West Ujimqin Banner, Xilingol League, Inner Mongolia, China sales9@foods-additive.com 1531585804@qq.com
Follow us:



Steroidal Saponins: Foundations, Applications, and Future Directions

Historical Development

The story of steroidal saponins began centuries ago, long before modern chemical laboratories. Communities across Asia, Africa, and South America extracted these compounds from plants like dioscorea and fenugreek to treat a range of ailments. Eventually, pharmaceutical researchers noticed that certain plant extracts could turn into hormones—the start of industrial steroid synthesis. By the mid-twentieth century, large-scale production arrived as teams in Mexico isolated diosgenin from wild yams, paving a new road for the synthesis of life-saving corticosteroids and oral contraceptives. The field has never stood still; methods to optimize yield and purity pushed development into mainstream medicine, dietary supplements, and even food science. These roots matter because they reveal not only the depth of human ingenuity but also the value of looking at nature as a source of health solutions.

Product Overview

People find steroidal saponins most often in powder or crystal form, usually extracted from roots, bulbs, or aerial parts of plants like Dioscorea, Smilax, or Trigonella. Manufacturers sell them under names tied to their plant origin or specific chemical backbone: “diosgenin,” “tigogenin,” or just “total saponins.” These compounds bear wide-reaching significance, serving as building blocks for semi-synthesis of hormones, and showing up in immune support blends and sports supplements. On shelves, these products often tout their ability to support cholesterol management and fight inflammation, claims that come not just from marketing but from a deep and growing body of research.

Physical & Chemical Properties

Steroidal saponins come with a distinct bitterness due to their glycoside backbone; that soap-like froth when mixed with water signals their presence. Melt points hover between 200 and 240°C, and solubility trends favor ethanol or methanol over pure water. Chemically, the core structure never strays too far from that of cholesterol—with side chains and sugar moieties determining subtle yet powerful differences in biological behavior. In the lab, these compounds challenge chemists with their stability and their complex stereochemistry. Whenever researchers set out to identify new saponins, a suite of standard characterization techniques follows: NMR, IR, and mass spectrometry, with chromatography providing separation.

Technical Specifications & Labeling

Buyers want to know exactly what they’re ingesting or using for research. Specification sheets highlight purity, often above 98% by HPLC, and provide loss on drying, ash content, and limits on residual solvents or heavy metals. Regulatory guidelines call for clear labeling—Latin and common names, extraction source, percentage of active content, and lot/batch numbers. Manufacturers test for microbial contamination, pesticide residues, and specific activity levels. Some regions demand additional information: allergen status, country of origin, and intended use categories, ensuring accountability from producer to consumer. Having picked up countless supplement bottles and raw material packs over the years, I’ve seen clarity—and confusion—on labels; solid standards cut through marketing noise and put real information within reach.

Preparation Method

Extracting steroidal saponins starts with careful plant harvest, most often focusing on roots at peak biosynthetic activity. Producers dry and mill plant materials, then extract with hot water or aqueous ethanol. After filtration and concentration, they use liquid-liquid extraction with solvents like butanol to separate saponins from non-polar impurities. Additional purification follows, including column chromatography for separating saponin subtypes. Large-scale operations favor cost-effective and environmentally gentle processes, pushing research toward supercritical fluid extraction or enzymatic hydrolysis. Consistent quality demands attention at every step: accurate temperature control, the use of food-grade solvents, and robust waste management to deal with plant residues.

Chemical Reactions & Modifications

Scientists keep looking for better ways to tweak the basic structure of steroidal saponins, aiming for new drugs or bioactive compounds. Hydrolysis strips away sugars, leaving the aglycone ready for further modification. Selective hydrogenation, acetylation, and oxidation adjust chemical behavior, biological activity, or pharmacokinetics. Some teams explore semi-synthetic routes using microbial biotransformation, cutting down harsh reagent use and introducing novel side chains that nature never intended. Companies see commercial payoff in fine-tuning these reactions to get more potent anti-inflammatory, anticancer, or antifungal actions. The biggest discoveries often come from getting hands-on with bench chemistry—tasting failure, then finally separating a single, targeted modification that makes all the difference in biological testing.

Synonyms & Product Names

Steroidal saponins often go by a host of names, reflecting both chemistry and tradition. “Diosgenin” leads the pack for yam-based products, with “protodioscin” and “trillin” not far behind. In herbal medicine, shorthand terms like “yam saponins” or “furostanol glycosides” pop up. Commercial blends may use either the source (e.g., “Fenugreek saponins extract”) or the leading constituent (e.g., “20-hydroxyecdysone supplement”). That tangle of names can trip up buyers and researchers alike, making harmonized naming systems and clear labeling—not just for compliance, but also for safety and effective use—more important than ever.

