound, or two eighth notes to
one quarter note). Longer durations are based on the shorter sound as well. In
this example, the half note would be 4:1. If a quarter note is the shortest
sound in a rhythmic example, it then becomes the basis of the durational
relationship with the longer notes: the quarter note would be 1:1, the half note
would be 2:1, and the whole note would be 4:1.
Boardman’s Additive Approach
also incorporated Jerome Bruner’s (1966) assertion that in order to learn a
concept, one must engage a new concept through three modes in the following
order: enactive, iconic and symbolic. The enactive mode involves experiencing
the concept directly. The iconic mode involves manipulations of visual
representations, "icons," that in some way look like or inherently represent
some property of the concept. The final symbolic mode involves the use of
generally agreed-upon symbols to represent the concept; symbols rarely have
iconic properties to them. According to Bruner’s theory, the iconic step is
fundamental to understanding and retention. Its absence may be a reason that
some children find difficulty in remembering and interpreting rhythmic notation.
Iconic learning in the
Additive Approach is done with rhythm icons, bars that are constructed in
durational proportion to one another. Using short and long sounds, the short
sound will be the building block, and the long sound will be twice as long.
Rhymes and songs with these two durational relationships can be experienced at
the enactive level first. For the enactive mode, Boardman suggests that
children verbalize the syllables “short” and “long,” tipping the fingertips
together for shorts, and sliding the palms past each other for the longs. Next,
the icons can be used for recognition, recall, manipulation and composition.
Finally, the symbols can be added above the icons as learning continues, helping
to attach the iconic understanding to the symbol.
Boardman’s additive method
has been advocated as part of her larger Generative Theory of Music Learning,
and its influence can be seen in the general music series textbooks she helped
author. However, as Costanza and Russell (1992) noted, there is a need to build
a “foundation of research that verifies the effectiveness” (or ineffectiveness)
of Boardman’s approach. It was the authors’ desire to add to such research.
In this pilot study, we were
concerned with finding a useful way to compare the Additive Approach to rhythmic
learning with a more traditional Subdivision Approach with first grade children.
Apart from a few studies (e.g., Shehan, 1987; Palmer, 1974), there has not been
a great deal of study in the area of young children learning to read rhythms
effectively, and most studies comparing different approaches have involved older
students. Costanza and Russell (1992) surveyed research regarding different
learning approaches, and concluded that studies that compared different methods
found no significant differences, although some gain score differences were
noted. The overall conclusion often was that any method, employed effectively
by an enthusiastic teacher, can be effective. While other aspects of rhythm
reading have been explored, a study comparing the Additive Approach with the
Subdivision Approach was not found, nor has the iconic level been explored in
conjunction with learning to read rhythms.
In this section, we have seen that it is
appropriate for first-grade students to be involved in beginning activities with
reading, writing and performing simple rhythms. Teaching can involve rhythmic
speech, songs, and movement. Many approaches involve sound before symbol, and
most take a Subdivision Approach to rhythmic reading. An alternative approach
has been suggested where rhythmic relationships are experienced through an
Additive Approach, including the use of icons. The purpose of this study is to
explore a method of comparing the effectiveness of the Additive Approach and the
Subdivision Approach.
Purpose of the Study
This pilot study compared two approaches,
the Subdivision Approach and Additive Approach, for teaching rhythm reading
skills to first-grade children. Four research questions were explored: 1) Will
within-group pretest and posttest scores indicate that learning took place with
both approaches? 2) Will between-group posttest scores indicate a significant
difference in the scores of the two groups? 3) Based on Research Questions 1
and 2, does it appear that one method may be more effective? 4) Is the research
design effective for exploring the first three research questions? It was hoped
that the answer to the last question will inform further research in this topic.
Subjects
Two intact classes of first-grade
students from the same private school were used as subjects for the study.
There were 28 students in Class 1 (13 girls, 15 boys), and 28 students in Class
2 (12 girls, 16 boys). The students had not received music instruction in
school during Kindergarten other than singing songs with their regular classroom
teachers. The level of music instruction outside of class was not determined.
While the classes were not matched through testing, the school itself tried to
balance the two classes (the only first-grade classes in the school) as far as
academic ability, gender and diversity, so we can assume some parity, although
we cannot demonstrate it.
Method
Through a random process,
Class 1 was assigned to the Additive Approach, and Class 2 was assigned to the
Subdivision Approach. From this point on, the two classes will be referred to
as Additive Approach and Subdivision Approach. The study took place during the
first weeks of school and served as the first music experiences of the year for
these students.
