
Single-molecule techniques have been used successfully to visualize real-time enzymatic activities, revealing transient complex properties and heterogeneity of various biological events. Especially, conventional force spectroscopy including optical tweezers and magnetic tweezers has been widely used to monitor change in DNA length by enzymes with high spatiotemporal resolutions of ∼nanometers and ∼milliseconds. However, DNA metabolism results from coordination of a number of components during the processes, requiring efficient monitoring of a complex of proteins catalyzing DNA substrates. In this min-review, we will introduce a simple and multiplexed single-molecule assay to detect DNA substrates catalyzed by enzymes with high-throughput data collection. We conclude with a perspective of possible directions that enhance capability of the assay to reveal complex biological events with higher resolution. [BMB Reports 2019; 52(10): 589-594].
DYNAMICS, Single-molecule enzymology, Optical Tweezers, Spectrum Analysis, BIOLOGY, Single-molecule technique, DNA, Single-Stranded, Flow-stretching bead assay, DNA, OPTICAL TWEEZERS, Multiplexed single-molecule assay, Single Molecule Imaging, FORCE SPECTROSCOPY, REVEAL, Invited Mini Review, High-Throughput Screening Assays, Exodeoxyribonucleases
DYNAMICS, Single-molecule enzymology, Optical Tweezers, Spectrum Analysis, BIOLOGY, Single-molecule technique, DNA, Single-Stranded, Flow-stretching bead assay, DNA, OPTICAL TWEEZERS, Multiplexed single-molecule assay, Single Molecule Imaging, FORCE SPECTROSCOPY, REVEAL, Invited Mini Review, High-Throughput Screening Assays, Exodeoxyribonucleases
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