Safety & Operational Standards

Safety hinges on strict chain-of-custody protocols and clear operational guidelines in every factory and lab working with these compounds. Automated extraction systems reduce exposure risk, and modern air handling keeps powders from becoming inhalation hazards. Operators wear gloves, goggles, and anti-static coats to avoid skin or mucous membrane irritation. Quality assurance steps include batch testing for residual solvents, aflatoxins, and microbial contamination. Food-grade plant sources face extra scrutiny for pesticide residues and heavy metals—oversight that reassures suppliers as well as end consumers. Global standards, including those from the WHO and FDA, expect traceability not just for batch numbers, but for every additive, carrier, or processing aid used throughout production.

Application Area

Steroidal saponins cross boundaries, finding space in medicine, nutrition, veterinary science, agriculture, and cosmetics. Pharmaceuticals take up saponins as starting material for steroids treating inflammation, hormonal disorders, and contraception. Nutritional supplements pitch natural support for testosterone, immune modulation, cholesterol, and blood sugar. Sports nutrition circles like the idea of “natural anabolic boosters,” supported by data on strength and recovery. In agriculture, saponins deter crop pests and act as feed additives promoting animal growth and gut health. Personal care sees their surfactant properties, harnessed in shampoos and skin creams for foaming and emulsification. Each sector brings new research questions—and strings attached—about purity, safety, labeling, and real-world bioactivity.

Research & Development

Laboratories worldwide pour effort into understanding how steroidal saponins interact with life at the cellular and systemic level. Projects span from mapping biosynthetic pathways in wild plants to screening analogs for antitumor potential. Some studies dig deep into how these molecules modulate inflammatory cascades, showing promise in chronic inflammatory diseases. Others chase improvements in the extraction process, using green chemistry to minimize solvent use or energy costs. Global collaboration has become essential—peer-reviewed data from teams in China, India, and Europe break new ground in everything from metabolic engineering to drug delivery systems. Trying out cross-disciplinary projects has taught me that breakthroughs most often flow when pharmacologists, synthetic chemists, and botanists pool their skills.

Toxicity Research

Steroidal saponins carry plenty of biological punch but not without risk. Oral toxicity studies in rodents and larger animals show most compounds have a wide safety margin, yet specific types can damage red blood cells or cause gastrointestinal irritation in high doses. Sensitive groups—children, pregnant women, people with chronic diseases—deserve extra caution due to the lack of long-term human data. Researchers monitor potential allergenicity and possible hormone-disrupting effects, keenly aware that what works in a petri dish may spell trouble in a living body. Calls continue for more rigorous clinical trials and pharmacovigilance once saponin-based products reach consumers, to ensure health benefits far outweigh any real-world risks.

Future Prospects

The future looks busy for steroidal saponins. Increasing demand for “plant-based” active compounds drives innovation in agriculture, green extraction, and product formulation. Advanced genome-editing and synthetic biology shape the next generation of saponin production, shortening cycles from plant to bottle and reducing the environmental footprint. Drug discovery efforts grow bolder, seeking new versions that target cancers, immune disorders, or viral infections at the molecular level. Digital quality tracking and full-supply-chain transparency rise in importance, as consumers want both results and accountability. Keeping an eye on regulatory trends, emerging science, and public demand, the world will keep pushing these remarkable molecules into new and promising frontiers.




What are steroidal saponins and how do they work?

Stepping Into the World of Steroidal Saponins

Steroidal saponins pop up everywhere—roots, leaves, and even seeds of dozens of plants around the world. Yams, fenugreek, and some wild species stockpile them as a part of their inner toolkit. Inside the lab, these compounds grab the attention of scientists working in medicine, agriculture, and food science. Outside in nature, they help plants defend against insects, fungus, and hungry animals. But for us, curiosity rises from the promise of potential health and performance benefits.

How These Molecules Do Their Work

Take a walk through any rural market in China or India and you’ll find herbal remedies with roots rich in these saponins. Their power often links back to the cholesterol-like part of the molecule, known as the steroid nucleus. This sneaky structure lets saponins slide into places regular plant molecules can’t touch—our own cells. The soap-like part of their chemistry helps them mix fats and water, breaking barriers that keep nutrients and drugs from going further inside the body.