One of the researchers
met with the children a total of 8 times over a 4-week period. In the first and
last meetings, the researcher met with individual students to administer the pre-
and posttests, respectively. In between, the researcher (a former elementary
general music teacher, presently a university elementary general music methods
teacher) taught six lessons to the two classes. The lessons used the same songs,
chants, listening and rhythm reading activities, varying only the approach—subdivision
or additive.
A
10-item pretest was devised (see Figure
1). In 4/4, each item is a 4-beat rhythm. Items 1-6 and 8 are common rhythms
used in first-grade songs and chants using combinations of eighth and quarter
notes. The class activities that followed the pretest included these rhythms.
The researchers also wanted to see what would happen when something more complex
and not presented in class was included. Therefore, items 7, 9 and 10 split the
usually paired eighth-note rhythms with a quarter note, creating syncopated
rhythms, something not usually taught in first grade, and not approached in the
researcher-presented lessons. Item 8 used paired eighth notes again. It was
placed after the first syncopated rhythm to go back to something the children
would likely find easier.

Once the ten rhythms were decided upon, a
version of the pretest was created for each approach using corresponding rhythm
icons. The Subdivision Approach used picture icons for each note, in this case,
a big elephant for a quarter note, and a smaller elephant for each eighth note
(see Figure 2). The use of picture icons for learning to read simple rhythms
was introduced several decades ago in Mary Helen Richards’
Threshold to Music
(1964), and is still employed in some
music series books. For example,
The Music Connection
(Grade 1, Silver-Burdett Ginn, 1995) uses big and little engines, big and little
umbrellas, and big and little clouds to teach simple rhythm reading (pp.
69-70). Share the Music
(Grade 1, McGraw-Hill, 1995) uses big and little shoes (p. 25). Students in the
Subdivision Approach used the picture icon version of the pretest. These same
icons were used in the instruction that followed.

The Additive Approach version of the
pretest was written out using bar icons (see Figure 3). The length of the bar
icons is proportional. The short sound is the basic unit, therefore the
shortest icon (one shortest sound equals one note, or 1:1). The long sound is
equivalent in duration to two shorts sounds (two shortest sounds equals one
note, or 2:1), so the icon is twice as long as the one for the short sound.
Students in the Additive Approach used the bar icon version of the pretest, and
bar icons were used in their music classes.

At the individual pretest
session, each child was asked to say the rhythm syllables and do the hand
movements for each item on the test. After the initial explanation of what to
do for the Subdivision Approach subjects, the examiner said: “Do number 1 for
me. One two read-y go [said in this rhythm to set up the quarter note beat:
].
Do number two. One two read-y go”, and so on. For the Additive Approach
subjects, the examiner said “One and two and read-y go and” (said in this rhythm
to establish the eighth note as the pulse:
)
for each test item.
The same testing procedure was
followed for the posttest as well. The pretest was used as the posttest for the
respective groups with the respective icons.
The students'
performances on the pretest and posttest were videotaped. The first two items on
the tests (#1 - four quarter notes, #2 - eight eighth notes) served as “warm ups”
and were excluded from scoring since they did not include durations of different
lengths. Each of the 8 remaining items (#2-10) was rated for accuracy of
durational relationships on a scale ranging from zero to 3, zero meaning a
student’s performance did not demonstrate correct durational relationships, and
3 meaning that the subject performed the durational relationships without error.
Rhythms 7, 9 and 10 involved syncopated rhythms. Syncopated rhythms were not
taught nor seen in the class sessions
The students' performances on the pretest
and posttest were videotaped. The first two items on the tests (#1 - four
quarter notes, #2 - eight eighth notes) served as “warm ups” and were excluded
from scoring since they did not include durations of different lengths. Each of
the 8 remaining items (#2-10) was rated for accuracy of durational relationships
on a scale ranging from zero to 3, zero meaning a student’s performance did not
demonstrate correct durational relationships, and 3 meaning that the subject
performed the durational relationships without error. Rhythms 7, 9 and 10
involved syncopated rhythms. Syncopated rhythms were not taught nor seen in the
class sessions
The two researchers worked together to
standardize their evaluations using the 4-point judgment scale (0-3), then
independently judged the 56 subjects’ responses to the pre- and posttests. They
met thereafter to identify scoring differences and clarify standards, after
which each judge reviewed scores once more. Once scores were tabulated,
inter-judge reliability was computed, and descriptive statistics were examined.
Since the n
was small, it was decided to use a
t-test
for correlated means (two-tailed test of significance), as recommended by Borg
and Gall (1989). To allay any concerns about the score distributions in the
data, the nonparametric counterpart to the
t-test
was also calculated. If the results of the two tests do not differ
substantially from one another, greater confidence can be given that the more
stringent assumptions of the t-test
have been met. The p
level was set at <.05.
