|
HS Code |
166964 |
| Chemical Name | Sucralose |
| Molecular Formula | C12H19Cl3O8 |
| Molar Mass | 397.64 g/mol |
| Appearance | White, crystalline powder |
| Sweetness Relative To Sucrose | 600 times sweeter |
| Solubility In Water | Soluble |
| Melting Point | 119–121°C |
| Caloric Value | Negligible (essentially non-caloric) |
| E Number | E955 |
| Usage | Artificial sweetener in food and beverages |
| Stability | Heat stable (suitable for cooking and baking) |
| Origin | Synthesized from sucrose |
| Cas Number | 56038-13-2 |
As an accredited Sucralose factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sucralose packaging: 500g white, resealable plastic pouch, labeled with product name, purity, manufacturer, safety symbols, and storage instructions. |
| Shipping | Sucralose is typically shipped in sealed, food-grade containers or drums to prevent contamination and moisture absorption. It should be stored and transported in a cool, dry place away from strong odors and direct sunlight. Ensure compliance with local regulations and proper labeling during shipping for safety and quality assurance. |
| Storage | Sucralose should be stored in a tightly sealed container, away from moisture, heat, and direct sunlight. It should be kept in a cool, dry, and well-ventilated area, separate from incompatible substances. Proper labeling and protection from physical damage help maintain its stability and prevent contamination. Avoid exposure to strong oxidizing agents or acidic materials during storage. |
|
Purity 99%: Sucralose Purity 99% is used in beverage formulation, where it delivers high sweetness intensity with minimal off-taste. Stability temperature 120°C: Sucralose Stability temperature 120°C is used in bakery products, where it maintains sweetness after heat processing. Particle size 80 mesh: Sucralose Particle size 80 mesh is used in powdered drink mixes, where it allows uniform dispersion and rapid dissolution. Moisture content <2%: Sucralose Moisture content <2% is used in table-top sweeteners, where it ensures product shelf life and prevents clumping. Melting point above 125°C: Sucralose Melting point above 125°C is used in confectionery manufacturing, where it remains stable during candy processing. pH stability range 3–8: Sucralose pH stability range 3–8 is used in carbonated soft drinks, where it retains sweetness under acidic conditions. Bulk density 0.38 g/cm³: Sucralose Bulk density 0.38 g/cm³ is used in pharmaceutical tablets, where it enables precise dosage and easy tablet compression. Water solubility 28 g/L: Sucralose Water solubility 28 g/L is used in dairy applications, where it allows quick integration into liquid matrices. Assay (on dry basis) ≥98%: Sucralose Assay (on dry basis) ≥98% is used in nutritional supplements, where it provides consistent sweetening without altering nutrient profiles. |
Competitive Sucralose 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!
For over a decade of production runs, troubleshooting, and collaboration across divisions, the realities of sucralose manufacturing have shaped both process and product. Sucralose—once a scientific curiosity and now a staple in thousands of product lineups—owes its performance to choices made in the factory, not just what’s written on a technical data sheet. The demand for a calorie-free sweetener with stable flavor pushed chemists and production teams to rethink materials, batch sizes, and quality assurance methods. Our sucralose stands out because it results from those refinements—practical choices informed by hundreds of scaled-up batches and actual customer feedback.
Sucralose, with the chemical backbone of C12H19Cl3O8, grew out of a desire to mimic sugar’s taste with none of the calories and all of the flexibility. Unlike table sugar, sucralose does not break down at high temperatures, so it fits applications where even minor variations in baking or pasteurization temperatures would wreck other substitutes. Over years of operating large reactors and optimizing crystallization, we learned sucralose’s stability is more than a selling point—with every lot, shelf-life claims must hold true through transport, storage, and end use.
In daily production, the team chooses between mesh sizes based on customer needs—sometimes in beverage applications, a fine mesh dissolves faster, so screens are tightened and flow rates adjusted to control particle size. Other times, for table-top pack formats, consistent flow out of a packet demands a slightly coarser cut. Our engineers make adjustments by hand, guided by inline sensing, lab checks, and hard-earned intuition. There is never any batch where we’re just chasing numbers on a spec sheet—a slight adjustment upstream can mean finished product that’s easier to handle, fills sachets cleaner, or mixes smoothly at a beverage plant.
Talking with customers, concerns reach beyond “purity” as a simple percentage. Pharmaceutical companies ask about trace chloride levels. Confectioners ask for faster dissolving fractions. Soft drink bottlers want assurance on long-term clarity and flavor carry-through. Over hundreds of plant trials, we found no two applications approach particle size, water content, or bulk density in the same way.
For us, an 80-mesh fine powder isn’t just a lab result; it’s the result of setting the right cooling curves on crystallizers, precise sieving in clean rooms, and ongoing training on contamination prevention. Some buyers push for as little residual methanol as possible, others air-check every bag on arrival. The process uses food-grade solvents, and our team spends just as much effort on post-reactor washing and purification steps as on the headline steps in synthesis. Each specification—whether particle size, pH, or residuals—ties directly to real-world product use, not a one-size-fits-all chart.
