Analysis of transcription factor binding to DNA sequences is of utmost importance to understand the intricate regulatory mechanisms that underlie gene expression. Several techniques exist that quantify DNA-protein affinity, but they are either very time-consuming or suffer from possible misinterpretation due to complicated algorithms or approximations like many high-throughput techniques. We present a more direct method to quantify DNA-protein interaction in a force-based assay. In contrast to single-molecule force spectroscopy, our technique, the Molecular Force Assay (MFA),parallelizes force measurements so that it can test one or multiple proteins against several DNA sequences in a single experiment. The interaction strength is quantifie...
Several methods for characterizing DNA-protein interactions are available, but none have demonstrate...
Atomic force microscopy (AFM) has proven to be a powerful tool for the study of DNA-protein interact...
Ritzefeld M, Walhorn V, Anselmetti D, Sewald N. Analysis of DNA interactions using single-molecule f...
Analysis of transcription factor binding to DNA sequences is of utmost importance to understand the ...
Analysis of transcription factor binding to DNA sequences is of utmost importance to understand the ...
Analysis of transcription factor binding to DNA sequences is of utmost importance to understand the ...
An accurate and genome-wide characterization of protein–DNA interactions such as transcription facto...
Quantitative proteome research is greatly promoted by high-resolution parallel format assays. A char...
The detailed study of protein-DNA interactions is a core effort to elucidate physiological processes...
We present a general high-throughput approach to accurately quantify DNA±protein interactions, which...
We present a general high-throughput approach to accurately quantify DNA-protein interactions, which...
Quantitative proteome research is greatly promoted by high-resolution parallel format assays. A char...
AbstractWe present unzipping force analysis of protein association (UFAPA) as a novel and versatile ...
Transcription factor-DNA interactions are some of the most important processes in biology because th...
Several methods for characterizing DNA-protein interactions are available, but none have demonstrate...
Atomic force microscopy (AFM) has proven to be a powerful tool for the study of DNA-protein interact...
Ritzefeld M, Walhorn V, Anselmetti D, Sewald N. Analysis of DNA interactions using single-molecule f...
Analysis of transcription factor binding to DNA sequences is of utmost importance to understand the ...
Analysis of transcription factor binding to DNA sequences is of utmost importance to understand the ...
Analysis of transcription factor binding to DNA sequences is of utmost importance to understand the ...
An accurate and genome-wide characterization of protein–DNA interactions such as transcription facto...
Quantitative proteome research is greatly promoted by high-resolution parallel format assays. A char...
The detailed study of protein-DNA interactions is a core effort to elucidate physiological processes...
We present a general high-throughput approach to accurately quantify DNA±protein interactions, which...
We present a general high-throughput approach to accurately quantify DNA-protein interactions, which...
Quantitative proteome research is greatly promoted by high-resolution parallel format assays. A char...
AbstractWe present unzipping force analysis of protein association (UFAPA) as a novel and versatile ...
Transcription factor-DNA interactions are some of the most important processes in biology because th...
Several methods for characterizing DNA-protein interactions are available, but none have demonstrate...
Atomic force microscopy (AFM) has proven to be a powerful tool for the study of DNA-protein interact...
Ritzefeld M, Walhorn V, Anselmetti D, Sewald N. Analysis of DNA interactions using single-molecule f...