Nanopore sequencing is an advanced technology for analyzing biomolecules with a wide range of applications across life sciences. It enables rapid, accurate, and real-time sequencing, making it a powerful tool for diverse research and clinical applications
Oxford Nanopore Sequencing Services
Real-Time Long-Read Sequencing for Advanced Genomics Research
N2Jenomics Lab offers comprehensive Oxford Nanopore Sequencing services for researchers requiring rapid, long-read sequencing with real-time data generation. Nanopore sequencing enables direct analysis of DNA and RNA molecules without the need for extensive amplification, making it an ideal solution for complex genomic studies, transcriptomics, metagenomics, structural variant detection, and epigenetic research.
By leveraging advanced long-read sequencing technology, we help researchers obtain high-quality genomic information from a wide range of biological samples, supporting both small-scale and large-scale research projects.
What is Oxford Nanopore Sequencing?
Oxford Nanopore Sequencing is a third-generation sequencing technology that determines nucleotide sequences by measuring changes in ionic current as individual DNA or RNA molecules pass through microscopic nanopores. Unlike conventional sequencing methods, nanopore technology can sequence extremely long DNA fragments in real time while also enabling the direct detection of base modifications such as DNA methylation.
This approach provides researchers with greater insight into complex genomic regions that are often difficult to resolve using short-read sequencing platforms.
Advantages of Oxford Nanopore Sequencing
Our Nanopore sequencing platform offers several benefits for modern genomics research:
Our Sequencing Workflow
At N2Jenomics Lab, every project follows a carefully designed workflow to ensure reliable and reproducible results:
Applications
Our Oxford Nanopore Sequencing services support a broad range of life science research applications.
Whole Genome Sequencing
Generate long sequencing reads for comprehensive genome characterization, enabling accurate analysis of complex genomic structures and repetitive regions.
De Novo Genome Assembly
Construct high-quality reference genomes for plants, animals, microorganisms, and environmental samples without relying solely on existing reference genomes.
Structural Variant Detection
Identify large insertions, deletions, inversions, duplications, translocations, and other structural genomic variations that may be challenging to detect using short-read technologies.
Full-Length RNA Sequencing
Sequence complete RNA molecules to characterize transcript isoforms, alternative splicing events, fusion transcripts, and gene expression profiles.
Epigenetic Analysis
Directly detect DNA and RNA modifications, including methylation patterns, without chemical conversion or additional sample processing.
Metagenomic Sequencing
Analyze complex microbial communities for biodiversity studies, pathogen identification, antimicrobial resistance research, environmental microbiology, and microbiome investigations.
Plasmid and Microbial Genome Sequencing
Obtain complete bacterial genomes and plasmid sequences for infectious disease research, molecular epidemiology, and microbial characterization.
Bioinformatics Services
N2Jenomics Lab provides comprehensive downstream bioinformatics support, including:
Project Deliverables
Depending on the scope of your project, deliverables may include:
Why Choose N2Jenomics Lab?
N2Jenomics Lab combines advanced sequencing technologies with experienced molecular biologists and bioinformatics experts to deliver reliable, high-quality genomic data. Our flexible workflows are designed to support researchers in academia, biotechnology, pharmaceutical development, agriculture, microbiology, environmental sciences, and precision medicine.
Whether your project involves genome assembly, transcriptomics, microbial genomics, structural variation, or epigenetic analysis, our Oxford Nanopore Sequencing services provide accurate, scalable, and research-focused solutions tailored to your scientific goals.