|
HS Code |
212140 |
| Product Name | Food Grade Cellulase (Whole Component Type) |
| Appearance | light brown powder |
| Enzyme Activity | 10,000-30,000 U/g |
| Solubility | soluble in water |
| Ph Stability | 4.0-6.0 |
| Optimal Temperature | 45-55°C |
| Storage Conditions | store in a cool, dry place |
| Shelf Life | 12 months |
| Main Function | degradation of cellulose in food processing |
| Source | microbial fermentation |
| Heavy Metals Content | <10 mg/kg (as Pb) |
| Arsenic Content | <2 mg/kg |
| Allergenic Potential | generally regarded as non-allergenic |
| Recommended Dosage | 0.02%-0.1% of raw material weight |
| Certification | complies with international food safety standards |
As an accredited Food Grade Cellulase (Whole Component Type) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging is a sealed, food-safe 1 kg white plastic bag with a clear label indicating "Food Grade Cellulase (Whole Component Type)". |
| Shipping | Food Grade Cellulase (Whole Component Type) is securely packed in sealed, food-safe containers to ensure purity and quality during transit. The product is shipped in accordance with industry regulations, protected from moisture and contamination, and clearly labeled. Temperature and handling instructions are provided to maintain enzymatic activity throughout shipping. |
| Storage | Food Grade Cellulase (Whole Component Type) should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and moisture. Keep the container tightly sealed to prevent contamination and degradation. Avoid exposure to strong acids, alkalis, and oxidizing agents. Store at recommended temperatures—generally below 25°C—to maintain enzyme stability and ensure product quality and safety. |
| Purity 98%: Food Grade Cellulase (Whole Component Type) with Purity 98% is used in fruit juice clarification, where it enhances juice yield and improves transparency. Particle Size <50 µm: Food Grade Cellulase (Whole Component Type) with Particle Size <50 µm is used in bakery dough processing, where it promotes uniform mixing and dough extensibility. Optimal Activity at pH 5.0: Food Grade Cellulase (Whole Component Type) with Optimal Activity at pH 5.0 is used in vegetable fiber modification, where it achieves efficient cellulose breakdown and reduces processing time. Stable at 60°C: Food Grade Cellulase (Whole Component Type) Stable at 60°C is used in cereal-based beverage production, where it maintains enzymatic efficiency during pasteurization. Low Heavy Metal Content <10 ppm: Food Grade Cellulase (Whole Component Type) with Low Heavy Metal Content <10 ppm is used in infant food manufacturing, where it ensures product safety and compliance with food standards. Viscosity Grade 120-150 mPa·s: Food Grade Cellulase (Whole Component Type) with Viscosity Grade 120-150 mPa·s is used in brewing, where it accelerates wort filtration and increases extraction efficiency. Moisture Content <8%: Food Grade Cellulase (Whole Component Type) with Moisture Content <8% is used in dried fruit softening, where it maintains enzyme stability and shelf life during storage. High Specific Activity >10,000 U/g: Food Grade Cellulase (Whole Component Type) with High Specific Activity >10,000 U/g is used in dietary fiber enrichment, where it maximizes cellulose hydrolysis and improves bioavailability. Molecular Weight 45-55 kDa: Food Grade Cellulase (Whole Component Type) with Molecular Weight 45-55 kDa is used in plant-based meat processing, where it optimizes texture and reduces processing residues. Endo-Exo Enzyme Ratio 3:1: Food Grade Cellulase (Whole Component Type) with Endo-Exo Enzyme Ratio 3:1 is used in tea extraction, where it enhances extraction rates and improves flavor compound release. |
Competitive Food Grade Cellulase (Whole Component Type) prices that fit your budget—flexible terms and customized quotes for every order.
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Every day, in our own facility, engineers and technicians put Food Grade Cellulase (Whole Component Type) through rigorous runs, not only to control quality, but to shape the enzyme for the very real demands of food production lines. Those who spend hours with mixing tanks and fermenters know: from bread softening to fruit juice extraction, not every enzyme blend does the hard work food processors face. We learned this through years of batch evaluations and feedback loops, right out of production kitchens and pilot plants. Back in the early days, food enzymes were largely focused on a single activity—smashing cellulose chains alone. But as plant raw materials became more diverse, bread structures more complex, customer tastes more discerning, a one-note product couldn’t keep up. That set our research direction: a cellulase blend that keeps the fiber breakdown robust and evenly paced, without bringing bitterness or loss of color in sensitive foods.
We label ours Whole Component Type because we go beyond just the main activity. If you take apart our batches in the lab, you’ll see all naturally co-produced side activities preserved alongside cellulase itself. Over the years, bakers, fruit handlers, and veg protein formulators have told us they can spot the difference. In bread, the enzyme works through both insoluble and soluble fiber, softening and giving the crumb a finer structure—not just on the first day, but even in loaves with longer shelf life goals. That balance comes from production methods that protect the minor hemicellulase, xylanase, and beta-glucosidase coenzymes. Some manufacturers cut or denature these factors to standardize output, but experience in both test kitchen and full-scale production told us it shortens the "window" of optimal softness and can add off-flavors. We built our fermentation and purification systems to keep the enzyme whole, never splitting out the very activity that enables comprehensive fiber modification—especially important when working with bran-rich pastries or novel grains.
