Tag Archives: performance

Exercise musicology

There are many tools, or ergogenic aids, athletes use to improve exercise performance. These include nutrients like protein and carbohydrates, drugs like caffeine, steroids, and techniques like blood doping. Some of these performance-enhancing substances are illegal or banned, so ergogenic aids often have a negative image. Furthermore, many only work for highly trained athletes.

But there is one ergogenic aid that has been shown to enhance performance in everyone. In fact, there is a good chance you use it when you exercise. That ergogenic aid is music. This is the topic of my Health & Fitness column in the Aiken Standard this week.

Exercise music

Music is a psychological ergogenic aid is known to affect mood, emotion, and cognition. More and more research also shows that music can also enhance exercise performance. In most gyms, there is music playing in the background and many people listening to music using headphones while they exercise. A practical reason, of course, is that listening to music makes the exercise more enjoyable by providing a mental distraction. It turns out that music has additional psychological and physiological effects that can improve exercise performance.

Not only can listening to music make exercise more enjoyable, it can also help you get a better workout. Research suggests that when exercise is coupled with motivational music, people tend to exercise at a higher intensity. They also tend to fatigue at a slower rate leading to longer exercise sessions. This is also associated with a lower rating of perceived exertion, meaning the exercise might feel easier!

Tempo is an important aspect of music that contributes to performance. People tend to prefer a tempo that matches the exercise intensity. Fast tempo music fits well with higher intensity exercise, like running, and music with a slower tempo is suited for lower intensity exercise, like yoga. But music tempo can also influence the intensity of exercise. Music with a faster tempo can promote more vigorous exercise, as measured by a higher heart rate, and a longer distance covered when running or cycling.

Listening to music before exercise can also affect performance. Studies have shown that listening to music prior to exercise can improve motivation, arousal, and focus. This is probably why you see athletes warming up before games and races wearing headphones. Research also suggests that listening to music during cool down can decrease recovery times, as measured by blood lactate levels.

While listening to music may increase exercise performance, the benefits vary based on the type of music. First of all, music that a person does not like is unlikely to elicit any positive impact on performance, so pick something you enjoy listening to. Another factor of music that can influence performance is whether it is synchronous or asynchronous. Synchronous is when a person matches their movements with the music they are listening to. This is particularly effective for running, cycling, and rhythmic exercises like aerobics. Asynchronous is when the music and the movements of a person do not match, which may still provide ergogenic benefits for certain types of exercise.

Listening to music during exercise can make your workouts more effective and enjoyable. Music you like can distract you from sensations of intensity and fatigue and lead to longer training sessions. Music played at a fast tempo can make you exercise harder and slower tempo music can help you relax. But you probably knew that already—sometimes sports science makes sense!

What if you prefer to exercise without music or other distractions? Like all ergogenic aids, the additional effect of music is small compared to the great benefits of the exercise itself, so keep doing what you are doing.


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How to become an Olympic champion.

The Olympics are an excellent opportunity to see some of the world’s fittest athletes in action. Endurance events like the marathon, power events like sprints, team sports like soccer or basketball, and exhibitions of individual skill in gymnastics all highlight the dedication and training of these elite athletes. You may wonder what it takes to become an Olympic champion. In my Health & Fitness column in the Aiken Standard this week that the answer is a combination of focused, intense training and some good luck.

Olympic rings


First, the training. The key to performance in long-duration events like distance running, cycling, swimming, and rowing is for the muscle to contract repeatedly and forcefully without fatigue. In order to do so, the muscle must have a steady supply of oxygen and nutrients (primarily fats and carbohydrates). These nutrients are delivered through the blood which is pumped to the muscle by the heart. The muscle takes up and uses these nutrients to produce ATP, the form of energy used by the muscle.

After months and years of endurance training the heart gets bigger and blood volume expands, resulting in the ejection of more blood to the muscle. Within the muscle there is an increase in the number of capillaries, the small blood vessels that deliver blood to the muscle, and mitochondria, the part of the cell that produces most of the ATP. Together, these adaptations allow the muscle to produce more ATP without fatigue, permitting the athlete to sustain a higher intensity (running speed, for example) for a longer time without fatigue. These adaptations are consistent with a change in muscle fiber type from fast (type IIx) to slow (type I and IIa) fibers, which are rich in capillaries and mitochondria, making them resistant to fatigue.

