m6Am-Exo-seq — Precision Study of RNA 5' Cap Methylation Modification

Unlock the power of m6Am RNA methylation with CD Genomics' m6Am-Exo-seq technology. Our cutting-edge service offers precise identification of m6Am modification sites across the transcriptome, empowering your research in gene regulation, disease mechanisms, and drug discovery.

High Sensitivity & Accuracy: Detect m6Am modifications with single-base resolution.
Low Sample Requirements: Analyze transcriptomic data with minimal sample input.
Dynamic Tracking: Study m6Am level changes under various stress conditions.

Enhance your understanding of RNA modifications with our reliable, high-resolution sequencing service.

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m6Am-Exo-seq Dual IP Library Construction Workflow

What is m6Am Methylation? Unlock the Potential of RNA Modifications

m6Am methylation is an important modification found just after the 5' cap of mRNA. This specific modification plays a significant role in stabilizing RNA, controlling its translation, and ensuring its proper function within the cell. It directly influences gene expression, making it essential for understanding a variety of biological processes.

Why m6Am Matters for Your Research

A Unique Role in Gene Regulation
What sets m6Am apart from other RNA modifications is its location at the 5' cap. This position makes it critical for RNA stability and the initiation of translation. It helps protect mRNA and ensures it's ready for translation, playing a key role in the precise regulation of gene expression.
Dynamic and Adaptable
One of the most fascinating features of m6Am is how it responds to changes in the environment. m6Am levels can fluctuate in reaction to stressors like heat or low oxygen, allowing cells to quickly adapt to changes. This makes m6Am an invaluable tool for studying how cells react to different stimuli.
m6Am vs m6A
Unlike m6A, which is widely distributed throughout the transcriptome, m6Am is specifically found at the 5' cap of mRNA. This unique position allows m6Am to play a more direct role in regulating gene expression, offering deeper insights into RNA's function.

Infographic illustrating m6Am methylation, showing its unique role in gene regulation, dynamic adaptability, comparison with m6A, and the advantages of using m6Am-Exo-seq technology for precise analysis.

Why Choose m6Am-Exo-seq for Your Research?

m6Am-Exo-seq offers a precise and effective way to study m6Am modifications, helping you gain valuable insights into how m6Am influences gene expression and cellular processes. Whether you're investigating disease mechanisms, stress responses, or working on new therapies, our technology allows you to analyze m6Am with unparalleled accuracy and efficiency.

Harness the potential of m6Am methylation with our high-resolution sequencing technology and elevate your research today.

Service Workflow

m6Am RNA Modification Analysis Service Workflow – Your Step-by-Step Guide

Sample Extraction & Quality Control

Ensure RNA purity, concentration, and integrity
Verify sample suitability for sequencing

m6Am Modification Enrichment

Use Exo technology for targeted enrichment
Remove non-target signals for precise results

Library Construction & High-Throughput Sequencing

Reverse transcribe and prepare RNA for sequencing
Use high-throughput sequencing for comprehensive data

Data Analysis & Reporting

Basic analysis and Motif analysis
GO/KEGG pathway analysis
Advanced visualizations (heatmaps, IGV peak plots)

Bioinformatics

Comprehensive Data Analysis & Actionable Insights

Once your samples are sequenced, we provide detailed analysis to help you unlock key insights and drive your research forward.

Basic Analysis

Quality Control: We check data quality, ensuring reliable results from the start.
Alignment & Peak Annotation: Accurate alignment to the reference genome, with detailed annotation of enriched regions.
Modification Site & Motif Analysis: Identify m6Am modification sites and analyze sequence motifs.

Advanced Analysis

Differential Modification Heatmaps: Visualize changes in m6Am levels across different conditions, highlighting key patterns.
Cumulative Distribution & GO/KEGG Analysis: Understand how modifications affect gene function and pathways.
IGV Peak Plots: Interactive visualizations for clearer interpretation of modification sites.

m6Am RNA Modification Analysis – Bioinformatics Analysis Workflow

Applications

Where m6Am-Exo-seq Accelerates Your Discovery

Understanding RNA Modifications and Gene Expression

RNA modifications, particularly m6Am, are fundamental in regulating RNA stability, translation, and gene expression. m6Am-Exo-seq enables precise identification of m6Am modification sites, providing insights into:

How RNA modifications influence gene expression at the post-transcriptional level
The impact of m6Am on RNA stability and translation efficiency
The role of m6Am in cellular responses to environmental stress

