Combinatorial Address Space
A modest library of prefabricated DNA components divided into layers generates a combinatorial address space of extraordinary size.Exponential expansion
Twelve layers with twenty-five components each yield trillions of unique
identifiers. Expanding layers or components multiplies capacity
exponentially a few hundred components spans exabyte-class archives.
No new chemistry required
The same combinatorial assembly method scales across orders of magnitude.
Capacity grows by adding components to the library, not by redesigning the
chemistry.
Write, Read & Compute Throughput
Physical Scalability
Sugar-cube volume
A sugar-cube-sized volume of DNA can store exabytes. Archives scale in
milliliters and grams, not square meters and megawatts.
Replication without fabrication cost
Redundancy is achieved by amplifying aliquots of the same DNA library.
Copies can be distributed across facilities for disaster recovery no
additional synthesis required.
Unlike data centers that expand in rack units and kilowatts, DNA archives
expand in grams. Multiple independent archives can be produced and distributed
globally adding capacity without adding infrastructure footprint.
Compute Scalability
Select and quotient operate in constant or near-constant wet-lab steps regardless of archive size. This ensures query performance scales gracefully as archives grow:
Parallel reactions allow multiple queries to run simultaneously further compressing real-world query time as archives grow.