We write data with the same light that built the chip industry, into the molecule that's been running storage since before there was a planet worth storing data about.
See how it worksPhotolithography is the same light-directed patterning process behind every semiconductor chip ever made, redirected here to build DNA base by base instead of etching circuits.
Millions of points written in parallel, the same four letters, A, C, G, T, placed with the precision the chip industry spent seventy years perfecting.
Six systems, integrated, not six vendors bolted together. Scroll to walk through it.
Every archive is managed to the OAIS/ISO 14721 standard, the same framework the world's most demanding data custodians already hold themselves to. It's what keeps the archive readable no matter how much the technology around it changes.
The layer that turns a file into something DNA can carry, and back again — also built to the OAIS standard, so the encoding itself stays legible for as long as the archive does, retrievable by systems that don't exist yet.
Light-directed synthesis writes every base in parallel, across millions of points at once — the same light-patterning process that built the chip industry, redirected here to build DNA instead of circuits.
One write. From here, the data splits into two lives: a permanent copy built to outlast everything, and an operational copy built to be used.
Enabled by the DNA capsule. Built for centuries, not sessions.
Pulls one record, untouched by the rest.
The sequence is read straight from the capsule.
Verified against the source, every time.
Enabled by the disk. Built to be read and rewritten.
Fast, targeted access for active records.
Read back on demand, as often as needed.
Delivered as a file, then written straight back into Store.
“The bottleneck in computing is moving up the stack, from processors, to memory, to the medium itself.”— Robertas Skliaustas, CEO & co-founder See who we work with