Enzymes are biological catalysts vital to life processes and have attracted century-long investigation. The classic Michaelis-Menten mechanism provides a highly satisfactory description of catalytic activities for large ensembles of enzyme molecules. Here we tested the Michaelis-Menten equation at the single-molecule level. We monitored long time traces of enzymatic turnovers for individual \beta-galactosidase molecules by detecting one fluorescent product at a time. A molecular memory phenomenon arises at high substrate concentrations, characterized by clusters of turnover events separated by periods of low activity. Such memory lasts for decades of timescales ranging from milliseconds to seconds owing to the presence of interconverting co...
Recent single-molecule enzymology measurements with improved statistics have demonstrated that a sin...
Single-molecule equations for the Michaelis-Menten [Biochem. Z. 49, 333 1913] mechanism of enzyme ac...
Single-molecule equations for the Michaelis-Menten [Biochem. Z. 49, 333 1913] mechanism of enzyme ac...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are dynamic entities: both their conformation and catalytic activity fluctuate over time. Wh...
This paper summarizes our present theoretical understanding of single-molecule kinetics associated w...
The ability to dynamically probe single enzymes allows the experimental investigation of enzyme kine...
The ability to dynamically probe single enzymes allows the experimental investigation of enzyme kine...
Single enzyme molecules display inevitable, stochastic fluctuations in their catalytic activity. In ...
Recent single-molecule enzymology measurements with improved statistics have demonstrated that a sin...
Single-molecule equations for the Michaelis-Menten [Biochem. Z. 49, 333 1913] mechanism of enzyme ac...
Single-molecule equations for the Michaelis-Menten [Biochem. Z. 49, 333 1913] mechanism of enzyme ac...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are biological catalysts vital to life processes and have attracted century-long investigati...
Enzymes are dynamic entities: both their conformation and catalytic activity fluctuate over time. Wh...
This paper summarizes our present theoretical understanding of single-molecule kinetics associated w...
The ability to dynamically probe single enzymes allows the experimental investigation of enzyme kine...
The ability to dynamically probe single enzymes allows the experimental investigation of enzyme kine...
Single enzyme molecules display inevitable, stochastic fluctuations in their catalytic activity. In ...
Recent single-molecule enzymology measurements with improved statistics have demonstrated that a sin...
Single-molecule equations for the Michaelis-Menten [Biochem. Z. 49, 333 1913] mechanism of enzyme ac...
Single-molecule equations for the Michaelis-Menten [Biochem. Z. 49, 333 1913] mechanism of enzyme ac...