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HS Code |
131941 |
| Chemical Name | Erythritol |
| Chemical Formula | C4H10O4 |
| Molecular Weight | 122.12 g/mol |
| Appearance | White, crystalline powder |
| Taste | Sweet, similar to sucrose |
| Energy Value | 0.2 kcal/g |
| Sweetness Relative To Sucrose | 60-80% |
| Solubility In Water | High |
| Melting Point | 121°C |
| Glycemic Index | 0 |
| Origin | Naturally occurs in some fruits and fermented foods |
| Main Use | Low-calorie sweetener |
| Digestibility | Mostly absorbed in small intestine; excreted unchanged in urine |
| Tooth Friendly | Non-cariogenic |
| Allergen Status | Generally recognized as safe (GRAS) and non-allergenic |
As an accredited Erythritol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Erythritol is packaged in a sealed, resealable 1kg pouch, typically labeled with product name, purity, nutritional information, and manufacturer details. |
| Container Loading (20′ FCL) | Erythritol is typically loaded in 20′ FCL containers, packed securely in 25kg bags, totaling around 18MT per container. |
| Shipping | Erythritol is shipped in tightly sealed, food-grade bags or drums to prevent moisture absorption and contamination. Containers are labeled properly and protected from excessive heat, direct sunlight, and strong odors. Transport follows relevant regulations for food additives, ensuring clean, dry, and secure conditions to maintain product integrity during transit. |
| Storage | Erythritol should be stored in a tightly sealed container, away from moisture and direct sunlight, in a cool, dry, and well-ventilated area. Keep it away from strong oxidizing agents. Ensure that storage conditions prevent contamination and clumping. Proper storage helps maintain erythritol’s quality, purity, and stability for both food and laboratory use. Always follow the manufacturer’s storage guidelines. |
| Shelf Life | Erythritol typically has a shelf life of 2-3 years when stored in a cool, dry place in a sealed container. |
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Purity 99.5%: Erythritol Purity 99.5% is used in sugar-free confectionery manufacturing, where it delivers sweetness with negligible caloric contribution. Particle size 30 mesh: Erythritol Particle size 30 mesh is used in powdered drink mixes, where it ensures rapid dissolution and uniform texture. Melting point 121°C: Erythritol Melting point 121°C is used in baking applications, where it maintains stability and consistent performance during high-temperature processing. Stability temperature 160°C: Erythritol Stability temperature 160°C is used in chocolate production, where it resists decomposition and preserves product quality under heat. Microbial purity ≤10 CFU/g: Erythritol Microbial purity ≤10 CFU/g is used in pharmaceutical formulations, where it minimizes contamination risk and ensures safety. Moisture content ≤0.2%: Erythritol Moisture content ≤0.2% is used in tablet manufacturing, where it prevents caking and ensures consistent tablet hardness. Reducing sugar content ≤0.3%: Erythritol Reducing sugar content ≤0.3% is used in diabetic food products, where it prevents unwanted glycemic response. Granule size uniformity ≥95%: Erythritol Granule size uniformity ≥95% is used in blended food ingredients, where it guarantees homogeneous distribution. Bulk density 0.8 g/cm³: Erythritol Bulk density 0.8 g/cm³ is used in automated packaging processes, where it enhances dosing accuracy and process efficiency. Hygroscopicity ≤0.1%: Erythritol Hygroscopicity ≤0.1% is used in dry beverage mixes, where it ensures product shelf life and prevents clumping. |
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In the world of sugar substitutes, erythritol stands out for more than its role in a low-calorie lifestyle. Having spent years refining production lines for polyols and sweeteners, I have seen erythritol become a fixture in both industrial and consumer landscapes. Unlike fleeting trends, erythritol’s long acceptance by food technologists, bakers, and drink developers speaks for the reliability of its profile and process. Our batches come through fermentation using glucose sourced from non-GMO corn. After fermentation, the process focuses on precise crystallization and filtration, leading to a clean, granular finish that meets food-grade expectations. Each lot tells its own story: the humidity, the batch nuances, the degree of fermentation—all controlled to deliver a transparent, consistent sweetener with genuine value for professionals and consumers.
Erythritol belongs to the sugar alcohol (polyol) family, yet it sets itself apart through its molecular size and metabolic pathway. Its four-carbon backbone offers a clean, sweet taste. Drawing on extensive observation across various uses, erythritol provides around 60-70% the sweetness of sucrose, with a hint of cooling sensation when tasted neat. In our facility, we achieve this by maintaining rigorous control during the crystallization phase, making sure the texture and sweetness stay even and predictable.
Importers regularly ask about erythritol’s caloric value. Chemically, it supplies almost no energy: in humans, over 90% passes through the small intestine unchanged, exiting via urine. That’s a crucial benefit for calorie controllers, people with diabetes, or anyone watching their glycemic load. Blood sugar and insulin levels stay stable after ingestion, as various clinical studies confirm. We monitor residual sugars in our finished product to keep these promises, knowing the science supports our approach.
