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Lipase: Historical Roots, Scientific Insights, and Future Horizons

Historical Development

Stories of enzymes like lipase reach back well over a hundred years. In the late 1800s, chemists started asking why butter could go rancid and why milk could separate into cream and whey. As laboratories experimented with digestion outside the body, lipases showed up as the power behind chemical transformation. Researchers soon realized these natural proteins could break down fats with impressive precision, shaping not only the earliest medicines for digestive disorders but also helping bakers and soap makers find new recipes. Over the decades, the picture only sharpened. The age of industrial biology pushed for faster, bigger, cleaner production, and lipase kept pace. Companies managed to pull lipase straight from animal glands, then refined methods to source it from plants, microbes, and genetically tweaked organisms. Progress in biotechnology meant more lipase for less money, crisper control over quality, and a bigger role everywhere from food to pharmaceuticals.

Product Overview

Lipase stands out as one of the busiest enzymes in both biology and industry. It digests fats in the human gut, drives biofuel production, and scrubs stains for detergent makers. These enzymes usually arrive as off-white to pale powder, liquid concentrate, or granules. For industry, strength matters—commercial lipase often boasts high activity, standardized by units per milligram or milliliter. Manufacturers pick the origin, whether it’s a pig’s pancreas, a fungus like Rhizopus, or bacteria such as Bacillus species, based on what the final product needs to do. Most industrial lipase skips animal sources, using safer microbial fermentation to steer clear of allergens, disease risk, or religious restrictions.

Physical & Chemical Properties

As a protein, lipase reacts to its surroundings. Temperature and pH swing its shape, changing how it performs. The molecular weight usually falls around 30,000 to 60,000 daltons. High-purity lipase appears almost white, dissolves easily in water, but loses function if stored wrong. Heat above 50°C often knocks it out, so cold chains matter from lab to factory floor. Lipase acts best at slightly alkaline pH, matching the small intestine’s environment. Each source gives rise to slight changes in stability, but all can hydrolyze triglycerides into fatty acids and glycerol. Salts, solvents, and other additives tip the balance between maximum activity and shelf life, so producers always weigh composition with care.

Technical Specifications & Labeling

Legitimate suppliers post clear details on their lipase. Labeling covers source organism, activity units, purity percentage, optimal conditions for temperature and pH, physical form, and intended application (food use, pharmacy, diagnostics). Labels usually provide CAS number, lot code, and expiry date. Top producers submit to global oversight, meeting ISO, FDA, EU, or JECFA standards. Certificates of analysis confirm each batch’s reliability. Allergen risk, contaminant profile, and animal-origin-free status don’t just boost consumer trust—they also handle strict export demands.

Preparation Method

Today's factories rarely collect lipase from animal organs. Instead, they rely on microbial fermentation, often with yeast or special bacteria selected for safety and efficiency. Producers start with a clean, nutrient-rich broth, inoculate it with their chosen microbe, and let it grow under tight control. As these organisms multiply, they churn out lipase. Engineers then filter, purify, and sometimes immobilize the enzyme to fit each application. Some purification combines ultrafiltration with chromatography for cleaner batches, while spray drying or freeze drying ensures the powder retains its punch. Each tweak in production raises or lowers yield, purity, or shelf life. This level of control beats older methods in every measurable way, making industrial lipase safer and more affordable than the organ-derived product once sold to pharmacies.

Chemical Reactions & Modifications

Lipase works by breaking the bonds that connect fatty acids to glycerol in triglycerides. This function makes it a vital tool in moving fats around, from digesting ice cream in the gut to building flavors in cheese and yogurt. In industry, its acyltransferase activity means lipase can swap fatty acid positions, create structured lipids, and tailor oils to nutritional targets. Scientists learned to tweak these enzymes by attaching sugars or polyethylene glycol, stretching shelf life and tuning them for harsh settings. Immobilized lipase, stuck to beads or membranes, outlasts soluble forms and allows for cleaner product streams in continuous operations. Researchers push the boundaries further by designing mutant proteins that resist heat or solvents, opening new use cases in biofuel reactors and synthetic labs.

Synonyms & Product Names

Look for lipase under a handful of names depending on where and why it’s sold. In food and feed, the label might read “triacylglycerol hydrolase” or “pancreatic extract.” In detergent or biotech circles, brand names like Lipozyme, Novozyme, or Lipolase show up often. Scientific shorthand includes EC 3.1.1.3, the enzyme’s international code. Packaging in supermarkets lists it as “enzyme preparation” or “microbial enzyme” when added to cheese, baked goods, or flavorings. Whatever the title, manufacturers closely protect formulation details and origin strains as competitive secrets.

