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HS Code |
107277 |
| Name | Catalase |
| Enzyme Class | Oxidoreductase |
| Ec Number | 1.11.1.6 |
| Cas Number | 9001-05-2 |
| Molecular Weight | Approx. 250 kDa (tetramer) |
| Optimal Ph | 7.0 |
| Optimal Temperature | 37°C |
| Substrate | Hydrogen peroxide (H2O2) |
| Product | Water (H2O) and oxygen (O2) |
| Source | Commonly found in nearly all living organisms exposed to oxygen |
| Activity Unit | 1 unit decomposes 1 µmol H2O2/min at pH 7.0, 25°C |
| Cofactor | Heme group (Fe2+) |
| Structure | Tetrameric protein |
| Solubility | Soluble in water |
| Storage Temperature | 2–8°C |
As an accredited Catalase factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White, sealed plastic bottle labeled “Catalase, 100g.” Features hazard symbols, batch number, manufacturer details, and storage instructions for laboratory use. |
| Shipping | Catalase is shipped in tightly sealed containers, often under cool or refrigerated conditions to maintain stability and activity. Packaging meets regulatory guidelines for enzyme or biochemical shipment, ensuring protection from moisture, heat, and contamination. Appropriate labeling and documentation are provided, and expedited delivery is recommended to preserve product quality during transit. |
| Storage | Catalase should be stored at -20°C in a tightly sealed container, protected from light and moisture. Avoid multiple freeze-thaw cycles to maintain enzyme activity. For short-term use, it may be kept at 4°C. Always handle catalase gently and according to the manufacturer’s guidelines to prevent denaturation and ensure long-term stability and effectiveness. |
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Purity 99%: Catalase Purity 99% is used in textile bleaching processes, where it efficiently removes residual hydrogen peroxide and reduces processing time. Activity 2,000 U/mg: Catalase Activity 2,000 U/mg is used in food packaging protection, where it minimizes oxidative damage and prolongs shelf life of perishable goods. Stability temperature 45°C: Catalase Stability temperature 45°C is used in industrial wastewater treatment, where it maintains enzyme activity for extended periods under elevated temperatures. Molecular weight 250 kDa: Catalase Molecular weight 250 kDa is used in blood analysis kits, where it ensures rapid breakdown of hydrogen peroxide and accurate biochemical readings. pH optimum 7.0: Catalase pH optimum 7.0 is used in beverage production, where it operates effectively in neutral conditions to reduce unwanted peroxide by-products. Particle size <10 µm: Catalase Particle size <10 µm is used in enzyme immobilization applications, where its small size enables higher surface area and improved catalytic efficiency. Residual moisture <5%: Catalase Residual moisture <5% is used in pharmaceutical formulations, where low moisture content enhances storage stability and product shelf life. Thermal inactivation point 60°C: Catalase Thermal inactivation point 60°C is used in clinical diagnostic reagents, where it prevents overheating-induced loss of enzyme function during use. Isoelectric point pH 5.4: Catalase Isoelectric point pH 5.4 is used in protein purification protocols, where it allows efficient separation and recovery during downstream processing. Bulk density 0.6 g/cm³: Catalase Bulk density 0.6 g/cm³ is used in tablet manufacturing, where its compact form allows precise dosing and uniform tablet composition. |
Competitive Catalase prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
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Tel: +8615371019725
Email: admin@sinochem-nanjing.com
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Every batch of catalase we produce speaks for itself. As a manufacturer, we deal with its properties, limitations, and advantages every day. Catalase, an enzyme that breaks down hydrogen peroxide into water and oxygen, has proven indispensable across food, textile, and wastewater industries. Its role extends from improving the shelf life of baked goods to ensuring safe chemical-free fabric processing. The shift toward enzyme-based processing has opened doors for cleaner, more sustainable production lines worldwide, and for us, bringing consistent, reliable catalase to the market has required years of technical refinement.
Unlike resellers, our perspective comes from the heart of production. We source our substrate materials, oversee the fermentation processes, carry out purification, and test the product in our lab facilities. The method used to make catalase defines the final product’s purity and strength. We use a controlled fermentation of select microbial strains. Our team constantly reviews and upgrades fermentation media for better yields and consistency.
