Membrane proteins play important roles in biological functions, with accompanying allosteric structure changes. Understanding intramolecular dynamics helps elucidate catalytic mechanisms and develop new drugs. In contrast to the various technologies for structural analysis, methods for analyzing intramolecular dynamics are limited. Single-molecule measurements using optical microscopy have been widely used for kinetic analysis. Recently, improvements in detectors and image analysis technology have made it possible to use single-molecule determination methods using X-rays and electron beams, such as diffracted X-ray tracking (DXT), X-ray free electron laser (XFEL) imaging, and cryo-electron microscopy (cryo-EM). High-speed atomic force micro...
金沢大学理工研究域バイオAFM先端研究センターProteins are dynamic in nature and work at the single molecule level. Therefo...
Proteins are dynamic in nature and work at the single-molecule level. Reflecting this fact, single-m...
Single sodium-driven rotors from a bacterial ATP synthase were embedded into a lipid membrane and ob...
International audienceFor surface analysis of biological molecules, atomic force microscopy (AFM) is...
Single molecule experiments provide insight into the individuality of biological macromolecules, the...
In the life sciences, it has long been a dream to view the nanometer-scale dynamic behavior of indiv...
Membrane proteins change their conformations in response to chemical and physical stimuli and transm...
Single molecule experiments provide insight into the individuality of biological macromolecules, the...
The advent of single molecule fluorescence microscopy has allowed experimental molecular biophysics ...
This paper demonstrates that an atomic force microscope can be used to directly monitor rapid membra...
Molecular machines made of proteins are highly dynamic and carry out sophisticated biological functi...
Fundamental biological processes such as cell-cell communication, signal transduction, molecular tra...
Recent decades have seen several complimentary biophysics tools emerge to study single protein macro...
AbstractMolecular machines made of proteins are highly dynamic and carry out sophisticated biologica...
Dynamics are fundamental to the functions of biomolecules and can occur on a wide range of time and ...
金沢大学理工研究域バイオAFM先端研究センターProteins are dynamic in nature and work at the single molecule level. Therefo...
Proteins are dynamic in nature and work at the single-molecule level. Reflecting this fact, single-m...
Single sodium-driven rotors from a bacterial ATP synthase were embedded into a lipid membrane and ob...
International audienceFor surface analysis of biological molecules, atomic force microscopy (AFM) is...
Single molecule experiments provide insight into the individuality of biological macromolecules, the...
In the life sciences, it has long been a dream to view the nanometer-scale dynamic behavior of indiv...
Membrane proteins change their conformations in response to chemical and physical stimuli and transm...
Single molecule experiments provide insight into the individuality of biological macromolecules, the...
The advent of single molecule fluorescence microscopy has allowed experimental molecular biophysics ...
This paper demonstrates that an atomic force microscope can be used to directly monitor rapid membra...
Molecular machines made of proteins are highly dynamic and carry out sophisticated biological functi...
Fundamental biological processes such as cell-cell communication, signal transduction, molecular tra...
Recent decades have seen several complimentary biophysics tools emerge to study single protein macro...
AbstractMolecular machines made of proteins are highly dynamic and carry out sophisticated biologica...
Dynamics are fundamental to the functions of biomolecules and can occur on a wide range of time and ...
金沢大学理工研究域バイオAFM先端研究センターProteins are dynamic in nature and work at the single molecule level. Therefo...
Proteins are dynamic in nature and work at the single-molecule level. Reflecting this fact, single-m...
Single sodium-driven rotors from a bacterial ATP synthase were embedded into a lipid membrane and ob...