| HS Code | 810966 |
| Product Name | Papain, Glucose |
| Papain Cas Number | 9001-73-4 |
| Glucose Cas Number | 50-99-7 |
| Appearance | White to off-white powder |
| Solubility | Soluble in water |
| Papain Activity | Typically 2000-3000 USP units/mg |
| Storage Temperature | 2-8°C |
| Ph Range | 5.5-7.5 |
| Application | Proteolytic enzyme for biochemistry and food industry |
| Molecular Weight Papain | 23,406 Da |
| Glucose Content | Used as stabilizer and carrier |
| Odor | Practically odorless |
| Source | Carica papaya (for papain), synthetic or natural (for glucose) |
As an accredited Papain, Glucose factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Papain, Glucose is packaged in a sealed, amber glass bottle containing 100g, labeled clearly with product name, quantity, and safety information. |
| Shipping | Papain, Glucose is shipped in tightly sealed, food-grade containers to prevent contamination and moisture exposure. Packages are labeled according to regulatory requirements, with temperature control if specified by the manufacturer. Standard ground or air shipping methods are used, ensuring safe, prompt delivery suitable for research or food applications. |
| Storage | Papain, Glucose should be stored in a tightly sealed container at 2–8°C, protected from light and moisture. Avoid exposure to air and humidity to maintain its enzymatic activity and prevent degradation. The storage area should be clean, dry, and free from strong odors or contaminants. Proper storage ensures the chemical’s stability and maximizes its shelf life for laboratory or industrial use. |
As a dedicated chemical raw material producer, we support industrial partners worldwide with high-purity papain and glucose. Below are well-established downstream scenarios for these materials, with details on compliance, use, processing, and outcome in each sector.
Papain and glucose widely serve food processing applications, enhancing protein hydrolysis, meat tenderization, and fermentation. Food manufacturers add papain for softening tough meat fibers without effecting taste, while glucose provides direct fermentable sugars and acts as a mild sweetener or bulking agent. Integration strict follows international food additive rules and hygiene protocols to ensure consumer safety and label compliance.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Both materials are core inputs for manufacturers of enzyme-based digestive aids and injectable glucose solutions. Enzyme tablets utilize papain for targeting digestive disorders, formulated to medical specifications, whereas injectable or oral glucose supports hypoglycemic intervention and energy supplement products. All processes strictly conform with pharmacopoeial monographs and sterility standards for active pharmaceutical ingredients (API) and excipients.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Leather production facilities employ papain for the bating stage, which softens hides and removes residual proteins without damaging collagen fibers. Glucose, though less common, is sometimes used as a mild reducing agent or masking additive in specialty tanning formulations. This operation requires close quality monitoring to avoid over-bating or chemical residue in finished hides, fully aligned with international leather finishing regulations and environmental discharge stipulations.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Many breweries and distilleries utilize glucose as a controlled fermentation sugar to standardize batch-to-batch ethanol yield. In some specialty brewing, papain is added as a proteolytic agent to prevent chill haze and improve clarity in bottled products. All additives must fit within food safety standards, and implementation consistently follows regional product labeling and purity requirements in the beverage sector.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Papain serves as a highly specific proteolytic enzyme in exfoliating creams and facial peel masks. Cosmetic chemists formulate gentle preparations to ensure both safety and desired performance without causing skin irritation. Glucose functions as a humectant in lotions, serums, and hair care, contributing to moisture retention. All applications must pass dermatological evaluation and comply with stringent cosmetic ingredient lists and regulatory frameworks.
Industry compliance standards
Typical usage ratio
Downstream process integration
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Papain acts as a stain remover by breaking down protein-based residues in industrial and household detergents. Leading detergent formulators incorporate the enzyme to boost effectiveness on complex stains at lower wash temperatures. Glucose occasionally finds use as a mild surfactant or stabilizer in liquid formulations. Regulatory compliance focuses on biodegradability, allergy avoidance, and consumer safety for skin-contact products.
Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
Competitive Papain, Glucose prices that fit your budget—flexible terms and customized quotes for every order.
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Papain stands out in enzymatic manufacturing, and its combination with glucose opens surprising doors for process efficiency and product consistency. At our plant, the blend of Papain and Glucose goes beyond textbook chemistry. Every batch traces its roots to trusted sources of Carica papaya latex and carefully sourced D-glucose. Working day in and day out with these ingredients, I’ve come to recognize the difference a controlled process makes—not just on paper, but in the actual output found downstream in food, brewing, and pharma applications.
We produce several models of Papain Glucose tailored to meet distinct needs. A typical specification might range from 100,000 to 600,000 U/g of enzymatic activity, depending on the intended application. Along with that, we keep moisture below 8%, and monitor for impurities and microbial content at every stage, conducting quality checks by hand and machine. While technical data sheets toss around numbers all day, in our operation, those numbers anchor real procedures—the fine powder form, for instance, favors rapid dissolution, and the consistent pH (usually around neutral to slightly acidic) means more predictable results in recipes and reactions.
The food industry leans heavily on reliability and efficiency. Bakers rely on Papain Glucose for gluten modification, improving dough extensibility and texture. Dairy processors use it to manage protein breakdown during cheese maturation. At our facility, we keep tabs on feedback from those working directly on the production lines. They tell us that a dependable Papain Glucose blend transforms processing time and ingredient flow, which would otherwise suffer from inconsistent protein hydrolysis or off-flavors. Unlike generic papain, the addition of glucose in our mix stabilizes enzyme activity and extends shelf life, reducing performance dips during transport or storage.
Our regular customers include large-scale bakeries and ready meal producers. We listen closely as they report how pure papain sometimes delivers too strong an effect—over-tenderizing meats or disrupting texture. In contrast, Papain Glucose shows a gentler, more predictable profile. That comes down to the glucose acting as a stabilizer and modulating the release of enzymatic action. This subtlety is tough to see unless you’ve compared final products side by side: one with regular papain and one with our formulation. Bread loaves hold their shape better, and meat pieces retain structure even after extended marination.
Fermentation tanks, whether they hold beer wort or soy-based sauces, need efficient protein breakdown for clarity and flavor development. Enzyme reliability makes or breaks the process. During brewery trials, we found that Papain Glucose proved less susceptible to temperature swings than traditional blends. In the practical bustle of a brewery, that means fewer adjustments, less waste, and steadier product quality. Brewers reported faster chill-haze removal, meaning quicker turnaround and more consistent pours. The controlled hydrolytic action reduces unwanted protein fragments, so you don’t end up with excessive sediment in bottles or kegs.
Brewing isn’t the only area touched by our product. Soy sauce and hydrolysate producers also benefit from a powder that goes completely into solution and keeps working without unexpected byproducts. Glucose serves as both carrier and co-factor for papain, making the blend ideal for protein-heavy substrates like legumes or grains. Our manufacturing team monitors enzyme ratios in real time; if the activity profile drifts, we tweak inputs right on the shop floor. This vigilance minimizes batch-to-batch differences and gets nods from large fermentation factories, which can’t afford downtime or recalls.
On the lab bench, precision and reproducibility matter far more than mere bulk output. Pharmaceutical companies come to us for Papain Glucose because of its mildness and consistent activity profile—a result of our close-matched blending lines and redundant QC checks. For topical preparation and enzymatic debridement creams, anything but the gentlest and purest enzyme will risk irritation or unpredictable results. Glucose acts as both a stabilizer and as nourishment for preserving bioactivity during storage and transport. Unlike single-ingredient powders that can degrade under heat or humidity, the Papain Glucose combination shows much better stability, which cuts down on batch rejection rates for our clients.
