|
HS Code |
146913 |
| Product Name | Food Grade Glucose Amylase Gal Type |
| Enzyme Type | Glucose amylase |
| Appearance | Powder or liquid |
| Color | Light yellow to brown |
| Source | Microbial fermentation |
| Activity | High amylolytic activity |
| Optimum Ph | 4.0 - 5.5 |
| Optimum Temperature | 55°C - 65°C |
| Solubility | Water soluble |
| Cas Number | 9001-42-7 |
| Storage Conditions | Cool and dry place |
| Usage | Starch hydrolysis in food processing |
| Shelf Life | 12-24 months |
| Purity | Food grade |
| Main Application | Glucose syrup production |
As an accredited Food Grade Glucose Amylase Gal Type factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging is a 25 kg white plastic drum labeled "Food Grade Glucose Amylase Gal Type" with clear specifications and safety instructions. |
| Shipping | Food Grade Glucose Amylase Gal Type is shipped in sealed, food-safe containers, typically 25 kg drums or pails, to preserve enzyme activity and prevent contamination. Transport is by climate-controlled vehicles, maintaining temperatures between 2-8°C. All packaging complies with international food safety standards and includes clear labeling for safe handling and storage. |
| Storage | Food Grade Glucose Amylase Gal Type 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 contamination and moisture absorption. Store at recommended temperatures, typically between 5–25°C. Avoid freezing and exposure to strong acids or alkalis. Ensure compliance with food safety and local regulatory storage guidelines. |
| Purity 99%: Food Grade Glucose Amylase Gal Type with purity 99% is used in commercial baking processes, where it ensures efficient starch breakdown and improves bread texture.Optimal Activity pH 4.5–5.5: Food Grade Glucose Amylase Gal Type with optimal activity at pH 4.5–5.5 is used in beverage syrup production, where it maximizes fermentable sugar yield.Thermal Stability up to 70°C: Food Grade Glucose Amylase Gal Type with thermal stability up to 70°C is used in high-temperature liquefaction of starch, where it maintains consistent enzymatic activity.Low Heavy Metal Content (<1 ppm): Food Grade Glucose Amylase Gal Type with low heavy metal content below 1 ppm is used in infant food manufacturing, where it assures safety and compliance with food standards.Molecular Weight 55 kDa: Food Grade Glucose Amylase Gal Type with a molecular weight of 55 kDa is used in brewing applications, where it accelerates saccharification and shortens process time.Enzyme Activity 150,000 U/g: Food Grade Glucose Amylase Gal Type with enzyme activity at 150,000 U/g is used in glucose syrup manufacturing, where it enables high-conversion efficiency.Particle Size ≤100 μm: Food Grade Glucose Amylase Gal Type with particle size less than or equal to 100 micrometers is used in instant dry blends, where it ensures uniform distribution and fast dissolution.Moisture Content <8%: Food Grade Glucose Amylase Gal Type with moisture content below 8% is used in powdered food supplements, where it maintains product stability and extends shelf life. |
Competitive Food Grade Glucose Amylase Gal Type 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!
Not every enzyme wins the trust of food producers; glucose amylase in the Gal type model has carved out a reputation with its unique strengths. Years of making and improving this enzyme at our own plant have shown us the clear difference a well-refined product creates in daily industrial practices. Wherever starch conversion matters—be it syrup producers, bakery technicians, or brewers—teams on site talk less about marketing terminology and more about process consistency and actual outcomes.
The Gal type earns its spot with a broad action range: reliable activity between pH 4.0 and 7.0, useful for both liquid and semi-solid state applications. From the blending tank to the saccharification tank, operators respect its predictable behavior. Our standard model (GAL30000) delivers 30,000 U/g of activity tested at 60°C for thirty minutes. Rather than chasing maximum numbers, we’ve always aimed for a batch-to-batch identity that means no production hiccups and no wasted raw material.
Other glucose amylases exist, so why focus on Gal type? Decades on the line have made its advantages obvious. Unlike fungal sources, which can show lagging reaction under low-pH corn feedstocks, the Gal type handles sour mashes and variable grain with very little drift in output. We use a microbial fermentation process tuned for high-purity yield. This means less risk of off-odors or haze development—a constant headache for downstream processors.