Formulators in food, beverage, and pharmaceutical production find erythritol useful because of its solubility and stability. The granulated model pours well and dissolves quickly, making it a mainstay in dry blends, sugar-free chocolates, and tabletop sweetener packets. Our experience with chocolateers and confectioners highlighted erythritol’s impact: it not only replaces sucrose bulk in recipes but also enables a melt-in-the-mouth feel, without lingering aftertastes. In syrup development, our process achieves high clarity and minimal residue, so drinks look and taste clean, with no haze or off-notes that sometimes trouble other polyols.
Bakers value erythritol during recipe reformulation for reduced-sugar muffins, cakes, and biscuits. Unlike many alternative sweeteners, erythritol holds up under baking temperatures, avoiding browning or chemical breakdown. In shelf-life trials, it acts as a humectant modestly, but doesn’t pull in as much water as xylitol or maltitol might, helping achieve a soft crumb and extending freshness. Technical teams recognize reduced stickiness and manageable mixing—a clear edge when scaling up from small kitchen tests to full-scale commercial lines. In our own pilot bakery, the consistency of each lot directly affects dough handling, and erythritol’s fine particles work smoothly through sieves and blenders.
Pharmaceutical and nutraceutical firms also turn to erythritol for chewable tablets and lozenges. Teeth-friendly and non-cariogenic, erythritol avoids feeding oral bacteria, so it doesn’t promote dental decay. We test for low moisture content and small particle size to help tablet pressing run efficiently. The non-hygroscopic nature means less clumping and better flow through tablet machines or bulk hoppers—a result our team worked hard to lock in through process adjustments and consistent checks.
At home, teaspoon-for-teaspoon replacement with certain blends gives consumers more freedom in kitchen experiments. Some use it for sweetening coffee, others for low-carb jam recipes. In all these cases, consistency from package to package matters. We’ve refined packing to guard against caking or hardening in response to weather shifts; nobody enjoys chiselling hard granules from the corner of a bag.
Many newcomers to the polyol market ask: why erythritol over sorbitol, xylitol, or maltitol? As makers, we started seeing this question decades ago, and our factories built up versatile lines to meet different polyol needs. Yet erythritol maintains unique properties. Its molecular weight leads to the lowest caloric content among the polyols—realistically under 0.2 kcal/g, based on metabolic trials. Digestive comfort often tops the list for end-users, and erythritol emerges a clear favorite here: most people tolerate it well, even at higher doses, compared to the well-known laxative effects caused by higher intake of other polyols like maltitol or sorbitol. Our testing panel checks samples for taste and aftereffects, and feedback has stayed positive.
Taste profiles are another obvious divider. Sorbitol and maltitol tend to bring a faint aftertaste, which is easy to spot in clear beverages or light pastries. We noticed in repeated blind tastings that erythritol gave a clean, almost sugar-identical flavor, without metallic or bitter notes. Texture matters too—erythritol’s cooling effect, which some call a faint menthol tingle, delivers a sensory twist appreciated in sugar-free gums or mint candies. Our R&D chefs often use this effect to sharpen fruit flavors in sorbets and frozen desserts.
Processing differences also matter, especially for industrial buyers. Unlike maltitol, which picks up water from humid air, erythritol keeps its dry, free-flowing texture even in monsoon seasons. This simplifies storage and transport across climates, saving headaches and costs for warehouses. When scaling up, maltitol and xylitol pose challenges with syrup crystallization, clogging pipes or sticking to mixers. Erythritol syrups run clearer and cause fewer shutdowns for cleaning, which translates to lower downtime on automated lines. We have tracked maintenance logs across multiple production cycles to confirm these savings.
Stability rounds out the story. Over lengthy warehouse stays, erythritol resists breakdown even at the edges of its recommended temperature and humidity ranges. Our lab keeps reference batches on the shelves for months on end, and the quality holds up well. Xylitol or sorbitol, by contrast, sometimes degrade or clump, leading to batch rejects or rework orders. By monitoring water activity and regularly cross-checking with third-party labs, we keep quality where it counts.
Consistent product quality remains the backbone of our reputation. We’ve seen how minor deviations in particle size or purity can send downstream customers scrambling to adjust their production lines. Over the years, we developed a system of close monitoring and forward and backward traceability for every batch, using glucose origins, fermentation details, and finished specifications. Our lab runs spectrometry and chromatography checks to confirm each shipment lines up with the established benchmarks.
We believe in transparent labelling and open conversations about any issues. No two harvests are identical, but we have learned how to react fast to fix deviations early in the chain. This helps maintain tight quality bands: color, moisture, granular fineness, and flavor stay within a narrow target, so every pack shipped meets customer expectation. End users sometimes mention how quickly suppliers respond to questions or complaints—our aim has always been to answer fast and put product knowledge up front.
