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HS Code |
206400 |
| Enzyme Name | Alkaline Mannanase |
| Activity Optimum Ph | 8.0-10.0 |
| Optimal Temperature | 40-60°C |
| Substrate Specificity | mannan-containing polysaccharides |
| Enzyme Type | hydrolase |
| Source | microbial (typically Bacillus or Streptomyces strains) |
| Physical State | powder or liquid |
| Cas Number | 37288-54-3 |
| Solubility | water-soluble |
| Application | detergents, pulp & paper, feed additives |
| Storage Conditions | cool and dry place |
| Appearance | off-white to light brown |
As an accredited Alkaline Mannanase factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The Alkaline Mannanase is packaged in a 25 kg blue HDPE drum, featuring a sealed lid and clear product labeling. |
| Shipping | Alkaline Mannanase is shipped in sealed, food-grade plastic drums or containers to maintain product stability and prevent contamination. It is transported at ambient temperatures, away from direct sunlight, extreme heat, and moisture. Proper labeling, including product name, batch number, and handling instructions, ensures safe and compliant shipping. |
| Storage | Alkaline Mannanase should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and moisture. Keep the container tightly closed when not in use. Store at temperatures between 5–25°C to maintain enzyme stability. Avoid freezing and exposure to high temperatures. Ensure the storage area is free from incompatible substances, such as strong acids or oxidizers. |
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Purity 90%: Alkaline Mannanase with 90% purity is used in pulp bleaching processes, where it enhances hemicellulose degradation for improved brightness. Optimum pH 10.5: Alkaline Mannanase at optimum pH 10.5 is used in textile scouring, where it facilitates removal of galactomannans for cleaner fabrics. Thermal Stability up to 60°C: Alkaline Mannanase with thermal stability up to 60°C is used in detergent formulations, where it ensures efficient mannan degradation at elevated washing temperatures. Enzyme Activity 10,000 U/g: Alkaline Mannanase with enzyme activity of 10,000 U/g is used in feed additives, where it increases digestibility of mannan-rich feed components for better animal performance. Granular Form: Alkaline Mannanase in granular form is used in laundry powder production, where it offers dust-free handling and homogeneous blending. Particle Size <120 µm: Alkaline Mannanase with particle size less than 120 µm is used in baking improvers, where it enables even distribution throughout dough for uniform crumb structure. Shelf Life 12 Months: Alkaline Mannanase with a shelf life of 12 months is used in industrial enzyme supply chains, where it guarantees functional activity during storage and transport. Low Dust Emission: Alkaline Mannanase with low dust emission is used in large-scale mixing operations, where it minimizes occupational exposure and product loss. Liquid Concentrate: Alkaline Mannanase in liquid concentrate form is used in food processing, where it allows easy dosing and rapid dispersion for streamlined operations. Metal Ion Tolerance: Alkaline Mannanase with high metal ion tolerance is used in wastewater treatment, where it retains hydrolytic efficiency in the presence of industrial effluents. |
Competitive Alkaline Mannanase prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.
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Tel: +8615365186327
Email: admin@ascent-chem.com
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In our manufacturing plant, we learned early that enzyme innovation must answer real production challenges. That's why we designed our alkaline mannanase to work where other enzymes fall short. For customers in pulp and paper, textile, feed, and oil drilling, few ingredients shape process efficiency like enzymes. Alkaline mannanase, in particular, makes stubborn mannan-based compounds soluble, cuts down extraction time, and can deliver serious cost savings by limiting resource waste. As a team that mixes every batch ourselves, we’ve seen what sets this enzyme apart from the crowd.
Many saccharifying enzymes break down under high-pH conditions. Paper mills, detergent formulators, and oilfield engineers kept running into mannan-rich residues that resisted standard mannanases. By focusing on naturally alkaliphilic strains and refining our fermentation lines, we've developed an alkaline mannanase that thrives above pH 8. In pulp bleaching, the enzyme targets galactomannans and glucomannans, reducing pitch and minimizing the need for harsh chemicals. This means less downtime scraping stubborn resin and fewer process interruptions for cleaning.
Plenty of generic mannanases exist. Fewer can handle high pH and elevated temperatures without denaturing. What really separates our mannanase is its stability from start to finish. We’ve measured half-lives at 55–60°C, and users report solid performance in continuous operations. Competitors often rely on blends or use enzymes from mesophilic sources. That’s where cost and process bottlenecks creep in. Pumps don’t clog, filtrate flows well, and downstream steps run smoother when the enzyme is actually suited to alkaline conditions.
