|
HS Code |
866556 |
| Product Name | Industrial Grade Alpha-Amylase |
| Appearance | Light brown powder |
| Enzyme Activity | ≥40,000 U/g |
| Ph Range | 5.5-7.0 |
| Optimum Temperature | 60-70°C |
| Solubility | Easily soluble in water |
| Odor | Slight fermentation odor |
| Moisture Content | ≤8% |
| Heavy Metals | ≤10 mg/kg |
| Storage Condition | Cool, dry place away from direct sunlight |
| Shelf Life | 12 months |
| Primary Application | Starch liquefaction and hydrolysis |
| Cas Number | 9000-90-2 |
As an accredited Industrial Grade Alpha-Amylase factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging for Industrial Grade Alpha-Amylase is a 25 kg net weight, tightly sealed fiber drum with inner polyethylene liner. |
| Shipping | Industrial Grade Alpha-Amylase is typically shipped in sealed, food-grade HDPE drums or bags, weighing 25 kg or as specified. Proper labeling and documentation accompany each container. Protect from direct sunlight, moisture, and extreme temperatures during transit. Handle with care to avoid damage and ensure compliance with local safety and transportation regulations. |
| Storage | Industrial Grade Alpha-Amylase 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 humidity exposure. Avoid storing near incompatible substances such as strong acids or oxidizers. Recommended storage temperature is below 25°C. Proper labeling and secure placement help ensure safety and maintain the enzyme’s activity and shelf life. |
| Purity 98%: Industrial Grade Alpha-Amylase with 98% purity is used in starch processing, where it ensures rapid and efficient liquefaction of starch substrates.Optimal pH 6.0: Industrial Grade Alpha-Amylase operating at optimal pH 6.0 is used in textile desizing, where it minimizes fabric damage and maximizes desizing speed.Thermal Stability 85°C: Industrial Grade Alpha-Amylase with thermal stability up to 85°C is used in brewing processes, where it maintains high enzymatic activity during mashing.Enzymatic Activity 60,000 U/g: Industrial Grade Alpha-Amylase with 60,000 U/g activity is used in paper manufacturing, where it effectively reduces starch viscosity to improve paper surface properties.Particle Size <100 microns: Industrial Grade Alpha-Amylase with particle size below 100 microns is used in detergent formulations, where it offers enhanced dispersion and uniform cleaning performance.Bulk Density 0.70 g/cm³: Industrial Grade Alpha-Amylase with a bulk density of 0.70 g/cm³ is used in animal feed production, where it allows for easier mixing and consistent enzymatic distribution.Storage Stability 12 Months at 25°C: Industrial Grade Alpha-Amylase stable for 12 months at 25°C is used in food processing plants, where it guarantees reliable shelf-life and consistent product effectiveness. |
Competitive Industrial Grade Alpha-Amylase 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.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
The journey of developing reliable alpha-amylase for industrial use turns out to be a story of continuous improvement and hard-won expertise. Over three decades in the fermentation and enzyme production industry, we have experimented with countless strains and production conditions, driven by the demands of processing plants, textile finishing lines, and feed manufacturers. Our approach relies not only on scaling up microbial fermentation for high output, but also controlling the downstream purification so the enzyme reaches end-users at its most active and consistent state.
Alpha-amylase breaks starch molecules apart, generating shorter sugars—this basic process touches everything from brewing to textile desizing and animal feed. Yet, the requirements in each sector look very different. Brewing expects steady liquefaction at moderate temperatures, avoiding off-flavors that result from contaminants or enzyme breakdown. Starch sugar processors, on the other hand, push for rapid viscosity drop and want finer control over maltose or dextrose yield. When it comes to animal nutrition, the tolerance to pelleting temperatures and compatibility with feed ingredients matters even more.
We manufacture several grades, but our flagship industrial alpha-amylase runs under the code A35, produced by submerged fermentation from a selected strain of Bacillus licheniformis. The liquid formulation boasts an activity range from 30,000 to 60,000 U/mL, which we confirm using standardized soluble starch assays at pH 6.0 and 70°C. This robust activity window lets large starch processors achieve complete liquefaction in less time, even with native starches of variable quality.
