Imagine storing all the world's data in a tiny piece of synthetic fabric. Instead of using silicon chips, this technology writes digital information into DNA strands and wraps them in protective plastic-like fibers. These fibers act like a high-tech cocoon, keeping the data safe from heat and humidity until it's time to read it back using a genetic sequencer.
Traditional digital storage is energy-intensive and degrades over time. Current DNA storage lacks a stable, protective medium that allows for fast, non-destructive retrieval of data.
A complete DNA storage workflow including a library of water-resistant polymer fibers for encapsulation and automated next-generation sequencing assays for data readout.
If you are a data center provider dealing with the massive energy costs of maintaining legacy hard drives — this project developed a DNA-in-fiber storage medium that ensures protection from the environment and long lifetimes. This allows for archival storage that doesn't require constant power for cooling or maintenance.
If you are a security agency dealing with the risk of digital data degradation or hacking — this project developed water-resistant polymer nanofibers that protect information in harsh conditions. This creates a physical, biological backup that is nearly impossible to intercept via traditional network attacks.
If you are a DNA synthesis company dealing with high costs and slow production speeds — this project developed enhanced oligo synthesis and sequencing strategies. These improvements aim to increase synthesis speed and length of oligos while reducing overall costs.
The project aims to reduce costs by developing enhanced oligonucleotide synthesis and sequencing strategies that go beyond current state-of-the-art chemistry.
The project utilizes electrospinning and melt electrowriting, which are streamlined production methods for creating the fiber meshes used for storage.
Based on available project data, the project is led by nanoGUNE with Eurofins as a partner, but specific licensing terms are not disclosed.
The developed electrospun fibers allow for a fast workflow where DNA can be released and retrieved within a few minutes.
The system uses a workflow that encodes digital information into DNA base sequences and uses next-generation sequencing assays to automate the readout.
The consortium is a lean, 2-partner strategic alliance between a specialized research center (nanoGUNE) and a major industrial player (Eurofins). With a 50% industry ratio, the project balances fundamental nanotechnology research with the commercial capabilities of a leading European company specializing in sequencing and synthesis, ensuring the research is aligned with industrial standards.
Contact nanoGUNE (CIC Nanogune) in Spain
Contact us to explore licensing opportunities for DNA-polymer storage materials.
