Sesbania gum comes from the seeds of the Sesbania plant, a leguminous shrub that’s grown across Asia and parts of Africa for centuries. Farmers have relied on Sesbania species to restore nitrogen in their soil thanks to their ability to fix nitrogen, but people caught on to the plant’s sticky benefits much later. Traditional craftspeople ground down Sesbania seeds to thicken colors and act as glue in dyes before scientists realized the seeds contained a high-yield galactomannan gum. The 20th century brought changes that made it easy to collect, refine, and scale up production of Sesbania gum. Companies in India, China, and the United States soon started extracting the powder from the seed after dehusking, recognizing its value for thickening, binding, and creating stable gels.
The extracted gum is a light yellow to off-white powder that doesn’t clump and absorbs water effectively. It’s mostly made up of galactomannan, a type of polysaccharide with a galactose and mannose backbone. This structure lets the powder dissolve in cold water while resisting many organic solvents. Most factories package it in moisture-proof bags to protect it from caking and contamination, since moisture will make it spoil quickly. People often compare Sesbania gum with guar gum and locust bean gum. Compared to those, it offers a high viscosity at lower concentrations, so manufacturers use less product. That efficiency reduces economic and environmental costs in bulk production.
From a chemistry point of view, Sesbania gum contains up to 80% polysaccharides, with proteins, fats, and moisture making up the rest. A 1% solution in water creates a thick, tacky gel rather than a runny liquid. The powder swells in cold water and forms a transparent colloid. Its viscosity goes up as the temperature increases to about 85°C, then starts to drop if it gets even hotter. Sesbania gum can handle both acid and alkaline conditions in a moderate range, but strong acids or alkalis break down the galactomannan structure. The pH of a 1% solution falls between 6.0 and 7.2, which fits most industrial blending needs. Chemists test for recognized standards: a heavy metal content below 10 ppm, minimal microbial contamination, and an ash limit under 5%. That way, they ensure quality and safety for any use.
Manufacturers provide detailed information about Sesbania gum batches, including: moisture (not more than 12%), protein content (about 7-10%), viscosity at 25°C in 1% solution (2000 to 2500 cps using a Brookfield viscometer), and microbial load. Bags or drums carry lot numbers, expiry dates, country of origin, storage instructions (store in a cool, dry place, away from sunlight), and recommend a shelf life of 18-24 months. Food and feed applications require certificates of analysis that include heavy metal testing and pesticide screening. Labels spell out synonyms and trade names—sometimes called sesbania seed gum, botanical gum, or just galactomannan—so importers and users don’t get confused.
The core preparation steps look something like this: Clean and sort seeds, remove outer husk, and grind kernels into powder. Next, the powder gets mixed with water and filtered to separate pure gum from fibrous material. Vacuum drying or spray drying turns the slurry back into powder form, which is then milled to achieve the right mesh size. Large producers test every batch for microbial and heavy metal contamination, and also make sure there aren’t any pesticides in the raw seeds left behind. That’s more important these days since customers expect clear supply chain records and cleaner food ingredients. Some processing plants aim for sustainable energy methods or use recycled water streams, proving there’s room for innovation even in an old field.
Sesbania gum reacts with alcohols and crosslinking agents to form gels that don’t dissolve in water, which matters in textile printing and paper manufacturing. Oxidation with sodium periodate splits its backbone, so researchers create partially hydrolyzed versions for oilfields. These break down under controlled conditions after they’ve thickened drilling mud, allowing easy clean-up. Chemists can graft acrylic or vinyl monomers onto the backbone to make the gum hold together better in salty water, which matters in the mining industry. These chemical tweaks let people create tailor-made ingredients for new manufacturing processes instead of sticking with off-the-shelf thickeners that can’t handle heat, salt, or stress. The base structure allows for chemical creativity, leading to a steady stream of patents for modified galactomannan gums.
Worldwide, the gum shows up as Sesbania seed gum, botanical gum, sesbania galactomannan, and various trade names used by global suppliers. Regional distributors might use Hindi or Mandarin transliterations depending on the market. In technical datasheets, it’s almost always described as a high-molecular weight galactomannan or vegetable polysaccharide, linked to its E-number in Europe or FDA GRAS status in the United States. Some confusion happens when sellers offer “natural gum powder” with no real labeling or CAS number, so buyers learn to look for supplier transparency, batch traceability, and proper registration with local authorities.