As traceability demands sharpen from regulators and global buyers, factory records become more than a paper exercise. By keeping detailed batch histories and retaining control samples, we can quickly address audit requests or customer queries, sometimes years after production. Our investment in digital tracking reduced paperwork, cut errors, and made recall management much safer for all partners involved.
Producing erythritol for the global market asks for compliance with varied regulations in Europe, North America, Asia, and beyond. We have seen up close the role that careful documentation plays, as every country sets specifications for purity, heavy metals, and microbial load. Our plant keeps up with Codex Alimentarius, Food Chemicals Codex, and other benchmarks set by regional authorities. Our teams run periodic allergen and contaminant screens beyond what basic law requires.
Customers benefit from our experience navigating import paperwork, Kosher and Halal certifications, and frequent ingredient changes. Regulatory checks and audits guide our method: we test shipment samples for lead, arsenic, microbial presence, and pesticide residues, in line with what buyers and safety agencies demand. Adjusting to new standards never ends—a few years ago, the European Food Safety Authority changed permissible impurity levels, and our R&D had to act quickly without disrupting orders. The trust between us and long-term buyers depends on staying ahead of such changes.
Large-scale fermentation relies on agricultural feedstocks, so the earth’s well-being ties directly to erythritol manufacturing. With every production run, our facility monitors water and energy usage. Years of optimization reduced steam loss, cut down process effluent, and improved waste handling. We invested in closed-loop water systems and secondary filtration, reclaiming process liquids for reuse wherever possible.
Our choice to source non-GMO corn and work with suppliers committed to responsible farming has shaped our long-term contracts. Traceability extends from seed to shipment, with growers who minimize pesticide and fertilizer inputs. Packaging evolved too—thinner films, recycled paper, and fewer non-recyclable elements cut down on landfill impact. Factory staff run regular training on energy use and safety, aiming for daily improvements.
We regularly engage in third-party environmental audits. Each report gives a chance to seek further savings—not just to meet certification, but as a matter of pride among the factory team. From experience, safe and clean production supports good staff morale and cuts avoidable downtime.
Even after years in the business, challenges keep us sharp. Fluctuations in corn prices can raise input costs overnight, while unpredictable weather patterns disrupt logistics or fermentation yields. We have faced shipment delays caused by port closures, or quality issues from a batch of substandard glucose. Solving these meant tightening supplier checks, bringing logistics in house, and investing more in process automation to keep quality steady.
Taste is another battleground. In early days, we struggled to match erythritol’s sweetness profile across batches, leading to unhappy customers and wasted product. Tuning fermentation strains and post-processing brought flavor into line. Now, we include regular feedback cycles with key clients, so changes in sweetness or crystallization get caught fast.
Consumer confusion about sweeteners arises frequently—many don’t know the difference between erythritol and artificial options, or they read alarming news headlines about sugar alcohol safety. We respond by ramping up science-based communication, sharing technical data and honest answers to questions about metabolism, blood sugar, and application.
Each innovation run starts with buyer feedback and ends with a better product. Particle size improvement is one example: our trials led to a “superfine” range for instant-dissolve drinks and coating syrups, cutting out hours of frustrating mixing time for customers. For bakers, we’ve created custom milling profiles to match blends used in gluten-free and keto lines, ensuring moisture balance and even rise in every loaf or cake.
Blending erythritol with monk fruit or stevia extracts opens new flavor and sweetness possibilities. Early feedback from food startups showed some blends left an aftertaste or didn’t behave as well in batter; we learned to fine-tune blend ratios and quality control at the mill. Collaborations with food labs, nutritionists, and culinary schools keep ideas flowing and innovation rooted in real kitchen and factory challenges.
Lowering environmental footprint is the next area of growth. We are developing enzyme engineering tools that cut waste in the fermentation process. Switching some plant energy needs away from fossil fuels and into renewables keeps emissions down. Improving packaging for shipping long distances by weight reduction and compacting also adds up to less fuel per kilogram.
Sugar alternatives come and go, but erythritol shows resilience because of its well-documented safety, reliable supply chain, and flexibility across applications. Our work proves erythritol delivers tangible benefits, from taste and calorie reduction to easy handling in both home and industrial settings. Over decades of meeting end-users, food innovators, retailers, and casual bakers, the common theme centers on trust—trust that each kilogram matches what the label says, and that the product will perform as expected in every recipe or blend.
Every batch carries a legacy of technical refinement and honest communication. Standing behind erythritol as a producer means facing problems directly and fixing them fast. The real-world experience of managing variables—raw inputs, live fermentation, complex regulatory standards, and environmental impacts—writes every line of our process and philosophy. Erythritol embodies both technical achievement and everyday utility.
Behind every bag or drum of erythritol, there’s a manufacturing team balancing precise process, raw material supply, and customer demand. Experience, transparency, and a commitment to improvement define what comes off our production line. As market needs change, the bedrock of quality, science, and reliable delivery keeps erythritol a steady presence from our shop floor to your mixing bowl or factory line.