Visualizing RNA structure ensembles by single-molecule correlated chemical probing

Area of Science:

• Molecular Biology
• Biochemistry
• Structural Biology

Background:

• RNA molecules fold into complex structures with distinct functional states.
• Traditional methods obscure the heterogeneity of RNA structure ensembles.
• Analyzing RNA structures within cells presents significant challenges.

Purpose of the Study:

• To provide an overview of single-molecule probing principles.
• To review current strategies for deconvoluting RNA structure ensembles.
• To discuss recent applications of these methods in biological systems.

Main Methods:

• Single-molecule correlated chemical probing (smCCP) enables measurement of RNA structure ensembles.
• Chemical probing experiments are efficiently executed to gather data.
• Ensemble deconvolution strategies are employed to analyze heterogeneous RNA structures.

Main Results:

• smCCP allows for the measurement and deconvolution of RNA structure ensembles.
• This approach overcomes the limitations of averaged or computationally modeled structures.
• Recent applications demonstrate the utility of smCCP in diverse biological systems.

Conclusions:

• smCCP is revolutionizing the understanding of RNA structure plasticity.
• RNA structure plasticity is crucial for responding to stimuli and altering gene function.
• Targeting specific RNA ensemble subsets holds potential for modulating disease-associated processes.