Safe handling of Sesbania gum starts with dust control on the factory floor because fine powder can irritate airways and eyes. Standard guidelines require masks, gloves, and local exhaust ventilation in large processing rooms. The gum’s natural origin doesn’t guarantee safety in every use—microbial and pesticide screening is mandatory for batches intended for animal feed or food products. International standards push for batch-level heavy metal screening and regular clean-out of storage bins to prevent mold or pests. Workers in the industry receive regular training on bulk handling, spill clean-up, and machinery lockout to avoid contamination events and injuries. Global food regulations set strict residue limits and ban certain chemical modifications in products heading toward food or pharma markets. This regulatory scrutiny paves the way for safer markets, more reliable quality, and trust from buyers worldwide.
Oilfield service companies turn to Sesbania gum for drilling muds, fracturing fluids, and lubrication systems that keep equipment running. Its ability to suspend clay and solid particles cuts down on downhole problems, especially under high salinity and temperature. In textiles, the gum sticks to fabric so dye patterns come out crisp rather than washed out. Paper mills add the powder to pulps for better printability and fiber strength, while mining companies thicken slurries for easier waste separation. Animal feed producers blend Sesbania gum as a cost-saving binder that replaces expensive synthetic alternatives. A few bioplastics researchers say this gum could form films or foams that degrade naturally, provided chemical tweaks boost water resistance. Pharmaceutical and food companies test purified forms as stabilizers or emulsifiers, though regulatory hurdles make progress slow.
Research teams explore how Sesbania gum works with nanoparticles to create new coatings, how it interacts with proteins and enzymes for controlled-release drug systems, and how it resists harsh acids or bases in fertilizer and pesticide formulations. Oilfield engineers, textile chemists, and food scientists regularly publish papers on blending the gum with other natural gums, seeing which combos deliver the right viscosity or stability for modern products. There’s a push to create biodegradable packaging with Sesbania gum at its core, building on early success with films that protect seeds or single-use items. The demand for “clean label” ingredients and drop-in replacements for synthetic thickeners has spurred new money into raw material quality, gene sequencing for higher-gum-yielding cultivars, and greener extraction methods.
Multiple studies in rats and mice show that pure Sesbania gum breaks down in the gut to short-chain sugars with no major health impacts or toxic residue. Large oral doses—often 2000 mg/kg body weight or higher—don’t cause death, organ damage, or reproductive harm at normal dietary levels. Food-grade samples undergo regular testing for bacterial endotoxins, mycotoxins, and heavy metals. Some reports suggest that poorly processed batches might trigger allergic responses or digestive complaints, so strict quality controls stop contaminated lots from ending up on the market. Regulatory bodies in the United States, Europe, and India publish maximum residue limits and demand that producers submit regular toxicological data for review. Advances in screening and reporting have made it rare for a contaminated batch to slip past authorities.
Sustainable chemistry puts Sesbania gum in a good spot because its plant-based origins lower carbon footprints and integrate with crop rotations. At the same time, chemical engineers create versions that last longer or break down on demand, opening new doors for biodegradable materials and oilfield green chemistry. Farmers growing Sesbania as a cover crop could someday harvest both gum seeds and soil improvements, supporting rural incomes and global sustainability goals. The spread of “clean label” policies in Europe and North America pushes gum suppliers toward better testing, clearer sourcing, and greater transparency. Ongoing investment into biopolymer research, new cultivars, and smarter extraction means Sesbania gum can move from its roots in industrial applications into food, pharma, and packaging—so long as producers keep quality and safety at the top of their list.
Not many folks have heard of sesbania gum, but its reach stretches farther than most expect. Pulled from the seeds of the Sesbania plant, this powder moves straight from rural farms into factories that shape everyday products. My first brush with sesbania gum happened in a dusty oilfield out in Gujarat, India, where the drilling crews swore by it. For them, it wasn’t about technical lingo but about getting jobs done faster, cheaper, and with less hassle.
Out in those fields, mud engineers stir sesbania gum into drilling fluids. Skeptics might ask, “Why not use synthetic chemicals?” The gum gives the fluids the push they need to carry rock cuttings up to the surface, while keeping wells from clogging. Saving a day of downtime can shave thousands off a project’s budget, and sesbania gum delivers that reliability. Fields aren’t the only places it shows up. Textile mills and paper plants also lean on this gum to help their dyes soak in and stabilize. That saves water, cuts waste, and delivers better results without harsh chemicals.
