Technology
Shape is the next interface.
Pixels made information visible. Voxels will make information physical. Nanoshape is building the infrastructure that closes that gap — starting with a real, programmable shape display you can hold, program, and put in front of people who need to think in three dimensions.
How Nanoshape 1 works
Design in Shape Studio
Open Shape Studio and choose a preset form or draw a height map from scratch. The software represents the board as a 10×10 grid of pin heights — each cell a value between flat and fully extended.
Send to board
Shape Studio serializes the height map and transmits it to the connected Nanoshape 1 board over USB. The protocol is straightforward: a flat array of 100 height values, one per pin, sent as a single frame.
Pins move in parallel
The board firmware reads the frame and drives all 100 pins simultaneously to their target heights. The result is an immediate physical form — a terrain, a curve, a logo, a data surface — rendered in three dimensions.
Vatom Theory
Nanoshape 1 is the first physical instantiation of Vatom Theory — a long-term research direction concerned with programmable physical matter. A Vatom is a voxel-like physical unit that can locally change its state: height, geometry, or position.
The critical bet in Vatom Theory is parallelism. Prior approaches to shape display have been bottlenecked by serial actuation — one motor moves, then the next, then the next. At any meaningful resolution, serial movement is too slow to be useful. Vatom systems are designed from the start for parallel deformation: many cells coordinating at once so that surfaces and volumes can change shape in a single synchronized step.
Nanoshape 1 is not yet fully parallel in the Vatom sense — it is a macro-scale prototype designed to make the idea tangible and useful for real institutional partners. But its architecture points toward the right direction: each pin is independently addressable, the control interface operates on the full grid at once, and the software stack treats the board as a field of simultaneous states rather than a sequence of individual commands.
Resolutions 2 and 3 push further along this axis — toward smaller units, denser grids, and eventually toward the kind of parallel deformation that would make programmable matter practically useful.
What this isn't
Nanoshape 1 is not a high-resolution display. It is not a 3D printer. It is not a holographic projection. It is a 10×10 macro-scale physical display whose value is in tangibility, immediacy, and the affordance of programmable form.
The pins are visible. The grid is coarse. You can see and touch the mechanism. That is a feature, not a limitation — it is what makes Nanoshape 1 useful for teaching, for prototyping, for demos, and for the kind of early-stage research that needs to move fast without pretending to be something it isn't.
Open questions
These are the problems that shape the next phases of work:
- Actuation density vs. cost. Higher resolution requires more independently driven cells. The cost per cell at sub-millimeter scale is not yet solved.
- Response time vs. precision. Faster movement trades against positional accuracy. The right balance depends on the application — terrain rendering tolerates more error than haptic feedback.
- Software abstractions for programmable matter. What is the right primitive? A height map works at 10×10. It may not be the right abstraction at 100×100 or for volumetric shapes.
- Materials science for Resolutions 2–3. Macro-scale pins are straightforward. Sub-millimeter actuators that are cheap, fast, and reliable at scale require materials and fabrication approaches that are still open research problems.
Where this is heading
Nanoshape 1 is Resolution 1 — the starting point. The roadmap runs through three resolutions toward digital clay.
View the roadmap →