Molecular Assemblies utilizes Fully Enzymatic Synthesis (FES) technology to produce long, pure, and accurate DNA oligos up to 400 bases in length, addressing the limitations of traditional chemical synthesis methods that only yield short sequences. This enzymatic approach accelerates DNA production while eliminating the need for extensive post-synthesis purification, enabling faster and more efficient applications in gene editing, molecular cloning, and synthetic biology.
Funding
$4M raised to dateRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
Founders
Product
Problem
Traditional chemical DNA synthesis methods are limited to producing short sequences, often requiring extensive post-synthesis purification, which increases turnaround time and cost. These limitations hinder applications requiring long, complex, and highly pure DNA oligos.
Solution
Molecular Assemblies utilizes Fully Enzymatic Synthesis (FES) technology to produce long, pure, and accurate DNA oligos up to 400 bases in length, addressing the limitations of traditional chemical synthesis. This enzymatic approach accelerates DNA production while eliminating the need for extensive post-synthesis purification. The FES technology operates at a high step-wise incorporation efficiency, delivering accurate oligonucleotides. The process is optimized to synthesize traditionally difficult sequences, including those with high or low GC content, long homopolymer stretches, and repetitive elements.
Target Audience
The primary customers are researchers and companies in clinical medicine, pharmaceuticals, agriculture, food, gene editing, molecular cloning, and synthetic biology who require long, pure, and accurate DNA oligos.
Features
- Fully Enzymatic Synthesis (FES) technology for producing DNA oligos.
- Synthesis of DNA oligos up to 400 bases in length.
- High step-wise incorporation efficiency (99.9%) for accurate oligonucleotides.
- In-process purification step yields clean DNA, eliminating lengthy and expensive post-synthesis purification.
- Ability to synthesize traditionally difficult sequences, including high/low GC content, long homopolymer stretches, and repetitive elements.
- Accelerated synthesis process enables faster turnaround times.
- Modular manufacturing platform for frequent order processing and predictable first-time pass rates.