Some lab studies show steroidal saponins might lower cholesterol by trapping it before it is absorbed in the gut. Researchers at the University of Montreal tested extracts from fenugreek and reported drops in blood cholesterol in both mice and small groups of people. Other studies hint at anti-inflammatory effects by taming certain immune cells, and even slow cancer cell growth in petri dishes. While those results stoke hope, not enough solid clinical trials prove these promises for everyone yet.

Food, Pharma, and Farm—The Reach of Saponins

Nobody needs a Ph.D. to see why companies try to harness these saponins for supplements. Walk into a health store and it won’t take long to spot tribulus or wild yam capsules with big claims for testosterone, cholesterol, and vitality. On the flipside, powdered saponins slip into natural food preservatives because of their tough action against bacteria and fungi. Folk medicine and family kitchen both lean on these tricks.

Livestock feed sometimes picks up saponin-rich plants to keep parasites in check or boost weight gain. A farm study in Australia fed cattle a blend of yucca and observed fewer bloat episodes and hints of better nutrient uptake. This sort of “feed innovation” can cut costs and trim medicine use—but only in careful doses. Too much and saponins can irritate the gut or mess with red blood cells.

Looking at the Big Picture

Regulation lags behind commercial use. Labels on herbal supplements often stretch far past what science can back up. Consumers, eager for natural cures, sometimes ignore the risks or fall for unsupported claims. Honest education should lead the way—product makers and sellers owe it to everyone to show clear sourcing, composition, and true effects, not just marketing fluff.

Healthcare could build more studies around real-world use: not just in petri dishes or on lab rats, but with people from different countries and backgrounds who actually use these products every day. The wisdom of generations guides a lot of herbal use, yet rigorous trials fill in the blanks and warn about real dangers. Until then, a cautious approach works best. Adding more plants sounds appealing, but putting the hype ahead of the facts sells everyone short.

Steroidal saponins bring a lot to the table: protection for crops, hope for medicine, ways to manage animal health. The challenge lies in peeling back marketing layers and working out the honest value these compounds bring to our lives.

What are the health benefits of using steroidal saponins?

Breaking Down Steroidal Saponins

These plant-based compounds have gained attention for their role in supporting wellness. Steroidal saponins naturally occur in a range of edible plants, with notable concentrations in asparagus, fenugreek, and wild yam. Anyone interested in nutrition or herbal remedies has probably come across supplements or extracts advertising these active ingredients for a reason.

Traditional Use Meets Modern Interest

Asian and Indigenous herbal medicine has relied on wild yam and fenugreek for generations. Contemporary research points to their potential, too. Testosterone support, cholesterol reduction, and anti-inflammatory properties headline the reasons people look deeper. Rather than mystical claims, many effects come down to molecular-level interaction. For instance, steroidal saponins can serve as precursors to hormones produced in the body, which may play a role in maintaining balance, especially in middle age or later.

Beyond Muscle: Support for Cholesterol and Blood Sugar

A well-cited review published in "Phytochemistry Reviews" points to diosgenin, a major component in wild yams, for its ability to influence cholesterol metabolism. Small-scale clinical studies show that populations consuming saponin-rich foods experience reduced LDL, or "bad cholesterol." Think of traditional diets high in legumes and particular vegetables, which often correlate with better cardiovascular markers. Fenugreek, for example, can help improve blood sugar control, according to a 2017 systemic review in the "Journal of Ethnopharmacology." Researchers think saponins slow glucose absorption, which matters for people managing insulin sensitivity or metabolic risk.

Possible Immune Benefits

The body’s immune response relies on many signals from bioactive molecules. Some evidence indicates steroidal saponins support immune defense. Animal studies from recent years demonstrate increased activity of white blood cells when these compounds are present, which researchers track as a marker of effective immune surveillance. Nobody suggests tossing out mainstream medicine, but these studies bring up promising angles for further study, especially for people who embrace a holistic approach.

Inflammation and Recovery

Swelling and discomfort play into so many modern health complaints. I remember trying out wild yam supplements during marathon training; any extra help with muscle soreness felt welcome. Saponins can reduce production of pro-inflammatory cytokines, at least in cell and animal models. Real-world results vary, but conversations with sports dietitians and other athletes suggest these plant elements offer measurable recovery benefits.