Each batch we produce carries the lessons of hundreds that came before. We don’t push a standard “specification sheet,” because nearly every user’s feedstock is different. Sometimes it’s softwood pulp with high glucomannan; sometimes it’s legume-based animal feed full of galactose-contaminated mannan. Over the last decade, we’ve tweaked strain selection and post-fermentation stabilization so customers get reliable enzyme activity—every shipment, every drum. We don’t chase activity numbers for the sake of a label. In feedback loops with our industrial partners, we tune enzyme ratios and drying methods to address real-world process headaches.
Acidic mannanases fit well with fruit juice clarification or neutral pH food processing. When soap manufacturers try to lift gums from cottonseed or wood pulping lines run with caustic soda, standard enzymes stop working. Our enzyme holds up at pH 8.5 to 11, so paper whitens more fully and less chemical carryover happens in recycle lines. Some competitors dilute acidic products to pass them off as “alkaline-compatible,” but those lose punch fast during high-pH soaks. We built ours from the microbe up for this space.
In an oil drilling field, crew chiefs can’t wait around for off-the-shelf enzymes to activate—they want a product that dissolves guar and locust bean gum quickly, in brines with pH well above 9. We’ve seen more than one service company stuck loading up on surfactant and caustic, only to face stubborn clogs days later. By adding our alkaline mannanase to the mud or fracturing fluid, viscosity drops and flow resumes, without heavy reliance on chemical dispersants. Out in pulp mills, the enzyme cuts pitch by breaking galactomannans, so machines run cleaner and paper quality rises.
In textile processing, scouring uses caustics to pull hemicellulose and saponify waxes. Natural mannan levels in some plant fibers can slow bleaching and cause uneven dyeing. Our enzyme chews through those residues, giving a brighter textile with less cooking time. Feed manufacturers also face problems with mannan-rich side streams. Young animals don’t digest these as efficiently, leading to feed inefficiency and higher costs. Incorporating alkaline mannanase into premixes helps break down those non-starch polysaccharides, improving nutrient absorption and animal growth. We’ve field-tested this in multi-ton feed batches with real-world blends, from soybean hulls to copra meal.
We produce alkaline mannanase at stated minimum activity levels, measured precisely using standard mannanase assay techniques—often in the 10,000–30,000 U/g range, dry powder or liquid concentrate. That number means less by itself than it does in practice. What matters most is whether the product works efficiently in your system. If finished pulp comes out cleaner, or a drilling fluid stays thin without extra agitation, that tells us the enzyme did its job.
Heat stability and shelf life became priorities for us as we started scaling up output. Temperature spikes during shipping, or storage near boiler rooms, can ruin weaker enzyme batches. We run forced-degradation tests and batch releases don’t leave the plant until they hit shelf life requirements we’ve validated over years. For customers storing product in high-humidity or high-temperature regions, we provide granulation variants with built-in stabilizers—keeping activity high at delivery, not just on day one post-production.
Every major plant uses different caustic regimes and raw material sources. Crop cycles alter the makeup of raw mannan in feedstocks season to season. Early on, we saw that “one-size-fits-all” products left processors with unexpected downtime whenever there was a change upstream. We responded by building a QC ladder that checks incoming substrate, fermentation growth conditions, and enzyme recovery at each step. Our seasoned fermenters, technicians, and downstream engineers routinely spot problems before a batch gets too far. It’s not enough to just spec out an “alkaline mannanase”—it’s about consistently meeting needs shaped by actual field data.
Pulp and paper processors now measure every kilogram of bleaching agent and every litre of wash water. Regulatory and sustainability benchmarks have evolved fast. By switching harsh oxidizers for targeted enzymatic action, companies cut down toxic by-products, lower COD and BOD in effluent, and reduce need for bleach plant venting. We work with mills aiming at traceability, so our technical team regularly audits our own production for heavy metals, allergens, and GM residues. In animal feed, our history with HACCP and internal traceability means we move quickly if safety alerts arise.
We avoid adding unnecessary carriers or unknown stabilizers. Each ingredient in our enzyme batches earns its place—nothing added unless it serves a clear technical function. Detergent manufacturers count on this: residue in the finished product could trigger label warnings or block entry to sensitive markets. We test every batch for cross-contamination and back everything up with documents from our own tanks and fermenters, not second-hand.
