International audienceMolecular motors are responsible for numerous cellular processes from cargo transport to heart contraction. Their interactions with other cellular components are often transient and exhibit kinetics that depend on load. Here, we measure such interactions using 'harmonic force spectroscopy'. In this method, harmonic oscillation of the sample stage of a laser trap immediately, automatically and randomly applies sinusoidally varying loads to a single motor molecule interacting with a single track along which it moves. The experimental protocol and the data analysis are simple, fast and efficient. The protocol accumulates statistics fast enough to deliver single-molecule results from single-molecule experiments. We demonst...
Ultrafast force-clamp spectroscopy is a single molecule technique based on laser tweezers with sub-m...
Ultrafast force-clamp spectroscopy is a single molecule technique based on laser tweezers with sub-m...
We have developed a new technique for measurements of piconewton forces and nanometer displacements ...
AbstractThe heart adjusts its power output to meet specific physiological needs through the coordina...
AbstractThe heart adjusts its power output to meet specific physiological needs through the coordina...
AbstractThe mechanical load borne by a molecular motor affects its force, sliding distance, and its ...
We describe a dual-trap force-clamp configuration that applies constant loads between a binding prot...
Despite decades of research concerning the mechano-chemistry of the molecular motor myosin, signific...
AbstractWe have developed a technique that allows mechanical and ligand-binding events in a single m...
Despite decades of research concerning the mechano-chemistry of the molecular motor myosin, signific...
Despite decades of research concerning the mechano-chemistry of the molecular motor myosin, signific...
Skeletal muscle uses more energy when it is shortening rapidly and less energy when it is maintainin...
Skeletal muscle uses more energy when it is shortening rapidly and less energy when it is maintainin...
AbstractTo better understand how skeletal muscle myosin molecules move actin filaments, we determine...
AbstractTo better understand how skeletal muscle myosin molecules move actin filaments, we determine...
Ultrafast force-clamp spectroscopy is a single molecule technique based on laser tweezers with sub-m...
Ultrafast force-clamp spectroscopy is a single molecule technique based on laser tweezers with sub-m...
We have developed a new technique for measurements of piconewton forces and nanometer displacements ...
AbstractThe heart adjusts its power output to meet specific physiological needs through the coordina...
AbstractThe heart adjusts its power output to meet specific physiological needs through the coordina...
AbstractThe mechanical load borne by a molecular motor affects its force, sliding distance, and its ...
We describe a dual-trap force-clamp configuration that applies constant loads between a binding prot...
Despite decades of research concerning the mechano-chemistry of the molecular motor myosin, signific...
AbstractWe have developed a technique that allows mechanical and ligand-binding events in a single m...
Despite decades of research concerning the mechano-chemistry of the molecular motor myosin, signific...
Despite decades of research concerning the mechano-chemistry of the molecular motor myosin, signific...
Skeletal muscle uses more energy when it is shortening rapidly and less energy when it is maintainin...
Skeletal muscle uses more energy when it is shortening rapidly and less energy when it is maintainin...
AbstractTo better understand how skeletal muscle myosin molecules move actin filaments, we determine...
AbstractTo better understand how skeletal muscle myosin molecules move actin filaments, we determine...
Ultrafast force-clamp spectroscopy is a single molecule technique based on laser tweezers with sub-m...
Ultrafast force-clamp spectroscopy is a single molecule technique based on laser tweezers with sub-m...
We have developed a new technique for measurements of piconewton forces and nanometer displacements ...