Showing posts with label Music and the Brain. Show all posts
Showing posts with label Music and the Brain. Show all posts

Eight Benefits of Music Education


1. Early musical training helps develop brain areas involved in language and reasoning. It is thought that brain development continues for many years after birth. Recent studies have clearly indicated that musical training physically develops the part of the left side of the brain known to be involved with processing language, and can actually wire the brain’s circuits in specific ways. Linking familiar songs to new information can also help imprint information on young minds.

2. There is also a causal link between music and spatial intelligence (the ability to perceive the world accurately and to form mental pictures of things). This kind of intelligence, by which one can visualize various elements that should go together, is critical to the sort of thinking necessary for everything from solving advanced mathematics problems to being able to pack a book-bag with everything that will be needed for the day.

3. Students of music learn craftsmanship as they study how details are put together painstakingly and what constitutes good, as opposed to mediocre, work. These standards, when applied to a student’s own work, demand a new level of excellence and require students to stretch their inner resources.

4. In music, a mistake is a mistake; the instrument is in tune or not, the notes are well played or not, the entrance is made or not. It is only by much hard work that a successful performance is possible. Through music study, students learn the value of sustained effort to achieve excellence and the concrete rewards of hard work.

5. Music study enhances teamwork skills and discipline. In order for an orchestra to sound good, all players must work together harmoniously towards a single goal, the performance, and must commit to learning music, attending rehearsals, and practicing.

6. Music provides children with a means of self-expression. Now that there is relative security in the basics of existence, the challenge is to make life meaningful and to reach for a higher stage of development. Everyone needs to be in touch at some time in his life with his core, with what he is and what he feels. Self-esteem is a by-product of this self-expression.

7. Music study develops skills that are necessary in the workplace. It focuses on “doing,” as opposed to observing, and teaches students how to perform, literally, anywhere in the world. Employers are looking for multi-dimensional workers with the sort of flexible and supple intellects that music education helps to create as described above. In the music classroom, students can also learn to better communicate and cooperate with one another.

8. Music performance teaches young people to conquer fear and to take risks. A little anxiety is a good thing, and something that will occur often in life. Dealing with it early and often makes it less of a problem later. Risk-taking is essential if a child is to fully develop his or her potential.



Read more at Luna Guitars

10 reasons why making music is good for your brain

It doesn't matter if you've always played or just started, playing music makes your brain better.



Turns out Mom and Dad were right. Those piano lessons you despised and those endless hours in school band practice truly were good for you. From making you smarter, to diminishing the effects of brain aging, to improving emotional stability, it seems that playing an instrument has a hand in reconfiguring your brain and enhancing it. Permanently. And let's be clear: Just listening to music doesn't cut it. It's the active work of bringing sounds to life that delivers the biggest benefit.

Researchers are still discovering all the ways that making music enriches your brain, but the impact is undeniable. So dust off that old guitar from college. Unpack your grade-school clarinet. Join a neighborhood jam or kick back at home, just you and your favorite instrument. And by all means encourage your kids to play, too. The younger they start, the better . Here are 10 reasons why you'll be glad you did.

1. Enriches connections between the left and right brain

Studies show that music makers have more white matter in their corpus callosum, the bundle of neural wires connecting the brain's two hemispheres. This means greater communication between the brain's creative right side and its analytic left side, which in turn may translate into numerous cerebral benefits, including faster communication within the brain and greater creative problem-solving abilities. However, not all instrumentalists reap these cognitive advantages equally. Both age and amount of play time matter. Research shows that kids who practice more seem to build a greater bridge between the two sides of the brain. Plus, those who start earlier— around age 7 is ideal — benefit more than later starters.

2. Boosts executive brain function

More white matter may be why people with musical training are also better at making decisions, processing and retaining information, and adjusting course based on changing mental demands. That's good news for musicians because these executive brain functions likely contribute more to academic success than IQ. Some researchers even speculate that playing an instrument could prove beneficial in helping kids with neurological problems that involve executive functioning, including ADHD (attention deficit hyperactivity disorder).


3. Strengthens speech processing

It's no surprise that making music helps your brain process musical sounds. But tickling the ivories or strumming guitar strings also aids in processing consonant and vowel sounds in speech. In a new study from Northwestern University, researchers measured brain performance in low-income kids who attended Harmony Project, an after-school music program in Los Angeles. Kids who had two years of music instruction were able to process many more speech sounds — and with greater precision — than those who only had one year of instruction. Researchers speculate that music and speech share common characteristics — pitch, timing and timbre — and that the brain relies on the same neural pathways to process both. Sharper language skills, including reading, may in turn help kids learn better in all subjects, from math to social studies. A case in point is Harmony Project itself: More than 90 percent of its graduates have gone on to college since 2008, while the drop-out rate in the neighborhoods the children come from is 50 percent or higher.

4. Magnifies memory

Related to speech processing, those with musical training are also better at remembering spoken words (verbal memory). A study from Germany recently found that second-graders who spent 45 minutes a week learning a musical instrument recalled more words recited to them than kids who received no musical training or those who spent the same amount of time in science class. Music-making also seems to boost working memory — the ability to temporarily store and use information that helps you reason, learn or complete a complex task.

5. Promotes empathy

Musical training doesn't just upgrade your brain's sound-processing centers; it also lifts its capacity to detect emotions in sound . That is, musicians may be better at reading subtle emotional cues in conversation. In turn, this could equip them for smoother, more emotionally rich relationships. If true, musical training also bodes well for helping kids with emotional-perception problems, such as autism.


6. Slows brain aging

Brain gains made from playing an instrument apparently don't wane as you age either. Studies show that speech-processing and memory benefits extend well into your golden years — even if your musical training stopped after childhood. A new Canadian study found that older people who had musical training when they were young could identify speech 20 percent faster than those with no training. In another study , people aged 60 to 83 who'd studied music for at least 10 years remembered more sensory information, including auditory, visual and tactile data, than those who'd studied for one to nine years. Both groups scored higher than people who'd never learned an instrument.

