DNA Computing

Self-assembly.- Staged Self-assembly: Nanomanufacture of Arbitrary Shapes with O(1) Glues.- Activatable Tiles: Compact, Robust Programmable Assembly and Other Applications.- Constant-Size Tileset for Solving an NP-Complete Problem in Nondeterministic Linear Time.- Solutions to Computational Problems Through Gene Assembly.- Biomolecular Machines and Automata.- Toward Minimum Size Self-Assembled Counters.- A Realization of DNA Molecular Machine That Walks Autonomously by Using a Restriction Enzyme.- Autonomous Programmable Nanorobotic Devices Using DNAzymes.- Multi-fueled Approach to DNA Nano-Robotics.- Experimental Validation of the Transcription-Based Diagnostic Automata with Quantitative Control by Programmed Molecules.- DNA Memory with 16.8M Addresses.- Codes for DNA Memories and Computing.- Combining Randomness and a High-Capacity DNA Memory.- Design of Code Words for DNA Computers and Nanostructures with Consideration of Hybridization Kinetics.- Dynamic Neighborhood Searches for Thermodynamically Designing DNA Sequence.- Sequence Design Support System for 4 × 4 DNA Tiles.- DNA Codes Based on Stem Similarities Between DNA Sequences.- Novel Techniques for DNA Computing in vitro.- Heuristic Solution to a 10-City Asymmetric Traveling Salesman Problem Using Probabilistic DNA Computing.- An Approach for Using Modified Nucleotides in Aqueous DNA Computing.- Modeling Non-specific Binding in Gel-Based DNA Computers.- Stepwise Assembly of DNA Tile on Surfaces.- An Interface for a Computing Model Using Methylation to Allow Precise Population Control by Quantitative Monitoring.- Novel Techniques for DNA Computing in silico.- Hardware Acceleration for Thermodynamic Constrained DNA Code Generation.- Hardware and Software Architecture for Implementing Membrane Systems: A Case of Study to Transition P Systems.- Towards a Robust Biocomputing Solution of Intractable Problems.- Discrete Simulations of Biochemical Dynamics.- DNA Splicing Systems.- Models and Languages.-