I like to
consider myself a pretty skilled musician. I love all sorts of genres of music,
from electronic to classical to disco. I am very passionate about the power of
music, and the experiences that can come from expressing yourself through music
and dance. I am a pianist, and I DJ for fun. I’ve read before that because
musical training requires a very unique style of learning and a particular
focus, musicians tend to be more intelligent. According to research done by Dr.
Dye, musicians seem to perform better in social situations as well. Dr. Dye is
a researcher who has done a lot of work involving music and neurology, and how
the musician’s brain works differently, and may I even suggest, better, than
non-musicians. He came to Loyola University Chicago a few weeks ago and talked
to us about his research. His presentation inspired me to look more into the
relationship between music/musical training and cognitive development.
Christian Gaser
addressed exactly how the brains of musicians and non-musicians differ in his article
aptly named “Brain Structures Differ between Musicians and Non-Musicians.” In
this experiment, musician status was weighed into 3 different categories,
professional musician, amateur musician, and non-musicians. Gaser found that
there was a significant positive correlation between musical experience and gray
matter volume in a number of areas of the brain, including the primary motor
area, somatosensory area, premotor areas, anterior superior parietal areas, and
in the inferior temporal gyrus bilaterally. In order words, the positive
correlation means that gray matter was highest amongst professional musicians,
moderate in ameatuers, and lowest in non-musicians. The left cerebellum in
professional musicians was also more developed and more gray matter was seen
there. It is important to note that the study actually did not find any area
that had less gray matter or was less developed in relation to musician status.
The study also discussed how each of these areas are used in certain musical
tasks which helped explain why more gray matter was seen in those areas. For
example, the superior parietal region is responsible for processing auditory,
visual, and somatosensory stimuli in order to guide the motor cortex. So
because musicians require such fine-tuned hand-eye coordination in order to
read and interpret sheet music and then play it on their instrument, this part
of their brain is much more developed. This is especially important during
musical tasks like sight reading where a musician is expected to be able to
instantly recognize, understand, and play sheet music. Understanding music in
such a way can be simply translated to non-musicians by comparing sheet music
to a set of instructions that must be closely followed, quickly and accurately.
Years and years of practicing this sort of fast reaction to get your body to
respond physically to a visual stimulus further explains why musicians’ brains
differ drastically from non-musicians. In other words, musicians ask their
brains to work with information and translate it to another part of their brain
so much that the connections between those areas are used much more than in a
non-musician’s brain. Finding this information led me to ask, what exactly
makes a musician? How do they develop their talents and affluence for music?
An article by
Bret Stetka explains that affluence for music actually is present within your
genome. And despite how vigorously you may practice your instrument,
“greatness,” or finding immense success in your musical talents and pursuits,
is influenced by whether or not musical greatness is in your genes. There are
certain traits that attribute to musical aptitude, musical enjoyment, and
motivation, and, if present, has the potential to positively affect someone’s
musical ability. It was found that the people who had the genetic contributions
to their musical ability were also more likely to regularly practice their
instrument, which also happened to mean that those people would see more
efficient progress in their abilities than those who didn’t have the genetic
contributions. It is not as simple to say that anyone with those genetic
markers is a better musician, but I found it very interesting that genetics
played a significant role in potential success with music.
Gaser,
Christian. "Brain Structures Differ between Musicians and
Non-Musicians." Journal of Neuroscience, 4 Sept. 2013. Web. Feb. 2017.
<http://www.jneurosci.org/content/23/27/9240>.
Stetka, Bret.
"What Do Great Musicians Have in Common? DNA." Scientific American,
01 Aug. 2014. Web. Feb. 2017.
<https://www.scientificamerican.com/article/what-do-great-musicians-have-in-common-dna/>.
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