7. Fosters math and science ability

Musical notes, chords, octaves, rhythm, and meter can all be understood mathematically. So playing music should raise your math game, right? The research is mixed, but there seems to be an underlying correlation between music-making and better math skills. For instance, a recent study found that preschoolers who got keyboard lessons performed better on a test of spatial-temporal reasoning (the ability to mentally envision spatial patterns and understand how they fit together) than kids who got computer instruction or those who didn't participate in either activity. Researchers believe that elevated spatial-temporal reasoning leads to better math and science performance.


8. Improves motor skills

No doubt about it, playing an instrument requires stellar hand-eye-ear coordination (getting hands and fingers to translate musical notes on a page into sound). And for music-makers who start young enough, those heightened musical motor skills seem to translate into other areas of life as well. Researchers in Canada found that adult musicians who started playing before age 7 had better timing on a non-music motor-skill task than those who started music lessons later. What's more, their superior motor abilities actually showed up in their brains. Scans revealed stronger neural connections in motor regions that help with imagining and carrying out physical movements.

9. Elevates mental health

Studies show that fiddlers, saxophonists, keyboardists and other instrumentalists are more focused and less prone to aggression, depression and anger than non-musicians. In fact, creating music seems to prime their brains for heightened emotional control and concentration. In one study, researchers examined brain scans of kids aged 6 to 18. Those who played an instrument had a thicker brain cortex in regions that regulate emotions, anxiety levels, and the capacity to pay attention (meaning they had superior abilities in these areas). Other studies show that making music also relieves stress . In other words, musicians may suffer from fewer stress-related psychological and physical symptoms, including burnout, headaches, high blood pressure and lower immune function.

10. Sharpens self-esteem

Not surprisingly, mental-health gains from musical mastery (and maybe the camaraderie of playing with others) transfers into greater feelings of self-worth. In one study kids who received three years of weekly piano lessons scored higher on a measure of self-esteem than kids who got no musical instruction. And another study found that at-risk kids who participated in a music-performance group at school felt less alienated and more successful.

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Can music make you a better athlete?

Can boosting the volume on your favorite songs improve athletic performance.

Photo by Ryan Edy and Getty Images


Can music improve athletic performance?  Can running faster or working out harder be as simple as boosting the volume on your favorite songs?

Music can be a stimulant or a sedative.  It can enhance mood, improve muscle control and help the brain build key muscle memories. Here’s how:

It uses the whole brain

Listening to music activates several major brain areas at once, his research shows: the parietal lobe, which contains the motor cortex;  the occipital, or visual processing lobe, the brain’s center for  rhythm and coordination; the temporal lobe, which regulates pitch, tone and structure; and the frontal lobe and cerebellum, which regulate emotion.




These brain areas are critical to athletic performance. It is in the temporal lobe that cortisol — a stress hormone — is released. Music helps regulate stress by reducing cortisol levels. The motor cortex, which is located in the parietal lobe, regulates our body’s motor function, which helps determine how straight we throw a football or how well we coordinate our limbs when running, and allows us to fall into our own “rhythm” as we work.

Reyna Gordon, a neuroscientist with the Vanderbilt University Medical Center, says it’s unusual for so many parts of the brain to act in concert.

It helps regulate your emotions

The key is to use music to tap into the brain’s secretion of dopamine and natural opioids — two naturally occurring chemicals that help block our perception of fatigue and pain.

Music can also enhance mood and increase confidence.

Based on research, music can be like a performance-enhancing drug. It’s just that intoxicating.

For example, listening to Beyonce’s “Run the World” might send a positive message to the brain about performance, which might in turn boosts confidence. Conversely, the sad message in Pink’s “Sober” can help curb excess adrenaline and bring our anxiety levels back to neutral, post-workout or competition.

Nathan Keith Schrimsher, a 2016 Olympian competing for team USA in the modern pentathlon competition, listened to “One Day Too Late” during his last competition.

“It just put me into an attitude to not quit and to give everything I have to make my life matter,” he said.

Gordon’s research shows that music can also have a lasting effect on our emotions. When she exposed test subjects to sad music and then showed them a face expressing a certain emotion, the subjects were more likely to assume the face was frowning.

“Our brains want to make sense of the info coming in,” Gordon said. “People are able to recognize emotion in music from very short excerpts.”

It Makes You Want to Move

Rindings show that syncing the tempo of the music to an athlete’s heart rate can have powerful outcomes, such as improved stamina, speed and athletic performance.

Jessica Grahn, a cognitive neuroscientist at Western University in London, Ontario, said the body responds best to steady rhythms. She found that among patients with Parkinson’s Disease, for example, having a steady beat that matches their movements seemed to improve muscle control.

It Helps with Muscle Memory

Finally, listening to songs with lyrics that mimic physical movement can help an athlete’s brain form muscle memories. The Salt n’ Pepper song “Push it”, she said, is the perfect song for those practicing shot put, or any exercise that requires the athlete to physically push something. The brain forms pathways more effectively when it has a song to back up the physical goal.


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10 Positive Benefits Of Listening To Music, According to Science



Why do we live for live music? On the molecular level, research shows that listening to music improves our mental well-being and physical health.

How Music Can Be Used To Influence Different Mood Goals

Enjoyment goes far beyond the present moment, as it directly influences the outcome of our hormones and cognitive functioning. While research has suggested that people who play instruments are smarter, there are also plenty of benefits for the music enthusiasts.

Here is a list of 10 benefits to listening to music:

1. Music Increases Happiness

This might seem obvious, but the natural chemical reasoning is pretty incredible to think about. If you are ever in need of an emotional boost, let it be known that it only takes 15 minutes of listening to your favorite tunes to get a natural high. This is because your brain releases dopamine, a neurotransmitter that leads to increased feelings of happiness, excitement, and joy, when you listen to music you like.

