DNA and Biological Computing

The paper demonstrates reliable PCR-based data retrieval from a complex DNA storage pool with high density and varying file sizes.

This paper describes a method for task switching in engineered bacteria using plasmid copy number manipulation and presents computational simulations of the model.

This paper introduces an error-correcting DNA data storage strategy that enables reliable, scalable, and secure long-term storage of digital information in living cells.

This paper introduces composite DNA alphabets to improve DNA storage capacity and fidelity by leveraging synthesis redundancy, achieving a 25% increase in storage capacity.

This paper presents a theoretical study of a multi-layer biomolecular computing system that converts electrical inputs into biomolecular signals and performs logical operations.

The paper introduces an RT-PCR-based method to model large, dynamic, and heterogeneous populations using DNA libraries, demonstrating applications in drug discovery and population dynamics.

The paper demonstrates spatially localized DNA circuits that enable fast and modular molecular computation by arranging reactive DNA hairpins on DNA origami.

This paper presents a DNA-based data storage system that achieves error-free and random-access readouts using MinION sequencers through error correction and addressing techniques.

The paper describes a DNA-based storage system called DNA Fountain that efficiently stores and retrieves digital data with high robustness and density.