In this letter, we report on spatially selecting and grafting a DNA-tethered bead to an atomic force microscope (AFM) cantilever, using an optical tweezer. To quantify this technique, we measure force versus extension of a single DNA molecule using AFM. For such studies, we have developed a micromanipulation approach by combining an AFM, an optical tweezer, and visualization setup. The ability to select a single DNA polymer and specifically graft it to a localized position on a substrate opens up new possibilities in biosensors and bioelectronic devices
We have developed a nanoscopic force sensor with optical readout. The sensor consists of a single-st...
This paper explores suitable conditions for the imaging of DNA molecules by atomic force microscope ...
Sischka A, Eckel R, Tönsing K, Ros R, Anselmetti D. Compact microscope-based optical tweezers system...
A proper surface treatment of the substrate and the AFM tip with a structured molecule provided a ne...
We have constructed an optical tweezer using two lasers (830 nm and 1064 nm) combined with micropipe...
We demonstrate a simple method of stretching DNA to its full length, suitable for optical imaging an...
DNA electronics circuits require an efficient way to accurately position and individually manipulate...
We report the development of a magnetic tweezers that can be used to micromanipulate single DNA mole...
International audienceMechanical manipulation of single DNA molecules can provide novel information ...
We report the development of a magnetic tweezers that can be used to micromanipulate single DNA mole...
Optical tweezers have grown to be one of the most powerful and versatile single-molecule methods for...
AbstractAtomic force microscopy (AFM) can be used to probe the mechanics of molecular recognition be...
The importance of DNA sequencing in the life sciences and personalized medicine is continually incre...
We present the first results obtained with a new instrument designed and built to study DNA-protein ...
The atomic force microscope (AFM) and optical tweezers are tools that allow single biomolecules to b...
We have developed a nanoscopic force sensor with optical readout. The sensor consists of a single-st...
This paper explores suitable conditions for the imaging of DNA molecules by atomic force microscope ...
Sischka A, Eckel R, Tönsing K, Ros R, Anselmetti D. Compact microscope-based optical tweezers system...
A proper surface treatment of the substrate and the AFM tip with a structured molecule provided a ne...
We have constructed an optical tweezer using two lasers (830 nm and 1064 nm) combined with micropipe...
We demonstrate a simple method of stretching DNA to its full length, suitable for optical imaging an...
DNA electronics circuits require an efficient way to accurately position and individually manipulate...
We report the development of a magnetic tweezers that can be used to micromanipulate single DNA mole...
International audienceMechanical manipulation of single DNA molecules can provide novel information ...
We report the development of a magnetic tweezers that can be used to micromanipulate single DNA mole...
Optical tweezers have grown to be one of the most powerful and versatile single-molecule methods for...
AbstractAtomic force microscopy (AFM) can be used to probe the mechanics of molecular recognition be...
The importance of DNA sequencing in the life sciences and personalized medicine is continually incre...
We present the first results obtained with a new instrument designed and built to study DNA-protein ...
The atomic force microscope (AFM) and optical tweezers are tools that allow single biomolecules to b...
We have developed a nanoscopic force sensor with optical readout. The sensor consists of a single-st...
This paper explores suitable conditions for the imaging of DNA molecules by atomic force microscope ...
Sischka A, Eckel R, Tönsing K, Ros R, Anselmetti D. Compact microscope-based optical tweezers system...