Results
Inter-judge reliability
ranged from .87 to 1.0 (average .91) on the pretest items, and from .92 to 1.0
(average .97) on the posttest items. Overall inter-judge reliability for both
tests was .94.
Table 1 presents descriptive
statistics for the Additive Approach Group. The reader is reminded that the
maximum average score possible is 3.0. Table 2 presents the same data for the
Subdivision Approach group. Average scores were rounded up to the nearest
hundredth. Pre- and posttest information is given first. The next two items
split the 8-item posttest into two parts: the 5 items using only eighth- and
quarter-note rhythms (pre- and posttest item numbers 3-6 and 9; and the three
items that presented syncopated rhythms (items 7, 9 and 10).
Table 1. Average Scores for Additive Approach Group
(maximum possible score = 3.0)
|
|
N |
Minimum Score |
Maximum Score |
Mean |
Standard
Deviation
|
|
Additive Pretest Scores
Additive Posttest Scores
Additive 5-Item Scores
Additive Syncopation Scores |
28
28
28
28 |
.00
.75
.60
.00 |
1.06
2.94
3.00
3.00 |
.20
2.04
2.43
1.36 |
.34
.61
.67
.83 |
Table 2. Average Scores for Subdivision Approach
Group (maximum possible score = 3.0)
|
|
N |
Minimum Ave.
Score |
Maximum Ave.
Score |
Mean |
Standard
Deviation
|
|
Subdivision Pretest Scores Subdivision Posttest Scores
Subdivision 5-Item Scores
Subdiv. Syncopation Scores
|
29
29
29
29 |
.00
.00
.00
.00 |
1.19
2.13
3.00
.67 |
.16
1.18
1.71
.33 |
.32
.69
.96
.27 |
The results of a series of paired-samples t-tests
(two-tailed) are presented in Table 3, and the results of the Wilcoxon Signed
Ranks Test are presented in Table 4. The results of the two statistical tests
are essentially the same: the pretest differences between the groups are not
significant, while the other pairings are statistically significant.
Table 3. t-test results for Additive
Approach and Subdivision Approach
|
|
t |
df |
Significance
(2-tailed) |
|
Add. Pretest – Sub. Pretest
Add. Pretest – Add. Posttest
Sub. Pretest – Sub. Posttest
Add. Posttest – Sub. Posttest
Add. 5-Item Scores – Sub. 5-Item Scores
Add. Syncop. Scores – Sub. Syncop. Scores |
.451
-15.191
-7.767
5.204
3.336
6.205 |
27
27
27
27
27
27 |
.655
.000
.000
.000
.002
.000 |
Table 4. Wilcoxon Signed Ranks Test results for
Additive Approach and Subdivision Approach
|
|
Z
|
Significance
(2-tailed)
|
|
Add. Pretest – Sub. Pretest
Add. Pretest – Add. Posttest
Sub. Pretest – Sub. Posttest
Add. Posttest – Sub. Pretest
Add. 5-Item – Sub. 5-Item Scores
Add. Syncopation Scores – Sub. Syncopation Scores |
-.850
-4.623
-4.320
-3.860
-2.969
-4.182 |
.395
.000
.000
.000
.003
.000 |
Discussion
Although efforts were made by the
school to balance the two classes, as stated earlier, it cannot be assumed that
the two intact first-grade classes are equivalent for the purposes of this
study. The researchers concede that generalization beyond sample cannot be made
with confidence. With that caveat, the research questions will be treated in
order.
Question 1 Will within-group pretest and
posttest scores indicate that learning took place in both approaches?
Converting scores into percentages, the
gain of 23 percentage points from the pretest to the posttest for the
Subdivision Approach was shown to be significant, as was the gain of 61
percentage points for the Additive Approach. The posttest scores for the
non-syncopated items showed that students were able to decipher the rhythms 57%
and 81% of the time respectively. Indeed, it appears that learning did take
place with both approaches.
Question 2
Will between-group posttest scores indicate a significant difference in the
scores of the two groups?
Both the
t-tests
and the Wilcoxon Signed Ranks Test confirmed that there were significant
differences between the scores of the two groups. In every case, the Additive
Approach students scored significantly better than the Subdivision Approach
students. Table 5 presents comparisons of percent correct on the different
aspects of the study for each group.
Table 5. Comparison of Percent Correct for The Two
Approaches
|
|
Pretest |
Posttest |
5
Non-syncopated Items |
Syncopated
Items |
|
Additive Approach
Subdivision Approach |
7%
5% |
68%
39% |
81%
57% |
45%
11% |
The answer to question 2 is that
the posttest scores indeed show that there were significant differences in the
posttest scores of the two groups.