Actual specs matter most in daily use. The carefully controlled activity range—measured in consistent FPU (Filter Paper Units)—reflects what our fermentation tanks have put out over thousands of runs. Our product comes as a free-flowing light brown powder, straight from our drying line, packing of at least 95% pure active enzyme. Even color and texture can tell an experienced technician that the active fractions haven’t been overheated or deactivated along the way. Particle size distribution ties into process engineering; our powder never forms hard clumps, which can cause feeding errors in continuous blenders or lead to “hot spots” in mixing vats. Most processors, whether dosing by hand or feeding mechanically, report consistent results—that came from years of refining spray drying and sieving. Moisture specs, typically below 7%, help keep product stable in warehouse humidity swings, cutting down on caking and loss of activity. Every production batch is checked for heavy metals and microbial safety, which goes beyond food law minimums: we screen for both coliforms and wild molds, especially since enzyme blends can be attractive sources for spoilage organisms if not managed tightly. We built internal standards to reflect the reality of manufacturing with flour, fruit puree, and vegetable protein bases, where cross-contamination can turn into expensive recalls.
Food Grade Cellulase (Whole Component Type) finds itself powering more than one food sector. In breadmaking, line operators tell us our whole component blend hits just the right balance: strong enough to cut through tough bran and fiber, but not so aggressive it thins out dough structure or ups bitterness. Bakers working with high-fiber, whole grain, or gluten-free doughs depend on that balance to avoid “rubbery” crumbs or collapsed loaves. We designed the dosing curve not to overshoot in the first minutes of mixing. Doughs stay stable, giving room for natural yeast fermentation and gas development. Once, a large-scale bakery came to us—experiencing erratic proofing and excess “fines” in their slicers with another cellulase source. Trial after trial in our application center showed it. Switching to our product, the effect evened out: consistent cell structure, a clean cut, and no side-tastes that can turn up with over-purified, single-component cellulases.
Fruit and vegetable processors need a whole different set of outcomes. Juice manufacturers, for example, run into “cloud settling” and slow pressing when enzymes break down only certain fiber components. Our whole-component cellulase breaks down cellulose and the complex hemicellulose matrix at the same time, resulting in both higher juice yields and better clarity. Trying to juice apples, carrots, or leafy greens without the right blend leaves too much water trapped in the pulp. With the whole set of enzymatic activities left in, operators report a marked drop in leftover fiber and a cleaner, brighter product. The enzyme’s balanced action trims down filtration steps, too, which lets processors cut water and energy costs without breaking yields. That feedback shapes formulation tweaks batch after batch—we listen, test with pilot runs, then recalibrate activity if market fruit blends or crop sources change.
In plant-based protein and fiber-enriched foods, the story shifts. The surge in oat, pea, and bean-based lines means more processors contend with natural plant fibers that often block texture and offload bitterness into finished foods. With our product’s side activities—xylanase, beta-glucosidase, and more—the entire fiber “web” becomes workable. As a result, formulators push protein levels without turning finished products sandy or chewy. Some try to solve this by mixing three or four narrow-activity enzymes, but feedback from longstanding clients shows it’s easier, more cost-effective, and more predictable to run with a single whole-component input, designed from fermentation onward.
Compliance in our shop means more than ticking boxes for food safety standards. Auditors walk our lines, check our control documentation, and test products. Our team goes above the legal minimums, not only because food safety hits the headlines when batch recalls start, but because the practical reality on the manufacturing floor means tighter specs avoid hidden surprises down the flow chart. Our in-line controls flag variability in fermentation both for main cellulase activity and for the relevant side fractions that drive whole plant material breakdown. Routine PCR tests and plate counts confirm absence of pathogens and toxins—by the time a lot heads for packing, it’s already beaten the latest global food code requirements. Whether a client runs a bread factory, ready-meal plant, or beverage filling line, we keep channels open for quality reports—not just chasing certificates, but scrapping or holding back any production run if end-users report variability outside our working spec ranges.
Side-by-side with single-component cellulase on a test line, ours pulls ahead in more demanding scenarios: extra-bran dough, thick juice mashes, plant-based meat emulsions, and pilot batches with emerging grains and legumes. Industry feedback drives home the issues: narrowly purified enzyme can punch out a fast effect but often collapses doughs or burns through flavor balances. Our formula keeps the pieces together—cellulase working in harmony with its natural co-produced enzymatic partners. That’s never an accident. We design production runs to minimize downstream modification, preserving the blend as nature makes it in microbial fermentation. Year after year, customer panels score side-by-side finished products made with our blend as having a softer bite, fresher aroma, brighter color—even after aggressive pasteurization or blast freezing. Bakers and product developers pushing high-nutrition lines notice our whole component type holds up better to variable ingredient quality, surviving swings in protein, water hydration, or fiber size.