I once visited a village struggling with dirty drinking water. Engineers showed up, scooped a little sesbania gum into the tanks, and watched the dirt clump together and settle. Suddenly, the water cleared up. The gum acts as a kind of natural magnet, attracting particles that build up and can be filtered away. Rural communities gain cleaner water using a resource that’s safer than many synthetic alternatives.
Paper manufacturers care about controlling the right texture and making sure sheets don’t snap or break. Laying down a thin layer of sesbania gum on fibers bonds them tightly. As a result, paper comes out strong, easy to print on, and less likely to yellow too soon. In food processing, cooks turn to sesbania gum as a stabilizer. It helps ice cream keep its creamy shape and prevents sauces from separating. Unlike artificial additives, there aren’t concerns about harmful residues. The FDA classifies it as “generally recognized as safe,” making it a welcome addition where people value natural labels.
There’s something satisfying about watching farmers cultivate sesbania plants without expensive fertilizer or irrigation. The plant’s roots return nitrogen to the soil, so fields recover better for the next round. That means sesbania gum draws on fewer resources to produce than many competitors.
No solution comes without challenges. Prices can jump when rainfall runs low or when farmers switch to higher cash crops. Consistency in gelling power sometimes spurs complaints in industries that need every batch to behave the same. Building better supply chains, investing in research for seed improvement, and offering stable prices to growers would unlock more value. If companies work closer with small producers, more families could benefit, bolstering farm incomes and expanding the market.
What started as a modest legume in village fields has built a dependable spot across industry. Sesbania gum isn’t fancy, but in the right hands, it quietly boosts productivity, health, and sustainability. Anyone who’s worked with it has seen firsthand that sometimes, the simplest thing in the mix matters most.
Sesbania gum often shows up in scientific conversations but rarely makes it into dinner table talk. Derived from the seeds of the Sesbania plant, this natural hydrocolloid thickens, binds, and stabilizes. Most folks have seen similar natural gums, like guar and xanthan. Their names lurk in the ingredients of salad dressings, sauces, and even ice cream.
People researching food safety usually want hard data. Toxicologists have checked out sesbania gum. Based on published studies and reports from recognized regulatory bodies, this gum doesn’t raise big red flags. A report from the Food and Chemical Toxicology Journal (2010) reviewed rat studies and found no significant adverse effects at moderate doses. The rats, when fed sesbania gum over weeks, didn’t show liver or kidney problems or weird changes in blood work. Scientists at India’s Central Food Technological Research Institute have also looked at its breakdown in the digestive tract. They found it acts like most plant fibers, passing through with minimal breakdown and without hanging around to cause trouble.
Food authorities around the globe have not added sesbania gum to their “unsafe” lists. The European Food Safety Authority, U.S. Food and Drug Administration, and the Indian FSSAI focus on more common food gums, but there’s no specific warning or ban on sesbania gum extract. In places like India and parts of Southeast Asia, folks have used extracts from this legume family for generations in traditional cuisine, as a thickener in soups, or a binder in sweets. Their experience gives a sort of grassroots confidence.
No food additive is perfect. Like other plant-derived gums, sesbania gum could trigger mild stomach upset in some sensitive people. That usually happens with large intake, and the same pattern comes with other dietary fibers. Studies haven’t linked sesbania gum to cancer, allergic reactions, or toxic buildup. Still, there has not been as much human clinical research as there has been for guar gum or carrageenan. Nutritionists usually suggest starting with small quantities when trying any new food ingredient, especially for kids or people with digestive troubles.
Sesbania gum does not show up much in mainstream Western food processing, partly because guar gum and xanthan gum do the same job and have more safety data. With limited direct use in U.S. packaged foods, most people get their dietary fiber and thickening agents from more familiar sources. That could change as food makers look for more sustainable, locally available ingredients.
Policymakers and scientists have tools to keep tabs on ingredients. Regular testing for purity, checking for pesticide residues in imported products, and sharing new study results can help catch issues early. Regulatory agencies could encourage more human studies on lesser-known gums like sesbania. Full ingredient labeling helps consumers know what they’re eating, and public education means people can speak up if they notice an odd reaction.
Most evidence points to sesbania gum as a safe food ingredient, used in moderation. Families, chefs, and food companies still benefit from asking questions about new food additives. Real transparency and ongoing research let everyone eat with a bit more peace of mind.
