Single-molecule techniques are powerful tools that can be used to study the kinetics and
mechanics of a variety of enzymes and their complexes. Force spectroscopy, for example …

To study the behavior of biological macromolecules and enzymatic reactions under force,
advances in single-molecule force spectroscopy have proven instrumental. Magnetic …

Magnetic tweezers are a wide-spread tool used to study the mechanics and the function of a
large variety of biomolecules and biomolecular machines. This tool uses a magnetic particle …

Over the last decade, single-molecule techniques have proven their wide applicability in the
study of processive motor proteins and other enzymes, yielding insight into their kinetics and …

Magnetic tweezers are a single-molecule force and torque spectroscopy technique that
enable the mechanical interrogation in vitro of biomolecules, such as nucleic acids and …

Magnetic tweezers are a powerful technique to perform high-throughput and high-resolution
force spectroscopy experiments at the single-molecule level. The camera-based detection of …

Single-molecule techniques make it possible to investigate the behavior of individual
biological molecules in solution in real time. These techniques include so-called force …

Single molecule force spectroscopy methods, such as optical and magnetic tweezers and
atomic force microscopy, have opened up the possibility to study biological processes …

Single-molecule magnetic tweezers deliver magnetic force and torque to single target
molecules, permitting the study of dynamic changes in biomolecular structures and their …

Single-molecule force-spectroscopy methods such as magnetic and optical tweezers have
emerged as powerful tools for the detailed study of biomechanical aspects of DNA-enzyme …