These adaptations occur to some extent in everyone who participates in regular exercise. Olympic-level athletes who train for years or decades can maximize these changes. But is training alone sufficient for Olympic-level performance? Could anyone who trains enough make it to the Olympics? The answer is no, because there is another important factor in athletic performance—luck. Luck refers genetics, which play an important role in performance. As much as 50% of performance in some events is attributed to genetics. Elite endurance athletes were fortunate to be born to parents who bestowed them with large hearts and muscle that was composed of a high percentage of slow fibers (the average person has about 50% slow fibers). Of course, years of training amplifies these attributes to result in a large, strong heart that can pump lots of blood to muscle that is made up of slow, fatigue-resistant fibers.

Genetics and training are the two major factors that lead to success in every other Olympic event, too. Sprinters and other power athletes have more fast (IIx) muscle fibers to generate high levels of force for a short duration. Genetics can provide a foundation of more fast fibers, upon which specialized training can build. Other events require a certain body type for optimal performance, which can be seen in female gymnasts (petite but strong) and swimmers (Michael Phelps’ arm span, for example). And beyond the physiological adaptations, years of training builds skill, technique, and mental focus that is essential for competition.

It is too late for most of us to become Olympic champions. But we can all experience many of the same benefits of training as Olympic athletes. And we can certainly appreciate the training, dedication, and good luck that the athletes bring to the games.


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Could you be an Olympic champion? Here’s how to do it.

The Olympics are an excellent opportunity to see some of the world’s fittest athletes in action. Endurance events like the marathon, power events like sprints, team sports like soccer or basketball, and exhibitions of individual skill in gymnastics all highlight the dedication and training of these elite athletes. You may wonder what it takes to become an Olympic champion. In my Health & Fitness column in the Aiken Standard this week that the answer is a combination of focused, intense training and some good luck.

Olympic rings


First, the training. The key to performance in long-duration events like distance running, cycling, swimming, and rowing is for the muscle to contract repeatedly and forcefully without fatigue. In order to do so, the muscle must have a steady supply of oxygen and nutrients (primarily fats and carbohydrates). These nutrients are delivered through the blood which is pumped to the muscle by the heart. The muscle takes up and uses these nutrients to produce ATP, the form of energy used by the muscle.

After months and years of endurance training the heart gets bigger and blood volume expands, resulting in the ejection of more blood to the muscle. Within the muscle there is an increase in the number of capillaries, the small blood vessels that deliver blood to the muscle, and mitochondria, the part of the cell that produces most of the ATP. Together, these adaptations allow the muscle to produce more ATP without fatigue, permitting the athlete to sustain a higher intensity (running speed, for example) for a longer time without fatigue. These adaptations are consistent with a change in muscle fiber type from fast (type IIx) to slow (type I and IIa) fibers, which are rich in capillaries and mitochondria, making them resistant to fatigue.

These adaptations occur to some extent in everyone who participates in regular exercise. Olympic-level athletes who train for years or decades can maximize these changes. But is training alone sufficient for Olympic-level performance? Could anyone who trains enough make it to the Olympics? The answer is no, because there is another important factor in athletic performance—luck. Luck refers genetics, which play an important role in performance. As much as 50% of performance in some events is attributed to genetics. Elite endurance athletes were fortunate to be born to parents who bestowed them with large hearts and muscle that was composed of a high percentage of slow fibers (the average person has about 50% slow fibers). Of course, years of training amplifies these attributes to result in a large, strong heart that can pump lots of blood to muscle that is made up of slow, fatigue-resistant fibers.

Genetics and training are the two major factors that lead to success in every other Olympic event, too. Sprinters and other power athletes have more fast (IIx) muscle fibers to generate high levels of force for a short duration. Genetics can provide a foundation of more fast fibers, upon which specialized training can build. Other events require a certain body type for optimal performance, which can be seen in female gymnasts (petite but strong) and swimmers (Michael Phelps’ arm span, for example). And beyond the physiological adaptations, years of training builds skill, technique, and mental focus that is essential for competition.

It is too late for most of us to become Olympic champions. But we can all experience many of the same benefits of training as Olympic athletes. And we can certainly appreciate the training, dedication, and good luck that the athletes bring to the games.


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