Anyone who’s worked with water treatment or oil recovery probably knows Sesbania gum’s staying power. Sourced from the seeds of the Sesbania plant, this natural polymer steps into roles where synthetic agents left off. Plenty of industries crank out tough problems around clogging, water loss, and the constant need to bind or thicken materials. It’s surprising how one plant-based product helps fix these headaches without draining resources or budgets.
Crude oil extraction isn’t all high-tech machinery; sometimes it comes down to simple chemistry. Techs in the field often use “polymer flooding” to force more oil from stubborn reserves, but expensive synthetics shrink profit margins. Sesbania gum thickens water injected into wells, making it easier to push oil out of the ground. It holds up well under salty conditions too, which beats out a lot of other natural thickening agents. Using this plant gum saves cash and still gets strong performance in oil recovery. Some operators have reported higher oil yield after swapping out pricier alternatives for Sesbania gum solutions.
A lot of factories release water that’s loaded with grit, dyes, and chemicals. Cleaning it out for safe disposal or reuse chews up time and chemicals. Here’s where Sesbania gum really starts to shine. Tossing it into the mix, even at small doses, binds up suspended solids and drops them out fast. Having worked with smaller municipal treatment plants, I’ve seen first-hand how this single change cut chemical use by almost a quarter. The water coming out is clearer, with lower sludge volume and less need for synthetic chemicals. That spells less cost all around and better results for the environment.
Mining crews know dust is a nightmare — dangerous for lungs and for the nearby land. Adding Sesbania gum to drilling muds and tailings stops the dust in its tracks. Its natural thickening effect locks up fine particles, making disposal and handling far simpler. In my experience working with mining engineers, switching from mineral oil-based thickeners to natural gums improved safety with zero drop-off in performance.
The food industry has its own love for Sesbania gum, but it’s more about texture and shelf life. Processed cheese makers, for example, favor this gum for its thickening punch without an aftertaste. Bakers have seen improved dough consistency after moving away from synthetic binders.
One thing that stands out: cost and sustainability. As prices for petrochemical-based agents rise and environmental rules tighten, Sesbania gum looks more like the obvious choice. The farming footprint for Sesbania is light; it grows in poor soil, takes little fertilizer, and doesn’t hog water. This makes it easier to keep supply steady and prices stable, something I’ve seen matter a lot for bulk users guarding their margins.
Laboratories keep finding new uses, pushing into areas like biodegradable plastics and more advanced oilfield techniques. The big story isn’t just about natural ingredients—it’s about performance that keeps up with modern industry demands. Those who’ve made the switch aren’t looking back, and that says plenty about its real-world value.
Both Sesbania gum and Guar gum come from leguminous plants, but growing up in farming country taught me that not every pod on a vine does the same job. Guar hails from the drought-tough fields of India and Pakistan. Its pods yield galactomannan-rich seeds, commonly ground to powder. Sesbania comes from a faster-growing shrub, often used as green manure or fodder, but the gum it produces is also prized in industry.
Guar gum became popular after food scientists discovered how easily it thickens soups, ice creams, dressings, baked goods, and plenty of other pantry staples. Walk into any bakery or visit the processing plant in my old town, and someone’s probably dumping Guar gum to get just the right texture. It’s recognized as safe, and it doesn’t alter the taste—critical for picky eaters and big brands alike.
Sesbania gum doesn’t show up on food labels as often. It shows up more in oil drilling rigs, textile factories, and paper mills. My uncle used to work in water treatment, and they relied on Sesbania gum to help flocculate, binding suspended particles for easier removal. Its strong water absorption and swelling really shine under these conditions.
The main conversation about these gums often turns to viscosity—or, for folks like my grandma, how “gloopy” something gets. Guar thickens with less product. It brings quick hydration and stable viscosity across a range of temperatures, even in cold water. This makes it reliable for batch recipes and industrial processors who count on consistency. In my home kitchen, too much Guar gum can turn jelly into tire rubber, so precise measurement matters.
Sesbania gum, on the other hand, swells much more quickly, with a higher viscosity at lower concentrations. In oilfields, that quick gelling property helps support minerals and debris moving through the extraction process, saving time and improving efficiency. But toss it in a food recipe, and most cooks would find the texture too dense or even slimy. Regulatory hurdles also keep Sesbania gum mostly out of foods in North America and Europe—its safety record isn’t as robust in this context, which matters for consumer trust.
