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Engineered microbial platforms for industrial bioproduction. From genome reduction to pathway optimization, our comprehensive chassis development solutions accelerate your path from concept to commercial-scale manufacturing.
Trusted by leading research and pharmaceutical institutions
E. coli, Bacillus, Pseudomonas, yeast platforms
CRISPR editing, genome reduction, pathway optimization
Shake flask to bioreactor process development
We provide comprehensive synthetic biology chassis development services, offering validated microbial platforms alongside custom engineering solutions for industrial biotechnology applications.
Access our catalog of validated chassis organisms including E. coli K-12 and E. coli B derivatives, Bacillus subtilis, Pseudomonas putida, and yeast platforms. Each strain comes with comprehensive characterization data and proven track records in industrial applications.
Our team delivers tailored chassis engineering solutions including genome reduction, pathway optimization, and regulatory element engineering. We leverage both traditional metabolic engineering and cutting-edge AI-assisted design tools.
From design to characterized strain in as few as 8 weeks for optimized projects.
Every strain undergoes WGS authentication, phenotype verification, and purity testing.
Process development from shake flask to bioreactor with tech transfer packages.
COA, WGS data, genotype reports, and stability studies included.
Get a customized quote for your chassis development project.
Our integrated technology stack combines proven molecular biology methods with state-of-the-art computational tools to deliver chassis strains optimized for your specific production requirements.
Systematic identification and removal of non-essential genomic regions to create streamlined chassis with improved genetic stability and metabolic efficiency. Our platform achieves 15-20% genome reduction while maintaining parental growth characteristics.
Computational design and experimental validation of heterologous pathways integrated into chassis genomes. We employ dynamic regulatory systems for optimal carbon flux distribution across growth and production phases.
Advanced CRISPR-Cas systems enable multiplexed genome modifications with high efficiency. Our optimized protocols achieve 85-90% editing efficiency across diverse bacterial and yeast species.
Integration of machine learning models for promoter strength prediction, RBS optimization, and pathway design. Our computational pipeline reduces experimental iterations by up to 60% compared to traditional approaches.
Choose from our validated chassis platforms or discuss custom engineering options for your specific application requirements.
| Host Organism | Strain Type | Primary Applications | Documentation |
|---|---|---|---|
|
E. coli K-12
MG1655 derivative
|
Wild-type / Reduced Genome | Cloning, plasmid production, enzyme expression | Complete |
|
E. coli B
BL21(DE3) derivative
|
Protein Expression | Recombinant protein, metabolic engineering | Complete |
|
Bacillus subtilis
168 derivative
|
Secretion Host | Secreted proteins, enzymes, spores | Complete |
|
Pseudomonas putida
KT2440 derivative
|
Industrial Chassis | Chemical production, specialty compounds | Complete |
|
Saccharomyces cerevisiae
Baker's yeast
|
Eukaryotic Platform | Protein processing, glycosylation | Complete |
|
Pichia pastoris
Komagataella phaffii
|
Secretion/Eukaryotic | Complex proteins, antibodies | Complete |
Our proven 5-step workflow ensures quality and efficiency at every stage.
Project scope and timeline agreement
Strain engineering and pathway integration
Performance ranking and selection
WGS verification and stability studies
Strain banking and tech transfer
Our chassis platforms support diverse industrial biotechnology applications from small-molecule synthesis to complex protein production.
Engineered chassis strains enable efficient production of amino acids, organic acids, alcohols, and other value-added chemicals through optimized metabolic pathways and precursor supply networks.
From industrial enzymes to therapeutic proteins, our optimized expression platforms deliver high yields with proper folding and post-translational modifications for diverse applications.
Engineered chassis enable production of complex natural products, pharmaceutical intermediates, and specialty chemicals through heterologous pathway reconstruction and optimization.
Trusted by researchers worldwide for quality and reliability.
"The chassis strain delivered exceeded our productivity targets by three-fold while maintaining excellent genetic stability through multiple fermentation cycles. Their technical team provided exceptional support throughout the project."
"Working with this team transformed our metabolic engineering workflow. The genome-reduced strain they developed has become our standard platform for small molecule production, and the documentation quality has streamlined our regulatory submissions."
"Their expertise in yeast platform engineering helped us achieve glycosylation patterns critical for our therapeutic protein program. The collaboration was highly professional and results-oriented."
Our platform is backed by peer-reviewed research.
Chi H, Wang X, Shao Y, Qin Y, Deng Z, Wang L, Chen S. Synthetic and Systems Biotechnology. 2019.
Comprehensive review of strategies for constructing and modifying microbial chassis organisms for industrial biotechnology applications.
Kozaeva E, Volkova S, Matos MRA, Mezzina MP, Wulff T, Volke DC, Nielsen LK, Nikel PI. Metabolic Engineering. 2021.
Demonstrates metabolic model-guided optimization of Pseudomonas putida for enhanced acetyl-CoA availability and improved biopolymer production.
Sanders JEJ, Hoffmann SA, Moody ER, McCullough M, Green AP, Cai Y. Current Opinion in Biotechnology. 2022.
Reviews the Sc2.0 synthetic yeast platform for genetic code expansion and non-canonical amino acid incorporation in eukaryotic systems.
Liu Y, Song D, Hu H, et al. ACS Synthetic Biology. 2022.
Demonstrates microbial coculture engineering for efficient production of high-value phenolic compounds through division of labor.
Liu Q, Cai M, et al. Science Advances. 2022.
Development of CRISPR-Cas based programmable expression system for Pichia pastoris achieving high-level, tunable protein production.
Find answers to common questions about our service.
Contact our technical team to discuss your requirements, timeline, and receive a customized quote for your synthetic biology chassis development needs.
Get a customized quote for your Synthetic Biology Chassis Development project. Our experts will respond within 24 hours.
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.