2. Music Improves Performance in Running

If that's what you're into... Scientists found that runners who listened to fast or slow motivational music ran faster than runners who listened to calm music (or ran without any music at all) in an 800-meter dash. The key to enhancing your running performance lies in the choice of music, that being something that inspires you to move forward.

3. Music Decreases Stress, While Increasing Overall Health

Music has a direct effect on our hormones. If you listen to music you enjoy, it decreases levels of the hormone cortisol in your body, counteracting the effects of chronic stress. Stress causes 60% of all illnesses and diseases, so lower levels of stress mean higher chances of overall well-being.

One study even showed that a group of people playing various percussion instruments and singing had boosted immune systems compared to the people who were passively listening; while both groups' health was positively affected by music, the group playing instruments and/or singing had better results.

For maximum benefits on a stressful day, turn on some music and sing along. Don't be shy to break out the air-guitar!

4. Music Improves Sleep

Over 30% of Americans suffer from insomnia. A study showed that listening to classical or relaxing music within an hour of going to bed significantly improves sleep, compared to listening to an audiobook or doing nothing before bed. Since we know music can directly influence our hormones, it only makes sense to throw on some Beethoven (or Dark Side of The Moon?) before bed when in need of a good night's sleep.

5. Music Reduces Depression


Music has a direct effect on our hormones; it can even be considered a natural antidepressant. This is because certain tunes cause the release of serotonin and dopamine (neurotransmitters) in the brain that lead to increased feelings of happiness and well-being. It also releases norepinephrine, which is a hormone that invokes feelings of euphoria.

More than 350 million people suffer from depression around the world, and 90% of them also experience insomnia. The above research also found that symptoms of depression only decreased in the group that listened to classical or relaxing music before going to bed.

Another study demonstrated that certain types of music can be beneficial to patients with depressive symptoms. Interestingly, while classical and relaxing music increased positive moods, techno and heavy metal brought people down even more.

6. Music Helps You Eat Less

According to research, the combination of soft lighting and music leads people to consume less food (and enjoy it more). Music as the next trending diet? Sounds easy enough!

7. Music Elevates Your Mood While Driving

Who isn't guilty of blasting Phish on the highway? A study found that listening to music positively influences your mood while driving, which obviously leads to safer behavior and less road rage. So be sure to turn up the "Reba" jams!

8. Music Strengthens Learning And Memory

Listening to music can also help you learn and recall information more efficiently, researchers say. Though it depends on the degree to which you like the music and whether or not you play an instrument. A study showed that musicians actually learned better with neutral music, but tested better with music that they liked; whereas non-musicians learned better with positive music but tested better with neutral music. Therefore, the degree of performance differentiates between learning and memory for musicians and non-musicians.

9. Music Increases Verbal Intelligence


A study showed that 90% of children between the ages of 4 and 6 had significantly increased verbal intelligence after only a month of taking music lessons, where they learned about rhythm, pitch, melody, and voice. The results suggest that the music training had a "transfer effect" that increased the children's ability to comprehend words, and even more, explain their meaning.

Another study showed similar results in musically trained adult women and children that outperformed a group with no music training on verbal memory tests.

10. Music Raises IQ and Academic Performances

Research suggests that taking music lessons predetermines high academic performance and IQ scores in young children. The study surveyed a group of 6-year-olds who took keyboard or vocal lessons in small groups for 36 weeks. The results showed they had significantly larger increases in IQ and standardized educational test results over that time than children who took other extracurricular activities unrelated to music. The singing group showed the most improvement.

Read more at Live for Live Music

The Scientific Mystery of Why Humans Love Music


From an evolutionary perspective, it makes no sense whatsoever that music makes us feel emotions. Why would our ancestors have cared about music? Despite many who'd argue the contrary, it's not necessary for survival.

"C or C-sharp is very rarely a matter of life and death," says Jean-Julien Aucouturier, a neuroscientist who researches music and emotion at the French Institute of Science in Paris. "Beethoven or Lady Gaga — like them or not — it’s not something you have to scream or run away from."

It's a question that has puzzled scientists for decades: Why does something as abstract as music provoke such consistent emotions?

It's quite possible that our love of music was simply an accident. We originally evolved emotions to help us navigate dangerous worlds (fear) and social situations (joy). And somehow, the tones and beats of musical composition activate similar brain areas.

"It could be the case that it evolved serendipitously, but once it evolved it became really important," Robert Zatorre, a neuroscientist at McGill University, says.

Here are a few theories on how that happened.

Our brains love patterns. Music is a pattern. Coincidence?

Studies have shown that when we listen to music, our brains release dopamine, which in turn makes us happy. In one study published in Nature Neuroscience, led by Zatorre, researchers found that dopamine release is strongest when a piece of music reaches an emotional peak and the listener feels "chills"— the spine-tingling sensation of excitement and awe.

That may explain why we like music. But it doesn't explain why we developed this liking in the first place. Typically, our brains release dopamine during behavior that's essential to survival (sex or eating). This makes sense — it's an adaptation that encourages us to do more of these behaviors. But music is not essential in the same way.

"Music engages the same [reward] system, even though it is not biologically necessary for survival," says Zatorre.

One possibility, he notes, is that it's a function of our love of patterns. Presumably, we evolved to recognize patterns because it's an essential skill for survival. Does a rustling in the trees mean a dangerous animal is about to attack? Does the smell of smoke mean I should run, because a fire may be coming my way?

Music is a pattern. As we listen, we're constantly anticipating what melodies, harmonies, and rhythms may come next. "So if I hear a chord progression — a one chord, a four chord, and a five chord — probably I know that the next chord is going to be another one chord, because that’s prediction," Zatorre says. "It’s based on my past experience."