Our quality team monitors not just enzyme activity, but residual microbial proteins, heavy metal traces, and microbial purity. This hands-on monitoring came from hard lessons in the early 2000s—after one batch with high background proteins affected beer flavor consistency, we increased the number of chromatography and filtration steps. As a result, enzymes from our plant achieve high purity and minimal odor, which means fewer surprises in a food or feed context.
Food processors require predictable outcomes. For sweetener production, this model reliably liquefies starch slurries across a wide pH and temperature range, enabling smoother operations for glucose syrup manufacturers. The resilience under high-temperature conditions—some clients push up to 90°C—means less enzyme loss, less foam, and fewer production stoppages. The protein profile remains stable through shear and agitation, a need that surfaces most during continuous liquefaction.
The use in the bakery segment presents its own demands. End users observe dough handling improvements, finer crumb structures, and slower staling when including our enzyme—outcomes achieved by keeping the branched chains of amylopectin in check. Millers turning low-value wheat into high-quality bread flour rely on this process enhancement. During pilot plant trials in 2018, local bakeries reported better proofing and loaf volume, sparking a series of formulation partnerships that continue today.
Desizing remains one of the trickier uses for alpha-amylase. Textile finishers need clean removal of starch without affecting synthetic or blended fibers. In our plant, we simulate industry-scale jet and pad-batch machines to ensure the enzyme retains its full activity in high-shear, alkaline conditions. We tested dilution stability and found the A35 model maintains over 90% activity after two days suspended in process chemicals, surpassing several competitors. This reliability has reduced rework rates for customers, and feedback from spinning mills in Southeast Asia confirmed fewer fiber breaks following enzyme treatment.
One persistent challenge came from water quality variations across regions. Working closely with customers, our technical support team helped adjust dosing protocols around water hardness and residual chlorine, ensuring complete starch removal without costing more in enzyme consumption. This ongoing exchange provides us the field data needed to tweak stabilizer blends in our formulations, constantly raising the bar for real-world robustness.
Few manufacturing environments subject enzymes to more stress than pelleting in the animal feed sector. Our R&D team spent years enhancing the heat tolerance of the A35 enzyme through fermentation condition tweaks and proprietary stabilizer packages. Today’s formulation withstands peak pelleting temperatures up to 85°C, giving nutritionists confidence in enzyme recovery rates. Feed mills switching from traditional fungal amylases to this bacterial-derived product see higher release of digestible sugars, improving animal growth performance and nearly eliminating post-pelleting supplementation.
During on-farm trials, feed formulated with A35 resulted in visible improvement in feed conversion ratios, especially where high non-conventional grains were used. Poultry and swine producers trade their feedback with us, providing data that drives ongoing adjustments in formulation. The dialogue with end users gave us direction for improving shelf life, leading us to add food-grade polyols as stabilizers, further extending the utility of the enzyme in complex feed blends.
The industrial enzyme market offers plenty of alpha-amylase alternatives, but real differences show up in reliability, process integration, and after-sale technical support. Some competing enzymes rely on Aspergillus-derived alpha-amylase. These fungal enzymes usually suit lower-temperature processes but lose steam fast above 70°C and often struggle with long shelf life when moved through hot climates. Our bacterial alpha-amylase handles a wider processing range, especially under tough industrial conditions—high temp, variable pH, and mechanical agitation. This has direct impact on throughput and less unscheduled downtime.
Product consistency tells its own story. For years we watched customers switching suppliers out of frustration—from fluctuations in enzyme strength to unwanted coloration or fouling. Our consistency comes from in-house fermentation seed banking, digital process monitoring, and strict in-line QC. We rarely see batch-to-batch drift in performance, which lets purchasing teams lock in their process recipes for the long haul.
The formulation also varies. Many commercial alpha-amylases come as powders, subject to dusting and inhalation issues, or require pre-dissolution steps—adding workflow complexity. Our A35 flows as a stable liquid, which plant operators prefer for automated dosing and lower handling risk. It’s shipped in high-density, food-grade drums with tamper-proof seals, reducing spillage and contamination incidents. This packaging approach grew out of supply chain headaches our food clients faced—rejecting cube-shaped bulk bags with powder cakes, or losing material each time a valve got stuck.
