What can a wave teach us about movement?

If you stand on the shore and watch the sea, you are watching an illusion.

A wave moves across the horizon, cresting and crashing, appearing to travel for miles. But the water itself is not actually moving forward. A wave is not matter in transit; it is energy passing through a medium. The water particles simply rise, fall, and return to their original position. The movement is real, but the matter remains still.

This distinction is fascinating to us. As architects, we build static structures. Steel, concrete, and timber do not move. Yet, our experience of a building is never static.

This led us to a question that became the foundation of our research: What can a wave teach us about movement? Can a building appear to move while remaining completely still?

Architecture is fundamentally fixed, but our perception of it is not.

As we approach a building, walk alongside it, or view it from different distances, repeated elements begin to overlap, separate, and change their relationship with one another. The architecture itself hasn't moved an inch. The observer has.

This creates the possibility of designing movement as a perceptual condition rather than a mechanical one. We don't need kinetic, moving parts to create a sense of flow. We can design it through rhythm, repetition, and variation.

A wave can be understood through a few recurring characteristics: amplitude, frequency, wavelength, and rhythm.

None of these characteristics belong to a single point. They emerge from the relationship between many points acting as part of one continuous system.

Translated into architecture, this suggests that repetition does not need to produce uniformity. A family of similar elements can gradually change in depth, spacing, or orientation. Individually, they are simple. But when read together, they form a continuous wave. The movement is only visible when you look at the whole.

Think about how the sea transforms from day to night.

During the day, the sea is defined by its physical texture. The sun hits the crests of the waves, casting deep shadows into the troughs. It is heavy, physical, and defined by light and form.

In architecture, this is the daytime experience of a façade. By treating a surface as a sequence rather than a flat plane, we can mimic the undulating rhythm of the sea. Vertical elements repeat, but their geometry gradually changes. From one angle, the façade appears dense and solid. From another, it opens and becomes lighter. Moving alongside it reveals a continuously changing silhouette. The building never presents exactly the same image twice. It creates a fluid, graceful motion out of completely rigid materials.

Then the sun sets, and the sea transforms.

At night, the sea loses its physical weight. The shadows disappear, and the water becomes a dark, shifting void, animated only by the reflection of the moon or the rhythmic flash of bioluminescence. It is no longer about physical form; it is about pure energy and rhythm.

Architecture can undergo this exact same transformation.

When night falls, a building’s physical form can dematerialize. Light takes over. The structure ceases to be a heavy mass and becomes a canvas for energy. Through the rhythmic choreography of light, a static facade can appear to breathe, dance, and pulse with the rhythms of the night. The architecture transforms into a dynamic sculpture, blending art and technology, where the only thing moving is the light itse

Our research is ultimately less about reproducing the shape of a wave than understanding why a wave appears to move.

Biomimicry does not have to mean copying nature visually. It can mean identifying a principle within a natural phenomenon and translating that principle into another system. Here, the wave becomes a way of organizing repetition, variation, and perception.