Piano and Computer Training Boost Student Math Achievement,
UC Irvine Study Shows
Second-Graders in
Study Scored Higher than Others on Fractions and Proportional
Math
Taking piano lessons and solving math puzzles on a computer
significantly improves specific math skills of elementary
school children, according to a study by University of
California, Irvine researchers. The results of the study,
published in the March 1999 issue of the journal Neurological
Research, are the latest in a series that link musical
training to the development of higher brain functions,
said UCI physics professor emeritus Gordon Shaw, who led
the study.
Researchers worked with 135 second-grade students at
the 95th Street School in Los Angeles after
conducting a pilot study with 102 Orange County students.
Children given four months of piano keyboard training,
as well as time playing with newly designed computer software,
scored 27 percent higher on proportional math and fractions
tests than other children. The study was funded through
grants from the Texaco Foundation, The Gerard Family Trust
and Newport Beach philanthropist Marjorie Rawlins.
"Piano instruction is thought to enhance the brains
'hard-wiring' for spatial-temporal reasoning, or the ability
to visualize and transform objects in space and time,"
Shaw said. Music involves ratios, fractions, proportions
and thinking in space and time. At the same time, the
computer game called Spatial-Temporal Animation
Reasoning (STAR) allows children to solve geometric
and math puzzles that boost their ability to manipulate
shapes in their minds.
"Children who took piano lessons and played with
the math software performed better on tests of fractions
and proportional math than children who took English language
instruction on the computer and played with the math software,
and better than those who had neither piano lessons nor
experience with the math software," Shaw said. Puzzles
in the STAR game allow children to apply the type of mental
acuity that appears to be heightened by piano practice.
The findings are significant because a grasp of proportional
math and fractions is a prerequisite to math at higher
levels, and children who do not master these areas of
math cannot understand more advanced math critical to
high-tech fields.
"Proportional math is usually introduced during
the sixth grade, and has proved to be enormously difficult
to teach to most children using the usual language
analytic methods," Shaw said. "Not only is proportional
math crucial for all college-level science, but it is
the first academic hurdle that requires the children to
grasp underlying concepts before they can master the material.
Rote learning simply does not work."
"Students who used the software and played the piano
also demonstrated a heightened ability to think ahead,"
Shaw said. "They were able to leap ahead several
steps on problems in their heads," he noted. These
findings offer not only new insight into the theory of
mental development, but also a potentially powerful teaching
tool, capable of stimulating second-grade children to
master critical sixth-grade reasoning concepts. The piano
teaching and software helped children regardless of income
level, boosting achievement of students in low socioeconomic
settings.
The study is only the latest in a series linking musical
training to the learning process. Prior UCI studies based
on a mathematical model of the cortex predicted that early
music training would enhance spatial-temporal reasoning,
and a 1997 study indicated that preschool children given
six months of piano keyboard lessons improved dramatically
on such reasoning.
Research participants included Amy Graziano, a postdoctoral
researcher in UCIs Department of Physics and Astronomy
who designed and coordinated the project, and Matthew
Peterson, a former student of Shaw's who is now a doctoral
student in the Department of Vision Science at UC Berkeley.
Shaw and Peterson administered the program through their
non-profit Music Intelligence Neural Development (MIND)
Institute in Irvine, and Peterson designed the STAR software.
Graziano and Shaw are both part of the UCI Center for
the Neurobiology of Learning and Memory, an internationally
known institute dedicated exclusively to the multidisciplinary
investigation of how the brain processes information and
makes and stores memories.
The researchers planned to expand the study to six schools
in the fall of 1999 to demonstrate its effectiveness in
a variety of settings, and sought educators in Los Angeles,
Orange, Riverside and San Diego counties who were interested
in participating and could furnish a music teacher and
computers. They also developed new written math tests
with Michael Martinez, UCI associate professor of education,
and prepared materials to integrate piano training and
the STAR software into the standard second-grade math
curriculum. They eventually would like to apply the findings
to the K-12 math and science curriculum, as well.
Shaw also has written a book on the science of music
and the brain. "Music Enhances Learning: Keeping
Mozart in Mind" (Academic Press) was released in
May 1999. Shaw is known for his 1993 research that showed
college students scored higher on spatial-temporal reasoning
tests after listening to a Mozart piano sonata. Dubbed
the "Mozart Effect" by media, the phenomenon
prompted further interest in research to explore the relationship
between music, intelligence and learning.
For more information on the UCI Center for the Neurobiology
of Learning and Memory, see www.cnlm.uci.edu. For
more information on the MIND Institute's research, see
www.mindinst.org.
Copies of the published Neurological Research article,
entitled "Enhanced Learning of Proportional Math
Through Music Training and Spatial-Temporal Training"
(Forefront Publishing, © 1999), may be obtained by
contacting Mary Rawlins at Forefront Publishing Group,
5 River Road, Suite 113, Wilton, CT 06897. Phone: (203)
834-0631 / Fax: (203) 834-0940).
A complete archive of press releases from the University
of California, Irvine, is available on the Web at http://www.communications.uci.edu/~inform/