We offer specialized enzyme development services for cellobiose 2-Epimerase, enabling efficient conversion of substrates in industrial processes.
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Epimerases, a fascinating subclass of isomerase enzymes and Glycosyl Functional Enzymes, function as molecular "switch-hitters" capable of reversibly interconverting stereoisomers by altering the configuration around specific asymmetric carbons. These enzymes are ubiquitous in biological systems and play pivotal roles in essential metabolic pathways, including carbohydrate and amino acid metabolism, where they precisely refine molecular structures to meet cellular demands. As a crucial class of Glycan Tool Enzymes, their ability to modulate stereochemistry renders them indispensable for maintaining biochemical equilibrium and enabling diverse biological functions.
Fig.1 Outcomes of the various DAEase engineering studies.1
At Creative Biolabs, our custom epimerase production solutions are tailored to meet your specific needs by leveraging a diverse portfolio of enzyme targets. Below, discover the key enzymes driving our customized solutions.
We offer specialized enzyme development services for cellobiose 2-Epimerase, enabling efficient conversion of substrates in industrial processes.
Our enzyme development services for cellobiose epimerase ensure high-purity and active enzyme preparations for diverse applications.
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Our enzyme development services for Mannose 2-Epimerase provide a reliable source of this enzyme for carbohydrate research and development.
With our enzyme development services, Mannuronate C5-Epimerase is produced with high yields and purity for alginate biosynthesis studies.
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We specialize in enzyme development services for UDP-Glucuronic Acid 4-Epimerase, crucial for glycosaminoglycan biosynthesis and drug development.
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Pick a highly active, regioselective epimerase gene essential for the target reaction. Clone this gene into a well-engineered microbial vector. The vector is tailored to ensure efficient replication and high-level expression of the gene in host cells like bacteria or yeast, enabling mass production of pure, active enzyme.
Prepare high-purity starting substrates. Solubilize them under conditions that stabilize the epimerase and prevent non- specific reactions. Optimize the choice of co-substrates and reaction buffer through experiments to maximize the enzyme's efficiency for a smooth and selective reaction.
Make host cells competent for DNA uptake, usually via chemical treatment. Insert the vector with the epimerase gene into the cells using heat-shock or electroporation. Plate the cells on antibiotic-containing medium. Only cells that take up the vector will grow into colonies, allowing us to select transformed cells.
Culture the transformed host cells in a suitable medium. Monitor cell density and add an inducer at the right growth stage to start gene transcription. Transfer the culture to a bioreactor and fine-tune reaction conditions like temperature, pH, aeration, and agitation. These optimized conditions boost enzyme production and ensure proper folding and activity.
Add the purified epimerase enzyme, pre-treated substrates, and co-substrates to the bioreactor. Continuously monitor and adjust reaction conditions in the bioreactor to maximize the conversion of starting substrates into desired products. This may involve controlling temperature, pH, and nutrient/gas flow rates.
The significant property changes between starting substrates and products make separation easy. First, use sequential liquid-liquid extraction to separate products based on solubility. Then, apply advanced preparative chromatography, such as ion-exchange, size-exclusion, or affinity chromatography for high-purity purification.
Run SDS-PAGE to assess enzyme purity. A pure sample shows a single band at the expected molecular weight. Test enzyme activity with specific substrates under optimized conditions and quantify products using HPLC or spectrophotometry.
Fig.2 Production workflow of epimerases.
Working with Us to Promote Your Success!
Epimerases are the linchpin in the synthesis of rare sugars like D-allulose and tagatose from readily available substrates such as fructose and galactose. These rare sugars, with their low-calorie content and potential health benefits, are revolutionizing the food and beverage industry as healthier alternatives to traditional sweeteners.
In the pharmaceutical realm, epimerases offer stereoselective and environmentally friendly routes to synthesize chiral intermediates and active pharmaceutical ingredients (APIs). Their ability to perfectly control molecular stereochemistry is invaluable in the production of complex drugs with specific pharmacological properties.
Epimerases play a vital role in the valorization of lignocellulosic biomass in biorefineries. By converting specific sugars into more readily fermentable forms, they enhance biofuel yields and contribute to the development of a sustainable bioeconomy.
A: The timeline varies depending on the complexity of the project, including factors such as the availability of starting materials, the extent of enzyme engineering required, and the scale of production.
A: Yes! Our enzyme discovery and engineering capabilities are second to none, enabling us to tackle a wide range of substrates, including novel and complex molecules. We thrive on challenges and are excited to discover new frontiers in epimerase-catalyzed reactions.
A: Our team has extensive experience in genetic engineering techniques. We can use site-directed mutagenesis to introduce specific amino acid substitutions in the epimerase gene, aiming to optimize the active site structure, enhance substrate binding, or improve the catalytic mechanism.
A: Safety is our top priority. Before introducing any genetic modifications, we conduct a thorough risk assessment to evaluate the potential impact on the enzyme's function, stability, and toxicity.
Experienced Team
"Working with this team was a game-changer for our rare sugar production project. Their expertise in epimerase engineering and production allowed us to achieve higher yields and product purity, giving us a competitive edge in the market. Their professionalism, responsiveness, and commitment to excellence were truly impressive."- Dr. Jami*** Zaki.
Boosted Production Efficiency
"Partnering with this team transformed our biochemical projects. Their epimerase expertise boosted production efficiency, enhancing both yield and quality, giving us a market lead. Impressed by their professionalism, quick responses, and relentless pursuit of excellence."- Prof. Alex*** R. Thompson.
Our epimerase development and production service offers an end-to-end solution for harnessing the power of biocatalysis with precision and innovation. Let's embark on this exciting journey together and unlock the full potential of epimerases! Contact us now!
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