Considering syncopated rhythms are not usually introduced until later grades
(e.g., third grade in some books), the high scores for the syncopated items for
the Additive method is encouraging. The generative aspect of the Additive
Approach referred to by Boardman (1988a, 1988b), which fosters future learning
by giving students the understanding necessary to decode new problems, appears
to be confirmed in this group. It is interesting to note that the combined
posttest score for the Additive Approach is higher than the non-syncopated
posttest score for the Subdivision Approach.
Question 3 Based on Research Questions 1 and 2,
does it appear that one method may be more effective?
Given that we cannot show that
the two groups were equivalent, we can only say that the Additive Approach
appeared quite effective for this group. The Subdivision Approach was also able
to move children forward in rhythmical understanding but not as far as the
Additive Approach.
Since the school tried to balance
the two classes as far as academic ability, gender and diversity, it is possible
that we can assume some parity although we cannot demonstrate it. It may be,
therefore, that the significant differences can be attributed more to the
teaching approach than the differences that may exist in the children. The
teaching experiences themselves may also have had an influence on the
differences in achievement, although every care was taken, as explained earlier,
to use the same concepts, musical materials, and order, varying only the rhythm
syllables and the approach to the beat.
If indeed the Additive Approach was more
successful than the Subdivision Approach, one must wonder why. In some way,
the combination of rhythm bar icons, and the words "long" and "short" in the
Additive Approach were more effective than the combination of different-sized
picture icons, and the words "walk" and "running", in the Subdivision Approach.
Because they were combined in each approach, it is not possible to determine
with certainty whether the icons, syllables or approach to the beat were more
important. However, in agreement with Boardman (1988), it appears that the
rhythm bars were more successful than the picture icons. This may be because
the bars visually represent more accurately the durational relationships of
eighth notes (1:1) and quarter notes (2:1). The big elephants and little
elephants may be less effective because they encode small and large, more than
short and long. In the researchers' experience, children are more likely to
clap the small and large elephants interpreting them to represent soft and loud
on first exposure. Perhaps if the picture icons were the same height, but wider
or narrower, they would be more effective in conveying duration.
Also, the words short and long appeared to be more successful than
walk and running. This was especially true when the eighth note was split into syncopated rhythms
in test items 7, 9 and 10. Students in the Additive Approach scored much higher
on these three rhythms than the Subdivision Approach students. This may be
because each word "short" belonged to one rhythm bar, and, although the students
were exposed to 2 shorts next to each other in every case, each was a complete
word and a single unit, whereas "run-ning," though it has two syllables, is only
a complete word when you put both syllables together. The Additive Approach, by
its nature, views the shortest sound as the basic building block, so when
students encountered the syncopated rhythm, they were able to more successfully
generate a correct response. It may be that an approach that uses addition is
more easily understood because children employ basic addition from a very young
age. Subdivision of the beat involves a more complex mathematical process;
division is not usually explored in depth until the third grade.
The differences between mean scores for
the two groups were sizeable and encouraging. The results show that further
study of the effectiveness of the Additive Approach is merited.
Question 4
Is the research design in this pilot
study effective for exploring the first three research questions?
The major weakness in this
particular study was that the two classes could not be shown to be equivalent
groups. In a future study, a measure of musical aptitude such as
Gordon’s (1982)
Primary Measures of Music Audiation might be employed. In order
to strengthen the effectiveness of the design, a larger sample that can be
randomized should be used. The pretest and posttest design was able to provide
a great deal of data for analysis. In a larger study, ANOVA would provide a
more appropriate measure of statistically significant differences. Paralleling
the teaching experiences in every possible way while employing the Additive
Approach or Subdivision Approach seemed to work well. It would be good for an
outside authority to observe videotapes of lessons for the two approaches to
certify that there were not significant differences in the teaching that caused
differences in the results.
Using the assessment scale of
0-3 seemed to work well with the statistical tests. The calibration of the two
judges and the high interjudge reliability scores indicate that this method was
useful.
Conclusion
The results of this study
indicate that, for this particular set of subjects, the Additive Approach was
more successful than the Subdivision Approach in this rhythm reading task. Of
particular interest was the fact that the Additive Approach prepared students to
more successfully decode and perform syncopated rhythms seen only in the pre-
and posttest. The research approach that was employed appears, with
modification, to be a useful one that may successfully be employed in a larger
project. Although the results of this particular study cannot be generalized to
a larger population, the positive results indicate that further study is
merited.
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