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HS Code |
977400 |
| Product Name | Sucrose Extract |
| Appearance | White crystalline powder |
| Odor | Odorless |
| Taste | Sweet |
| Solubility | Highly soluble in water |
| Chemical Formula | C12H22O11 |
| Molecular Weight | 342.30 g/mol |
| Source | Derived from sugarcane or sugar beet |
| Purity | Typically >99% |
| Ph | 5.0 to 7.0 (10% solution) |
| Melting Point | 186 °C (decomposes) |
| Cas Number | 57-50-1 |
| Shelf Life | 2 years when properly stored |
As an accredited Sucrose Extract factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sucrose Extract is packaged in a sealed, food-grade plastic container, net weight 500g, with tamper-evident lid and informative labeling. |
| Shipping | Sucrose Extract is shipped in tightly sealed, moisture-resistant containers to maintain product integrity. It should be stored in a cool, dry place, away from direct sunlight and strong odors. During transportation, ensure containers are handled carefully to prevent contamination, spills, or damage. Follow all relevant regulations for chemical shipping. |
| Storage | Sucrose Extract should be stored in a tightly sealed container, away from moisture, heat, and direct sunlight. Keep it in a cool, dry place at room temperature, away from incompatible substances. Ensure the storage area is well-ventilated and labeled appropriately. Follow all safety guidelines and local regulations to prevent contamination and maintain the extract's stability and quality. |
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Purity 99%: Sucrose Extract with 99% purity is used in pharmaceutical formulation, where it ensures high consistency and uniformity in active ingredient delivery. Low moisture content: Sucrose Extract with low moisture content is used in confectionery manufacturing, where it enhances shelf-life and prevents crystallization. Particle size 50 microns: Sucrose Extract with 50-micron particle size is used in powdered beverage mixes, where it improves solubility and dispersibility in cold liquids. Melting point 185°C: Sucrose Extract with a melting point of 185°C is used in baking applications, where it enables stable heat processing and maintains texture. Stability temperature 65°C: Sucrose Extract with stability up to 65°C is used in cosmetic emulsions, where it maintains viscosity and prevents separation during storage. Viscosity grade medium: Sucrose Extract of medium viscosity grade is used in syrup production, where it provides optimal flowability and ease of dosing. Ash content ≤0.03%: Sucrose Extract with ash content less than or equal to 0.03% is used in parenteral nutrition solutions, where it reduces ionic contamination and enhances product safety. Optical rotation +66.5°: Sucrose Extract with an optical rotation of +66.5° is used in analytical chemistry standards, where it offers precise calibration results. Microbial count <100 CFU/g: Sucrose Extract with microbial count below 100 CFU/g is used in pediatric oral suspensions, where it ensures microbiological safety and compliance with pharmacopeial standards. |
Competitive Sucrose Extract prices that fit your budget—flexible terms and customized quotes for every order.
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Sucrose extract represents a straightforward yet fundamental ingredient that finds its way into countless industries. As manufacturers, we face questions ranging from “what sets your sucrose extract apart from food-grade sugar?” to “how clean is your purification process?” There are clear differences between table sugar and a chemically processed sucrose extract designed for technical, laboratory, and industrial use. Our focus rests not just on purity or meeting a numbers threshold, but in the ways sucrose extract can open up production options for chemists, food processors, pharmaceutical engineers, and even plant physiology researchers.
Generating high-quality sucrose extract involves more than standardizing a source or running an extraction. Sugar cane and sugar beet both supply the sucrose foundation, but each brings variable non-sucrose materials, and any slip in handling can introduce discoloration, undesired by-products, or bacterial residue. In our daily operations, attention to pressure, solvent ratios, and filtration temperature has repeatedly proven itself. Changing a cooling phase, filtering with improper mesh sizes, or cutting corners on carbon treatment directly reflect in the finished extract’s clarity and stability.
As production chemists, we find satisfaction in measuring the absence of residues or by-products in the laboratory. Our process hinges on chromatographic monitoring and quick iterative testing. When filtration setups aren’t tightly managed, the result is easy to spot: the sucrose’s color and viscosity will drift, and even the finest labeling won’t mask the difference in end-use results. Customers with sensitive applications, such as fermentation or pharmaceutical excipient production, contact us about microbially stable solutions. In response, we adopted UHT sterilization and closed-system extraction for key product lines, directly lowering the rates of spoilage in customer facilities. This kind of feedback loop—between the user’s pain points and the manufacturer’s on-the-floor practices—often leads to improvements that textbooks miss.