Safety & Operational Standards

Facilities that work with lipase follow strict rules to keep staff, products, and users safe. Operators must avoid inhaling dust or mist, as repeated exposure can spark allergies or even asthma, especially in factory settings. Producers train workers to use gloves, goggles, and ventilators. Regulatory bodies like OSHA, EFSA, and the FDA spell out required labeling, production standards, and safe exposure levels. Environmental protection also comes into play—wastewater from production carries organic load and sometimes needs extra treatment before release. In pharmaceuticals and foods, the enzyme’s microbial origins require cleanrooms, validated sterilization, and triple checks for unwanted bacterial or fungal toxins.

Application Area

Lipase cuts a wide path through every major biochemical and industrial field. For food makers, it lets bakers improve crumb structure and helps dairy experts craft everything from blue cheese to low-fat yogurt. Processed-food companies rely on it for flavor enhancement and shelf-life extension. In the feed industry, lipase boosts nutrient absorption—key for reducing costs and environmental load in animal farming. Pharmaceutical companies include digestive lipase in enzyme-replacement therapies, especially for people with cystic fibrosis or pancreatic disease. Clinical labs test for lipase as a marker in pancreatitis. Beyond food and pharma, chemical firms use the enzyme to make biodiesel through transesterification and personalize fats in nutrition products. In detergents, it eats up greasy stains with minimal energy, lowering wash temperatures and cutting utility bills for consumers.

Research & Development

The race to build better lipase never slows. Academic laboratories and industrial R&D hubs look for enzymes that run faster, survive longer, and cost less. Scientists peer into the atomic structure of lipase using X-ray crystallography, then rework its genes with site-directed mutagenesis. Some teams engineer entire microbes to over-produce the enzyme using high-cell-density fermentation. Industry partners track down wild strains from soils or cold oceans, chasing properties like cold activity or solvent resistance. Big challenges involve scaling up production to meet global demand, ensuring food and drug safety, and reducing the use of animal-derived ingredients. Partnerships between biotech firms and universities speed the path to market. Some projects even look to green solvents or zero-waste purification models to improve the sustainability of every batch.

Toxicity Research

Questions about enzyme safety push toxicologists to set tight boundaries. Studies across Europe, North America, and Asia run battery after battery of tests—acute toxicity, allergenicity, and mutagenicity. For most people, dietary lipase causes no problem; the body encounters similar enzymes with every meal. Inhalation exposure remains the real concern, especially among factory workers. Regulatory bodies track reports of sensitization, accidental spills, and possible cross-reactions in the skin or lung, but well-managed facilities keep incidents rare. Genetically engineered versions undergo even closer scrutiny. No credible evidence links commercially produced microbial lipase to cancer or long-term toxicity. Allergic risk, mainly occupational, remains the top target for ongoing research and improved training across the industry.

Future Prospects

Lipase has a future shaped by big questions—climate change, population growth, shifting diets, and cleaner chemistry. As demand for vegan and allergen-free foods climbs, industry will need bio-designed lipases that sidestep all animal products. Genetic tweaking opens options for made-to-order enzymes tuned to the exact needs of nutraceuticals, green fuels, or medical diagnostics. In my work testing novel feed additives, these advances slashed costs and kept animal health front and center. Environmental impact sits at the top of future priorities, steering engineers to use renewable feedstocks, recycle water, and cut carbon output during production. Continuous advances in AI-guided protein design promise new forms of lipase that cut deep into today’s industrial bottlenecks. In a world running low on patience for waste, this kind of agile enzyme science will keep changing how industries run for decades to come.




What is Lipase used for?

Making Sense of a Key Enzyme

Lipase turns up in more places than most folks notice. At its core, this enzyme helps break down fats into smaller molecules the body can absorb easily. A lot of people hear about it in the context of digestion, but it shows up in industries as different as food, medicine, and even biofuels. The science behind lipase proves both elegant and practical. In daily life, this means it quietly supports nutrition, industry, and sometimes even life-saving treatments.

Food and Nutrition

Talking to nutritionists over the years has helped me see just how vital fat digestion is for good health. Lipase comes into play in products like cheese and yogurt. Cheese makers use lipase to develop those rich, deep flavors people crave in aged cheeses. Some bakers add it to bread dough for better texture. Lipase doesn’t just work behind the scenes; it helps build taste and texture people notice.