Considerations and Responsible Use

Supplements promising big results flood the internet. Critical thinking applies here as with any wellness trend. Most large-scale human trials remain in the early stages. Saponins act as agents rather than magic bullets. Diets rich in variety—legumes, vegetables, herbs—deliver the benefits in the safest way. Anyone with hormone-related medical conditions or taking medications should talk with a health professional before experimenting. Ongoing research will show whether concentrated extracts deserve their place in the toolkit or just a spot on the supplement shelf.

A Look to the Future

Plant science keeps uncovering new compounds with old roots. Steroidal saponins offer a fascinating link between tradition and emerging health solutions. Focusing on whole foods and up-to-date research grounds enthusiasm in evidence and personal well-being.

Are there any side effects or risks associated with steroidal saponin products?

Steroidal Saponins: Hype Versus Health

Health trends often latch onto substances pulled from nature’s playbook, but not every natural compound comes free from strings. Steroidal saponins, found in plants like fenugreek, yams, and tribulus terrestris, have established a reputation in supplements promising everything from boosted libido to muscle growth and reduced cholesterol. So with shelves loaded with these products, it’s easy to overlook that even plant-based extras can carry real risks.

Digestion and Absorption Issues

My first brush with steroidal saponins came through a supplement during a period when I searched for an energy edge. Within a few days, stomach cramps and indigestion painted a clear picture: the body doesn't always embrace these compounds kindly. Research backs up this experience. Saponins act as natural detergents, which means they interact directly with cell membranes, not only in experimental test tubes but also in the lining of your gut. Some users report bloating, diarrhea, and nausea, and a handful of studies have pointed to disruptions in gut flora—the tiny community of microbes we rely on for everything from immunity to mood.

Potential for Hormonal Disturbance

Marketers shout about saponins’ impact on hormone levels, especially testosterone. What often gets left out: One person’s gains can spell trouble for another. By altering endogenous steroid production, steroidal saponins may toss delicate hormone balances out of sync. For some, this leads to acne or oily skin; for others, longer exposures may tinker with menstrual cycles or libido in unpredictable ways. Scientific journal reviews on fenugreek and tribulus highlight cases where saponin use correlated with unusual hormone test results, though not always a straight line to positive outcomes.

Allergic Reactions and Toxicity Risks

Natural doesn’t mean harmless. Some people may develop hives, itching, or breathing trouble after taking these plant extracts, particularly if they already have allergies to legumes or similar plant families. High doses don’t crank up benefits; they magnify harm—animal studies highlight cell membrane damage in red blood cells, which in theory raises concerns about anemia or kidney load in humans consuming excessive amounts. The supplement industry doesn’t require strict dosing guidelines, so one product can differ wildly from the next.

Drug Interactions and Vulnerable Populations

Steroidal saponin products may behave unpredictably alongside other medications. For instance, saponins can lower blood pressure, which becomes a bigger issue if combined with antihypertensive drugs. Those already taking prescription medicines for diabetes, heart conditions, or psychiatric concerns face an extra layer of uncertainty. Studies in older adults and kids are basically nonexistent, making claims of “total safety” for the general population pretty shaky.

What Real Safety Looks Like

Trust grows with transparency. Look for research studies in reputable journals, not just marketing claims. Doctors and dietitians can help sort the evidence and judge what matters for your needs. Well-designed human trials matter far more than anecdotal stories or trendy ingredient lists. If someone does try a supplement, starting at a low dose and tracking for strange reactions feels smarter than crossing fingers and hoping for the best.

Building a Safer Supplement Culture

Health and wellness marketing often sells hope without the whole story. Advocacy groups and health professionals need better reporting for adverse side effects and clearer ingredient sourcing. Government oversight, stricter labeling, and requiring disclosure of testing results would make it easier for everyone to make more informed choices. Until that happens, reading small print and seeking advice before popping any pill or powder offers the best chance at staying healthy for the long haul.

How should steroidal saponins be taken or dosed for best results?

Getting to Know Steroidal Saponins

Steroidal saponins show up in foods like yucca, fenugreek, and wild yam. Over the years, these compounds gained interest in both traditional remedies and modern supplements. Under the microscope, steroidal saponins come packed with a core structure resembling certain hormones, which catches the eye of athletes, herbalists, and the wellness crowd.

Why the Hype?

Plenty of folks talk up steroidal saponins for their links to hormone balance and energy levels. Some studies reference gym-goers who point to improved vitality after consistent use. Research in journals like Phytochemistry and Journal of Medicinal Food suggests that these compounds could support anti-inflammatory processes and may assist with cholesterol management. But reality check: many claims still wait for rock-solid, long-term human studies.