Some tablet and capsule manufacturers draw a line in the sand with their specs, demanding minimal dust formation, predictable granule size, and the absence of foreign odors. Feedback from those teams helped us fine-tune our drying systems and granulation methods. By integrating glucose, we prevent the agglomeration and caking sometimes seen in pure papain lots. Our batch operators keep close tabs on the process—if a mild caramel aroma emerges from excess heat, we halt and readjust. This vigilance isn’t just quality control for its own sake; it reflects years of small – but crucial – lessons from customer insights.
A newcomer to enzyme processing might assume papain blends are interchangeable. Years of field testing and partnerships with industrial users challenge that. Our Papain Glucose takes extra steps for hygiene, starting with high-altitude, non-GMO papaya latex and pharmaceutical-grade glucose. After extraction and blending, filtration removes fine plant debris—a step often skipped in rapid-turn operations, but one we’ve found necessary after a decade of addressing customer complaints about color or taste in final products.
Many standard papain products lack a stabilizing sugar component, making them prone to moisture uptake and activity loss over weeks or months, especially in regions with challenging climates. The starch and dextrin sometimes used by competitors aren’t as clean on the palate or as easy to mix, based on side-by-side tests we’ve conducted with bakery and beverage producers. We use glucose for both stability and its neutral sweet note, so it doesn’t mask or distort product flavors.
For industrial buyers, packaging is more than a wrapping issue. We use multilayered, food-contact safe materials, with continuous real-time humidity checks during packing. We store finished lots under closely controlled conditions, and rotate stock aggressively to guarantee peak activity upon delivery. Some manufacturers in our industry take a slower approach, holding inventory for months longer—a shortcut that creates small but costly problems in time-sensitive industries like brewing and pharma.
There’s a daily grind to balancing efficiency and safety on a production line. Too much focus on output, and enzyme activity slides; too much on analysis, and deadlines slip. At our company, managers and machine operators meet at shift start, reviewing the last 24 hours of activity and anomaly logs before a new batch begins. We monitor the color of incoming papaya latex—the earliest hint of quality drift—and regularly test the glucose’s water content and granule uniformity. Real-world production runs use these quick checks to avoid costly mistakes that might only show up after a customer’s complaint down the line.
Instead of solely relying on automated systems, we supplement with experienced staff, trained to spot a subtle change in powder texture or an off-aroma. These hands-on interventions, streamlining apart, trace back to the inescapable reality of chemical manufacturing: every variable counts. Our records track not just lots and dates, but the specifics of each blending operator and QC pass. That transparency, backed by an open-door policy with customers, keeps us quick to resolve concerns and document patterns as they emerge.
Our business rests on more than bottom lines. Sourcing raw papaya latex sustainably became a necessity, not just a pledge to regulators or NGOs. Growers face real market fluctuations, climate stresses, and disease cycles, affecting latex output year to year. Since we depend on local relationships in agricultural regions, we invest in eco-friendly harvest training and incentivize growers for quality latex, not just raw tonnage. Field visits and third-party audits offer reassurance, but direct engagement makes a larger impact.
Glucose sourcing also carries ethical and agricultural consequences. We opt for non-GMO corn and potatoes as feedstock, avoiding chemical bleach or harsh desiccation steps that leave residues. While this route brings higher upfront costs and longer qualification runs, the payback shows up in greater process consistency and word-of-mouth trust from our partners in infant nutrition and pharma.
Shoehorning a multitasking enzyme like Papain Glucose into complex processes rarely works flawlessly from day one. Over time, patterns emerge. In one example, a section of our food-grade packaging line showed trace powder leakage during days of high ambient humidity, which led to caking in some batches. Lab analysis caught this before the product left the plant, but fixing the root issue meant investing in environmental controls and tweaking bag closure methods. It wasn’t glamorous, but the result cut material waste and improved shelf life for every production lot since.