Drought and commodity shortages hit both gums at different times. Over the last decade, Guar gum prices spiked during fracking booms, since oil and gas wells use huge quantities. That volatility led to research into alternatives—and Sesbania gum stepped onto the stage. For paper and textile manufacturers, Sesbania gum is often more cost-effective, and faster-growing Sesbania shrubs can be cultivated on marginal lands.
Plant-derived gums offer a biodegradable option, and neither Guar nor Sesbania require synthetic chemicals for extraction. This appeals to businesses and customers who care about sustainable choices. On environmental grounds, both plants restore soil fertility through nitrogen-fixing roots, but Guar production has tighter regulations and more audits on farm practices. Sesbania grows like a weed but sometimes needs management to avoid invasive spreading.
Choosing between the two gums usually boils down to the task at hand. If you’re thickening a salad dressing or building a bakery empire, Guar is the veteran workhorse—backed by a long safety record and wide acceptance in global markets. If the need is for drilling, flocculation, or low-cost paper production, Sesbania gum can be a savvy choice. The challenge lies in recognizing the right fit and respecting the unique chemistry each brings to the table—or, for some, to the oil rig.
Anyone working in industries like oil drilling, textiles, or water treatment may run into Sesbania gum sooner or later. This plant-derived powder—made from the seeds of Sesbania—isn’t something you pick up at a local shop or supermarket. Specialty suppliers handle the trade, and they know their stuff because the gum’s use calls for technical knowledge.
A search online will quickly bring up suppliers from India and China, two countries with strong manufacturing bases for plant-based gums. Bulk exporters such as Altrafine Gums, Agro Gums, and Chemindo International top the search results. Their clients range from big businesses using truckloads to researchers needing just a few kilos. It’s common to see minimum order requirements, not least because transportation of powdery, biodegradable goods needs careful packing against moisture.
Reaching out to a supplier usually means filling in an inquiry form or exchanging emails. Many companies avoid listing their prices upfront, since rates can shift with the market, the volume you order, and where the product ends up shipping. Talking directly to a sales agent usually gives you better numbers and clarifies grading options and food or industrial quality distinctions.
The cost of Sesbania gum in 2024 usually lands between $2 and $5 per kilogram for industrial-grade material. Food or pharmaceutical grades can push towards $7 a kilogram or more, especially if the product has certifications like ISO, HACCP, or Kosher. Freight charges add significantly if you source internationally—sea freight saves on costs at the expense of time, while air brings speed and a steeper bill. Keep in mind, global logistics have grown trickier in recent years, adding to both price and lead times.
Let’s say you order 100 kilos for an R&D project. That’s a small batch for most outfits. Suppliers might quote a little higher per kilo—think $6 up to $8 once shipping and small-batch surcharges get factored in. Large manufacturing operations regularly buy in tons, scoring better rates in the range mentioned earlier.
Nothing beats a supplier who backs up their claims with Certificates of Analysis and verifiable testing. Checking a vendor's traceability, reviews, and customer support tells a lot about their credibility. Google rewards businesses with strong backgrounds, up-to-date certificates, and a public-facing team listed on the site. Checking reference customers or scanning for real phone numbers in business listings keeps costly mistakes at bay.
My experience ordering technical materials taught me that paperwork isn’t just red tape—it’s real protection. Demand documentation at every step. Traceable batches, quality certificates, and transparent answers about how the gum is processed make life much easier, especially if the product will end up in food or pharmaceutical settings.
Always clarify your technical needs: viscosity, solubility, intended use. Suppliers expect these questions, and matching your requirements upfront saves both parties headaches later. Consider local distributors if your order is small—they may break down bulk shipments and cut shipping woes.
Asking around in professional networks—or even industry-specific online forums—leads to recommendations and honest, experience-based feedback. Smart buyers learn from others' stories and stay up to date on shifting prices and suppliers’ track records.