Lactose-intolerant folks or anyone with digestion issues sometimes get prescribed enzyme supplements. Lipase helps the body process fatty foods without discomfort. There’s real value here—relief from stomach pain, bloating, and nutrient deficiencies that can result when fats aren’t broken down correctly.

Healthcare and Diagnostics

Hospitals test for lipase in blood samples to help diagnose pancreatitis and other gut disorders. As someone who has watched friends anxiously wait for lab results, I know how powerful an accurate test can be. People depend on labs for answers, and lipase tests give doctors another tool for making sense of gut pain or unexplained weight loss. Reliable information leads to treatment that might give someone back their appetite or simply peace of mind.

Some medications use lipase, too, especially those meant for people whose bodies don’t make enough naturally. Cystic fibrosis patients spring to mind—their pancreases often need help digesting food, and enzyme capsules, including lipase, make normal meals possible.

Industrial and Environmental Uses

Factories have their own reasons for turning to this enzyme. Detergent makers recognize lipase for its fat-busting skills—modern laundry detergents often rely on it to shift greasy stains from clothes. This approach reduces the need for harsh chemicals, which makes a difference for people sensitive to typical cleaning agents and helps lower the load on wastewater systems.

Environmental researchers use lipase to break down greasy wastes in water treatment plants. Old fats and oils in wastewater clog pipes and pollute local streams. Lipase can turn an unruly mess into something manageable, which benefits both city infrastructure and natural habitats. Some innovators are also looking at lipase for biofuels, since it can help convert cooking oil waste into usable energy.

Challenges and Looking Ahead

Every breakthrough brings new puzzles. Sometimes, industrial use of enzymes like lipase sparks debates about allergies or ecological side effects. Regulations keep a close eye on these applications, hoping to catch any trouble before it grows. Sourcing reliable, sustainable enzymes without hiking up costs is the next hurdle. Synthetic biology offers some promise—researchers tweak microorganisms to churn out lipase efficiently, trying to balance supply and ethics.

Lipase isn’t just another buzzword coming out of science labs. Its impact ripples from the family kitchen to far-flung factories. The enzyme marks a spot where tradition meets technology, and its uses keep growing as researchers, companies, and doctors learn more about how it can help.

How should Lipase be taken?

Understanding Lipase Supplements

Lipase plays a key role in breaking down fats during digestion. Some people turn to lipase supplements when their bodies don’t make enough, often due to conditions like pancreatic insufficiency or cystic fibrosis. I remember sitting with a friend at lunch who had to dig out a tiny capsule before taking a bite of her sandwich. It made me realize how much timing matters when dealing with fat digestion.

Partnering Lipase With Meals

To get the most from a lipase supplement, many doctors recommend taking it right before or during meals that contain fat. Think of it like giving your body a tool right as the job starts. Taking lipase on an empty stomach won’t do much for fat you haven’t eaten yet. On the other hand, if you miss the window and take it after finishing your meal, you’re leaving some of the work on the table, and that can leave you feeling bloated or uncomfortable.

Guidelines often point out that the capsule or tablet should go down with the first bite of food, not several minutes later. The timing helps the enzyme mix with food in the stomach, helping break down fat right from the start of digestion.

Eating and Dosage: Finding Balance

Dosing can seem confusing. It usually depends on the amount of fat in your meal, your age, and the reason you need the supplement. A gastroenterologist once told me patients who skimp on fat to avoid symptoms often end up poorly nourished. Instead, matching the lipase dose to your meal allows a person to eat a more varied diet. Too much lowers the risk of getting it wrong, but unused lipase wastes money and effort. Too little, and fat slips through undigested, bringing cramps or fatty stools.

Doctors suggest that counting grams of fat for every meal helps fine-tune the amount needed. A standard dose for prescription pancreatic enzyme products starts around 500-2,500 units of lipase per kilogram of body weight spread throughout the day. It sounds clinical, but it comes down to practice and paying attention to how you feel after you eat.

What Gets in the Way

Stomach acid can chew up enzymes before they do their job. Many lipase capsules get a special coating so the active ingredient makes it to your intestines, where fat digestion truly kicks off. Avoid chewing or crushing these capsules, since breaking them apart strips away their protection. Swallow them with water, not hot drinks, so you don’t melt away the coating.

Certain medications, like antacids or proton pump inhibitors, change stomach acidity and can affect how well lipase works. Bring this up during doctor visits, especially if you notice changes in digestion or stool. Nausea, diarrhea, or oily stools can mean a mismatch in enzyme needs or an issue with how you take them.