That's why we typically don't like styles of music we're not familiar with. When we're unfamiliar with a style of music, we don't have a basis to predict its patterns. (Zatorre cites jazz as one music style that many unacquainted have trouble latching onto). When we can't predict musical patterns, we get bored. We learn through our cultures what sounds constitute music. The rest is random noise.

Music fools the brain into thinking it's speech

These explanations may describe why we feel joy from music, but don't explain the whole other range of emotions music can produce.

When we hear a piece of music, its rhythm latches onto us in a process called entrainment. If the music is fast-paced, our heartbeats and breathing patterns will accelerate to match the beat.

That arousal may then be interpreted by our brains as excitement. Research has found that the more pleasant-sounding the music, the greater the level of entrainment.

Another hypothesis is that music latches onto the regions of the brain attuned to speech — which convey all of our emotions.

"It makes sense that our brains are really good at picking up emotions in speech," the French Institute of Science's Aucouturier says. It's essential to understand if those around us are happy, sad, angry, or scared. Much of that information is contained in the tone of a person's speech. Higher-pitched voices sound happier. More warbled voices are scared.

Music may then be an exaggerated version of speech. Just as higher-pitched and speedier voices connote excitement, so do higher-pitched and speedier selections of music.

"The happiest I can make my voice, a piano or violin or trumpet can make it 100 times more happy in a way," Aucouturier says, because those instruments can produce a much wider range of notes than the human voice.

And because we tend to mirror the emotions we hear in others, if the music is mimicking happy speech, then the listener will become happy too.


Read more at Vox.com

Why classical music facilitates brain growth

When we do the scientific breakdown, we have learned that listening to music represents a complex cognitive function inside the human mind, which then induces many neuronal and physiological changes. However, beyond that not much is known specifically about the molecular state of the mind under the effects of listening to music, as well as the molecular effects of music as a whole.

Now, A Finnish study group has come together to explore and discover how classical music affects the expression of gene profiles of both musically experienced and inexperienced participants. All of the participants in the study listened to Mozart’s violin concern Nr 3, G-major, K.216 that lasts approx. 20 minutes.


musicgeometry1Listening to music enhanced the activity of genes involved in dopamine secretion and transport, synaptic function, learning and memory. One of the most up-regulated genes, synuclein-alpha (SNCA) is a known risk gene for Parkinson’s disease that is located in the strongest linkage region of musical aptitude. SNCA is also known to contribute to song learning in songbirds.

The up-regulation of several genes that are known to be responsible for song learning and singing in songbirds suggest a shared evolutionary background of sound perception between vocalizing birds and humans”, says Dr. Irma Järvelä, the leader of the study. - ScienceDaily


This past week in science, researchers discovered the evidence of HGT, which stands for Horizontal Gene Transfer. It described that many of our genes are actually NOT our own in origin, but came from our environment in some way shape and form. Could this mean there is an evolutionary bridge between Songbirds and Humans? Perhaps it was the songbirds song that caused the brain-growth in humans to adapt to ideas of music and song. It’s even possible that music was created by early-man listening to the first songbirds and emulating them! To top this story off, it must be noted that this discovery also came with a bit of a twist.“

"The effect was only detectable in musically experienced participants, suggesting the importance of familiarity and experience in mediating music-induced effects”, researchers remark.

geometry_of_music5How fascinating! At the very core, the effect of mental stimulation only happened with musically experienced participants.

This leads me to believe that when you first listen to new music, you might not experience much of a mental effect at all, because you are still building the mental pathways for you to understand what you’re hearing. The more you listen to it, the clearer and more fuller your listening experience is.

Listening to music is about the bridge between the left brain and the right brain. How deeply you resonate with the music relies on how well you listen to it.



Article source: Science Daily

Source: The Spirit Science




Can music offer the key to treating dementia?



Woody Geist started to show signs of Alzheimers at the age of 67. By the time he was 80, plaques had invaded large areas of his brain. His memory was so limited he could remember little about his life, and nothing about what to do with a tube of toothpaste.

All of which made it all the more remarkable that he could remember the baritone part to almost every song he had ever sung. For more than 40 years, he had been part of a successful 12-man a cappella singing group, the Grunyons. At the age of 80, he couldn't find his way to the stage to give a performance, but once he was up there in front of an audience he was he pitch perfect; and when he sang, he came alive. No one watching was in any doubt that not only could Woody sing the notes, he could also convey the feeling and meaning of the songs.

Woody Geist's story, told by Oliver Sacks in his book Musicophilia, is not an isolated case. In most cases of dementia, regardless of whether or not people have had musical training, they retain their capacity to sing, play, whistle, tap, click, clap, drum and dance long after much of the rest of their cognitive apparatus is deeply compromised. Music is often the very last thing to go, especially the embodied memory of music to which people dance or tap out a rhythm. Music anchors patients, Sacks says, in a way that nothing else can, reconnecting them to that sense of self which is in danger of slipping through their fingers. So it can also connect them to other people from whom they often feel estranged.

This is because music is deeply ingrained in the way our brains have developed. Evolutionary psychologists, neuroscientists and experts in music cognition have not yet come up with an entirely convincing argument as to why human brains are so attuned to music. But a growing body of work, much of it only conducted over the last three decades using new techniques for seeing inside the brain while music is being played, suggests that our brains are fundamentally musical. That is why our capacity to play, enjoy and feel music can outlast the deterioration that dementia and other debilitating conditions bring with them.

Music is so ubiquitous, especially with the advent of MP3 players and music streaming services, that it's easy to take it for granted. We just assume we should be able to hear music and make sense of it, as naturally as we breathe. Yet when we hear a piece of music, whether its Mahler's 5th symphony or Mumford & Sons, our ears and brains are automatically undertaking a heroically complex task.

First, we have to distinguish the music from all the other random sounds that surround us, picking out just those that matter for the music to make sense.

