|
HS Code |
863709 |
| Chemicalname | Poly (Glucose) |
| Molecularformula | (C6H10O5)n |
| Appearance | White to off-white powder |
| Molarmass | Variable (dependent on degree of polymerization) |
| Solubilityinwater | Soluble |
| Meltingpoint | Decomposes before melting |
| Odor | Odorless |
| Ph | Neutral (in aqueous solution) |
| Biodegradability | Biodegradable |
| Source | Derived from glucose monomers |
| Synonyms | Polysaccharide, Glucan |
| Stability | Stable under normal conditions |
| Toxicity | Non-toxic |
| Color | White |
| Hygroscopic | Yes |
As an accredited Poly (Glucose factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Poly (Glucose) is packaged in a 1 kg sealed, high-density polyethylene container with a tamper-evident cap, labeled for laboratory use. |
| Shipping | Poly (Glucose) is shipped in secure, sealed containers made of high-density polyethylene (HDPE) or similar material to prevent contamination and moisture ingress. Packages are clearly labeled with product and hazard information. Shipments comply with relevant transport regulations, and proper documentation accompanies each delivery to ensure safe and efficient handling. |
| Storage | Poly (Glucose) should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight and sources of heat or ignition. Protect it from moisture and incompatible substances such as strong oxidizing agents. Storage temperatures should generally be between 2–8°C. Ensure that the storage area is clean and appropriately labeled to prevent contamination or unintended use. |
|
Purity 98%: Poly (Glucose Purity 98%) is used in pharmaceutical tablet formulations, where it ensures high biocompatibility and low toxicity. Viscosity Grade 5000 cP: Poly (Glucose Viscosity Grade 5000 cP) is used in personal care lotions, where it provides superior thickening and smooth texture. Molecular Weight 200 kDa: Poly (Glucose Molecular Weight 200 kDa) is used in food emulsions, where it enhances stability and uniformity of dispersion. Particle Size <100 μm: Poly (Glucose Particle Size <100 μm) is used in cosmetic powders, where it allows smooth blending and improved skin feel. Stability Temperature 120°C: Poly (Glucose Stability Temperature 120°C) is used in industrial coatings, where it maintains integrity under thermal processing conditions. Solubility in Water >95%: Poly (Glucose Solubility in Water >95%) is used in detergent formulations, where it enables rapid dissolution and uniform active distribution. Melting Point 180°C: Poly (Glucose Melting Point 180°C) is used in hot-melt adhesive applications, where it ensures reliable bond formation and flow control. pH Stability Range 4-9: Poly (Glucose pH Stability Range 4-9) is used in agrochemical suspensions, where it maintains performance in varying soil acidity conditions. |
Competitive Poly (Glucose 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!
Working in chemical manufacturing for decades shapes the way you see a product like Poly (Glucose). In today’s market, where performance and adaptability matter as much as cost and reliability, this material brings something fresh. Poly (Glucose) belongs to a family of polysaccharide-based additives. Our team has focused on fine-tuning both quality and usability to serve industries that range from paper to agriculture, and even into certain personal care applications.
Poly (Glucose) stands out because it’s built on renewable, plant-based glucose units polymerized with careful control over branching and chain length. We use a model PG-820 in much of our production. Our engineers spent months running small-batch trials before scaling to full production, making sure the resulting polymer achieves consistent solubility and viscosity. Customers value this—processes run smoother, recipes stay stable, and waste drops. From our experience, this doesn’t stop at just numbers on a test sheet. It shows up as fewer shut-downs and easier cleanup, two things everybody in the plant can appreciate.
Poly (Glucose) as manufactured has a real advantage for water-soluble applications. In our paper plant partners, operators have seen better retention during sheet formation, with less deposit buildup on rolls. That cuts machine maintenance downtime. On the agricultural side, the same product gets used as a seed coating. Here it forms a thin, biodegradable film that can hold micronutrients and moisture near the seed as it germinates. This isn’t theoretical. Local growers reported stronger root development and more uniform stands, especially in sandy soils, after using coated seed last spring. That’s the kind of outcome that drives our work.
Formulators in cleaning products look for more than just “binding” or “bulk.” They want a polymer that dissolves quickly, stays clear, and stabilizes surfactant blends over time. Poorly made alternatives thicken too soon or leave residues. With Poly (Glucose), we spent extra effort on drying and filtration so that the granules pour smoothly and dissolve on the first try. Lab testing shows consistent clarity and flow, not just in our own hands but in comparison with previous generations of cellulose ethers and starch-based thickeners. It also plays well with enzymes and non-ionic surfactants—critical for modern eco-friendly liquid soaps.
Our manufacturing protocols recognize that customers often run on tight schedules and don’t have time to tweak process settings for every shipment. Poly (Glucose) comes standard with a moisture content under 7%, a viscosity profile aimed at efficient dosing, and a granule size carefully screened to prevent dust. These targets didn’t come from a distant R&D office; they’re the outcome of back-and-forth with technicians running production lines who kept finding blocked feeders and inconsistent batches until we solved it. Adjusting pressure during spray-drying brought granule uniformity. Switching from steel to ceramic filters removed stray metallic contamination. These details make a difference on the shop floor.