Inspectors and clients often visit to see the manufacturing halls for themselves, hoping to get beyond technical sheets and find out what sets our Gal type apart. The clean, almost sweet aroma in the finished enzyme—no sharp notes, no dustiness—speaks to generations of fermentation expertise. For nutritionists and safety managers, the low side-product profile matters more than the mechanical test result. Our in-process purification steps remove exogenous proteins, so food makers can avoid allergen labeling.
Different food processes push this enzyme to its limits. In cereal mashing, the Gal type steadily chops starches down to glucose with minimal formation of unfermentable dextrins. Maltose and isomaltose formation remain low, reducing viscosity headaches and off-sweetness after cooking. For high-glucose syrup producers, the robust stability even after thermal holding or shifting pH conditions means process downtime drops and sugar yields go up by a few percent each run.
In bakeries, dough conditioners see the results in final loaf structure. Bread volume increases without flabbiness; crust color deepens as reducing sugars boost the Maillard reaction. In some plants, process engineers report fewer blocked filters and coil fouling incidents because of the clarity in the final syrup—a benefit that comes directly from tight control over microbial and protein residues during fermentation.
Food safety officers tour the facility or request full audit trails. The process doesn’t rely on paper compliance. This product line passes international safety benchmarks, but more critical to us are the third-party batch lots and regular toxicological screens we run, well beyond legal minimums. Each lot faces pathogen and microtoxin testing, not just in finished product, but mid-process as well. We run non-GMO fermentation only, with strains selected to avoid antibiotic resistance transfer—an issue that still shakes confidence in many generic amylase imports.
Regulations can shift by country, but Gal type batches always receive full traceability through integrated digital tracking. Every input, from corn glucose to starter organisms, enters the ledger at the point of receipt. Finished goods trace back in under five minutes—a demand that’s grown more urgent as food recalls round the world highlight the risk of gaps in enzyme chain custody. These systems weren’t built overnight; they came from supplier audits, crisis drills, and feedback from quality managers who once lost batches due to tracking gaps from other sources.
Plant managers and shift operators don’t have time for breakdowns or variable results. Gal type slots into different production scales, from pilot plant vessels to full-scale syrup reactors. Once, a new installer in a regional brewery called us straight from the control room—he’d mistaken low foam development for a sign of inactive enzyme. The truth: our Gal type foams less than traditional fungal or legacy malt-based enzymes because of lower side protein levels. No operator needed to adjust anti-foam addition rates, so filter clogging risk dropped and washout savings turned up on their maintenance sheet.
Another lesson: In some wine processing lines, a winemaker compared our Gal type to their previous product. They found no haze after aging, and their sensory panel reported a cleaner palate. That case led to a minor modification in pH conditioning cycles industry-wide, showing how a small change at the enzyme supplier level can ripple through to something a customer actually tastes.
Older factory installations often call about solubility. At ambient or slightly cool temperatures—around 25°C to 35°C—our concentrate disperses uniformly, even in high-sugar or high-salt media, which had made many previous enzyme choices erratic. No pre-gelatinizing or multi-stage dilution required. Maintenance staff appreciate this, and so do producers who built their syrup lines decades ago and hesitate to swap out equipment.
Our facility’s wastewater profile shapes which feedstocks and fermentation strategies we choose. The Gal type brings low organic and nitrogen loads outbound, meaning effluent can be managed more easily under strict local codes. Solvent use is minimized with in-line leaching and rotary vacuum filtration. Our plant’s energy use gets checked every quarter, and the one-step concentration process cuts steam energy demand compared to multi-stage enzyme processing seen with other sources.
Sometimes sustainability officers want to discuss the living processes behind enzymes. Our microbial cultures are non-pathogenic, and spent substrates are fermented further for animal feed. No part of the culture medium makes it into finished product—another detail that may reduce allergen risk or “off” flavors. We’ve cut back on high-energy drying by transitioning to granular and semi-liquid formats favored by core customers, based on their own plant feedback.
Whenever a new cook or technologist tries out the Gal type instead of a fungal or broad-spectrum bacterial enzyme, application labs highlight a couple of differences. Glucose yields rise, yes, but the day-to-day difference is the lack of residual dextrins. In table trials, syrup taste tests with Gal type pull out cleaner, less bitter notes because side activity against branching points is reduced. Bread baked with Gal type shows a well-aerated crumb and holds moisture longer, reducing staling rates and cutting product returns for supermarket lines relying on steady shelf life.
