Evolution and Human Mechanics
Daniel J. Levitin in "Current Advances in the Cognitive Neuroscience of Music" is showing that music is not processed in just one “music center” of the brain—because there isn’t one. Instead, it spreads across multiple lobes and systems at the same time. The temporal lobe is doing the first layer of work. Inside it, the primary auditory cortex takes in raw sound—pitch, volume, timbre—and "organizes" these outlets into something recognizable. The frontal lobe, especially the prefrontal cortex, starts predicting what comes next in the music—like anticipating a beat drop or a chord resolution. That prediction process is key, because when the brain guesses correctly (or is slightly surprised in a satisfying way), it triggers the brain’s reward system.
That reward system sits deeper in the brain, in structures like the nucleus accumbens and the ventral tegmental area. These are part of what’s called the dopaminergic system, meaning they release dopamine. Dopamine isn’t just “pleasure”—it’s more about motivation and reinforcement. So when you’re listening to music, especially something rhythmic or emotionally engaging, your brain is literally rewarding you for staying locked in. This is why music can make something physically hard—like running—feel more manageable. At the same time, the amygdala (also in the temporal lobe) is processing emotional tone—whether the music feels tense, calm, aggressive, or uplifting—while the hippocampus is tying that music to memory. That’s why certain songs don’t just sound good—they feel like a version of your life.
Movement becomes involved the parietal lobe and the motor cortex in the frontal lobe. The motor cortex is responsible for planning and executing movement, while the parietal lobe helps with spatial awareness and body coordination. Music, especially rhythm, interacts directly with these areas through a process called entrainment, where your brain syncs your body to an external beat. This isn’t something you consciously decide to do—it just happens. Your stride starts matching the tempo, your breathing falls into a pattern, and your body becomes more efficient without you thinking about it. The cerebellum, located at the back of the brain, also plays a huge role here by fine-tuning timing and coordination, making your movements smoother and more precise.
All of this is happening at once, and that’s the point. Music isn’t just something you hear—it’s something your entire brain participates in. The auditory system processes it, the motor system responds to it, the emotional system reacts to it, and the reward system reinforces it. So when you’re running with music, you’re not just “listening in the background.” Your brain is actively integrating sound, movement, emotion, and motivation into one unified experience. That’s why it can feel like the music is carrying you, even though you’re the one doing the work.
To have a fuller understanding of this complicated system I consulted Aniruddh D. Patel's "Music and the Brain," and what stood out to me immediately is that he’s not just saying “music lights up the brain.” He specifies linguistics with precision. He makes a clear distinction between music and musicality, which changes how you think about everything. Music itself is cultural—it varies across time and place—but musicality is the set of mental processes underneath it, and those are much more stable. So instead of the brain processing “music” as one thing, it’s actually doing a bunch of smaller tasks at once: the temporal lobe is handling sound and pitch, especially in the auditory cortex, where basic frequencies are processed first and then built into more complex patterns in higher regions. At the same time, the frontal lobe is involved in prediction—figuring out what comes next—and that’s what gives music its sense of flow and expectation.
What surprised me more, though, is that Patel shows music is not even confined to the auditory system. He talks about relative pitch, which is basically our ability to recognize a melody even if it’s shifted higher or lower. That doesn’t just stay in the temporal lobe—it actually activates the right parietal lobe, specifically an area called the intraparietal sulcus. And that part of the brain is usually associated with spatial reasoning—things like visualizing movement or mentally rotating objects. So the brain is kind of treating music like a spatial problem, where it’s tracking relationships between notes instead of just hearing them individually.
This is where Patel starts to differ a little from Levitin. Levitin emphasizes how music activates emotional and reward systems—like dopamine release—and explains why it feels so powerful. Patel doesn’t disagree with that, but he reframes it. Instead of saying music evolved for those emotional effects, he suggests that music might just be using systems that already evolved for other purposes, like language processing, emotional vocalizations, and motor control. So the pleasure we get from music isn’t necessarily because music itself is biologically essential—it’s because it activates a bunch of systems that already matter for survival, all at once.
Where both Patel and Levitin really come together, though, is in how music connects to movement. Patel explains that rhythm engages areas like the motor cortex, basal ganglia, and cerebellum, which are all involved in timing and coordination. But more importantly, when people move to music—especially together—those systems start to sync up not just with the beat, but with each other. There’s even evidence that this kind of synchronized movement can blur the line between self and others and increase social bonding. So when I think about running with music, it’s not just that the music is “motivating” me. It is that my brain is literally coordinating sound and movement in a way that feels natural, almost automatic. In that sense, running with music isn’t just something extra—it might actually be one of the clearest examples of how the brain is built to connect sound, motion, and experience into one thing.
When a runner synchronizes stride to rhythm, the auditory and motor systems operate in tandem. At the level of neurochemistry, music and running share key pathways. Dopamine, associated with reward and anticipation, is released during peak musical moments as well as during sustained exertion. Endorphins, linked to pain reduction, are also activated in both contexts, contributing to what is often described as the “runner’s high.” Serotonin further stabilizes mood, creating a sustained emotional environment that supports endurance. The overlap of these systems suggests that music and running are not simply additive experiences. Instead, they are neurochemically entangled. The pleasure derived from running with music cannot be cleanly separated into physical and auditory components. Rather, it emerges from their interaction. Evolutionary perspectives reinforce this interpretation. Scholars such as Anjan Chatterjee and Daniel Levitin argue that music and movement co-evolved as part of social bonding practices such as dance and ritual. Rhythm enables prediction, and the brain derives pleasure from successfully anticipating patterns with slight variation. Running, particularly when rhythmic, may unconsciously replicate these structures, embedding the individual within a deeply rooted cognitive framework.
An additional anecdote while reading Levitin's "I Heard There Was a Secret Cord" is that on distraction.
Now that a foundation of evolutionary and anthropological background has been given to the brain and music, already a sense of rhythm and movement is coming about but what happens when that running becomes a workout—when it becomes pain?
What Daniel Levitin points out about music and pain is that it can function as a kind of distraction—when the body is under stress, music gives the brain something else to process, pulling attention away from the sensation of pain. And that framing makes intuitive sense, especially in contexts like running or lifting, where focusing on the music can make discomfort feel more manageable. But Bence Nanay offers a slightly different way of thinking about what’s happening. Instead of calling it distraction, he talks about aesthetic engagement as a reorientation of attention—where your focus isn’t simply diverted, but actively directed toward certain features of an experience. From that perspective, when music “takes your mind off pain,” it’s not that the pain disappears or gets blocked out; it’s that your attention becomes structured around the music instead. These views sound different at first—one grounded in neuroscience, the other in philosophy—but they don’t necessarily conflict. If anything, they describe the same shift from two angles: Levitin emphasizes what attention moves away from, while Nanay emphasizes what it moves toward. And in something like running, that distinction matters, because it suggests that music isn’t just masking pain—it’s reshaping how the entire experience is being attended to in the first place.