Dosage: What Really Matters

Saponins don’t follow a one-size-fits-all template. Each body handles them differently. Standard supplement bottles often suggest anywhere from 200 mg to 600 mg daily. In my experience covering plant-based wellness, I’ve met nutritionists who urge starting on the low end—usually around 100 mg—before slowly moving up as tolerance develops. It’s not always about big numbers. Sometimes, the best response comes from tuning in to the body’s feedback.

These days, some supplement brands blend saponins into multi-ingredient formulas, hoping for a synergy effect. That can muddy the water, making it tough to know exactly how much you’re getting. Checking lab test results or choosing a product from a transparent maker makes a real difference. Websites with US Pharmacopeia (USP) or NSF certification carry more weight in my view.

Taking Saponins: With Food or Alone?

Some plants can hit the stomach hard if swallowed alone. Steroidal saponins come with a bitter punch. Many herbalists, and I’ve found this true myself, suggest taking these supplements after a meal to avoid stomach upset. Eating healthy fats alongside them—say, a spoonful of olive oil or avocado—can help with absorption. Plant experts say that fats enable saponins to slip through the digestive tract more efficiently, bringing out their potential.

Who Should Think Twice?

Health isn’t just about what we add, but also when to hold off. Folks with digestive troubles, autoimmune issues, or hormone-sensitive conditions often benefit from a doctor’s advice before adding any new supplement. Pregnant and breastfeeding women should tread carefully; strong natural chemicals rarely mix well with delicate life stages. Pediatric use lacks meaningful evidence, so erring on the side of caution makes the most sense.

Honest Talk About Safety

No single dose proves perfect for every user. In small amounts, saponins from tradition-focused diets have shown low risk. Higher amounts produce side effects in some people—things like nausea or diarrhea. I’ve heard from both herbalists and regular supplement users: always pull back at the first sign of discomfort.

A Smarter Approach

Rather than chasing trends, working with a credentialed dietitian or healthcare provider builds real trust. Doctors and registered dietitians keep up with new studies and understand underlying health conditions. In my work with nutrition coaches, often the best results come from personalized plans—not just grabbing what looks good off a shelf.

Can steroidal saponins interact with medications or other supplements?

Mixing Nature with Modern Medicine

Lots of folks lean on natural products, herbs, and superfoods to boost health. Steroidal saponins—a group found in plants like fenugreek, yam, and ginseng—get plenty of attention. Their promise ranges from cutting cholesterol to feeling more energetic. It’s easy to believe ‘natural’ means ‘safe.’ Stories and marketing point to centuries of use, but experience and research say otherwise: nature can surprise us, especially when mixed with prescription drugs or other supplements.

How Things Can Go Wrong

Saponins look harmless on the surface. They’re everywhere in traditional diets. Still, I’ve seen friends running into trouble after chasing endurance or muscle-boosting claims, especially when also taking medicines for blood pressure or diabetes. These compounds don’t just pass through the body unnoticed. Some change the way our guts absorb not only them but also other compounds, including serious medications.

Real evidence exists outside of anecdotes. Saponins can mess with P-glycoprotein, a protein gatekeeper lining the gut and brain, shuttling drugs in or out of cells. Some prescription drugs for heart issues or infections count on P-glycoprotein to reach safe levels. Toss saponins in the mix, and the body could get too much or too little of the drug. Blood thinner levels, for example, can get out of balance, leading to dangerous bleeding or clots.

The Science Has Gaps, But Risks Are Real

Research does not cover every plant, every saponin, or every combo out there. Still, studies on ginseng—packed with steroidal saponins—have flagged increased bleeding for those on warfarin, and poor blood sugar control for people taking diabetes drugs alongside. Fenugreek can boost the effect of some antidiabetic meds, dropping blood sugar too low. These aren’t rare side effects in labs—they happen to people living everyday lives.

Combining saponin-rich supplements with other herbal products doesn’t cancel out the risks. Herbs like St. John’s wort or garlic add their own interactions, and layering these can spiral into something serious. Many interactions only show up after weeks of use, too, making it easy to miss the early signs.

Real-World Steps for Safety

Doctors and pharmacists worry less about whether a product comes from a chemical plant or a green field. What matters is what it does once swallowed. Open conversations help catch problems before they start. For me, coming clean about every vitamin, tea, and supplement I take has helped dodge a few close calls. Skipping the embarrassment is worth it.