Choosing the right microorganism lays the foundation for enzyme output. Commonly, Aspergillus niger and some select Bacillus strains take the lead for their fermentation adaptability and efficient secretion of catalase. Over time, we’ve adjusted our process conditions to suit each batch, securing a stable enzyme profile and minimizing byproduct interference. Rather than chasing short-term gains, we invest in small improvements until the catalase reaches the expected standards, batch after batch.
Users in bakery applications look for clean dough and bread with no bitter taste or color change. Our model CATL-420 exhibits an activity not less than 2,000,000 U/g (measured at 25°C, pH 7.0, using standard hydrogen peroxide substrates). We keep moisture content strictly below 8% to support a longer shelf life and ease in blending with flour, pre-mixes, or final doughs.
For the textile industry, oxygen liberation and rapid breakdown of residual peroxide after bleaching remain top priorities. A badly controlled enzyme will leave unwanted residues or cause inconsistent bleaching outcomes. In textile washing houses, we observed that our catalase at 100–300 ppm (on weight of the fabric) produces reliable peroxide removal within 10 minutes at 45–55°C. This cuts rinse cycles and reduces water and steam consumption. We build on feedback from mill operators, who stress the importance of robust catalase that won’t lose activity due to minor variances in temperature or pH.
The jump from lab bench to industrial tank always brings surprises. A formulation that seems perfect in small-scale tests breaks down if the carrier isn’t chosen wisely or if the fermentation broth isn’t thoroughly filtered. Both fine mineral carriers and water-soluble sugars play unique roles in enzyme stabilization, depending on storage and mixing needs. Over years, we learned that for direct flour application, a carefully agglomerated catalase powder reduces dust and mixes more thoroughly, while for liquid detergent and textile applications, an easy-dissolving, spray-dried powder minimizes clumping and waste.
We maintain enzyme activity rates above 2,000,000 U/g for our standard catalase, but control parameters like granule size and carrier choice for each type of user. Food technologists want pure enzyme with tight microbiological specifications. Textile processors require a wider stability range across pH and temperature scope. The development of our “AquaGrade” catalase emerged over multiple plant trials, aiming at processes where high-concentration peroxide exposure and the demands of rapid turnover dominate.
Not every oxidative process benefits from catalase. Laccases and peroxidases often enter the discussion, but they involve broader substrate ranges and usually come with more selective reaction paths. Catalase’s specificity for hydrogen peroxide has kept it in key processes where bleaching, disinfection, or preservation depend on quick, clean removal of excess peroxide. Peroxidases, for example, can catalyze unwanted color changes or side reactions in food; using catalase for post-bleach fabric wash guarantees the reaction won’t go further than breaking down peroxide. This simple, direct action makes catalase safer and more predictable in high-volume operations.
In terms of formulation, other enzymes frequently require mediators, co-factors, or expensive stabilization steps. In contrast, catalase, especially in our stabilized formulations, fits into existing process flows without requiring added reagents or complex safety measures. This reliability is why we see growing interest among manufacturers seeking simple process upgrades with minimal capital outlay.
Food and industrial safety regulations keep evolving, especially regarding residual hydrogen peroxide. Many countries now limit allowable peroxide levels in finished foods and in wastewater discharged from textile plants. In these scenarios, our catalase helps clients stay ahead of compliance curves. While some detergents, for instance, rely on chlorine-based treatments, many end-users have shifted focus toward nature-identical enzyme solutions to answer growing consumer and regulatory scrutiny.
Meeting these standards isn’t just a paperwork exercise. Our manufacturing lines rely on regular batch testing, not just for declared enzyme activity but also for heavy metals, contaminants, and bioburden. Shelf life claims mean little if an enzyme falls apart under typical storage or on-the-floor handling conditions. We train our technical team to flag even minor deviances in storage humidity, temperature, or carrier admixture, responding directly with process tweaks to avoid service calls after the fact.
Shifting away from harsh chemicals toward greener solutions deeply affects both manufacturers and daily workers in industries around the world. We draw on two decades of feedback from bakery, flavor, detergent, and textile facilities operating anywhere from North America and Europe to Southeast Asia. Sustainability demands stretch beyond compliance to raw cost, infrastructure compatibility, and downstream waste handling. Our catalase cuts chemical input, lessens handling risks, and reduces effluent-treatment costs for our customers.
