Time is the invisible structure that holds movement together.
It is when something happens — and how long it takes.
Time is a huge topic which this section aims to simplify. There are other aspects to Time In Dancing that we have addressed in separate sections:
Each dance style defines a temporal contract:
Failing to honor that contract is like missing your cue in a play.
Term | Meaning | Dancer's Use |
---|---|---|
Beat | A single unit of time | Step on the beat |
Bar | A grouping of beats (e.g., 4/4) | Phrase your motion |
Phrase | A musical sentence (e.g., 8 bars) | Align major movement changes |
Breath | Natural rise/fall or tension/release | Gives time emotional weight |
Good dancers don't just move to the beat — they shape time.
In dance:
Time is the rhythm made visible through the body.
In physics:
Time is a dimension.
In dancing — it's the most expressive one.
Humans do possess internal timing systems. They're just biological, contextual, and adaptive — not digital or precise in the way silicon systems are.
Clock Type | Description | Resolution |
---|---|---|
Neural Oscillators | Brain rhythms (like alpha and theta waves) | ~10–200ms |
Cerebellar Timing | Motor control and muscle coordination | ~10ms–500ms |
Basal Ganglia Loop | Rhythm perception, beat detection | ~100ms–1s |
Heart + Breath Sync | Entrained biological pulses (~60–120bpm) | ~500ms–1s |
Sensorimotor Loop | Walking, clapping, dancing feedback cycles | ~200ms latency |
Dancers train:
You can tap your foot at a steady pace — even in silence.
This shows:
Each “clock” has its own range and context.
They can desynchronize (e.g., under stress or confusion).
There’s jitter. Drift. Feedback lag.
Unlike a metronome, your tempo varies with emotion, breath, even hydration!
Dancers integrate:
Too many signals can degrade timing precision.
Humans don’t have a precise clock — they have several adaptive ones that excel with training, context, and feedback.
Like jazz drummers, we are living metronomes that bend and breathe with the rhythm.
In everyday life, walking is:
You lean forward, a foot catches you, and you repeat.
You don’t count steps. You don’t “plan” timing.
Let’s say you take 3 forward steps in:
Each step must fit into a musical count. Now your brain says:
“Oh no… I’m being watched.
How big should the step be?
Am I early? Too late?”
Suddenly your internal pacing (natural rhythm) is overridden by:
Rushing often happens because:
“I have so far to go — better hurry!”
You start too early or finish too fast
Without training, your brain doesn’t naturally stretch one beat into a full-body motion
Pausing feels like a mistake, even if it’s part of the choreography
Dancers need to learn to wait inside the beat.
This means:
Just because your foot lands doesn’t mean the beat is over.
Walking is easy.
Walking to music requires:
And that’s what makes it dancing.
“The longer the stride I take, the more time seems to slow down.”
You're not imagining it.
This isn't true relativistic time dilation (sorry Einstein), but it’s a real perceptual phenomenon caused by:
Larger strides require more:
Your brain allocates more resources to the movement — and this increased focus makes time feel stretched.
Small steps feel like “click click click.”
Big steps feel like “sloooooow… reach… land…”
Every joint reports its position. Every muscle contributes.
This flood of data slows perceived time.
In long strides, dancers often:
Each beat has physical presence. You inhabit time, not just count it.
"Time is no longer a tick — it’s a terrain to travel across."
Longer steps encourage beat filling:
This is especially useful in:
Longer strides stretch:
It's not time dilation — it’s time expansion, powered by motion.
OR,
Isaac Newton - Laws of Motion, which define the relationships between force, mass, and acceleration - the backbone of dance biomechanics.
Pierre-Louis Moreau de Maupertuis - Principle of Least Action. Maupertuis proposed that nature operates by minimizing action, laying groundwork for modern physics and biomechanics.
Leonhard Euler - Expanded on Maupertuis’ ideas and gave mathematical form to the Principle of Least Action. His work underpins the Euler-Lagrange equations.
Joseph-Louis Lagrange - Developed the Lagrangian Mechanics formalism, which allows us to model motion in terms of energy rather than force. Vital for understanding how dancers conserve or redistribute energy.
William Rowan Hamilton - Introduced Hamiltonian Mechanics, which provides an alternative formulation and links energy conservation with system evolution over time.
Émilie du Châtelet - Translated and extended Newton’s work, particularly his Principia, and was one of the first to clarify that kinetic energy was proportional to the square of velocity (i.e., \(v^2\)). Hugely underrated.
We stand on the shoulders of giants. (And some of them wore wigs).