|
HS Code |
384016 |
| Product Name | Food Grade Catalase |
| Enzyme Type | Catalase |
| Appearance | White to off-white powder |
| Activity Unit | U/g (Units per Gram) |
| Solubility | Soluble in water |
| Ph Range | 5.0 - 8.0 |
| Temperature Optimum | 30°C - 55°C |
| Source | Microbial fermentation |
| Main Function | Decomposition of hydrogen peroxide |
| Applications | Food processing, beverage clarification |
| Stability | Stable under dry conditions |
| Moisture Content | ≤8% |
| Purity | ≥95% |
| Odour | Odourless |
| Storage Conditions | Cool, dry place away from sunlight |
As an accredited Food Grade Catalase factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Food Grade Catalase is packaged in a sturdy, sealed 1kg white plastic container with a blue screw cap and detailed product labeling. |
| Shipping | Food Grade Catalase is shipped in sealed, food-safe containers—typically polyethylene drums or kraft paper bags—protected from moisture, heat, and sunlight. Packaging meets food industry regulations to prevent contamination. Labels include product details, batch number, and storage instructions. During transit, temperature and humidity are carefully monitored to ensure product quality. |
| Storage | Food Grade Catalase should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of heat. Keep the container tightly sealed to prevent moisture absorption and contamination. Store away from incompatible substances such as strong oxidizers or acids. Properly label the container and ensure it is kept out of reach of unauthorized personnel. |
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Purity 99%: Food Grade Catalase with purity 99% is used in juice processing, where it efficiently removes residual hydrogen peroxide and enhances product safety. Activity 10,000 U/g: Food Grade Catalase with activity 10,000 U/g is used in dairy industries, where it rapidly decomposes hydrogen peroxide and maintains enzymatic stability in milk. Particle Size <100 µm: Food Grade Catalase with particle size less than 100 µm is used in egg processing, where it ensures homogeneous distribution and effective peroxide elimination. Optimum pH 7.0: Food Grade Catalase with optimum pH 7.0 is used in beverage clarification, where it achieves maximal enzymatic reaction and preserves product quality. Thermal Stability up to 50°C: Food Grade Catalase with thermal stability up to 50°C is used in bakery applications, where it retains catalytic efficiency during dough preparation. Moisture Content <5%: Food Grade Catalase with moisture content less than 5% is used in pre-packaged food treatment, where it prolongs shelf life by reducing excess moisture and enzymatic degradation. Heavy Metal Content <1 ppm: Food Grade Catalase with heavy metal content less than 1 ppm is used in infant food preparation, where it ensures product safety and regulatory compliance. Residual Activity >95% after 6 months: Food Grade Catalase with residual activity greater than 95% after 6 months is used in commercial food storage, where it maintains long-term effectiveness and process consistency. |
Competitive Food Grade Catalase prices that fit your budget—flexible terms and customized quotes for every order.
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Tel: +8615365186327
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Food production runs safer and cleaner with the right enzymes. Our food grade catalase, Model CAT5000, has grown vital in the past five years as more processors seek ways to improve product quality without leaning on chemical treatments. Our experience manufacturing catalase for the food industry taught us early that residual hydrogen peroxide isn’t just a compliance issue – it affects taste, shelf-life, and customer trust. Every kilo of our catalase, formulated with targeted high activity, addresses this need directly.
The catalase enzyme breaks hydrogen peroxide into harmless water and oxygen. Many food lines use hydrogen peroxide for sterilizing packaging, cleaning equipment, or preserving products. But leftover peroxide invites off-flavors and can accelerate spoilage. Years of field data show that fast, complete peroxide removal translates to better taste, improved safety, and fewer product recalls.
We’ve seen this in both dairy and beverage applications. For instance, ultrahigh temperature (UHT) milk fails organoleptic tests if a hint of peroxide remains. Even after two decades supplying the sector, we still improve the catalase blend to maximize peroxide breakdown before bottling. With Model CAT5000, testing in several high-capacity dairies shows under 1 ppm residual peroxide within five minutes of addition, measured at typical sterilizing concentrations. That’s real-world, batch-to-batch consistency, reflected in reduced customer complaints and extended shelf-life.
We ferment our catalase using food-approved microorganisms under strict GMP conditions and separate the enzyme with filtration and ultrafiltration, rather than chemical extraction. This approach minimizes allergen risk and keeps enzyme microstructure intact. Through our own experience, we learned filtration sequence directly affects finished potency: too harsh a filter, and the enzyme loses activity; too porous, and you risk contamination. Over dozens of production cycles yearly, we dial in filtration parameters for stable lots, always aiming for consistent batch testing above label claim.