Years of customer interaction and batch problem-solving underline there’s no such thing as a “universal” sweetener. Aspartame’s easy to blend but degrades rapidly in heat and low pH. Stevia outscores on “natural” claims, but off-notes can upset flavor profiles. Sucralose remains exceptionally heat-stable and near-neutral in flavor—these are not marketing lines but differences that show up every time a customer calls the factory to ask for something the competition can’t deliver.
With each tonne shipped, the contrast between our sucralose and saccharin shows up: saccharin’s bitter-metallic trace grows at high concentration, while sucralose’s profile holds constant even after months in finished products. Some claim ace-K works well enough in diet drinks, but it relies on complex masking, and consumer testing still flags aftertastes. In bakery and dairy, tradition favors sucralose again: hundreds of batches prove thermal breakdown is a non-issue, so shelf-life predictions line up with reality. This real-world performance depends on keeping the product free from secondary byproducts, which comes from hands-on batch monitoring and constant calibration of the wash stage in our own plant.
End users often ask about “model” numbers or codes, but the real choice relates to mesh size and moisture handling on production lines. In our plant, we set aside different lines for 60, 80, and 100 mesh formats, based on direct input from R&D teams and feedback from filling lines. This is not a vacuum-sealed, one-size-fits-all industry. Each mesh corresponds to a different user need: beverage syrups want consistency in dissolution, powdered drink sticks require dust avoidance and even packing, and pharmaceutical excipients demand extreme consistency even through global shipping routes. Our team in quality control checks each batch both just off the line and after two weeks in a climate chamber—test results help tune the next run in real time.
The value of a sucralose batch only becomes clear after it hits the user’s own line. Confectionery manufacturers run pilot extrusion trials to see if a fine mesh will match with starches and binders. Beverage companies send samples through high-temperature pasteurization to vet stability and clarity after a month at 35°C. Sports nutrition companies mix with protein concentrates, watching for microscopic “hot spots” where coarser powder might yield false readings in automated blending. Years of site visits taught us users care not only about sweetness but about how easily an ingredient matches legacy processes.
Our plant runs long-term cooperation programs with several food laboratories to validate every claim—not just initial sweetness but also flavor retention after storage and compatibility with modern preservatives and acidulants. This hands-on work proved sucralose could match and exceed the performance of older synthetic sweeteners, often allowing our customers to cut ingredient costs elsewhere by virtue of sucralose’s stability and ease of processing. The factory team shares user feedback in daily production meetings. A tough mix-up on a customer’s automated filler last year led us to adjust drying times, cutting measured caking rates by over 50%. Each tweak flows back into the next round of production.
The public rarely sees the complexity of sucralose production: chemical transformation, multi-step purification, drying, sieving, packaging in humidity-controlled rooms, and lot-by-lot tracking on pallets bound for five continents. Tiny changes in upstream raw materials influence color and taste subtleties—not because spec sheets predict it, but because single-atom differences snowball in a process where every step amplifies or removes impurities. Even small errors can show up as tiny off-notes in a finished soft drink six months down the line.
Cross-contamination worries keep our QA team attentive round-the-clock. Shared lines between sucralose and legacy sweeteners are out of the question; downstream users in sensitive pharmaceutical and special dietary products have zero tolerance for even the slightest cross-ingredient residue. Automated colorimeters and GC-MS trace analysis run as backups to good old-fashioned taste panels—a batch might check out on every machine, but the human palate still picks up the difference after a few weeks in storage.
Soda bottlers, ice cream makers, and sports supplement packers move quickly in response to consumer trends, and so must the sucralose manufacturer. About a quarter of recent reformulations in customer products sprang from flavor masking, new acidulant mixes, or alternative bulk carriers. Our R&D keeps pace by trialing every conceivable acidulant, flavor enhancer, or carrier system—down to real compatibility pilots on shop floor blenders, not just benchtop tests.
We have seen beverage trials swap sucralose in at the last minute for blends that lost sweetness during UHT pasteurization. In these cases, clarity and shelf-stable sweetness won out, and the supply chain clock started ticking—the plant ramped up 80-mesh output and improved moisture controls, packaging on nights and weekends to get product out the door. The same cycle repeats in dairy and juice, where shelf stability beats any “natural” claim in the eyes of a QA manager who watched other sweeteners’ levels tail off over months in storage. This feedback loop never ends; every unexpected hiccup on a customer line leads to another round of pilot work and process review at the plant.
Over the years, industry buyers have moved beyond superficial purity claims. Our partners demand proof that low-level impurities won’t trigger off-flavors or regulatory flags down the road, especially for export into tightly monitored markets. Achieving actual 99.5%+ sucralose content isn’t about just sourcing the right chlorinated sugar—it’s a chain of controlled inputs, stepwise temperature and solvent control, close washing and filtration, constant in-process testing, and adjustments at every hand-off from synthesis to drying. Letting a batch run off-spec means a complete stop and rework, not a fudge in documentation. The lab and production teams focus on issues like stability under shipping or low-level thermal breakdown, since a smooth batch through the plant can still fall short under a month in a warehouse in summer heat.