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Music lends itself to sense-making because, as the composer Edgard Varèse said, "music is organised sound". The basic components of that organisation are loudness, pitch, rhythm, tempo, melody, harmony and timbre. The octave creates a structure from which much else flows. As our ears take in these different aspects of the sound, the task of processing them is farmed out to different parts of the brain to work in parallel. Perceiving pitch, for example, involves separating the pitch streams coming from different voices and instruments. A sense of harmony is needed to find the fundamental pitch of several notes. Then we need to link all the pitches together in time to create a coherent melody, synthesising and reintegrating it in real time, while also relating that to what has just gone before and forming an expectation of what will come next. When we are listening to music we are sketching out a sense of the future.

Several aspects of the way the brain processes music are special. Compare music, for example, with how we see light and colour. Isaac Newton was the first to point out that light has no colour. The colours we see are put together in our brains as they interpret the oscillation of light waves that hit our retinas. What we perceive as colour is not made up of colour: when we see red nothing red enters our brains from the outside world.

Not so with music, as neuroscientist Daniel Levitin explains in his paean to the power of music, This is Your Brain on Music: "If I put electrodes in your visual cortex [the part of the brain at the back of your head concerned with seeing], and I then showed you a red tomato, there is no group of neurons that will cause my electrodes to turn red. But if I put electrodes in your auditory cortex and play a pure tone in your ears at 440Hz, there are neurons in your auditory cortex that will fire at precisely that frequency, causing the electrode to emit electrical activity at 440Hz." In other words, what goes into our ears comes out of our brains at the same frequency.

The brain is divided into two hemispheres that are broadly specialised into different tasks. The busy, analytical, calculating and instrumental left hemisphere isolates, focuses and plans action; the open, metaphorical and interpretive right side of the brain is how we feel for the world and become part of the flow of experiences around us. Creativity is often associated with the right side of the brain; rational, calculated action with the left. Special musical ability is often associated with a larger right hemisphere.

Music does not follow this division. It is structured and systematic. It can be understood almost as a set of formal mathematical equations of tones, frequencies, oscillations and tempos, which can be measured: this is classic, analytical left brain territory. Yet music is also free-flowing, moving, expressive and emotional, open to endless ambiguity and interpretation. Professor and polymath Raymond Tallis has argued that music relies on the regular repetition of a few common ingredients combined with endless deviation and variation, creating a highly structured kind of freedom. Professor Isabelle Peretz and her team of neuropsychologists at the University of Montreal have found that the brain's two hemispheres are closely entwined in making sense of music: the right finds the global pattern of pitch contour which provides a melody's shape; while the left busily works away calculating the detailed steps involved. One remarkable feature of musicians' brains may be an unusually high degree of integration and interplay between the hemispheres.

As science writer Philip Ball argues in The Music Instinct, music is unlike language: it has no dedicated mental circuitry localised in a few areas. Making sense of music is a whole-brain activity: "No other activity seems to use so many parts of the brain at once, nor to promote their integration." When the brain is listening to music it engages the motor centres that govern movement; the primal emotion centres that govern feeling; the language modules that process syntax and semantics; and the cerebellum that helps to keep time. One of the reasons we are so drawn to music is that it is perfectly designed to allow us to make the fullest possible use of our brains.

The fact that the brain seems to have developed with and through musical activity helps to explain why music has such significance for people with dementia who steadily lose so much of what we count as normal mental capacity. It is because of the way music engages our memories, emotions and bodies that our appreciation of it is the last thing to go as dementia takes hold.

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Without memory there could be no music. Music engages our memory more fully and powerfully than almost any other experience. Any act of listening to music is simultaneously an act of remembering: we make sense of music by framing it in the context of what we have already heard. As the American composer Aaron Copland said: "It is insufficient merely to hear music in terms of the separate moments at which it exists. You must be able to relate what you hear at any given moment to what has just happened before and what is about to come afterwards." Philip Ball puts it this way: "When we listen to a melody unfold we hear each note in the light of many remembered things: what the previous note was, whether the melodic contour is going up or down, whether we've heard this phrase (or one like it) before in the piece, whether it seems like a response to that phrase or a completely new idea. We remember the key and are thus alert for signs that it is changing. We remember this is, say, the symphony's second movement. We may even be recalling some of the composer's other works, or those of another composer or performer."

Thanks to our amazing musical memories, we can recognise a piece of music despite hearing only the smallest of snippets. Glenn Schellenberg, a cognitive scientist at the University of Toronto, played people excerpts from Top 40 songs lasting no more than a second. Respondents were then given a list of songs and asked to match them to the music. Working with just the timbre of the music – the kind of sound it made – most of them could match most of the songs.

We can even recognise a piece when it has been transposed into a different key and tempo, which is how we can identify I Heard It Through the Grapevine as the same song whether it's sung by Marvin Gaye, Gladys Knight, the Kaiser Chiefs, the Slits or the Flying Pickets. As we listen to music we are constantly relating what we hear to a vast store of musical memories which we can conjure almost at will, replaying music in our minds almost as effectively as hearing it. (Sometimes, annoyingly, we find we cannot get rid of songs known as earworms that our brains seem determined to replay despite our not really wanting them to.)

Given the feats of memory required by listening to music, it should perhaps be no surprise that music should unlock such powerful memories for people with dementia, giving people access to moods, thoughts and associations long thought to have disappeared. One explanation, given at last year’s Musical Brain Conference in London by Professor Jessica Grahn of Western University in Ontario, is that musical memory is largely procedural and uses different areas of the brain from those we use to recall knowledge and events: the kinds of memories that slip away with Alzheimers.

But music is also memorable because we are better able to recall experiences freighted with emotion. Not only is there no music without memory, but thanks to music's emotional charge, long-dormant memories can be reactivated, as Daniel Levitin explains: "As soon as we hear a song that we haven't heard since a particular time in our lives, the floodgates of memory open and we are immersed in memories. The song acts as a unique cue, a key to unlocking all the experiences associated with the memory for the song, its time and place."