Compared to catalases intended for industrial cleaning or textile use, food grade catalase contains no antimicrobial-, coloring-, or perfume additives. There’s also tighter screening for heavy metals and biogenic amines. End-users in dairy and juice bottling told us they burned through whole lots of generalized catalase but still couldn’t reach specification. Our tailored process ensures Model CAT5000 exceeds the food safety spec for arsenic, mercury, and lead, all validated in each Certificate of Analysis issued from our in-house lab.
Food grade catalase typically exhibits at least 5,000,000 units per gram of activity, as measured by decomposition of hydrogen peroxide at 25°C and pH 7.0. Our current powdered format delivers that benchmark reliably. This line’s success has much to do with our emphasis on non-dusting granulation. Too fine a powder means losses during feeding; too coarse results in poor dispersal. We trialed over fifteen carrier blend ratios before arriving at our latest granule, small enough for rapid dissolution in water tanks but robust enough for mechanical dosing. Production teams at partner plants confirm lower losses and fewer batch mix-ups since switching to our format.
Temperature stability matters for on-site inventory. Real production environments often run above or below ideal warehouse guidance. Our catalase holds over 90% activity for one year when stored cool and dry, but from hundreds of queries, we know many storerooms climb as high as 28°C on average summer days. Retained samples from these clients consistently show minimal activity drop. Batch tracking and real-time enzyme kinetics, run on returned product, supply further assurance. We are honest: extreme humidity and rough handling do degrade enzymes. That’s why we field test improved packaging, opting for triple barrier bags and cartons we’ve sourced after seeing first-hand shipping failures.
Dairies using UHT or ESL (Extended Shelf Life) techniques count on catalase to clear hydrogen peroxide before packaging. Years ago, a leading creamery approached us to solve recurring bottle off-odors linked to peroxide retention from aseptic filler washdowns. By introducing precise, automated dosing of CAT5000 into their CIP rinse, they measured a 95% reduction in customer returns. Similar trends emerged in juice and beer bottling, where chemical sterilants stubbornly resist rinsing. In plant-based drink fabrication, where delicate flavors dominate shelf differentiation, incomplete peroxide removal causes unacceptable changes to taste and shelf aroma. End-use trials with oat milk and soy beverages delivered across-the-board flavor profiles matching unprocessed benchmarks.
Bakeries have increasingly moved to oxygen-free dough and finished goods packaging, relying on either nitrogen flushing or peroxide-based de-aeration. Our catalase cuts baking cycles when hydrogen peroxide mixes are used to bleach flour or to sterilize baking surfaces. Success for these customers depends on zero peroxide carryover into consumer-ready breads and cakes, especially when marketing to allergen-sensitive or “clean label” shoppers. After optimizing enzyme concentration and blending protocols together, most saw reduction in post-bake peroxide readings to undetectable in less than four minutes, even in high output lines.
The same principle holds true for egg processors and mayonnaise producers. Whether pasteurizing liquid eggs – notorious for retaining small peroxide residues – or ensuring sterile packaging for mayonnaise and dressings, processors require a fast-acting, food-only enzyme. Over the years, several switching from generic to food grade CAT5000 reported more reliable batch clearance and less batch rework. That kind of feedback drives us to further fine-tune product and service.
Not all peroxide removal enzymes work the same. Catalase achieves nearly instantaneous breakdown compared to other oxidative enzymes. In side-by-side trials, peroxidases and oxidases lag, often leaving residuals that fail rigorous food safety scanning. For processors who send products to market within hours of filling, only catalase delivers the speed necessary to eliminate chemical traces. Our competitive work with beverage groups, who conducted blind shelf-life studies, highlighted that catalase from non-food sources or with heavy stabilizing fillers led to flavor taints and inconsistent product color.
We dedicate much of our technical outreach to highlighting these distinctions, as few processors want repeat headaches from failed buyer audits. Our catalase formulation refines what we’ve learned from failed technologies: deep color catalysts that stain, slow-reacting blends that draw out cycle times, and stabilizers that cloud or deposit in finished product. Model CAT5000 uses only food-accepted carriers, no extraneous matrix materials, and we custom blend each season to match raw material variation. Everything boils down to what processors see on their own lines. Batch reports sent back to us sometimes reveal missed dosings or edge-case performance, allowing us to adjust future runs.
Food regulatory bodies worldwide set demanding requirements on secondary processing aids like enzymes. We design every aspect of CAT5000 manufacturing around compliance. Our own QA lab certifies every batch for microbial, heavy metal, and allergen content, following not just local specification, but importing country requirements, from strict Japanese standards to US FDA Grade. There are no shortcuts. Even receiving complaints about trace metals or spore-formers in international enzyme shipments pushed us to deepen our analytics, adding cold-chain shipment simulation and randomized spot checks.