| Names | |
| Preferred IUPAC name | Galactomannan |
| Other names |
Sesbania bispinosa gum Sesbania aculeata gum Sesbania seed gum |
| Pronunciation | /ˌsɛzˈbeɪniə ɡʌm/ |
| Preferred IUPAC name | Galactomannan |
| Other names |
Kheri gum Sesbania bispinosa gum Sesbania aculeata gum Sesbania extract |
| Pronunciation | /ˌsɛzˈbeɪniə ɡʌm/ |
| Identifiers | |
| CAS Number | 11078-31-2 |
| Beilstein Reference | 35613 |
| ChEBI | CHEBI:134777 |
| ChEMBL | CHEMBL2176988 |
| ChemSpider | 850219 |
| DrugBank | DB14110 |
| ECHA InfoCard | ECHA InfoCard: 03-2119911804-50-0000 |
| EC Number | 232-554-6 |
| Gmelin Reference | 1165704 |
| KEGG | C10314 |
| MeSH | D018512 |
| PubChem CID | 129717091 |
| RTECS number | SL8575000 |
| UNII | 6W6C8H9D3T |
| UN number | UN3077 |
| CompTox Dashboard (EPA) | Sesbania Gum CompTox Dashboard (EPA) string: **DTXSID5020659** |
| CAS Number | 11078-31-2 |
| Beilstein Reference | Beilstein Reference: 635084 |
| ChEBI | CHEBI:134358 |
| ChEMBL | CHEMBL2171581 |
| ChemSpider | 21106473 |
| DrugBank | DB15745 |
| ECHA InfoCard | ECHA InfoCard: 100940-15-2 |
| EC Number | 232-559-7 |
| Gmelin Reference | 82471 |
| KEGG | C10434 |
| MeSH | D05.750.078.631.885.800 |
| PubChem CID | 25172808 |
| RTECS number | VN6820000 |
| UNII | N1C7C7J2NS |
| UN number | UN 3077 |
| CompTox Dashboard (EPA) | CompTox Dashboard (EPA) of product 'Sesbania Gum': **DTXSID4045056** |
| Properties | |
| Chemical formula | C12H14O12 |
| Molar mass | 200,000–300,000 g/mol |
| Appearance | Light yellowish to brown powder |
| Odor | Characteristic odor |
| Density | 80-90 g/l |
| Solubility in water | Soluble in water |
| log P | log P: -1.2 |
| Acidity (pKa) | Approximately 4.5 |
| Basicity (pKb) | 7.0–9.0 |
| Magnetic susceptibility (χ) | NA |
| Refractive index (nD) | 1.3520 |
| Viscosity | Viscosity: 200-500 cps |
| Dipole moment | 0.00 D |
| Chemical formula | C6H10O5 |
| Molar mass | 802.0 g/mol |
| Appearance | Off white to pale yellow powder |
| Odor | Slightly unpleasant |
| Density | 80 kg/m³ |
| Solubility in water | Soluble in water |
| log P | 2.7 |
| Acidity (pKa) | ~4.5 |
| Basicity (pKb) | 8.2 |
| Refractive index (nD) | 1.3430 |
| Viscosity | Viscosity: 200–500 cps |
| Dipole moment | 1.2 D |
| Pharmacology | |
| ATC code | V06 |
| Hazards | |
| Main hazards | May cause respiratory and skin irritation. |
| GHS labelling | GHS labelling of Sesbania Gum: "Not a hazardous substance or mixture according to the Globally Harmonized System (GHS). |
| Pictograms | GHS07, GHS09 |
| Signal word | Warning |
| Hazard statements | Not a hazardous substance or mixture according to the Globally Harmonized System (GHS). |
| Autoignition temperature | > 350°C |
| Lethal dose or concentration | Lethal dose or concentration: LD₅₀ (oral, rat) > 5000 mg/kg |
| LD50 (median dose) | LD50 (oral, rat) > 16,000 mg/kg |
| NIOSH | SNB |
| PEL (Permissible) | 10 mg/m³ |
| REL (Recommended) | 0.5% |
| Main hazards | May cause respiratory and digestive tract irritation. |
| GHS labelling | GHS labelling: Not a hazardous substance or mixture according to Regulation (EC) No. 1272/2008 (CLP/GHS). |
| Pictograms | GHS07, GHS09 |
| Signal word | Warning |
| Hazard statements | Not a hazardous substance or mixture according to the Globally Harmonized System (GHS) |
| Precautionary statements | Precautionary statements: P261, P305+P351+P338, P304+P340 |
| NFPA 704 (fire diamond) | 1-1-0 |
| Autoignition temperature | 220°C |
| LD50 (median dose) | > 5000 mg/kg (rat, oral) |
| PEL (Permissible) | 10 mg/m³ |
| REL (Recommended) | '6000 mg/kg bw/day' |
| Related compounds | |
| Related compounds |
Guar gum Locust bean gum Tara gum Carboxymethyl cellulose Xanthan gum |
| Related compounds |
Guar gum Locust bean gum Tamarind gum Xanthan gum Carrageenan |