DNA computing is a discipline that aims at harnessing individual molecules at the
nanoscopic level for computational purposes. Computation with DNA molecules possesses …

Recent research has considered DNA as a medium for ultra-scale computation and for ultra-
compact information storage. One potential key application is DNA-based, molecular …

The paper overviews various methods that are used for the analysis of output signals
generated by enzyme‐based logic systems. The considered methods include optical …

The Toffoli and Fredkin gates were suggested as a means to exhibit logic reversibility and
thereby reduce energy dissipation associated with logic operations in dense computing …

The demand of modern information technology for ever more powerful microprocessors has
to pass the bottleneck of miniaturization.[1] Moore's law predicts a duplication of transistor …

Nucleic acids are natural macromolecules with the ability to store and transmit information
based on the strict base‐pairing principle. Beyond the natural nucleic acid double helixes …

Reversible logic gates, such as the double Feynman gate, Toffoli gate and Peres gate, with
3‐input/3‐output channels are realized using reactions biocatalyzed with enzymes and …

Encoding of information in DNA-, RNA-and other biomolecules is animportant area of
research in fields such as DNA computing, bioinformatics, and, conceivably, microbiology …

There has been exponential growth in the amount of data being generated on a daily basis.
Such a huge amount of data creates a need for efficient data storage techniques. Due to the …

An enzyme system organized in a flow device was used to mimic a reversible Controlled
NOT (CNOT) gate with two input and two output signals. Reversible conversion of NAD+ and …