Field support matters just as much. Customers often reach out about subtle off-flavors or textural quirks in finished foods. While their first suspicion might be recipe or process drift, we dig deeper on our end, cross-referencing shipment batches against possible temperature excursions or delayed deliveries. Once, an end user traced excessive foaming in a batch of beer to an unexpectedly warm shipping container. We replaced the lot, re-examined storage and shipping partners, and tightened SOPs both for how we instruct clients to handle Papain Glucose on arrival, and how we contract cold-chain shipping.
Innovation comes from stubbornness and feedback. When clients confide about using Papain Glucose in an untested food process or a pilot plant, we study their setup using samples from current production. Direct feedback from these projects leads us to adjust enzyme ratios or tweak drying processes. In one recent iteration, several pilot customers sought higher protein-cleavage selectivity, but didn’t want an acrid taste or off-smell. By rebalancing the papain-to-glucose blend, smoothing the drying curve, and introducing a low-heat post-blend polishing step, we landed on a product variation now standard with several ready-meal makers in Southeast Asia.
Developing new grades goes hand-in-hand with rigorous stress testing. A team of us spends days recreating end-user scenarios. We dosed the enzyme blend in hot, humid kitchens and climate chambers mimicking tropical warehouse conditions. Fluctuations in activity, caking, and color were tracked, then fed back to R&D for targeted improvements in both formulation and packaging. These test cycles never fully replicate real plant and kitchen chaos, but the real-world failures lead us to iterative progress more than any spreadsheet can predict.
Industry buyers speak often about cost and purity, but less about the reassurance of a direct connection to those who actually make the enzyme. Our product development and technical support teams draw directly from production experience. Fielding questions about solubility, blending, or flavor impact, we tap into a collective memory of batch troubles, customer feedback, and near-miss reporting that shapes each improvement. That means less hand-off between distributor and producer, so solutions reflect working realities.
A direct relationship also means access to customized runs. If a bakery requests lower activity for slow-rise dough, or a brewer wants a tweak for cloudy wheat beer, we pull in specialists to modify blend ratios or test new packing formats, then follow up with reports on each trial batch. Traceability is transparent, extending from the latex fields and glucose tankers to the final sealed jar or drum.
Producing food- and pharma-grade enzyme blends brings tough compliance demands. We maintain up-to-date technical documentation for Papain Glucose, with batch-specific certificates of analysis covering every nutritional and microbial count. External third-party audits cycle yearly, in addition to regular internal inspections. Failure to meet a standard isn’t an option in a market where exports face complex import regulations.
We run allergen screening and supply non-GMO statements for each batch, responding quickly to custom documentation needs—whether for food factories in Europe or supplement brands with US-compliant labeling. This way, regulatory audits don’t interrupt client production, and recalls stay vanishingly rare among our buyers. Our pest management, supplier verification, and trace analytics look excessive on paper; to us, they’re just part of making sure downstream users never face uncertainty about batch purity or authenticity.
Demand for blended enzymes like Papain Glucose grows in step with clean-label and plant-based innovation. Developers of new food and beverage lines look for enzymatic solutions that do more than tick regulatory boxes—they need consistency, traceability, and the subtlety to enhance texture or flavor without masking or distortion. As a manufacturer, we’re tasked with achieving this not just with a one-size-fits-all product, but with blends that adapt to evolving industry goals.
Future opportunities include extending fermentative enzyme blends into emerging sectors, such as high-protein meat analogs and specialty nutritional supplements. We’re trialing new process controls to ensure Papain Glucose handles these denser, more sensitive matrices without unwanted breakdown or flavor generation. At the same time, challenge comes from tightening global standards on residue limits and additive labeling. Vigilant sourcing, transparent documentation, and continuous QA adaptation remain our response.
No single product addresses all the hurdles faced by industrial processors, but Papain Glucose stands apart for those who need a reliable, tested enzymatic solution straight from the manufacturing source. Manufacturers, more than middlemen, see firsthand what works and what needs change. By staying close to our raw materials, our process teams, and our end users, we keep Papain Glucose as a tool not just for today’s production line, but for tomorrow’s breakthrough products as well.