Not every sucrose extract available offers the same specifications. Models differ by their intended applications, whether that’s for a high-purity pharmaceutical context, a basic laboratory-grade solution, or bulk industrial processes. Some buyers expect up to 99.8% purity and less than a few ppm of ash or color impurities. Others optimize for batch size, or even concentrate strength when they need to cut down on shipping weight.
Earlier in my career, we relied entirely on refractometer brix readings to estimate sucrose content. Routine customer complaints about failing dissolution rates and color led us to invest in HPLC with advanced detection. The real-world impact: customers using our high-spec extract in column chromatography or delicate fermentation processes report sharper reaction performance, smoother runs, and fewer downtime incidents. Not every application needs this level of attention, but in critical sectors like medical-grade solutions, even minor organic acid residues can undermine a batch.
Some people still treat sucrose extract as interchangeable with culinary sugar or as an off-the-shelf sweetener. From a production standpoint, nothing could be further from the truth. In the chemical industry, sucrose extract serves as a key carbon source for fermentation, supporting bacterial and yeast growth when precise environmental control matters. Every batch of culture media, every bioprocessor run, relies on repeatable carbohydrate content.
Pharmaceutical manufacturing brings its own demands. Here, sucrose extract acts not only as an excipient but sometimes as a lyoprotectant or as a stabilizer for protein-based drugs. I’ve worked through plenty of troubleshooting calls where a client’s batch fails to crystallize or their yield drops, only to find the root cause in trace impurities or batch-to-batch drift in extract properties.
In more niche applications—like plant tissue culture labs—sucrose extract not only feeds the plantlets but supports osmotic control and plays a role in signaling pathways. Each of these uses draws subtle but strict performance lines. Failing to meet them costs time, money, and credibility, both for us and our clients.
Some industry buyers ask about replacing extract with commodity sugar, or using technical glucose instead. The comparisons appear simple on paper, but in applied settings, the differences show up in process robustness, contamination rates, and the biological outcomes. Unlike crystalline food-grade sugar, our sucrose extract comes in both liquid concentrate and powder forms, both produced under conditions aimed at reducing microbial loads and cutting out residual plant proteins, invert sugar, and metal traces.
A good example: commercial bakers or beverage formulators facing inconsistent foaming or fermentation rates often attribute these issues to process variables. Once they switch from regular sucrose to our carefully processed extract, they notice reduced batch variability and a sharper, more reliable rise. This isn’t just theory—it’s backed up by trials run side-by-side in customer facilities.
Technical glucose and fructose syrup, sometimes marketed as alternatives, do not duplicate sucrose extract’s impact. In microbial cultures or certain food recipes, invert sugar’s higher reactivity can cause off-flavors or unexpected browning (Maillard reactions). Sucrose can control these effects in predictable ways, and the extract’s purity and process performance often shorten time-to-market for R&D departments rolling out new consumer products or pharmaceutical developments.
One challenge we keep running into is balancing batch scale with customized specification. Small-lot pharmaceutical buyers request sub-ppm trace metal guarantees and the lowest endotoxin levels. In food ingredient scale, customers need tons rather than kilograms, without suffering a quality drop. Years ago, we learned that switching to multi-stage vacuum filtration for large batches cut down on fine particulate carryover that caused haze in beverage applications.
It took trial, error, and long hours to build a scalable, repeatable sequence that lines up production from lab to plant floor. Today, our standard offerings cover high-purity pharmaceutical grades, concentrated liquids for bioprocess reactors, and food-grade products, with the option to fine-tune for specific cation or anion profiles. We fine-tune batch runs and adjust cleaning protocols based on batch history, ambient temperature, water source, and raw material load.
Consistency isn’t about simply meeting published numbers. In batches destined for medical devices, failures around pyrogenic contamination or variable viscosity mean wasted lots and regulatory headaches. Our team keeps quality checks running throughout, with in-line spectrophotometry and a willingness to lock down questionable sublots while staff examine root causes. We have seen how fast a small deviation can snowball into a recall or regulatory audit, so our focus always lands on process traceability and transparency.