Supply security is top of mind for every operator who’s faced a line-down scenario waiting on an enzyme shipment. Over the last decade, climate, logistics, and geopolitical swings made us rethink how we source inputs—down to the fermentation media, not just the core strain. By running production in-house, monitoring every tonne as it moves from fermenter to spray dryer, we build consistency batch to batch. If a customer asks why an activity dipped or rose, we trace it back to a specific process run—not a vague answer or “pending investigation.”
We made strategic investments in scale-up, moving from pilot tanks to industrial fermenters with computer-controlled aeration and pH. Those gains show up in the consistency of every order. If a customer needs hundreds of tonnes per year, we supply each batch to spec, under the same controls as the last. We choose not to outsource upstream manufacturing to anonymous subcontractors. Every vial, drum, or tote carries the direct fingerprint of our manufacturing history, digital logs, and our accountability as the original producer.
Our experience shows that users compare not just price per kilo, but dollars saved in process uptime and input reductions. That’s where our alkaline mannanase makes the biggest impact. Some enzyme makers chase activity numbers by using heavily diluted or blended products that show strong “lab-case” results, but underperform in a plant’s variable conditions. Plant managers and superintendents tell us real value comes when an enzyme batch keeps pumps clear or cuts the need for manual cleaning. When selecting between our product and competitors, customer feedback consistently highlights measurable improvements—fewer shutdowns and cleaner finished goods.
We work closely with partners long after shipment leaves the dock. Our support teams run onsite dosing trials, tweak enzyme timing, and help with raw material adjustments. This way, we support each customer in reaching new cost savings, rather than competing on commodity pricing. We rarely hear complaints about “not enough activity”; instead, feedback usually focuses on process improvements like reduced bleaching time, cleaner paper, or higher yield. Our continued investment in R&D finds solutions not on a spreadsheet, but at the intersection of plant mechanics and enzyme biology.
In recent years, consolidation put many enzymes in third-party catalogs. As manufacturers, we guarantee the chain of custody from fermentation tank to finished product. Buyers work directly with our technical staff, not a sales rep reading from a binder. If issues occur in the field, we can replicate site conditions and troubleshoot in-house. Batch records, microbial lineage, and assay documentation are all available for review—no need to wait for permission from a middleman. Plant operators working in critical applications—high-purity paper, specialty fibers, or food/feed processing—know that a direct line to the maker speeds up problem solving, minimizes risk, and builds long-term trust.
Contamination and off-spec batches can cripple operations. We patrol every production run with onsite analytics: HPLC, rapid bacteria screening, and targeted activity assays. If a partner asks how we handled an anomaly, the records come straight from our own data, validated and double-checked before release. This direct link saves time and gives our buyers peace of mind—a relationship built on real knowledge, not marketing.
We don’t see our job ending at shipping a drum. Reliable partners expect transparency about what’s inside, how it’s made, and how it’ll perform in their unique context. That means technical bulletins based on our lab and factory, not recycled spec sheets. It means site visits, remote troubleshooting, and direct answers, whether the challenge comes from an animal feed plant, a textile scouring line, or a viscose fiber producer running full tilt.
Every market faces tight margins. We support customers in making their process more competitive, whether that means higher pulp brightness, less pitch, or faster throughput. We log every operator’s trial and input, feeding real-world experience directly back into our next batches. This cycle—of feedback, improvement, and direct partnership—drives constant gains in batch-to-batch performance. We back every order with decades of plant-side enzyme know-how and a commitment to process productivity, not just sales volumes.
Every new regulatory shift, climate-driven supply hiccup, or raw material change shapes the way industrial enzymes perform. We see questions changing—how to cut chloride load, optimize recycling, or protect sensitive ecosystems near discharge sites. Our research and innovation programs stay grounded in real customer projects. By testing new strains, stabilizers, and process tweaks before wider rollout, we keep finished product on-target for a changing world. Whether responding to new contaminant bans, new fiber blends, or new markets for mannanase itself, our process never stands still.
We invite engineers, lab directors, and plant managers to share process needs with us directly. Innovation, for us, always begins from the manufacturing floor and the needs of operators who rely on every batch. Alkaline mannanase isn’t a one-size solution. It’s the product of accumulated knowledge, shared results, and a relentless drive to improve how things get made. Day in, day out, we manufacture enzymes that work because we build them for real people, for real problems, and for the future of industrial processing.