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 uses patterned light to decide where chemistry happens. We apply it to DNA. Light selects the points where the next base attaches, across millions of strands at once.
We place the four letters of life, A, C, G, T, with the precision the chip industry spent seventy years perfecting.
COPY READThe disk is what makes DNA operational. To read a record, we multiply just that record and read only the copies. The original stays on the disk as DNA, ready to be read again.
Write, store, then choose how to keep it. Scroll to walk through it.
This is where your data becomes DNA.
Translates your files or databases from 0s and 1s into a design file in DNA's four letters: A, T, C and G. It follows the OAIS data archiving standard.
Light-directed synthesis writes every base in parallel, across millions of points at once.
One write. From here the data has two lives: a permanent copy built to outlast everything, and an operational copy built to be used.
The disk keeps data operational. A sealed capsule keeps the permanent copy.
Tracks every record and keeps it readable, built on the OAIS standard.
“The bottleneck in computing is moving up the stack, from processors, to memory, to the medium itself.”Robertas Skliaustas, Chief Executive Officer
We start where data has to last and build toward where it grows.
Long-term storage that never needs re-copying.
One write. DNA holds data for 10,000+ years at room temperature, and our data management follows the OAIS archiving standard.
Large datasets that gain value over time and cost too much to keep on existing technologies.
DNA stores far more in far less space and draws no power while it waits, so keeping every dataset becomes practical.
Large datasets that have to survive.
Resilient to radiation and EMP, with a sealed permanent copy that outlasts the systems around it.
Large volumes of AI training data, with mandates to keep it for at least 10 years.
Operational DNA storage sits alongside disk, tape and flash: dense, drawing no power at rest, and retrievable when a model needs the data again.
Whether you run an archive, a research program or a data center, or you work on DNA storage yourself, we would like to hear from you.