Clear labeling and more research would make life easier. Still, responsibility doesn't rest on the experts alone. Reading package inserts, fact sheets, or consulting the National Institutes of Health’s dietary supplement database can alert anyone to risky combos. Skipping unknown brands, mega-doses, or taking multiple new supplements at once helps keep things on track.

Health and safety win out when we respect that ‘natural’ still counts as ‘active.’ Mixing plant compounds and medications isn’t always simple, but the extra effort pays off in staying well.

Steroidal Saponins
Names
Preferred IUPAC name spirostane-3-yl β-D-glucopyranoside
Other names Saponins, Steroidal
Steroidal glycosides
Spirostane saponins
Furostane saponins
Pronunciation /ˈstɛr.ɔɪ.dəl ˈsæp.ə.nɪnz/
Preferred IUPAC name steroidal glycosides
Other names Diosgenin saponins
Sapogenins glycosides
Sterol glycosides
Furostanol saponins
Spirostanol saponins
Pronunciation /ˈstɛr.ɔɪ.dəl ˈsæp.ə.nɪnz/
Identifiers
CAS Number 126-19-2
Beilstein Reference 3580486
ChEBI CHEBI:76235
ChEMBL CHEMBL2364675
DrugBank DB02807
ECHA InfoCard 06df7cec-df18-45f2-8852-7d1c1346f998
EC Number 9005-19-2
Gmelin Reference 54420
KEGG C00586
MeSH D013255
PubChem CID 162185
RTECS number WKJ5J7G3ZE
UNII 8D08HA1CZ7
UN number UN3272
CAS Number 8047-15-2
Beilstein Reference 3527733
ChEBI CHEBI:76263
ChEMBL CHEMBL2104277
ChemSpider 10316228
DrugBank DB01668
ECHA InfoCard echa-info-card-100.129.273
EC Number 231-306-8
Gmelin Reference 59250
KEGG C01569
MeSH D013256
PubChem CID 119544
RTECS number WKU7000000
UNII ZG6R7C2L7E
UN number UN2811
Properties
Chemical formula C27H44O3
Molar mass Variable
Appearance White powder
Odor Odorless
Density 1.030 g/cm³
Solubility in water Slightly soluble in water
log P 2.92
Basicity (pKb) 6.07
Refractive index (nD) 1.615
Dipole moment 3.98 D
Chemical formula C27H44O3
Molar mass Variable
Appearance White or off-white powder
Odor Odorless
Density 0.98 g/cm³
Solubility in water Slightly soluble in water
log P 1.92
Acidity (pKa) 4.5
Basicity (pKb) 6.88
Refractive index (nD) 1.610
Dipole moment 4.2 ± 0.6 D
Pharmacology
ATC code A14AA11
ATC code A14AA11
Hazards
Main hazards May cause eye, skin, and respiratory tract irritation.
GHS labelling GHS07, GHS08
Pictograms GHS07,GHS09
Signal word Warning
Hazard statements H302: Harmful if swallowed. H315: Causes skin irritation. H319: Causes serious eye irritation. H335: May cause respiratory irritation.
Precautionary statements P264, P270, P273, P301+P312, P330, P501
NFPA 704 (fire diamond) NFPA 704: 1-0-0
Lethal dose or concentration LD₅₀ oral rat >2000 mg/kg
LD50 (median dose) LD50 (median dose): >12 g/kg (mouse, oral)
NIOSH Not Assigned
PEL (Permissible) Not Established
REL (Recommended) 0.1 mg/m³
Main hazards May cause irritation to the respiratory tract, skin, and eyes; harmful if swallowed.
GHS labelling GHS07, GHS08
Pictograms GHS07,GHS09
Signal word Warning
Hazard statements Hazard statements: "Causes skin irritation. Causes serious eye irritation.
Precautionary statements P264, P270, P301+P312, P330, P501
NFPA 704 (fire diamond) 1-0-0-🛑
Lethal dose or concentration LD₅₀ (mouse, oral) > 1 g/kg
LD50 (median dose) >5000 mg/kg (rat, oral)
NIOSH
PEL (Permissible) PEL (Permissible) of Steroidal Saponins: Not established
REL (Recommended) No REL established
IDLH (Immediate danger) Not established
Related compounds
Related compounds Polyhydroxysteroid Glycosides
Spirostane Saponins
Furostane Saponins
Sapogenins
Cardiac Glycosides
Triterpenoid Saponins
Related compounds Spirostanol saponins
Furostanol saponins
Cholestanol saponins
Sapogenins
Glycosides
Triterpenoid saponins