Sourcing and sustainability continue to move up the priority list, not only among our major customers but also among our staff who see the direct effects of waste and resource use. Years ago, we shifted our extraction waste workflow to loop plant residues into animal feed chains and composting streams, bringing down landfill volumes and improving goodwill with both local partners and end customers. The water use in extraction and purification phases caught our attention as well, especially in regions where drought threatens.
Wastewater from sucrose processes often carries significant organic load and can raise regulatory red flags fast. We invested in on-site biological water treatment, reusing effluent for cleaning cycles and even some cooling operations. These moves create supply chain stability, lower overall water demand, and prevent local regulatory crackdowns or fines. It’s not only environmental compliance on the line—reputation with both inspectors and local stakeholders keeps operations running with less friction.
Another real issue: choosing raw material sources matters. Sugar beet crops may suffer nitrate retention from fertilizer use, while some cane-growing regions battle pesticide or herbicide drift. Because every batch shows the upstream agricultural fingerprint, running incoming material analytics on nitrate, pesticide, and even heavy metal levels has saved us from headaches down the line. In one case a few years ago, a persistent trace of herbicide in finished extract batches led to failed customer acceptance. Now, we contract directly and set thresholds with farmers and cane processors, not only checking boxes but safeguarding the finished extract’s acceptability in end-use testing.
Maintaining clarity and preventing microbial growth pose continuing operational problems—especially during hot, humid weather or in transit to international partners. With heating and cooling costs on the rise, simple storage solutions no longer do enough. We’ve scaled up aseptic filling lines, shortened holding times, and adopted continuous-flow UHT rather than batch pasteurization for liquid extracts. This single investment led to measurable reductions in spoilage claims and batch returns.
Handling invert sugar formation is another constant point of attention. Even small amounts of heat or acid during processing tilt the balance, breaking sucrose down into glucose and fructose—a problem for customers needing pure sucrose for sensitive reactions. We cut down residence times above 65°C, deploy inline pH monitoring, and stagger material flows through cooler environments to keep breakdown in check. Every step shaves off fractions of a percentage that, at final testing, matter for regulatory approval and actual product yield.
Cross-contamination—either from prior runs or from shared cleaning lines—raises risks, especially in pharmaceutical builds and high-purity grades. To tackle this, we set up dedicated piping for allergen-free or pharma orders. Management of cleaning-in-place protocols and validation of swab tests ensures that our QC team catches failures well before shipping. Sometimes customers only realize the criticality of these systems when recalls hit their own lines. Our relationship-driven approach means they have access to our plant QA/QC documentation and a transparent record of corrective actions.
As supply chains chatter with delays, tariffs, and new compliance regimes, it’s clear that flexibility and honest communication become more valuable each year. The COVID-19 pandemic highlighted just how brittle raw sugar supply can become—factories stalled, transport lanes closed, and buyers couldn’t even get regular food-grade product at scale. For us, diversifying source contracts, warehousing finished extract in temperature-controlled zones, and carrying a buffer of key reagents meant we could keep even high-spec customers on schedule.
Currency impacts, commodity pricing, and even shifts in regulatory labeling rules across global markets affect both cost base and finished product availability. In some situations, we’ve bulk-packed and reconstituted extract closer to end use, reducing freight bottlenecks and customs headaches. Keeping direct lines of communication open with both shippers and overseas buyers has prevented rushed, compromised shipments and allowed both us and our partners to plan with confidence.
Working directly in sucrose extract manufacturing means feeling the pulse of changing standards, customer ambitions, and real-world bottlenecks. There’s no glamour in routine, repetitive testing, nor in debating batch records late into the evening, but taking responsibility for every stage—raw sourcing, extraction, purification, storage, and end-user results—sets the product apart from basic commodity ingredients.
Sucrose extract will continue stepping out of the shadows as ingredient lists tighten and regulatory pressures mount on purity, labeling, and traceability. We constantly look for ways to raise specification without over-complicating logistics, and make sure that every improvement can be traced back to both end-user experience and our plant-floor expertise.
From the manufacturing side, every challenge teaches something new—about sugarcane variability, process equipment quirks, evolving standards, and most of all, about listening carefully to the people who use our product. Our hope is that each bottle, drum, or tote of sucrose extract delivers exactly what customers expect—and a little reassurance that somewhere along the line, people who care about chemistry, quality, and integrity stand behind every drop.