Our plant’s technical team fine-tunes fermentation every week. Substrate mix, temperature, agitation rates—each directly influences the ratios of main and side enzyme activities, which in turn shapes the real effect in food. Big distributors and repackagers may never see this end of the process, but being a manufacturer, we can shift production to suit seasonal ingredient changes or new product launches for key accounts, not just crank out generic powder. That agility cuts down on off-spec production and lets food manufacturers anticipate safe, steady output even across big procurement swings. We even run “trouble batches”—fermentations with deliberate skews in substrate or process timing—to map the boundaries of enzyme performance and prevent out-of-spec shipments from ever leaving our warehouse.
Nowadays, everyone from multinational bread companies to family-run juice producers faces new traceability regulations. As a direct manufacturer, we keep every batch logged—inputs, processing, testing, lot release. That’s not just a safety measure: if a processor calls after a week’s run with a question, we can pull the precise fermentation file and answer for every operation, down to the last decimal of activity or input composition. In rare situations where a change in raw input (like a shift in wheat supplier or batch of apple mash) impacts enzyme response, we can track back to the batch, compare test results, and recommend tweaks. Our team faces regulatory audits every quarter; by tracking activity patterns and contaminant checks tighter than mandated, we provide both processors and their auditors with data for the entire manufacturing chain. That real-time traceability reassures procurement and quality teams who carry the recall and compliance responsibility—not just marketing managers. In these days of QR codes and global ingredient sharing, that’s not window dressing—it’s basic insurance for everyone’s brand and reputation.
Commercial users who shift from standard or repackaged enzyme brands to our whole component product often mention one thing: less time adjusting formulation or rebalancing ingredient mixes. Because our enzyme maintains natural co-activities, processors dodge many of the pitfalls that drive up waste and labor costs. For instance, one partner who switched from a more purified cellulase found their caramel-flavored, high-bran loaf kept a brighter color and stayed softer over three days’ shelf life. Others in fruit bar or extruded snack markets came back with feedback on fewer “fibre tailings,” crisper edges, and no muddy tastes. For processors working with new extruded plant ingredients or upcycled byproducts (like beet pulp or orange peels), that flexibility means one enzyme lot covers diverse pilot or full-scale runs—no need to source and store separate activity blends. It traces back to our philosophy: keep the enzyme as close to its natural synergy as possible, while guaranteeing the food safety, allergen, and labeling requirements demanded by top retailers and food authorities.
Our staff walks the floor every week, observing real-time fermentation snapshots and dialing in drying parameters, moisture content, and powder fineness. We don’t rely on sub-contractors to hit batch specs. Veteran employees recall early batches with caking, air-bubble inclusions, or inconsistent scent—which could ruin both the confidence of end-users and the integrity of the food line. The switch to a more integrated, whole-component fermentation was not only a technical decision, it was a result of working shoulder-to-shoulder with production teams tackling unexpected downtime, clumping issues, or inconsistent food texture. Each adjustment, failure, or feedback loop led to a sturdier, more predictable enzyme. In a business where disruptions can drain thousands of dollars per day, reliable upstream inputs are not just science—they’re a form of operational risk management.
Modern processors chase not just efficiency, but a consistent eating experience consumers will trust and buy again. Cellulase has been at the center of solving taste, mouthfeel, and fiber conversion challenges—especially as the focus on fiber, whole grain, and clean label products skyrocketed. With a whole component blend, the enzymatic activity endures storage swings, buffer temperature changes, and ingredient variability. Many customers report that their product quality “flattens out” across seasons: no dry winter bread, no gummy summer pastries. Even in plant beverage lines where fiber load and sediment risk spikes, our enzyme helps keep filtering steps predictable and yields higher.
As food technology races ahead and ingredient sources shift fast, our direct manufacturing approach keeps us ready to adapt. Processor feedback never falls “down a black hole” or gets lost in the shuffle with traders or resellers. Each lot reflects lessons learned from the last, and our R&D team maps out coming challenges in plant-based protein, alternative grains, and high-sugar or low-carb bakery categories. Recent collaborative pilot tests with food companies show ongoing gains—finer bread crumb, brighter juice, more consistent extrusion in novel plant snacks—with optimizations tied to our preservation of both the main and secondary enzyme fractions. Our research scientists meet regularly with production engineers, baking teams, and ingredient buyers—not only to refine existing batches, but to stay ahead of next-year challenges in food innovation.
Choosing Food Grade Cellulase (Whole Component Type) means relying on a tool built for the real world of modern foods—fiber-rich recipes, challenging ingredient mixes, ever-tighter traceability needs, and consumers who expect both taste and nutrition in every bite. We share a commitment with the processors and food technologists we serve: producing reliable, flexible, food-safe inputs that help shape the next generation of foods, without surprises or unnecessary complications on the line. Each lot carries with it not only the best science, but a legacy of active manufacturing—engineered and made by a team who understand where the enzyme lands, what jobs it must tackle, and what counts as success when it leaves the test bench and enters the food chain.