Plenty of alternatives line the warehouse shelves: CMC, guar gum, HEC, and modified starches. Each has a history and purpose. Our own experience running comparison trials taught us where Poly (Glucose) carves its niche. Unlike CMC, which can clump during fast addition, Poly (Glucose) flows freely, disperses rapidly, and resists stringing. Versus guar gum, there’s significantly less batch-to-batch viscosity drift—a constant frustration for batch formulators who can’t afford to be adjusting batch weights by eye every shift. In downstream processing, Poly (Glucose) doesn’t yellow or degrade at elevated pH or light levels the way some plant gums do, which means formulas stay clear and stable even when stored for weeks on end.
One lesson from the last decade is the importance of knowing where your raw materials come from. We source glucose from regional starch plants using non-GMO feedstock. Our logistics contracts require full lot traceability and chain-of-custody documentation. This is not only a matter of regulatory compliance; it also answers questions we get from end-users about allergen exposure and origin. Our in-house traceability checks for Poly (Glucose) have eliminated the few ingredient mix-ups we experienced five years ago. Today, each shipment can be followed from field to finished bag, with all records kept on-site for independent review.
Keeping a polysaccharide stable in storage takes more than just tossing it in a plastic drum and leaving it in a warehouse. Early on, we struggled with clumping during humid summers. The solution wasn’t just a better baggie. We modified our drying step so every batch cools evenly before packing. Warehoused product now sits on lined pallets in controlled storage. Random sampling every quarter includes visual, moisture, and microbial checks before release. Customers who complained about lumps in the past now report smooth blending; that saves time and reduces rework on their end. Several have even switched to bulk tanker delivery after seeing that consistent shelf-life over several seasons.
Our plant operators notice small differences—dust in the air, the way a polymer flows from a hopper, or the speed it dissolves in a big mix tank. Poly (Glucose) was designed with all that in mind. It pours easily, generates minimal airborne dust (dust masks are important, but every bit helps), and dissolves fully with normal mixing. Batches don’t need high shear, so wear on pumps and blades drops. Fewer clogged filters show up as reduced downtime. One customer in the paint industry called out how Poly (Glucose) lets them blend thicker concentrates that transport without settling—a result that saves shipping volume and cuts transportation costs. That’s not just chemistry; that’s workflow improvement born from field feedback.
Waste control has become a core part of how we run production. Old processes threw away a lot of head-tails on every batch; now, we recapture and recycle off-spec fractions for internal energy generation. Water used in polymerization gets cleaned and reused on-site—a closed loop we established after reviewing rising utility costs and tightening regulations. By reusing process water and recovering process heat, we’ve reduced overall energy consumption by 11% over the last fiscal year. Regulatory inspections confirm that our Poly (Glucose) lines operate below permitted waste thresholds. Investing upfront in better separation technology not only makes our plant more compliant, it also produces a cleaner and more consistent product.
We never stop learning from our partners. Factory technicians tell us when a formula causes problems on their lines. Last year, several clients in the textile sector shared that replacing traditional starch sizing with Poly (Glucose) cut drying times—and actually made later dyeing more consistent. In another case, a toothpaste formulator reported that Poly (Glucose) delivered smooth texture and less phase separation during shipping, compared to previous thickening agents. These aren’t abstract “case studies.” Our field engineers ride along on start-up trials and gather data directly, so improvements roll into the next production lot quickly. Shipping out a batch isn’t the end of the process for us—it’s just another step in seeing what works best out in the real world.
Innovation doesn’t just happen on a whiteboard. Plant engineers regularly find fresh ways for Poly (Glucose) to replace older, more expensive, or environmentally challenging ingredients. In mining slurries, for instance, it helps maintain suspension with less mechanical agitation—reducing energy costs and abrasion wear. One batch engineer suggested using it in wood composites, and trials are now underway. Another team is testing Poly (Glucose) as a slow-release matrix in soil amendment pellets for horticulture, aiming for better water retention around roots. We encourage this kind of curiosity inside our own walls because that’s how breakthroughs occur.
No product works in every application, and Poly (Glucose) doesn’t claim to. Some situations still call for specialty synthetics or highly refined natural gums. What sets our polymer apart comes down to consistency—batch after batch, the polymer behaves as expected. That confidence matters more to a plant foreman than theoretical peak properties quoted in marketing slides. When customers try Poly (Glucose) instead of a generic thickener, they often mention lower variability, faster blending, and easier cleanup—practical advantages, not glossy claims. Over time, this builds trust between us and our customers, which is the real foundation for long-term supply relationships in manufacturing.
Consumer pressure and regulatory shifts have already forced changes across every industry we serve. Poly (Glucose) gives manufacturers an edge by qualifying for clean-label claims in many jurisdictions. Food processors appreciate that there are no animal derivatives, petrochemical residues, or nano-scale particles. When used as a stabilizer in beverages or functional foods, it passes labeling reviews without triggering warning panels. Our documentation package comes straight from our own QA lab—full batch COAs, allergen statements, and origin records—backed by years of audit-ready production logs. We see our role as not just meeting minimum legal standards, but actually enabling our downstream partners to offer products their customers can trust.