In addition, using catalase in processes like bread production and cheese making helps lower residual peroxide levels, improving both product safety and organoleptic properties. We see artisan bakers placing large orders not just on price, but on trust that each production run will work out the same as the last. Regular revalidation with third-party labs, environmental monitoring, and lifecycle assessments keep our catalase on track for both performance and environmental claims.
New customers often arrive with expectations based on specification sheets or competitor samples. It falls on us to draw the line between textbook requirements and real-world process integration. An enzyme can exit our loading dock with all the right paperwork but may not meet customer expectations unless we talk through every step of their process. We’ve sat down with dozens of plant engineers, bakers, and laboratory directors to walk through batch optimization, shelf stability, and cleanout routines.
Our process engineers provide support with field trials, not just phone or email instructions. We invite plant representatives to inspect fermentation tanks, witness batch purification, and observe our in-house analysis. This openness builds collaboration, with many clients returning for repeat business or custom catalyst development. Tuning parameters like pH, dosage, and application time often lead to greater cost savings than any discount on the catalogue price. We prioritize long-term partnerships over one-off transactions, refining our catalase as customers’ processes or raw material sources change.
Scaling up an enzyme like catalase presents technical and business challenges. Fermenters must run within tight temperature and oxygen regimes, with real-time monitoring to prevent fungal contamination or yield loss. After fermentation, several stages of filtration, precipitation, and drying follow—each representing a point where activity could degrade if not properly managed.
Carrier blending adds another layer of complexity. An effective carrier keeps the enzyme stable in transit, during storage, and on the plant floor, all the way to final use. Choices like lactose, starch, or silica affect flowability, shelf life, and—surprisingly—mixing performance in each customer’s line. Each shift in formulation undergoes a battery of tests covering enzyme loss, shelf life, and physical behavior.
Packaging and labeling, frequently overlooked, often prove decisive for user experience. We developed moisture-resistant, resealable buckets and tamper-evident liners after encountering loss problems in earlier packaging types. Each upgrade comes from feedback and our own learning under real world conditions, not guesses, not boardroom decisions disconnected from plant-room realities.
At our facility, safety processes mean keeping both product and people protected. We build safety data into each training cycle, monitoring for accidental release, inhalation risks, or product misuse. Catalase, while safer than many chemical oxidizers, can cause irritation if mishandled. We consult with occupational hygiene consultants, adapting our material handling to minimize airborne exposure, streamline batch cleanout, and ensure accidental spills are cleaned rapidly. Our teams wear proper protective equipment and participate in regular health and safety drills.
We share our learnings with clients, advising on venting requirements, equipment cleaning protocols, and spill kits. Our philosophy favors prevention, not response, with clear signage, robust storage racks, and carefully documented handling procedures. Product stewardship requires open communication, not just formal compliance to standards.
Every process in catalase production—from raw material testing to enzyme stabilization—reflects rounds of feedback from users and our development team. Environmental shifts, new industry regulations, and the changing landscape of raw material supply all force regular adjustment. We work with local growers and global suppliers to diversify sources and mitigate risks due to exotic weather, transportation bottlenecks, or market fluctuations.
Product recalls are rare, but we treat any reported deviation seriously, recalling batches, reviewing lab records, and revalidating our processes as a matter of integrity. Robust traceability from fermentation tank to finished drum ensures rapid investigation and correction if needed. This direct control would not be possible without our manufacturing expertise and attention to detail.
Year after year, we meet with clients across continents, learning how environmental conditions, regulatory shifts, and processing needs impact catalase performance and suitability. Customization emerged as a cornerstone of our operation. From high-activity, low-dust catalase for food plants with strict air quality regulations, to extra-stable textile blends for tropical climates, no two solutions are ever identical.
Unlike traders or repackagers, we command the manufacturing stages, owning each risk and each success. Direct manufacturing keeps us close to the technical side: raw material consistency, batch-to-batch repeatability, and transparent traceability. Problems come directly to us, giving us an incentive to fix rather than blame upstream suppliers or distributors. Customer trust doesn’t get built on sales talk; it comes from problem-solving together through far-from-perfect conditions, learning from failures, and celebrating incremental gains.
This hands-on approach not only supports E-E-A-T principles—experience, expertise, authority, trust—but also delivers what demanding clients expect from direct manufacturing. With changing market preferences, tighter regulation, and higher standards for safety and performance, only a direct manufacturer adapts in real time and stands behind every shipment, ready to answer with data, technical know-how, and genuine curiosity for continued improvement.