The 48 channel gene synthesizer is a high-throughput, automated gene synthesis device widely used in fields such as biotechnology, pharmaceuticals, and scientific research.

1、 The core functions of the 48 channel gene synthesizer are:

1. Efficient synthesis of gene fragments

By using solid-phase synthesis techniques such as phosphoramide chemistry, different gene sequences can be synthesized simultaneously in 48 independent channels, significantly improving efficiency.

Support the synthesis of gene fragments with lengths ranging from tens to thousands of bases to meet different experimental needs.

2. Precise control sequence

It can accurately design gene sequences, including promoters, coding regions, terminators, restriction enzyme sites, etc., for constructing expression vectors or gene editing tools.

3. Automated operation

Integrate sampling, coupling, oxidation, cutting and other steps to reduce manual intervention, errors and pollution risks.

2、 The main application areas of the 48 channel gene synthesizer are:

1. Gene Editing and Synthetic Biology

Synthesize sgRNA, guide RNA (gRNA), or repair templates from the CRISPR/Cas9 system for precise gene knockout, insertion, or modification.

Constructing artificial gene circuits (such as regulatory elements and reporter genes) to study synthetic biology systems.

2. Protein expression and antibody development

Synthesize optimized gene sequences (such as codon preference adjustment), insert them into expression vectors, and increase the expression level of the target protein.

Design antibody light and heavy chain genes for the development of recombinant monoclonal antibodies.

3. Vaccine development and diagnostic reagents

Quickly synthesize pathogen antigen genes (such as viral spike proteins and bacterial virulence factors) for screening vaccine candidates.

Synthesize specific probes or primers and develop molecular diagnostic reagents (such as PCR detection kits).

4. Basic research and high-throughput experiments

Batch synthesis of mutant libraries (such as point mutations and truncated mutations) to study protein function or drug targets.

Constructing gene libraries for genomics, transcriptomics, or proteomics research.