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Methods in Protein-RNA Interactions
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Yang Yang

Yang Yang

Roy J. Carver Department of Biochemistry, Biophysics, and Molecular Biology, Iowa State University

<p>Dr. Yang Yang is an assistant professor in the Roy J. Carver Department of Biochemistry, Biophysics, and Molecular Biology at Iowa State University. His research focuses on the mechanisms underlying various nucleic acid processes during the replication, transcription, and processing of viral and bacterial genomes. His lab utilizes a combination of structural biology, protein-RNA biochemistry, and cell biological approaches to study these phenomena.&nbsp;</p><p><br></p><p>Dr. Yang earned his PhD from the University of Minnesota, where he investigated the mechanisms of receptor recognition and cell entry of coronaviruses. He completed postdoctoral research at Yale University, focusing on the structural studies of fundamental protein-nucleic acid complexes involved in DNA/RNA replication, transcription, and transposition.</p>

Collection Overview

Protein-RNA interactions are central to gene expression, RNA processing, localization, and stability, with dysregulation linked to diseases such as cancer, neurodegeneration, and viral infections. Understanding these interactions is critical for unraveling molecular mechanisms of cellular function and pathology, as well as for developing targeted therapies. However, accurately capturing these dynamic, context-dependent complexes remains technically challenging due to their transient nature, low abundance, and structural diversity. Robust, reproducible methods are essential to advance both basic research and translational applications.

This Methods Collection aims to consolidate cutting-edge and established techniques for studying protein-RNA interactions, providing a comprehensive resource that addresses methodological gaps. Examples of methods and protocols to be included in this Methods Collection are electrophoretic mobility shift assay (EMSA), fluorescence polarization, CLIP-seq, RIP-seq, crosslinking strategies, and emerging technologies like single-molecule imaging and CRISPR-based screening. 

Such a compilation can inform researchers of the diverse range of strategies to measure the interactions between proteins and RNAs in vitro and in cells and help them select optimal workflows for their specific needs. It also empowers the research community to decode complex RNA-protein networks with higher precision, driving breakthroughs in biomedicine and biotechnology.

Articles

Optimized Analysis of Proteins from <em>Xenopus</em> Oocytes and Embryos by Immunoblotting
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Optimized Analysis of Proteins from Xenopus Oocytes and Embryos by Immunoblotting

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2025