We deploy unique lot traceability from spore fermentation to final packing. If quality issues surface seasons later, we can link back to original substrate, growth media, and finished enzyme certificate. This isn’t just check-box compliance. Over time, mock recall drills and continuous review of supplier sources uncovered rare out-of-spec raw ingredient batches before entering the line. Commitment to real transparency grew out of those early manufacturing challenges, and it’s now embedded in every client audit we undergo, whether by multinational groups or small, premium brands.
Applications in halal, kosher, non-GMO, and allergen-conscious food streams keep us grounded in the real-world impacts of enzyme provenance. After some hard lessons handling complex paperwork for international dairy co-packing groups, we instituted direct batch validation from independent third-party labs before export. Clients see real data, not vague claims, right on their packing certificate. Years serving some of the world’s tightest standards taught us that openness avoids problems and stops brand damage before it appears.
Enzyme-driven peroxide removal offers clear environmental benefits compared to chemical reduction routes. In the early years, many processors relied solely on chemical reducers, like sodium metabisulfite, with downstream impacts in wastewater. These created more than health concerns; plants faced fines for regularly discharged oxidizing species. Since nearly all hydrogen peroxide decomposes into water and oxygen following catalase action, the change at scale saves both chemical supplier costs and wastewater remediation budgets. Our own internal environmental audits have charted measurable decreases in total oxidant emissions at partner facilities after adopting food grade catalase. Repeat collaboration with environmental health and safety teams underscored this benefit.
Our fermentation and purification steps have similarly evolved as we tracked each input’s environmental footprint. All waste streams from fermentation get processed through certified biological treatment, avoiding direct discharge. Solids from enzyme filtration are sent to local agricultural processing, a practice we adopted after earlier incineration routes drew valid concerns from client CSR audits. Implementing greener energy sources at our catalyst plant cut overall enzyme carbon footprint by 18% year-over-year, as reported in our last annual sustainability review. Process improvements, driven by both government regulation and client preference, keep us in a long-term habit of seeking lower-impact manufacturing routes.
No matter how effective an enzyme, mistakes in dosing or mixing waste both product and value. We built our technical field team around this problem. Experienced enzyme handlers visit client factories, audit feed systems, and adapt catalase integration plans to actual production realities. Years in the industry made clear that supply alone isn’t enough: operators need confidence in their real dosing curves, actual peroxide load, and fallback plans in case of system snag. By sitting on production runs, we identify areas where catalase disperses slowest or where holding tanks dilute enzyme across shift changes. Several plants halved their enzyme use just by fine-tuning piping layout and mixing steps.
We track recurring field questions and build improvements into both product design and documentation. Some clients operate in high dust zones; others, with automated closed blending. We changed both granule particle size and packaging approach after learning from complaints around dusting and spill risk. Others needed ready solubility for in-line addition, which drove us to research and blend co-processed carriers, kicking off pilot projects in spray-dried and instantized enzyme products.
Changes in food processing regulation spur further customization. For juice processors dealing with rapid pH shifts or heat stages, we blend specialized enzyme batches tolerant to those swings. After multiple requests, our team developed a cold-process version of CAT5000 for sensitive beverage packaging. Through all this, regular check-ins and transparent data exchange – enzyme activity curves, residue test results, and batch performance feedback – make those customizations work in the real world, not just on paper.
Over the last decade, automation, traceability, and digital QA tools changed the enzyme industry. Still, the basic challenges haven’t gone away: keeping ingredients clean, clearing out all traces of processing agents, and making sure no unwanted by-products sneak into consumer products. Our operations have expanded in both size and specialization as food supply chains globalize and the risks of contamination or chemical carryover grow starker.
We invest in better process analytics — online spectrophotometry, batch-by-batch data logging — to validate every run of Model CAT5000. Never relying only on spot tests, our team correlates full-batch kinetics with real end-user sampling. This closes the loop, confirming not just enzyme potency at packing but effectiveness under different, sometimes unexpected, client conditions. For instance, plants using reverse-osmosis-process water report slightly slower catalase action; our QA team factors these field variables into recommended dosing tables.
Food safety realities never stand still, and end-user needs force a flexible approach. After supporting recalls caused by incomplete peroxide removal, we doubled down on in-house troubleshooting. Now, data from hundreds of client runs feed into our ongoing enzyme optimization projects. Direct feedback – from bottling operators chasing off-odors to QA leads in bakeries charting batch failures – refines not just product formula but the real-world support we provide.
Food grade catalase isn’t just another commodity enzyme. The experience gained in manufacturing, from running fermenters to dealing with on-site dosing emergencies, makes clear that the product’s value lies in both its safety and practical, everyday reliability. Every improvement, every field challenge, and every customer story shapes the enzyme that reaches the next production line. With heightened food safety standards and bigger demand for “clean label” processing, that focus won’t change.