Investigating Disease Mechanisms

m6Am modifications offer valuable information about how RNA regulation can be altered in various disease models. m6Am-Exo-seq helps reveal:

The involvement of m6Am in cellular dysfunction and disease progression
How RNA modifications mediate stress responses and contribute to cellular reprogramming
Potential markers for understanding disease mechanisms and progression

Exploring Non-Coding RNA Function

Non-coding RNAs (ncRNAs) play an essential role in gene regulation, though their precise mechanisms are not fully understood. m6Am-Exo-seq allows researchers to explore:

How m6Am modifications influence long non-coding RNAs (lncRNAs) and other ncRNAs
New insights into how ncRNAs affect cellular processes through modifications
Potential therapeutic targets within non-coding RNA pathways

Advancing RNA-based Therapeutic Research

Understanding how RNA modifications like m6Am impact gene expression is crucial for developing RNA-targeted therapies. m6Am-Exo-seq provides the ability to:

Identify m6Am modification sites as potential targets for further research
Investigate how RNA modifications can be modulated for therapeutic development
Explore how m6Am can contribute to the evolution of RNA-based therapeutic strategies

Sample Requirements

m6Am RNA Modification Analysis – Sample Preparation Guidelines

To ensure the accuracy and high quality of m6Am RNA modification analysis, please prepare and submit samples according to the following guidelines:

Sample Type	Key Requirements	Storage & Transport	Notes
Total RNA	≥100 µg	Stored at -80°C, shipped on dry ice	Ensure high purity, free of RNAse contamination
Cell Samples	≥5×10⁷ cells	Snap-frozen in liquid nitrogen, stored at -80°C, shipped on dry ice	Fresh or cultured cells accepted
Tissue Samples	≥100 mg tissue or slices	Snap-frozen in liquid nitrogen, stored at -80°C, shipped on dry ice	Avoid repeated freeze-thaw cycles

Species Limitation:

This service is limited to human and mouse species. For samples from other species, further evaluation is required to ensure suitability for analysis.

If your samples have specific requirements or you encounter any issues, please feel free to contact our expert team. We will provide comprehensive support and guidance.

Publications

Client Publications – Showcasing the Impact of Our Epigenomics and Epitranscriptomics Services

Here are some publications by our clients who have used our Epigenomics and Epitranscriptomics sequencing services to enhance their research. These studies showcase the diverse applications of our services in fields like DNA methylation, gene regulation, and multi-omics research.

Eileen, Lindsey, and Maria Peterson. "High-Fat Diets Fed during Pregnancy Cause Changes to Pancreatic Tissue DNA Methylation and Protein Expression in the Offspring: A Multi-Omics Approach." International Journal of Molecular Sciences (2024). https://doi.org/10.3390/ijms25137317
Gretarsson, Kristjan H., et al. "Cancer-associated DNA hypermethylation of Polycomb targets requires DNMT3A dual recognition of histone H2AK119 ubiquitination and the nucleosome acidic patch." Science Advances (2024). DOI: 10.1126/sciadv.adp0975
Williams, Madison C., et al. "Restriction endonuclease cleavage of phage DNA enables resuscitation from Cas13-induced bacterial dormancy." Nature microbiology (2023). https://doi.org/10.1038/s41564-022-01318-2
Wang, Wenwen, et al. "Genomic imprinting-like monoallelic paternal expression determines sex of channel catfish." Science Advances (2022). DOI: 10.1126/sciadv.adc8786

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Advantages

Key Benefits of m6Am RNA Modification Analysis for Advanced Research

We know there are many services out there promising "sensitivity" and "comprehensiveness," but here's why m6Am-Exo-seq really stands out for researchers like you:

Work with Less RNA

Getting enough RNA for modification studies can be tough. Our m6Am-Exo-seq gets accurate results even from limited samples, so you can make the most of what you have without the need for repeat experiments.

Full Transcriptome Coverage

Traditional methods often miss m6Am's role in lncRNA regulation. Our approach covers both mRNA and lncRNA, giving you a more complete view of RNA modifications across the transcriptome.

Clear Bioinformatics

We don't just send you raw data. We highlight the key modification sites, link them to pathways, and provide easy-to-understand visualizations, so you get actionable insights without the clutter.

Fast Results, No Delays

Our process is designed for speed and reliability, delivering high-quality data quickly so you can keep your research moving forward.

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