Why It Matters

Missing out on fat digestion robs your body of important nutrients and can sap energy over time. Malabsorption doesn’t just mean inconvenience; persistent symptoms can lead to deficiency in vitamins like A, D, E, and K. Fewer people talk about the social side, but spending meals worried about digestion wears down your enjoyment of food. Support from a dietitian with real-world experience, not just lab numbers, helps people find a routine that fits life, not just a prescription.

Are there any side effects of Lipase?

Understanding Lipase Use

Doctors and nutritionists often talk about enzymes like lipase, especially for people with trouble digesting fats. Lipase breaks down fats, which the pancreas usually handles. Some people take lipase as a supplement, hoping to improve digestion or, in rare cases, because their pancreas just can’t keep up. These supplements often come from pigs or microbial fermentation, so concerns about safety are valid. Transparency about sources and the conditions requiring lipase goes a long way in building trust.

Common Side Effects

People taking lipase can experience a few common side effects. Stomach pain shows up in some users, especially if they exceed the suggested dose. Gas or bloating might follow, leaving folks uncomfortable. Nausea can turn up as well, which sometimes makes the experience worse than the original digestive problem. I’ve known people who thought “natural” meant totally risk-free, but human bodies react in all sorts of ways.

Allergic reactions cause concern with any animal-derived product. Red, itchy skin, swelling of the lips or throat, or trouble breathing demand medical attention. These reactions stay rare, yet they deserve mention since ignoring early warning signs can end badly. Doctors and pharmacists watch for allergies linked to pork or fungal sources because some folks don’t always connect those dots.

More Serious Side Effects and Risks

Big risks grow for people who ignore medical advice or use lipase without real need. High doses can lead to colon damage, especially in kids with cystic fibrosis, who take pancreatic enzymes long-term. This isn’t a point for scare tactics—most adults using normal amounts won’t face this outcome. Still, anyone taking lipase for more than a few days deserves to check in with a healthcare provider. Self-prescribing opens up unnecessary risk, particularly for people with chronic conditions.

Cross-reactions matter, too. Lipase interacts with antacids or certain iron supplements, sometimes lowering its effect. I’ve seen cases where folks added new supplements without realizing their prescription medication stopped working right. Doctors can run a double-check before starting another pill, which prevents problems down the road. Ironically, taking what seems like a harmless digestion fix sometimes blocks other treatments entirely.

Facts People Should Know

Most side effects clear up once people stop taking lipase. Risks climb if someone already has a gut disorder or another underlying health issue. It always helps to look for enzyme supplements certified for quality and purity, since contamination could introduce toxins or allergens that people weren’t expecting.

Research backs up lipase’s benefits for people with pancreatic issues or cystic fibrosis. Still, unnecessary use leads to side effects that could have been avoided. Following science and medical guidance keeps supplements helpful, not harmful. The Food and Drug Administration only regulates prescription versions, so store-bought supplements don’t always match up to advertised content. Checking labels and buying from reputable sources isn’t just a good idea—it’s essential.

What Helps Prevent Problems

Doctors encourage starting with a low dose and slowly increasing, which helps spot trouble early. People should keep track of any new symptoms, especially digestive changes. Staying in touch with a healthcare provider resolves problems quickly before they get worse. Good advice and transparency about health status go further than guessing based on internet reviews or marketing claims.

Can Lipase be taken with other medications?

Lipase and Daily Routines

Anybody who’s taken digestive enzymes like lipase understands how they can smooth out a meal, especially after a heavy plate of pasta or fried food. For folks living with pancreatic issues or chronic digestive trouble, popping a lipase supplement has become pretty normal. Concerns start to pop up when prescriptions or over-the-counter pills stack up on the kitchen counter, and there’s real uncertainty about mixing them together.

Interactions Exist—But Depend on Your Medicine Cabinet

No two people fill their weekly pill organizers with the same set of meds, but some trends jump out. Proton pump inhibitors, antacids, diabetes drugs, and blood thinners top the list for plenty of adults. Most basic digestive enzymes—including lipase—usually break down fats and pass through the gut without major drama. But these are not candy, and their journey through your stomach and intestines can bump into roadblocks with other meds.

Health experts flag the use of lipase for folks taking acarbose, a drug for diabetes management. Acarbose slows down carbohydrate digestion, while lipase speeds up fat digestion—so the two can step on each other’s toes in the gut. Blood thinners like warfarin can complicate the picture. There’s some science out there suggesting that big changes in digestion—think suddenly absorbing way more fat—can cause swings in vitamin K levels, which relates to how blood thinners work. A pharmacist once told me, “Better safe than sorry—always check,” echoing the golden rule of pharmacy.

