Add to ORKGABSTRACT Force probe techniques such as atomic force microscopy can directly measure the force required to rupture single biological ligand receptor bonds. Such forces are related to the energy landscape of these weak, noncovalent biological interactions. We report unbinding force measurements between complementary strands of DNA as a function of temperature. Our measurements emphasize the entropic contributions to the energy landscape of the bond
Nanoscale manipulation of individual biomolecules, using such techniques as the atomic force microsc...
Detailed mechanisms of DNA clamps in prokaryotic and eukaryotic systems were investigated by probing...
ABSTRACT Changes in the elastic properties of single deoxyribonucleic acid (DNA) molecules in the pr...
AbstractForce probe techniques such as atomic force microscopy can directly measure the force requir...
Weak non-covalent interactions such as hydrogen bonds, van der Waals forces and hydrophobic interact...
Determining numbers of proteins bound to large DNAs is important for understanding their chromosomal...
Determining numbers of proteins bound to large DNAs is important for understanding their chromo-soma...
AbstractBackground: Specific interactions between complementary strands of DNA and other molecules a...
The specific binding between the two DNA strands in a double helix is one of the most fundamental an...
The unzipping transition under the influence of external force of a dsDNA molecule has been studied ...
We report for the first time an atomic force microscopy (AFM) investigation of the dependence of unb...
The force-driven separation of double-stranded DNA is crucial to the accomplishment of cellular pro-...
AbstractStrand separation of double-stranded DNA is a crucial step for essential cellular processes ...
Studying the thermal fluctuations of DNA molecules reveals not only a wealth of interesting equilibr...
Quantifying the basic intra- and inter-molecular forces of DNA has helped us to better understand an...
Nanoscale manipulation of individual biomolecules, using such techniques as the atomic force microsc...
Detailed mechanisms of DNA clamps in prokaryotic and eukaryotic systems were investigated by probing...
ABSTRACT Changes in the elastic properties of single deoxyribonucleic acid (DNA) molecules in the pr...
AbstractForce probe techniques such as atomic force microscopy can directly measure the force requir...
Weak non-covalent interactions such as hydrogen bonds, van der Waals forces and hydrophobic interact...
Determining numbers of proteins bound to large DNAs is important for understanding their chromosomal...
Determining numbers of proteins bound to large DNAs is important for understanding their chromo-soma...
AbstractBackground: Specific interactions between complementary strands of DNA and other molecules a...
The specific binding between the two DNA strands in a double helix is one of the most fundamental an...
The unzipping transition under the influence of external force of a dsDNA molecule has been studied ...
We report for the first time an atomic force microscopy (AFM) investigation of the dependence of unb...
The force-driven separation of double-stranded DNA is crucial to the accomplishment of cellular pro-...
AbstractStrand separation of double-stranded DNA is a crucial step for essential cellular processes ...
Studying the thermal fluctuations of DNA molecules reveals not only a wealth of interesting equilibr...
Quantifying the basic intra- and inter-molecular forces of DNA has helped us to better understand an...
Nanoscale manipulation of individual biomolecules, using such techniques as the atomic force microsc...
Detailed mechanisms of DNA clamps in prokaryotic and eukaryotic systems were investigated by probing...
ABSTRACT Changes in the elastic properties of single deoxyribonucleic acid (DNA) molecules in the pr...