Years of export history remind us that every destination brings different storage and handling risks—high humidity in SE Asia, temperature swings in North America, extended warehousing in the Middle East. Each scenario forced another round of production tweaks. Added desiccant, improved inner film liners, stricter metal detector regimes, sharper cutoffs in bulk density specs—these are all lessons learned not from data sheets, but direct field calls and customer claims closed with real testing.
Direct user feedback shapes every batch. Bottle line managers at soft drink plants say sucralose holds up against wide pH adjustments without throwing off flavor or color. Dairy processors lean on sucralose for yogurts and shakes that won’t “thin out” after storage. Multiple large bakeries tell us it rides through oven temps untouched, allowing for reformulations that would fail with heat-sensitive rivals.
Pharmaceutical and supplement manufacturers push for the cleanest lot-to-lot consistency, as mixing errors show up right in their own finished product audits. Over the years, some users tested every batch for “melt-back”—meaning, would the product clump or harden under fluctuating warehouse temperatures—before signing supply contracts. Our batch logs show steady refinement in moisture at pack-off, after lesson learned from one mid-summer container load that reached a West African buyer slightly above the recommended “as packed” water level, triggering follow-up checks for every run through the hot season ever since.
Anyone who works in a plant knows variability is cost—not just in quality claims, but in real production hours lost, shipments delayed, and reputation dented. For sucralose, those risks are real every day for producers and users: a batch that fails a bottler’s fill test means a halt downstream, and ingredient cost savings get wiped out by downtime or rework. Consistency comes not just from running more QC checks, but from tightening every variable in manufacturability: process water, input sugar quality, temperature/humidity at critical hand-offs, operator training, turnaround protocol for clean out.
One critical improvement—the move from batch drying to continuous low-humidity air sweep drying—cut moisture variability and nearly eliminated caking in long-haul shipments. This type of investment came only after repeated user complaints and direct troubleshooting on site. What looks like a mundane “dryer upgrade” on the plant’s capex report reflects millions of dollars in reduced customer claims and increased order repeatability.
The modern customer also pushes for greener manufacture, right down to the power and water footprint per tonne. In our experience, solvent recovery, energy reuse, and closed-loop water treatment create as much differentiation as flavor or mesh size. Our latest line installs recover over 80% of process water, and solvent distillation now drives onsite heating in the crystallization unit. Plant engineers work with outside consultants to reduce total solid waste and push for biodegradable packaging layers.
Shifting to regionally-sourced base raw materials also shrank inbound shipping footprints by almost 30% in the last two years, further tying our operations to sustainable goals. Supply chain partners routinely audit both technical performance and environment, and requests for carbon tracking data doubled in the last few growth years. Keeping pace involves more than investment—it means daily buy-in at every operator level, from material intake right up through maintenance and QA.
Sucralose manufacture never escapes the web of regional and international regulations—food grade certification, allergen-free handling, residue tests, and reporting like ISO, BRC, and FSSC protocols. Our QA staff track the details: whether new country requirements tweak allowable chloride levels, or if global food bodies amend residue solvent limits. Every audit means pulling not just a batch record, but complete training rosters and maintenance logs—the paper trail is as much a part of every production run as the reactor itself.
Customers often send their own auditors, and our team welcomes the oversight—it keeps procedures sharp. Stories still circulate about a customer surprise inspection picking up a trace cross-contact from shared forklifts years ago, leading to upgraded floor zoning and even trace tracking on internal tool movement. No risk of “trusting” the paperwork—line operators to QA supervisors all align on one standard each day: if it isn’t right, don’t pack it up. This culture holds across every batch, and it shows in both the audit record and customer satisfaction numbers.
Markets keep evolving—driven by not just regulatory push, but the consumer’s shifting views on sweetness and product sourcing. Stevia’s continued rise means we see blending trials more than ever; our sucralose works well as a base, masking stevia’s aftertaste, a side benefit only seen after persistent field trials and dual-ingredient pilot runs. Lab teams share insights across user networks and industry groups, trading notes and future-proofing new formulae for everything from ready-to-drink shakes to instant noodle packets.
Innovation comes up against hard production reality: in the last year alone, we responded to dozens of requests for custom particle sizing, new stabilization systems, and food-safe anti-caking mineral options. Each one involved both lab studies and multiple plant trials—there’s no shortcut from R&D paper to warehouse palette. The learning curve never ends, and every day’s production run tells us more about what can go wrong, what can be improved, and how to keep the product honest from start to finish.
Experience across process improvements, market demands, and user claims tells a single story: the real measure of sucralose is not just its sweetness intensity or mesh count, but how it performs in the hands of downstream operators, formulators, and QA staff. From pilot runs to the last seal on a multi-ton container, the day-to-day work revolves around closing the gap between customer promise and final product reality. Users seeking real support want more than an ingredient—they look for a partner with a record of results, a memory book of user-driven responses, and a culture of real-time problem solving.
Every new batch, whether custom-milled or standard pack, is the next test of everything learned over years of manufacturing, packaging, and collaborative troubleshooting. Sucralose, in factory hands, keeps evolving to meet new challenges—on the production line and in every final product claiming clean, lasting sweetness in a rapidly changing world.