Computational Rational Design (CARD)
Using structural bioinformatics and molecular dynamics simulations, we predict and prioritize active site mutations that enhance enantioselectivity (E-value).
Lipases (triacylglycerol acylhydrolases) are versatile hydrolases widely used in organic synthesis, notably for Prodrug Synthesis (Esterification) and Kinetic Resolution to obtain high-purity chiral molecules. They are highly valued for their ability to catalyze reactions in non-aqueous media. However, their industrial application faces major hurdles: low enantioselectivity for highly specific chiral resolution, and instability in the non-aqueous or supercritical CO₂ media that are often required for substrate solubility or green chemistry processes.
Our specialized enzyme engineering services are focused on overcoming these limitations through integrated Rational Design and Directed Evolution. Our core objectives include dramatically improving enantioselectivity for demanding chiral resolutions (targeting > 99.9% ee) and substantially enhancing the enzyme's stability and activity in harsh non-aqueous or low water activity media. Consult with our experts to design a customized strategy that transforms your lipase into a robust and highly selective industrial catalyst.
Get a QuoteThe successful deployment of lipases in advanced chemical synthesis is limited by these critical factors:
Our engineering platforms are dedicated to resolving these complex molecular and operational bottlenecks.
We apply integrated protein engineering strategies to enhance your target Lipase:
Ultra-High Enantioselectivity
We engineer the substrate binding pocket and catalytic triad to achieve extremely high selectivity (E > 500) for demanding chiral resolution applications.
Enhanced Solvent & Thermal Stability
Advanced stability engineering services to ensure high activity and longevity in non-aqueous media, high heat, and supercritical CO₂ systems.
Activity and Promiscuity Improvement
We optimize catalytic turnover and substrate specificity to handle bulky, non-natural, or difficult-to-hydrolyze ester substrates.
Immobilization-Ready Variants
We design lipase variants with enhanced surface properties and stability, making them ideal for subsequent immobilization services to maximize reusability.
Our experts are ready to apply these integrated capabilities to your specific lipase-catalyzed synthesis or resolution project.
We leverage a suite of cutting-edge platforms to deliver highly functional enzyme variants:
Computational Rational Design (CARD)
Using structural bioinformatics and molecular dynamics simulations, we predict and prioritize active site mutations that enhance enantioselectivity (E-value).
High-Throughput Screening (HTS)
We employ specialized colorimetric/fluorometric assays compatible with organic solvents and HTS methods to screen massive libraries for subtle increases in enantioselectivity.
Optimized Expression and Folding
Specialized expression and purification services focusing on obtaining fully folded and active lipases, often including chaperone co-expression or inclusion body refolding.
Comprehensive Enzyme Profiling
We offer full kinetic profiling, including E-value determination, solvent tolerance limits, and pH/temperature optima under industrial-relevant conditions.
Formulation and Stabilization
Beyond molecular design, we offer formulation development services to enhance the stability and shelf-life of the engineered lipase, particularly for non-aqueous applications.
Partner with us to harness these platforms for your next chiral synthesis breakthrough.
Our enzyme optimization projects follow a flexible, milestone-driven workflow:
Technical communication is maintained throughout the project. We encourage potential clients to initiate a consultation to discuss their specific lipase requirements and explore how our technologies can achieve their desired enantiopurity targets.
We provide comprehensive support, including:
How do you engineer a lipase to achieve ultra-high enantioselectivity (E > 500)?
We employ Rational Design guided by structural analysis of the active site. We strategically introduce bulky residues near the active pocket to sterically constrain the binding of one enantiomer, thereby drastically increasing the selection pressure for the desired chirality.
Can you enhance a lipase's stability in 100% non-aqueous organic solvents?
We significantly enhance stability using a combination of Directed Evolution under non-aqueous conditions and Rational Design to engineer surface residues that promote stability in low water activity environments.
What is the estimated timeline for enantioselectivity optimization?
Optimization for a 10-fold increase in E-value or achieving an E > 500 typically requires 20-30 weeks. This involves multiple rounds of mutagenesis and stringent high-throughput screening under high substrate loading conditions.
Do you offer services to identify novel lipases for challenging substrates?
Yes. We provide advanced enzyme discovery services, utilizing AI-driven enzyme discovery and metagenomic library screening to find novel lipases with unique activities against complex or non-natural substrates.
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