The link between music and memory lies in the amygdala, the seat of emotion which sits close to the hippocampus, where memories are stored and retrieved. The amygdala is closely involved in coding memories with emotional power. Levitin's experiments show that when music is playing, the amygdala is working constantly in a way that it doesn't when it's just listening to random collections of sounds. Music is good for our memories because it has a powerful impact on our feelings.

The psychologist Caroll C Pratt, writing in 1931, tried to describe how music achieved this when he said: "Music sounds like the way emotions feel." No one who has found themselves mentally skipping along after a few bars of Pharrell Williams's Happy needs to be told that music can lift our moods: it can make us ecstatic, excited, celebratory and giddy. But music can also still us, make us reflect and wonder, feel sad and sombre, unsettled and thoughtful, even reduce us to tears, in a way that no other art form does on a regular basis. People who get a lump in the throat listening to Mahler or John Martyn do not generally dissolve in tears at the National Gallery. Music is the art form most likely to make us cry, according to Michael Trimble, emeritus professor of behavioural neurology at University College London. In Why Humans Like to Cry: Tragedy, Evolution and the Brain, he says that our capacity to cry out of empathy, sympathy and emotion, rather than out of pain, is essential to our being human: "Music captures the emotions, destroys composure and binds listeners in communal rapture," he says, more effectively than any other form of art.

Music seems to reflect the ups and downs of our emotional lives in the abstract because it is usually not about anything in particular, as the philosopher Roger Scruton argues in Understanding Music: Philosophy and Interpretation. Music is about itself, Scruton argues, its meaning is not tethered to a thing in the world and so it becomes boundless. We find music emotional because of the way is swells and contracts, retreats and advances, pauses in mid-air before plummeting away from us, twisting and turning like a rollercoaster. Often it can seem to become complex and almost cacophonous before resolving into culminating harmony and closure.

A good deal of that emotional charge comes from the way composers manage to engage our expectations, drawing us in with a regularity and rhythm, only to confound and surprise us. Since Leonard Meyer's 1956 book Emotion and the Meaning of Music, much of the modern study of how music engages and releases emotions has focused on how a piece builds up a sense of anticipation of what is to come, which is in turn delayed or deferred before finally being resolved. As a result, our brains need not just to be alert, but open to the unexpected. Good music is never utterly predictable. It leads us astray and we trust it to do so; we have to give ourselves over to it. Or to put it another way, we play music and then the music plays with us. In Music and the Mind, psychoanalyst Anthony Storr described this journey of contrasts and even conflicts, of hopes raised, dashed and then revived. "We cannot hear musical movement without seeking points of stability and closure, points to which the movement is tending or from which it is diverging and to which it might at some point come home."

Experts in musical cognition are currently unpicking some of the underlying neural interplay involved in this process. Thomas Eerola, professor of musical cognition at Durham University, has built a computer that "gives you a very rough estimation of the arousing qualities of music on the vertical axis, and the continuum between negative and positive on the horizontal axis.” Eerola told the Musical Brain symposium. “So for anger you would need high dynamics, lots of dissonance, an ambiguous key, pulse clarity, spectral spread. Or if you want scary music it would have very high dynamics, very sharp attacks, hugely ambiguous key and high register." Eerola acknowledges his simple model fails to cope with the complex range of feelings conjured up by listening to Shostakovitch or Mahler.

Neuroscientist Robert Zatorre, at McGill University in Montreal, is using advanced brain imaging techniques to understand the neural pathways involved in generating these emotions. Zatorre’s research has found that the amygdala, which controls emotional rewards, is activated by uplifting music, while those brain regions associated with negative emotions, like fear and anxiety, are deactivated. Moreover, music is designed to elicit strong emotions in us without committing us to do anything about it. We can fear but do not have to flee; we can feel brave and bold but not actually fight; we can feel warm and romantic without making love to the person next to us. A bit like dreaming, music allows the brain to work through a whole range of feelings almost as a form of simulation.

For people with dementia, the emotional charge of music has an added attraction. When people start losing track of their memory of facts, events and names, it can often feel as if life becomes a long series of anxiety-inducing tests, which they fear they are increasingly doomed to fail. By comparison, listening to music is a largely stress-free activity, open to many interpretations. There is no right and wrong emotional reaction to a piece of music. Someone with dementia might not be able to follow the thread of a Shakespeare play; but they can be as moved by listening to a choir singing Palestrina as anyone.

Our feeling for music of course is not just in our heads; it's in the way our brains work with our bodies. Our capacity to keep the beat and to predict the rhythmic flow of music comes from our cerebellum, popularly known as the 'reptilian brain' because it is the oldest part of the human brain and we share it with other species. The cerebellum helps to track the movement of, say, a walking animal; and it also helps us keep track of the beat of a song. Recently, a team of neurologists led by Jeremy Schmahmann at Harvard, used autopsies, neuroimaging and studies of other species to find that the cerebellum – which accounts for up to 80 per cent of the brain's neurons but only 10 per cent of its weight – is closely connected to the emotional centre, the amygdala. Music creates a virtuous circle between how we feel, how we remember and how we move. That is why music is so powerful for people with dementia.

Dementia often isolates people, leaving them feeling trapped in their own world, often going over the same ground, not quite able to remember what they have already done. Music's power to connect and bind, and to create shared experiences, is especially powerful for people who find it hard to communicate in other ways, through language and writing.

Oliver Sacks saw this first hand in the work of music therapists at the Beth Abraham hospital: "It is astonishing to see mute, isolated, confused individuals warm to music, recognise it as familiar, and start to sing, start to bond with a therapist. It is even more astonishing to see a dozen deeply demented people – all in worlds or non-worlds of their own, seemingly incapable of any coherent reactions, let alone interactions – and how they respond to a music therapist who begins to play music in front of them." Sacks saw torpid patients become alert and aware; agitated people grow calmer; the frozen ones begin to move; the silent ones break into song. Many of them started to cry and others to dance.

