Rna Modification Assay
Rna Modification Assay - Related Videos
05:16
MeRIP-qPCR Assay for Detecting m6A Modification Levels of Specific RNA in Osteosarcoma Cells
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2025
This protocol provides a detailed approach to assessing m6A modification levels of specific RNA using MeRIP-qPCR.
08:40
Dot Blot Assay for Detecting Global N6-Methyladenosine RNA Modification Levels
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2026
Here, we present a protocol to semi-quantitatively assess global m⁶A levels using dot blot. Total RNA is extracted, denatured, spotted on a nylon membrane, probed with anti-m⁶A antibody, and visualized by chemiluminescence. Signal intensity, quantified by ImageJ grayscale analysis, reflects relative methylation abundance, providing a reproducible workflow for research.
08:56
A Method for Measuring RNA N6-methyladenosine Modifications in Cells and Tissues
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Cited by 7 •
2016
A modified northern blotting method for measuring N6-methyladenosine (m6A) modifications in RNA is described. The current method can detect modifications in diverse RNAs and controls under various experimental designs.
08:50
Methylated RNA Immunoprecipitation Assay to Study m5C Modification in Arabidopsis
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Cited by 18 •
2020
The methylated RNA immunoprecipitation assay is an antibody-based method used to enrich for methylated RNA fragments. Coupled with deep sequencing, it leads to the identification of transcripts carrying the m5C modification.
11:37
Protocol for the Solid-phase Synthesis of Oligomers of RNA Containing a 2'-O-thiophenylmethyl Modification and Characterization via Circular Dichroism
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Cited by 5 •
2017
This article provides a detailed procedure on the solid-phase synthesis, purification, and characterization of dodecamers of RNA modified at the C2'-O-position. UV-vis and circular dichroism photometric analyses are used to quantify and characterize structural aspects, i.e., single-strands or double-strands.
FAQs
The assay format determines the discrimination mechanism. Selective chemical reactions can respond differently to modified nucleotides, while modification-sensitive enzymes alter the treatment of RNA according to its chemical state. Affinity capture separates RNA carrying a recognized modification, and sequencing-based readouts provide a way to compare modified and unmodified populations.
Chemical changes to RNA nucleotides can influence how RNA is regulated and how it behaves in cells. Their effects may be evaluated through consequences for RNA stability, translation, or localization. Measuring these changes therefore connects nucleotide chemistry with functional outcomes and helps explain how RNA activity varies across biological conditions.
These approaches examine modification status through different analytical principles. Chemical reactions and modification-sensitive enzymes create differential responses, whereas affinity capture enriches RNA recognized through a modification-dependent interaction. Sequencing-based readouts offer a readout for comparing modification patterns. The appropriate format depends on the modification and the information the experiment is designed to obtain.
A typical workflow begins by selecting the RNA modification and matching it to an assay design. The RNA is then subjected to a selective chemical reaction, modification-sensitive enzymatic treatment, affinity capture, or sequencing-based analysis. The resulting signal or readout is interpreted to distinguish modified from unmodified RNA and compare experimental samples.
Researchers can apply the method when they need to characterize epitranscriptomic patterns or examine how those patterns change between cells or experimental conditions. It is also useful for studying RNA responses to cellular stress and for relating modification profiles to stability, translation, or localization. These comparisons provide biochemical context for changes in RNA regulation.
In molecular and biochemical research, these assays support investigations of gene regulation, disease mechanisms, and RNA therapeutics. They can reveal whether RNA modification patterns differ among cellular states and help evaluate potential functional consequences. By linking chemical changes with RNA behavior, the measurements contribute to broader studies of regulated gene expression and cellular adaptation.