In modern biomanufacturing, a significant roadblock is the expression of proteins that are detrimental to the host organism. Many antimicrobial peptides, membrane-bound receptors, and potent enzymes exhibit inherent toxicity to living cells. When using traditional in vivo expression systems, these proteins often lead to cell growth inhibition, protein degradation, or misfolding, resulting in negligible yields.
At CD Biosynsis, we bypass these biological constraints through our advanced Cell-Free Protein Expression (CFPS) platforms. By eliminating the need to maintain cell viability, we provide a robust environment where toxic proteins can be synthesized efficiently and at scale.
Overcoming Host Toxicity: Traditional systems like E. coli or CHO cells require metabolic homeostasis to function. Synthesizing proteins that disrupt membranes or cellular machinery inevitably causes the "factory" to collapse. CD Biosynsis uses cell extracts containing only the essential translational machinery, allowing for the stable production of lethal proteins.
Cell-free systems offer unique advantages over cell-based fermentation, particularly when speed and biochemical control are required for sensitive applications.
Our High-Throughput CFPS Service allows researchers to move from PCR template to purified protein in as little as 24 hours. This significantly accelerates the screening process for protein variants and drug leads.
Membrane proteins are notoriously difficult to produce in living cells due to hydrophobic aggregation. CD Biosynsis offers a dedicated Cell-Free Membrane Protein Service that utilizes nanodiscs or specialized detergents to ensure correct folding and stability.
Different protein targets require specific biochemical environments to achieve native-like conformations. We provide a specialized portfolio of lysates to meet your project's unique requirements.
| System Type | Target Application | Integrated CD Biosynsis Service |
|---|---|---|
| E. coli CFPS | Ideal for industrial enzymes, toxins, and large-scale synthesis. | High-Yield E. coli Platform |
| Mammalian (CHO/HEK) | Complex proteins requiring human-like folding and PTMs. | Mammalian CFPS Platform |
| Wheat Germ (WGE) | Highly complex eukaryotic proteins and large multidomain targets. | Wheat Germ Synthesis |
| Insect Cell CFPS | Optimized for targets traditionally expressed in baculovirus systems. | Insect Cell Synthesis |
The open-system nature of CFPS enables precision modifications that are impossible in living cells. For drug development, our Cell-Free Antibody Production service provides a fast track for producing scFv and Fab fragments without solubility issues.
Technical Note: Isotope Labeling for NMR. Because the system is open, we can supplement reactions with specific labeled amino acids. CD Biosynsis provides high-efficiency Isotope Labeling for NMR, ensuring superior signal-to-noise ratios for structural characterization without background interference.
Break through the barriers of traditional protein expression. Leverage the precision, speed, and reliability of the cell-free platforms at CD Biosynsis to produce your most challenging proteins today.
Partner with Our Protein TeamWorking with mammalian systems? Explore our CHO-Cell Free Protein Service.
As the complexity of next-generation biologics grows, the demand for flexible production systems becomes paramount. CD Biosynsis is at the forefront of this evolution, providing the technical infrastructure to synthesize proteins previously deemed "unproducible." By merging computational design with optimized cell-free extracts, we ensure your protein research remains unconstrained by host cell toxicity.
Please note that all services are for research use only. Not intended for any clinical use.
If your question is not addressed through these resources, you can fill out the online form below and we will answer your question as soon as possible.
CD Biosynsis is a leading customer-focused biotechnology company dedicated to providing high-quality products, comprehensive service packages, and tailored solutions to support and facilitate the applications of synthetic biology in a wide range of areas.