The bonding properties of song become even more powerful when people dance. "Rhythm can restore… a primal sense of movement and life," says Sacks. It has an impact on mood, behaviour and even cognitive performance, which often lasts long after the music has stopped.

As our society ages and more people succumb to forms of dementia, one of the most effective responses will be to connect with them through music.. Ageing societies facing widescale dementia should be investing heavily in mass music making, to make it normal for people of all generations and states of awareness to make music together as they do in pre-industrial societies. So we might need to go backwards to innovate, recovering older traditions of folk and communal music-making; and to become less embarrassed by playing music with one another, no matter how bad we think we are.

The transformative effects of music therapy need to be more widely recognised, not just for coping with dementia but in response to all kinds of trauma, according to Ian Ritchie, artistic director of the Musical Brain conference. Music and movement classes, currently mainly designed for the under-threes, should also be widely available for the over-65s. Drumming groups and steel bands made up of older people should be popping up all over the country, along with choirs, dance troupes, discos, tea dances and grey raves.

We will also need to get over a lot of snobbery and performance anxiety associated with music, which deters people from having a go, even if they can only play two notes on the trombone.

One of the many letters Oliver Sacks received describing the transformative impact of music on people with dementia came from Kathryn Koubek, recounting the experience of her father then in his late nineties: "His talk became disconnected; his thoughts strayed; his memory was fragmented and confused. I made a modest investment in a portable CD player. When the talk became distracted I would simply put in a beloved piece of classical music, press the play button and watch the transformation. My father's world became logical and it became clear. He could follow every note… There was no confusion here, no missteps, no getting lost and, most amazing, no forgetting. This was familiar territory. This was home, more than all the homes he had ever lived in."

For people with dementia, music may provide the last place where they feel alive, cherished, safe and themselves: utterly lost in, and at home in, music.




Reposted from The Long and Short of It



The Surprising Science Behind What Music Does To Our Brains

Whether you are powering through your to-do list or brainstorming creative ideas, here is how the tunes you are playing affect how your brain works. Music affects many different areas of the brain, as you can see in the image below.

Happy/sad music affects how we see neutral faces:

We can usually pick if a piece of music is particularly happy or sad, but this isn’t just a subjective idea that comes from how it makes us feel. In fact, our brains actually respond differently to happy and sad music.

Even short pieces of happy or sad music can affect us. One study showed that after hearing a short piece of music, participants were more likely to interpret a neutral expression as happy or sad, to match the tone of the music they heard. This also happened with other facial expressions, but was most notable for those that were close to neutral.

Something else that’s really interesting about how our emotions are affected by music is that there are two kind of emotions related to music: perceived emotions and felt emotions.

This means that sometimes we can understand the emotions of a piece of music without actually feeling them, which explains why some of us find listening to sad music enjoyable, rather than depressing.

Unlike in real life situations, we don’t feel any real threat or danger when listening to music, so we can perceive the related emotions without truly feeling them—almost like vicarious emotions.


Ambient noise can improve creativity

We all like to pump up the tunes when we’re powering through our to-do lists, right? But when it comes to creative work, loud music may not be the best option.

It turns out that a moderate noise level is the sweet spot for creativity. Even more than low noise levels, ambient noise apparently gets our creative juices flowing, and doesn’t put us off the way high levels of noise do.

The way this works is that moderate noise levels increase processing difficulty which promotes abstract processing, leading to higher creativity. In other words, when we struggle (just enough) to process things as we normally would, we resort to more creative approaches.

In high noise levels, however, our creative thinking is impaired because we’re overwhelmed and struggle to process information efficiently.

This is very similar to how temperature and lighting can affect our productivity, where paradoxically a slightly more crowded place can be beneficial.

Read more at Fast Company


4 Unusual Ways Music Can Tune Up the Brain



By Bahar Gholipour

Music shapes the brain in many ways — it can alter brain structures in musicians, and enhance cognitive skills in children and adults alike, research shows. Still, scientists are continuing to learn much about the way the brain responds to music.

Here is a look at four ways that music is known to affect the brain.

Unearthing patients' lost memories

Music has the power to bring back memories, leading some researchers to say that music could be used as a treatment for people with memory problems.

In one recent study, researchers found that music could bring back old-age memories in people who had memory problems after sustaining traumatic brain injuries (TBI).

In fact, the musical treatment, which involved playing hit songs from different periods in people's lives, was better than an interview at eliciting past memories, according to the study published in the journal Neuropsychological Rehabilitation in 2013.

Other investigations have found that for people with severe memory problems as a result of Alzheimer's disease or dementia, music can affect the memory when nothing else does. The effect can sometimes be so great that experts have likened it to "awakening" a patient who has been unconscious.

Sharpening emotion-detecting skills


Musical training may turn people into better emotion detectors, some studies have suggested.

In one study published in the European Journal of Neuroscience in 2009, 30 participants watched a subtitled nature film while listening to a very short, almost undetectable clip of a baby's cry. The researchers looked at the brain's electrical waves to measure how sensitive the people were to the sound, and whether their brain's emotional circuits were evoked.

The researchers found that the musicians' brains responded more quickly and accurately than the brains of non-musicians, suggesting the musicians may be better at perceiving emotions even when music isn't being played, the researchers said.

Blocking out the noise

The aging brain normally becomes less and less capable of blocking out background noise, but people with musical training may be better than others at hearing and understanding sounds in a noisy environment as they age.

In a study published in the Journal of Neuroscience in 2013, researchers found that even people who took music lessons only in childhood still showed some long-lasting brain effects when it comes to detecting sounds amid a noisy background.

Noteworthy: Learning language through singing

It might help to practice a new language you're trying to learn by singing the words in the shower. Scientists recently found that when learning a new language, singing the phrases can help people learn the language better, compared with simply reading those phrases.

