16S, 18s and ITS Sequencing Service.. any amplicon functional genes any size amplicon
Available with any primer combinations the investigator chooses.
- MR DNA has all common 16s, ITS, 18s, coi, markers as well as a wide range of other taxonomic and functional gene markers
- custom primers or primers we do not have .. no problem
We suggest speaking to MR DNA http://www.mrdnalab.com for any amplicon sequencing.. They make is so easy.
ITS2 rRNA Gene Sequencing Service
ITS2 rRNA gene sequencing, or ITS2 amplicon sequencing is performed to determine the relative abundance of taxa in a fungal community, and to compare between groups of interest.
DNA extraction and quality control
DNA is extracted from samples using the Qiagen PowerSoil DNA Kit (formerly MO BIO PowerSoil DNA Kit) manually for every sample to ensure that there are no errors. We tried all the robots and over-all they work, they definitely save a ton of time and money but for best results our scientists have chosen to do all DNA extractions manually.
DNA quantification and quality checks are done via Qubit, nanodrop and Agilent bioanalyzer as needed.
MR DNA is a small but efficient operation that takes care of our clients. We offer low prices. Certainly the large labs can often beat our prices but so many of our customers come back to us over and over both for the high quality service but also the data consistency.
You are always talking to the same person with MR DNA, by phone or email, you are taken care of immediately and with high priority.
Here’s a comprehensive content draft tailored for a webpage focused on long-read high-fidelity diversity sequencing:
Long-read high-fidelity sequencing represents a cutting-edge advancement in genomics, unlocking unparalleled insights into the complexity of microbial, fungal, and other biological communities. This powerful sequencing technology excels in generating long, contiguous reads with exceptional accuracy, making it ideal for exploring genetic diversity across metagenomes, microbiomes, and even complex eukaryotic genomes. By combining length and precision, high-fidelity sequencing provides a more comprehensive understanding of genetic variability and structural variations that were previously difficult to detect.
This technology is particularly transformative for microbiome studies, where capturing the full genetic repertoire of bacteria, fungi, archaea, and viruses is critical. Long-read sequencing accurately resolves species-level differences and uncovers functional genes, enabling researchers to better understand metabolic pathways, symbiotic relationships, and environmental interactions. For example, it enables the differentiation of closely related species, resolves complex repeat regions, and identifies novel genes in functional assays, all of which are pivotal for advancing fields like human health, agriculture, and environmental science.
High-fidelity sequencing offers immense advantages for diverse applications such as amplicon sequencing, metagenomics, and transcriptomics. It has been widely adopted for studying microbial ecology, tracking antibiotic resistance genes, and exploring the roles of unculturable microbes in dynamic ecosystems. This approach is also indispensable for structural variant analysis, isoform detection, and resolving telomere-to-telomere assemblies. The ability to generate long, accurate reads allows researchers to piece together highly repetitive or complex regions, leading to a deeper and more reliable understanding of genomes. With its broad applicability and unmatched performance, long-read high-fidelity sequencing is redefining the boundaries of genomic exploration.
At MR DNA, we harness the power of long-read high-fidelity sequencing to deliver robust, accurate, and comprehensive genomic solutions for a wide range of research needs. From environmental microbiomes to clinical diagnostics, our state-of-the-art facilities are equipped to tackle the most challenging sequencing projects with precision. Explore the future of genomics with MR DNA, where innovation meets excellence. Visit MR DNA to learn more.
http://www.bacterial-diversity.com