By Margie Meacham
Pythagoras, Greek philosopher and mathematician, is recognized for discovering the relationship between the length of a string on an instrument and the pitch that the string produces. He believed that this correlation was part of a harmonic relationship that connects everything in the universe, which he called “The Music of the Spheres.” While Pythagoras didn’t have the benefit of today’s brain imaging technology, he just may have been right.
Music May Be Our Native Language
Multiple studies in neuroscience and psychology suggest that infants demonstrate an innate ability to respond to music and suggest that, from a processing perspective, “spoken language is a special type of music.” Anthropology suggests that human language and music have a “shared evolutionary history,” demonstrating that as human language evolved, our musical expression evolved along similar lines. This observation originated with Darwin, who suggested that the first humans may have communicated in song, rather than in spoken language as we know it today.
It All Starts With Vibration
Vibration generates waves of high and low compression. Human brains interpret waves that fall between 20 to 20,000 Hz as sound. The vibration, typically carried by the air, enters our ear, eventually stimulates the auditory nerve, which sends a signal to the brain. Here’s where the fun begins: the more generalized sounds that we experience throughout the day are processed primarily in the auditory cortex, where specialized neurons have been tuned to specific frequencies through experience.
But music isn’t just a single sound; it’s a complex weaving of sounds, mixed with rhythm and sometimes language. Using brain imaging technologies, including fMRI and PET scans, neuroscientists have discovered that music engages multiple parts of the brain:
It is this powerful, widespread, and instantaneous effect on multiple parts of the brain that may explain the powerful ways that engaging with music enhances seemingly diverse brain functions. Playing a musical instrument enhances key cognitive functions, including problem solving, memory, planning, attention to detail, and emotional intelligence. Perhaps the best example of how frequent, disciplined playing of music affects these skills is Albert Einstein, who was an accomplished violist and often played his instrument to sort out difficult problems. Listen to just how accomplished he was in this rare recording of him performing.
Our Brains Are Predicting the Next Note.
During our workshop, Essentials of Brain-Based Learning, we investigate the predictive power of the human brain. This predictive capacity is believed to be a key factor in our survival as individuals and as a species. It also is a key part of the learning process and explains why stories are so powerful for engaging learners and changing behavior.
Your brain is constantly performing complex predictive calculations, based on sensory information and memories of experience. This pattern recognition plays out in our ability to read music and convert the written notes into specific movements of our bodies that generate sounds at specific pitches, volumes, durations, and rhythms. Even an untrained brain responds almost immediately to music and begins to predict the next note before it is even played. Watch artist Bobby McFerrin demonstrate how his audience predicts the next note in his performance without prompting.
Applications for Talent Development
As talent development professionals, we need to broaden our view of music and think of it as a core information processing skill, rather than an aesthetic “nice to have” pastime. Engaging with music can help your audience:
Margie Meacham is an adult learning expert with a master of science in learning technologies and more than 15 years of experience in the field. A self-described “scholar-practitioner,” Margie collaborates with like-minded instructional designers to find practical applications of neuroscience to instructional design. You can follow Margie on LinkedIn, Facebook, and Twitter or visit her website at www.learningtogo.info.
Music May Be Our Native Language
Multiple studies in neuroscience and psychology suggest that infants demonstrate an innate ability to respond to music and suggest that, from a processing perspective, “spoken language is a special type of music.” Anthropology suggests that human language and music have a “shared evolutionary history,” demonstrating that as human language evolved, our musical expression evolved along similar lines. This observation originated with Darwin, who suggested that the first humans may have communicated in song, rather than in spoken language as we know it today.
It All Starts With Vibration
Vibration generates waves of high and low compression. Human brains interpret waves that fall between 20 to 20,000 Hz as sound. The vibration, typically carried by the air, enters our ear, eventually stimulates the auditory nerve, which sends a signal to the brain. Here’s where the fun begins: the more generalized sounds that we experience throughout the day are processed primarily in the auditory cortex, where specialized neurons have been tuned to specific frequencies through experience.
But music isn’t just a single sound; it’s a complex weaving of sounds, mixed with rhythm and sometimes language. Using brain imaging technologies, including fMRI and PET scans, neuroscientists have discovered that music engages multiple parts of the brain:
- The motor cortex is involved when we are dancing, playing a music instrument or imagining that we are doing so.
- The prefrontal cortex controls behavior, expression, and decision-making, which are all affected by our response to music.
- The nucleus accumbens and the amygdala generate an emotional response to music.
- The auditory cortex processes sound and complex tones.
- The hippocampus maps musical patterns to memories.
- The visual cortex is involved in reading music, watching music performed, or watching someone dance to music.
- The cerebellum is involved in movement while playing a musical instrument, singing, or dancing.
It is this powerful, widespread, and instantaneous effect on multiple parts of the brain that may explain the powerful ways that engaging with music enhances seemingly diverse brain functions. Playing a musical instrument enhances key cognitive functions, including problem solving, memory, planning, attention to detail, and emotional intelligence. Perhaps the best example of how frequent, disciplined playing of music affects these skills is Albert Einstein, who was an accomplished violist and often played his instrument to sort out difficult problems. Listen to just how accomplished he was in this rare recording of him performing.
Our Brains Are Predicting the Next Note.
During our workshop, Essentials of Brain-Based Learning, we investigate the predictive power of the human brain. This predictive capacity is believed to be a key factor in our survival as individuals and as a species. It also is a key part of the learning process and explains why stories are so powerful for engaging learners and changing behavior.
Your brain is constantly performing complex predictive calculations, based on sensory information and memories of experience. This pattern recognition plays out in our ability to read music and convert the written notes into specific movements of our bodies that generate sounds at specific pitches, volumes, durations, and rhythms. Even an untrained brain responds almost immediately to music and begins to predict the next note before it is even played. Watch artist Bobby McFerrin demonstrate how his audience predicts the next note in his performance without prompting.
Applications for Talent Development
As talent development professionals, we need to broaden our view of music and think of it as a core information processing skill, rather than an aesthetic “nice to have” pastime. Engaging with music can help your audience:
- recognize patterns
- solve problems
- memorize and retrieve information
- communicate effectively with language
- get in touch with their emotions.
Margie Meacham is an adult learning expert with a master of science in learning technologies and more than 15 years of experience in the field. A self-described “scholar-practitioner,” Margie collaborates with like-minded instructional designers to find practical applications of neuroscience to instructional design. You can follow Margie on LinkedIn, Facebook, and Twitter or visit her website at www.learningtogo.info.
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