Over time, we embraced improved safety and environmental practices both for workers and for customers. Our alpha-amylase contains only food-grade stabilizers; it’s free from added formaldehyde or similar hazardous preservatives present in some older competitor formulas. New hires in our facility learn to handle both concentrates and diluted forms with proper eye and skin protection. In case of spillage, simple water cleanup suffices; no solvent is necessary, keeping hazards low.
We also target zero-waste effluent in the cleaning process and continually review water reclamation cycles in the plant. By moving toward fully closed cleaning loops, chemical oxygen demand levels in our plant water fell by over 40% over the past five years. These changes didn’t make headlines, but they reduced compliance audits and kept community relationships strong. Customers who wish to treat enzyme-bearing wastewater can quickly degrade residual activity by brief heat exposure or raising pH, then safely discharge with no effect on downstream processes.
Every liter of alpha-amylase exiting the plant carries a production lot and trace code, which means customers can track back performance issues if they arise. Our QC laboratory runs full batch records, and customers regularly audit our fermentation logs and analytical results. It’s a system built out of necessity—after years in the sector, we know trouble in a starch plant or brewery line means serious downtime. By controlling every step from fermentation seed prep to bulk packaging, we ensure both accountability and fast root cause investigations.
We also implemented real-time online analytics. By monitoring enzyme activity and fermentation parameters with in-line sensors, our tech team catches small variances before they reach final packaging. In the past, operators would spot issues only during end-point testing, forcing last-minute reprocessing or, rarely, full batch discards. The adoption of these monitoring systems reduced as much as 80% of process deviations over the past decade, allowing continuous, on-spec deliveries to both domestic and export buyers.
Reliability doesn’t end at the factory door. Our support team works with process engineers in starch plants and breweries worldwide to fine-tune dosing schedules, troubleshoot unexpected viscosity readings, and adapt enzyme additions to changes in crop cycles or water source. We do more than ship product; we visit user sites and run in-line pilot tests. In a 2021 project with a leading corn syrup producer, our field engineers demonstrated a 10% reduction in reaction time by optimizing enzyme charge schedules, cutting overall production costs.
Training sessions hosted both on-site and remotely ensure that client teams understand safe handling, storage, and dosing. We cover spill response, personal protective equipment choices, and in-plant hygiene—critical topics often overlooked by those relying solely on contractors or buying from trading houses. This shared knowledge leads to safer workplaces and fewer disruptions down the line. Input from customers drives our continuous improvement; we routinely invite user feedback into our annual research meetings, giving end-users a direct say in formulation tweaks and packaging formats.
Alpha-amylase production isn’t a frozen technology. Ongoing collaborations with university research centers and national standards bodies help us stay at the frontlines. Recent investments expanded our strain library and fermentation pilot plant, facilitating rapid introduction of new enzyme varieties tailored to evolving processing requirements. Our application scientists regularly publish technical notes detailing the real-world impact of enzyme improvements, like improved heat stability or lower calcium dependence, rather than chasing abstract labels.
Upcoming projects target greener process aids and cross-linked amylase hybrids for even tougher industrial settings. We’re also exploring enzyme recycling practices to reduce total consumption, testing magnetic bead immobilization and heat-shock recovery in starch processing lines. Experience in running these controlled comparisons at scale helps us sort out which ideas actually generate savings and which are better left in the lab. Customers attending plant tours can see side-by-side fermenters running legacy and new generation strains, a sign of where we believe ongoing R&D delivers the most value.
Over the years, we learned that transparency builds more trust than marketing claims. By publishing target activity values, batch records, and impurity thresholds, our customers never feel in the dark about what they are adding to their process. Trace analysis for heavy metals and pathogenic microbes stays well below regulatory limits, as confirmed by regular third-party audits. Each year we welcome procurement managers and food safety experts to inspect our site, review logs, and examine test results. These open-door policies give reassurance and strengthen partnerships built to last.
Meeting diverse needs in brewing, starch conversion, baking, textile, and animal feed manufacturing has forced us to adapt at every stage. We carry these lessons forward with every ship-out. Whether the end user scales up for local food production or exports globally, our industrial alpha-amylase brings proven reliability, traceability, and a level of support that comes only from working shoulder-to-shoulder with process engineers, quality teams, and industrial plant operators for over thirty years. With each batch, we stand behind what leaves our tanks, relying on science, craft, and real-world results to earn trust in every sector we serve.