In the study published in the journal Memory & Cognition in 2014, researchers asked 60 adults to listen and repeat phrases in Hungarian, a language entirely foreign to the participants. Some of the participants were asked to simply repeat the phrases, some were told to repeat the phrases rhythmically, and the rest were asked to repeat the phrases by singing them.

The results showed that the participants who sang did significantly better than others in a series of Hungarian language tests.

Reposted From Live Science



Music Changes the Way You Think



Hum the first two notes of “The Simpsons” theme song. (If you’re not a Simpsons fan, “Maria” from West Side Story will also do.) The musical interval you’re hearing—the pitch gap between the notes—is known as a “tritone,” and it’s commonly recognized in music theory as one of the most dissonant intervals, so much so that composers and theorists in the 18th century dubbed it diabolus in musica (“devil in music”).

Now hum the first few notes of Twinkle Twinkle Little Star, or, if you prefer something with a little more street cred, the “I’m sorry” part in Outkast’s “Ms. Jackson.” This is the “perfect fifth.” It’s one of the most consonant intervals, used in myriad compositions as a vehicle of resolution and harmony.

Is it possible that hearing such isolated musical components can change the way you think? An ambitious new paper recently published by Jochim Hansen and Johann Melzner in the Journal of Experimental Social Psychology argues precisely that. The researchers brought pedestrians into a laboratory and played them a short, stripped-down piece of music consisting of a series of alternating chords. Some people heard chords including the tritone; others the perfect fifth. A couple other tweaks were also made: in the tritone condition, the chords were played slowly—only once every four-beat measure—while in the perfect fifth condition, the chords went by rapidly, sounding every beat. Further, a “reverberation” effect was added such that the tritone chords sounded like they were being played in a cavernous cave and the perfect fifth chords in a carpeted closet.

What the scientists found is that the simple act listening to either of these two chord sets changed how people processed information in a very basic way. For example, the researchers asked people to take a list of shopping items and organize them into groups. Think detergent and paper towels: same kind of thing, or different? Results showed that “tritone” people formed fewer categories than “perfect fifth” people, indicating that they were thinking in broader, more inclusive categories than their counterparts.

In a separate measure, the scientists asked people to imagine buying one of two imaginary toasters. These toasters varied in what is known as “aggregated” versus “individualized” information. Do you know how on Amazon.com you can learn the average star rating of a given item? This is aggregated information; it’s pooled from a wide range of sources. Individualized information, by contrast, would be the customer reviews that appear at the bottom of the page. Which do you pay more attention to when these give conflicting messages—when, say, the aggregated information is largely negative but there is a single glowing customer review? Turns out that people who are exposed to “tritone”-type music samples are more likely to be swayed by aggregated information, and “fifth” people by the reverse.

Underlying these seemingly disparate questions is a relatively new theory in social psychology that has shown itself capable of explaining an impressive variety of human behaviors. It’s known as construal level theory, and its core premise is that there’s a link between how far things are from people and how abstractly they construe them. Distant things—a Hawaii vacation next year, say—appear to us general and decontextualized, their basic features (the beach, the sun) forefront in our minds. As they draw near, however, elements we never before considered (the packing, the possibility of rain) suddenly demand our attention. The forest, in other words, becomes the trees. Overall, the theory helps explain many seemingly disparate phenomena, like why we’re bad at predicting how long it’ll take us to fix the kitchen sink, why absence makes the heart grow fonder, and why we rarely follow through on New Years resolutions. In all these cases, what seemed a certain way from afar turns out, up close, to be a different beast entirely.

How does all this relate to repeating chord patterns? What the researchers have done, cleverly, is consider music’s ability to conjure up highly specific mental states. Tiny, almost immeasurable features in a piece of music have the power to elicit deeply personal and specific patterns of thought and emotion in human listeners. (One need only listen to Astrud Gilberto’s Grammy-winning performance of the Girl from Ipanema to re-appreciate music’s ability to capture strange and mysterious moods.) Hansen and Melzner have exploited this fact to provoke in listeners thought patterns corresponding to precisely those mapped by construal level theory.

Ponderous, resonant, unfamiliar tonalities—the proverbial “auditory forest”—cause people to construe things abstractly. By contrast, the rapid, consonant, familiar chords of the perfect fifth—the “auditory trees”—bring out the concrete mindset. The groups of shopping items, the reviews of toasters—these correspond to measures of abstractness that have been developed in experimental psychology. When you group a shopping list into only a few categories, it suggests that you are considering the list abstractly, clustering items according to a common core. And heeding aggregated (versus individualized) information implies the same: you’re seeing the forest rather than being swayed by a single tree.

That music can move us is no surprise; it’s the point of the art form, after all. What’s new here is the manner in which the researchers have quantified in fine-grained detail the cognitive ramifications of unpacked melodic compounds. This investigation of music’s building blocks may be more relevant than you suppose. Nowadays, experts in the production room can hone a track—the timbre, tone, rhythm, phrasing—with digital precision. These songwriters and producers are the true geniuses behind the success of popular music today, and they seem to have an intuitive grasp of the phenomena underlying the findings of this psychology article. An extra breath-sound here, a pitch adjustment there—these additives pepper the songs we hear on the radio. So the next time you hear a piece of music from the Billboard Top 40, it may be interesting to wonder, how many components were manipulated just so, in order to change the way I think?




Reposted form Scientific American

Daniel Yudkin is a doctoral candidate in social psychology at New York University and a jazz pianist. He graduated from Williams College, was a Fellow at Harvard University, and once attempted an eleven-country European busking tour funded entirely by street-coins. More here.

Yaacov Trope is a Professor of Psychology at New York University. He received his
Ph.D. from the University of Michigan and is a member of the American Association
for Arts and Sciences. He has edited several books, including Dual-Process Theories
in Social Psychology (1998), Self Control in Society, Mind, and Brain (2010), and Dual-Process Theories of the Social Mind (2014). His general areas of interest are social cognition, motivation, and self-control.