Our doors stay open to audit teams from every customer segment we serve. Buyers have full access to production logs, process flow diagrams, and raw material traceability chains for Poly (Glucose). This transparency remains a cornerstone in dealing with food, pharma, and personal care clients who value full disclosure. Problems do crop up—in the past, stray contaminants or untraceable lots caused genuine concern. Overhauling documentation and standardizing training for every shift closed that gap. Each improvement came from listening to hands-on staff and external partners, not from checking a box for ISO compliance.
Some clients push their lines hard—high shear, variable pH, hot and cold cycling, aggressive solvents. Poly (Glucose) maintains stability without breaking down or separating. Field pilots run at our partner plants confirm the polymer’s shelf performance and process robustness over many months. This reliability pays off in fewer unplanned shutdowns, better product consistency out the door, and easier troubleshooting when something does go wrong. We test each new batch in simulated end-use conditions—not just basic lab QC tests—so operators aren’t the first to discover a flaw. Feedback loops between our shop floor and our clients enable us to adapt recipes, not just react after problems emerge.
Switching input materials often means unexpected expense—process downtime, recipe reformulation, residue removal, staff retraining. Working directly with our customers, we map out these changes together. Our technical support team spends time on the line during transition, making sure Poly (Glucose) drops into existing workflows without causing headaches. This hands-on approach saves costs by minimizing surprises and keeping productivity high from day one. Several clients have reported that their teams actually prefer working with Poly (Glucose) because of the cleaner work environment and less frequent equipment blockages. That kind of direct line feedback is more convincing than any spreadsheet prediction of cost savings.
Producing safer, more predictable materials limits operator exposure and improves plant morale. Poly (Glucose) generates low dust, carries no persistent toxins, and doesn’t change in storage. Our production lines feature sealed transfer hoppers and automated discharging that further reduce inhalation risks. Routine air sampling in our own facilities confirms are kept well below threshold limits, supporting a safer shop floor. Customer maintenance teams report easier cleaning—less caking and crusting on feeders and mixing tanks thanks to our polymer’s clean solubility. Less downtime, fewer minor injuries, and improved equipment reliability build a better workplace culture, which in our view, matters just as much as product performance on paper.
It’s no secret that scale-up can uncover problems that small-batch work hides. We invested upfront in pilot reactors and cross-trained our operations crew before moving Poly (Glucose) to commercial scale. Process engineers ran dozens of test cycles with incremental changes—machine speed, agitation rates, drying temperatures—to lock in the results we wanted. Batch records trace each step, and deviations are logged and reviewed every week. Minor glitches, like off-spec color or granulation, became rare. Today’s Poly (Glucose) offers the same technical spec as our early test lots—something customers regularly confirm during blind sample tests. Honest feedback and willingness to adjust have kept quality locked in as we grew.
Sustainability talks run deep in our industry, but we approach it from the ground up. Poly (Glucose) comes from renewable feedstocks, and its manufacturing generates minimal persistent pollutants. Our partnership agreements with farmers emphasize soil health and responsible water management. We dispose of process-side waste according to tough local standards, and our water discharge stream regularly tests cleaner than required. By designing our plant for closed-loop handling and warm-water cleaning, we use less chemical disinfectant. Every major change gets reviewed not just for profit, but also for long-term environmental impact. It’s not a marketing angle; it’s the way we keep getting our operational permits renewed and stay ahead of regulatory shifts affecting every downstream user.
We see education as an extension of supply. Field engineers from our factory run workshops, both in-person and online, covering best practices for dispersing and using Poly (Glucose). These aren’t generic sessions—they’re focused on solving real challenges, such as reducing foam, managing mixing speeds, or preventing clogging in automated feeders. By understanding real-world bottlenecks, we help users get more from each shipment. Ongoing support means our technical team remains accessible even after the delivery trucks leave, ready to help troubleshoot new issues or train new staff as teams change over time. Our investment in user education yields more productive partnerships and drives innovation back into our production process.
Short-term purchasing can lead to costly supplier switches and batch failures down the line. We focus on building sustained partnerships based on reliability, transparent pricing, and real technical support. Poly (Glucose) represents our commitment to these principles, delivering dependable quality on each contract cycle. End-users know they can count on our word and our record, earned from years of meeting tough deadlines and solving production challenges face-to-face. This approach helps both small plants and multinational firms streamline their own processes, reduce supply risk, and meet growing customer demands for clean, stable, sustainable inputs. We see this as core to our future, not just a strategy for hitting this quarter’s targets.
We’re not done improving Poly (Glucose). Every plant tour, every customer trial, and every production meeting yields new insights. Plant-based polymers will keep evolving, and so will expectations for performance and responsibility. We value candid feedback—from the loading dock to the operator’s station—because that’s where the next set of challenges and solutions will surface. Our belief in direct engagement, honest reporting, and ongoing technical improvements drives us forward. Poly (Glucose) reflects not just a single product line, but a commitment to continuous improvement and open partnership, drawn from decades of hands-on manufacturing experience—in our plant, and on yours.