Offering unparalleled precision and reliability, Synbio serves both small research labs and large-scale pharmaceutical companies. This broad clientele reflects the company’s flexibility and commitment to meeting a wide range of research needs and project scales. Whether it’s a small academic team seeking specialized oligos for a specific experiment or a major pharmaceutical corporation requiring high-throughput synthesis for drug development, Synbio has the capability to deliver customized solutions that align with client objectives.
The Quantification of DNA Oligos
The quantification of DNA oligos is a critical process that ensures researchers have the right amount of material for their experiments. Typically, the absorbance of a solution containing DNA oligonucleotides is measured using a UV spectrophotometer at 260 nm. When a DNA oligo is synthesized, it is initially provided as a dry powder. To quantify this, researchers dissolve the powder in water, then take an aliquot of the solution and dilute it to a volume of 1 ml. The absorbance is measured, yielding an optical density (OD) value. This method allows scientists to calculate the OD value of the stock solution, ensuring accurate dosing for applications such as PCR amplification, cloning, and gene expression studies.
Custom Solutions for Diverse Applications
Synbio’s commitment to quality extends to its range of custom DNA oligos and DNA oligonucleotides. Recognizing that different experiments require specific quantities and concentrations, Synbio collaborates with clients to design oligos that meet their unique needs. By providing expert guidance on how to quantify DNA oligos effectively, Synbio empowers researchers to select appropriate concentrations, thereby enhancing experimental accuracy and efficiency.
Conclusion
Access to high-quality oligonucleotide synthesis is more important than ever because of the growing complexity and specificity needed in today’s genetic studies. Because of Synbio’s dedication to quality, its products not only fulfill but also surpass the exacting requirements that are currently anticipated in molecular biology.
