Our Products Cannot Be Used As Medicines Directly For Personal Use.
Welcome! For price inquiries, please feel free to contact us through the form on the left side. We will get back to you as soon as possible.
Enzymes for mRNA Production
| Cat No. | Product Name | |
| NATE-1698 | Modified T7 RNA polymerase | Get a quote |
| NATE-0354 | Native Baker's yeast (S. cerevisiae) Inorganic Pyrophosphatase | Get a quote |
| NATE-0355 | Inorganic Pyrophosphatase from Escherichia coli, Recombinant | Get a quote |
| NATE-1281 | Inorganic Pyrophosphatase from Saccharomyces cerevisiae, Recombinant | Get a quote |
| COV-003 | RNase Inhibitor from Mouse, Recombinant | Get a quote |
| NATE-1875 | Native Bovine Deoxyribonuclease I | Get a quote |
| VCE-001 | Vaccinia Capping Enzyme | Get a quote |
| NATE-1636 | Ribonuclease R from E. coli | Get a quote |
The advent of mRNA vaccines has revolutionized the field of immunization, providing a rapid and flexible platform to combat infectious diseases. The success of mRNA vaccines, such as those developed for COVID-19, relies on sophisticated biotechnological processes that allow for the precise synthesis of mRNA molecules. These molecules are encapsulated in lipid nanoparticles and administered into the human body, where they instruct cells to produce viral antigens. This, in turn, stimulates a specific immune response and creates immunological memory, providing protection against the virus. The in vitro synthesis of mRNA is a critical component of this process, involving several key steps and specialized enzymes. Creative Enzymes, a leading enzyme supplier, offers a comprehensive range of high-quality GMP and non-GMP enzymes that are indispensable for the industrial production of mRNA vaccines.
Steps of In Vitro mRNA Synthesis
Figure 1. Creative Enzymes offers a full range of enzymes for in vitro mRNA synthesis.
The synthesis of mRNA in vitro involves a multi-step process, each requiring specific enzymes to ensure high yield and quality of the final product. Below are the essential steps, along with the roles of the required enzymes.
1. Plasmid Linearization
The first step in mRNA synthesis involves the linearization of the plasmid DNA template. This is crucial because linear DNA templates are more efficient for in vitro transcription compared to their circular counterparts.
Enzymes Used:
- BsaI, BspQI, XbaI: These are restriction enzymes used to linearize the plasmid DNA. By cutting the plasmid at specific sequences, they create linear templates that serve as efficient starting points for in vitro transcription.
2. In Vitro Transcription
Once the plasmid is linearized, the next step is the transcription of DNA into mRNA. This is achieved using RNA polymerase, which synthesizes RNA from the DNA template.
Enzymes Used:
- T7 RNA Polymerase: This enzyme catalyzes the synthesis of RNA from a DNA template, incorporating the appropriate nucleotides to form mRNA. Creative Enzymes provides both GMP-grade T7 RNA Polymerase and Premium T7 RNA Polymerase to ensure high transcription efficiency and fidelity.
- Inorganic Pyrophosphatase: This enzyme removes inorganic pyrophosphate produced during the synthesis of RNA, driving the reaction forward and increasing the yield of mRNA.
- RNase Inhibitor from Mouse: RNA molecules are susceptible to degradation by ribonucleases (RNases). Murine RNase Inhibitor binds to and inhibits RNases, protecting the synthesized mRNA from degradation.
- DNase I: This enzyme is used to remove the DNA template after transcription, ensuring that the final mRNA product is free of DNA contaminants.
3. Capping and Polyadenylation
To make the mRNA functional and stable, it undergoes post-transcriptional modifications, such as capping and polyadenylation. The 5' cap and 3' poly(A) tail are essential for mRNA stability and translation efficiency.
Enzymes Used:
- Vaccinia Capping Enzyme: This enzyme adds a 5' cap to the mRNA. The cap structure protects mRNA from degradation and is recognized by the cellular machinery for translation.
- mRNA Cap 2'-O-Methyltransferase: This enzyme further modifies the 5' cap by adding a methyl group at the 2'-O position of the ribose sugar. This modification enhances the stability and translational efficiency of the mRNA.
- E.coli Poly(A) Polymerase: This enzyme adds a poly(A) tail to the 3' end of the mRNA. The poly(A) tail improves mRNA stability and aids in its export from the nucleus to the cytoplasm.
Role of Creative Enzymes in mRNA Synthesis
Creative Enzymes is committed to providing high-quality enzyme products and services, essential for the successful in vitro synthesis of mRNA. With a comprehensive product line that includes GMP and non-GMP enzymes, Creative Enzymes supports the efficient and reliable production of mRNA vaccines.
Advantages of Creative Enzymes
- High-Quality Products: Creative Enzymes offers enzymes that meet rigorous quality standards, ensuring high purity, activity, and reliability.
- Comprehensive Product Range: The availability of a wide range of enzymes, including T7 RNA Polymerase, restriction enzymes, and modifying enzymes, allows for streamlined mRNA synthesis workflows.
- GMP-Grade Enzymes: For applications requiring the highest quality standards, Creative Enzymes provides GMP-grade enzymes, which are crucial for clinical and commercial mRNA vaccine production.
- Expert Technical Support: With a team of highly trained scientists, Creative Enzymes offers expert technical support to help customers optimize their mRNA synthesis processes.
Conclusion
The in vitro synthesis of mRNA is a complex process involving multiple steps and specialized enzymes. The enzymes provided by Creative Enzymes are critical for each stage of this process, from plasmid linearization to mRNA capping and polyadenylation. By offering high-quality enzymes and expert support, Creative Enzymes plays a vital role in advancing the production of mRNA vaccines, contributing to global health solutions.