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High-Throughput Protein-Nucleic Acid Interaction Assay Based on Protein-Induced Fluorescence Enhancement.

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Molecular processes involved in gene expression encompass multitudes of interactions between proteins and nucleic acids. Quantitative description of these interactions is crucial for delineating the mechanisms governing transcription, genome duplication,… Click to show full abstract

Molecular processes involved in gene expression encompass multitudes of interactions between proteins and nucleic acids. Quantitative description of these interactions is crucial for delineating the mechanisms governing transcription, genome duplication, and translation. Here we describe a detailed protocol for the quantitative analysis of protein-nucleic acid interactions based on protein-induced fluorescence enhancement (PIFE). While PIFE has mainly been used in single-molecule studies, we modified its application for bulk measurement of protein-nucleic acid interactions in microwell plates using standard fluorescent plate readers. The microwell plate PIFE assay (mwPIFE) is simple, does not require laborious protein labeling, and is high throughput. These properties predispose mwPIFE to become a method of choice for routine applications that require multiple parallel measurements such as buffer optimization, competition experiments, or screening chemical libraries for binding modulators.

Keywords: protein; protein nucleic; based protein; protein induced; induced fluorescence; nucleic acid

Journal Title: Methods in molecular biology
Year Published: 2021

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