DNA Bipedal Motor Achieves a Large Number of Steps Due to Operation Using Microfluidics-Based Interface

Keyphrases

• Microfluidics 100%
• Microfluidic-based 100%
• Number of Steps 100%
• Molecular Machines 80%
• Processivity 40%
• DNA Nanomachine 40%
• Fold Increase 20%
• DNA Sequencing 20%
• User Interface 20%
• Performance Improvement 20%
• Accurate Modeling 20%
• Bio-inspired 20%
• Two-way Communication 20%
• Motor Performance 20%
• Nanotechnology 20%
• Effective Method 20%
• DNA Strands 20%
• External Stimuli 20%
• Microfluidic Device 20%
• Low Efficiency 20%
• Solid-phase Synthesis 20%
• Computer Control 20%
• Single-molecule Fluorescence Spectroscopy 20%
• Trap States 20%
• State Mechanism 20%
• Processive 20%
• Reaction Mechanism 20%
• Universal Interface 20%
• Walker 20%
• Bipedal Walker 20%
• Reaction Kinetics 20%
• Motor System 20%
• Dynamic Boundary 20%
• Sequential Command 20%
• DNA Origami 20%
• Kinetic Performance 20%
• User Control 20%

Engineering

• Strand 100%
• Realization 33%
• Limitations 16%
• External Stimulus 16%
• Fold Increase 16%
• Microfluidic Device 16%
• Solid Phase Synthesis 16%
• Computer Control 16%
• Major Goal 16%
• Limited Performance 16%
• User Interface 16%

Material Science

• Solid Phase Synthesis 100%
• Fluorescence Spectroscopy 100%