Delving into the intricate world of microorganisms, 16S/18S/ITS amplification sequencing emerges as a powerful tool for scientists and researchers. This technique, championed by CapitalBio, offers a window into the diverse communities of bacteria, archaea, and fungi present in various environments, from the human gut to soil samples. By understanding the principles and workflow of this sequencing approach, we unlock its potential to revolutionize fields like medicine, agriculture, and environmental science.
16S/18S/ITS Amplification Sequencing Core Principles: Diving into the Molecular Machinery
16S 18S ITS amplification sequencing hinges on the unique properties of ribosomal RNA (rRNA) genes. These genes, present in all living organisms, exhibit highly conserved regions interspersed with hypervariable segments. The conserved regions serve as perfect targets for "universal primers," short DNA sequences designed to bind to a wide range of organisms within a specific domain (bacteria/archaea or eukaryotes).
16S rRNA: This gene is primarily used for bacterial and archaeal identification and classification. Its hypervariable regions offer sufficient variability to differentiate even closely related species.
18S rRNA: This gene serves as a marker for eukaryotic diversity, particularly fungi. Similar to 16S rRNA, its hypervariable regions allow for species-level resolution.
ITS (Internal Transcribed Spacer): This non-coding region exists between the 18S and 5.8S rRNA genes in fungi. Its high variability provides even finer taxonomic resolution compared to 18S rRNA alone.
16S/18S/ITS Amplification Sequencing Workflow: A Step-by-Step Journey
1. Sample Collection and DNA Extraction: The journey begins with collecting the sample of interest, be it soil, water, or a human tissue biopsy. CapitalBio's experts employ specialized techniques to extract high-quality DNA from the sample, ensuring a representative snapshot of the microbial community.
2. PCR Amplification: Using the chosen universal primers, CapitalBio performs a polymerase chain reaction (PCR) to amplify the target 16S/18S/ITS regions. This step exponentially increases the number of copies of these regions, making them suitable for subsequent sequencing.
3. Library Preparation: The amplified DNA fragments undergo library preparation, where they are fragmented, adapter sequences are added, and size selection is performed. These steps ensure compatibility with the chosen sequencing platform.
4. High-Throughput Sequencing: CapitalBio utilizes advanced sequencing technologies like Illumina or Ion Torrent to generate millions of short reads from the prepared library. These reads represent individual DNA fragments from the amplified regions.
5. Data Analysis and Interpretation: The generated sequencing data undergoes bioinformatic analysis, where experts use specialized software to identify and classify the microorganisms present in the sample based on their 16S/18S/ITS sequences. CapitalBio's team provides comprehensive reports and visualizations that translate complex data into meaningful insights.
Applications: Unveiling the Power of Microbiome Analysis
16S/18S/ITS amplification sequencing offered by CapitalBio finds application in diverse fields:
Human Health: Identifying gut microbiota associated with various diseases, monitoring responses to treatment, and developing personalized probiotics.
Agriculture: Characterizing soil microbial communities for improved crop yields and sustainable agricultural practices.
Environmental Monitoring: Assessing water quality, tracking the spread of pathogens, and monitoring the impact of pollutants on ecosystems.
Food Safety: Detecting foodborne pathogens and ensuring food quality control.
CapitalBio: Your Partner in Microbiome Exploration
CapitalBio, with its expertise and commitment to cutting-edge technology, stands as a trusted partner for researchers and companies seeking to unlock the secrets of the microbiome. By offering high-quality 16S/18S/ITS amplification sequencing services, CapitalBio empowers its clients to gain valuable insights into the microbial world, paving the way for groundbreaking discoveries and advancements in various fields.
What Is Chromosome Karyotype Analysis?April 4, 2023Chromosome karyotype analysis is a technique that traditionally involves observing the morphology of chromosomes. In recent years, fluorescence in situ hybridization technology has been used to detect...view
The Impact of DNA Genome Sequencing on Cancer Research and TreatmentJuly 18, 2024Cancer remains one of the most formidable challenges in medical science. As we continually seek innovative solutions to understand and combat this complex disease, DNA genome sequencing has proven to ...view
Microfluidic Chips: What Do You Know?April 4, 2023Microfluidic chip technology integrates the basic operational units of sample preparation, reaction, separation, detection and more involved in biological, chemical and medical analysis processes onto...view
Microarray Chip Application Process and Data AnalysisDecember 15, 2022Microarray chip refers to the use of photoconductive in-situ synthesis or micro spotting to solidify a large number of biological macromolecules such as nucleic acid fragments, polypeptide molecules, ...view
Why Do You Need Chromosomal Microarray Analysis?April 4, 2023Chromosomes are genetic material and the carriers of genes. The human body has 23 pairs of chromosomes, with 22 pairs being common to both sexes and called autosomes. The other pair determines sex and...view