Technical support calls sometimes concern possible allergen carry-over, particularly as international markets tighten standards on hidden risks. The molecular signature of Gal type—devoid of animal or cereal base—cuts out the chance of trace gluten, dairy, or soy. Test panels have come back negative for gluten markers, and repeated challenge studies in bakery and brewing lines confirm no spike in allergen reporting incidents.
Marketplace comparisons turn up one more key distinction: predictability in high-temperature runs. Some competing amylases lose up to 40% activity beyond 65°C. Our Gal type maintains close to published values up to 70°C in neutral or slightly acid medium. This means syrup plants can push reaction curves harder, shorten cook times, and raise throughput—all with less risk of unwanted sugar breakdown products.
Pharmaceutical processors using modified food starches submitted their own set of field reports. They found that when replacing traditional acid hydrolysis with the Gal type, byproduct levels of 5-hydroxymethylfurfural (HMF) and off-color fractions fell sharply. One buyer wrote that ingredient declaration panels looked cleaner and resulting powder purity improved, which lowered reprocessing and QA hold rates.
Snack manufacturers sent full datasets showing lower viscosity jumps in sugar confectionery, allowing more precise flow control in extrusion and molding lines. Machine downtimes—tracked in hundreds of minutes per quarter—dropped once standard enzyme blends shifted to Gal type. In several Asian food lines using sticky rice as base, batch yield consistency rose following switchovers to Gal, especially when ambient temperature rose during summer.
As raw sugar prices fluctuate and crop qualities change, enzyme performance and cost structure can both come under pressure. We faced a season several years ago where input starches varied in water content and pesticide residue. QA staff and fermentation engineers shifted to smaller reactor batches with real-time analytics for early detection of inhibition by contaminants. This flexibility—only possible at source—meant no drop in customer supply and no hidden compromise in enzyme output. Few traders can react at this speed and scale without control over their own production tools.
Our field staff remind us the enzyme market sees periodic scares over microbial safety, especially with poorly controlled imports flooding in from non-transparent sources. Responding by staying open to third-party audits, publishing our fermentation strain details upon customer request, and voluntarily sharing allergen and GMO-negative declarations built years of buyer confidence. Whenever international standards or national rules tighten, our policy keeps our own controls a step above legal demand.
Shifts in food preference and industrial food law won’t end soon. As less sweet, more natural products become popular, customers report back on subtle changes in process conditions. They ask about co-enzymes or further reducing side sugar products. Inside the plant, our process team runs regular pilot fermentations testing for next unfilled needs, like heat-resilient or strip-grade food glucose amylases.
We host twice-annual feedback sessions with top customers, not just sales teams. Many specification tweaks—adjustments to particle size, solubility, or shelf life—resulted from user questions or process bottleneck reports. A lot of the most valuable innovations come not from R&D lab speculation, but from what brewery, syrup, or bakery accountants and technicians report after a month’s run side by side with older products.
Packing options change as users do. Some customers find value in moving from 20kg bags to liquid totes, so our packaging changed over time. We upgraded liner layers, switched to traceable QR-embedded labels, and implemented cap-seal designs that meet stricter tamper-proofing standards. None of these changes happened based on regulatory pressure—they came from conversations with people who actually work the lines.
We remain a chemical manufacturer first—no outsourcing, no shortcut blending. This means tighter stewardship over every fermenter, every filtration setup, and every outbound shipment. In rare cases, a customer’s product run detects a variation or performance dip. Direct line with our technical manager means answers come fast, solutions usually involve calibration, not blame-shifting. Fast intervention limits downtime and keeps customer trust strong.
To sum up, Food Grade Glucose Amylase Gal Type reflects not just a mix of technical parameters, but years of hands-on problem solving, customer feedback, and process refining on our shop floor. Each lot carries the imprint of our process oversight, direct responsibility, and willingness to listen to users’ field experience. No tick-box compliance routine can replace the industry knowledge, attention to safety, and practical innovation we bring to enzyme manufacturing.
This product continues to deliver predictable, clean results because it comes from people with a long factory memory—and a genuine voice inside the food industry. Whether in bread, syrup, or specialty fermentation, those relying on Gal type demand more than brochure answers; their success links directly to the integrity of our process and the reality of our factory floor.