Your Doctor Thinks Big Picture—So Should You

Plenty of people try to self-regulate or guess based on what feels right, but even the best home research has blind spots. Medical teams track not just current medications, but also how your body absorbs them. Fat-soluble meds or those with narrow dosing windows—anti-seizure medicines or HIV antivirals, for example—turn into a bigger headache if something messes with absorption. One nurse described a situation where a patient’s anti-seizure medication became less effective after starting a digestive enzyme. The two didn’t seem related until a careful review of their history.

Practical Steps for People Managing Multiple Medications

Healthcare shouldn’t feel like walking on eggshells, but it calls for some attention to detail. The best move is lining up everything you’re taking, from prescription meds to herbal teas, and bringing that list to your next doctor’s appointment. Ask simple questions: “Does lipase mess with anything I’m taking?” and “Should I separate my doses?” Sometimes, separating medicines by a few hours makes a world of difference, and sometimes the combination works just fine.

It pays to stay aware of side effects or warning signs. If you notice new symptoms such as stomach cramps, changes in blood sugar, or bleeding, flag that for your health provider. Don’t stop any medicine without guidance—even if you worry about an interaction.

Sticking to What Works for You

No one wants their supplement to undo the hard work of a necessary medication. Real confidence comes from open conversations with pharmacists or doctors. Trusted sources, such as the Mayo Clinic and National Institutes of Health, offer reliable info. In a world of crowded medicine cabinets and endless options, a bit of expert insight helps avoid nasty surprises.

Who should not use Lipase?

Understanding Lipase and Who Needs to Be Careful

Lipase breaks down fats. Doctors sometimes prescribe it for people with digestive problems, especially when the pancreas doesn’t release enough digestive enzymes on its own. It sounds like a pretty focused fix, and for lots of folks, it really helps. But some situations call for caution.

Allergies and Ingredient Sensitivities

Anyone with a history of allergies to pork, because some lipase supplements use ingredients from pig pancreas, needs to double-check labels. I remember helping my cousin decipher supplement ingredients back in college—if you don’t know what’s in your supplement, you can be in for a nasty surprise. Switching to microbial or plant-based versions sometimes makes sense, but guidance from a healthcare provider matters here.

People With Acute Pancreatitis

Taking lipase during a severe case of pancreatic inflammation can worsen things. The digestive process itself gets risky since the pancreas needs rest. Doctors aim to manage pain, hydrate, and avoid pushing the pancreas too hard. I once sat with a neighbor worried about what foods or supplements would help her brother, who was laid up with pancreatitis. Our family doctor made it clear: let the pancreas recover, hands off extra enzymes.

Young Children Without Medical Oversight

Giving enzyme supplements like lipase to children, unless a doctor has diagnosed a condition like cystic fibrosis or another health problem, raises questions. Kids process nutrients differently. I’ve seen parents pick up every supplement going, hoping to help minor stomach discomfort, but a child’s gut and metabolism don’t match adults. Only a healthcare provider can decide if it’s safe or needed.

Pregnant or Breastfeeding Mothers

Not much data shows whether lipase is safe if you’re pregnant or breastfeeding. The body’s chemistry already shifts a lot during these months, so dealing with new substances doesn’t always make sense unless a doctor says it’s necessary. Lots of pregnant women feel tempted by supplements for digestion, but risks aren’t always obvious. Sticking with tried-and-true medical advice keeps things on track.

Poorly Controlled Diabetes

Some evidence hints at lipase supplements affecting blood sugar levels. Folks with diabetes need to know how anything new might shift their glucose. My grandmother learned this lesson the hard way with a different supplement, which sent her blood sugar swinging. So, for diabetics, checking in with a doctor before starting anything is non-negotiable.

People Without Enzyme Deficiencies

Lipase isn’t a shortcut for digesting fatty foods. If you have no trouble digesting fats, supplements have almost no upside. The digestive system manages just fine without help. Years ago, lots of my friends took digestive aids after big meals, chasing relief for “food comas” that really needed smaller portions and more veggies. Sometimes, only basic adjustments work—supplements just add cost.

Potential Solutions and Safer Paths

Instead of one-size-fits-all supplements, talking openly with a healthcare provider matters most. Blood work, stool tests, or other diagnostics help root out any real enzyme shortages. Focusing on overall gut health—through fiber, hydration, and reasonable eating—often clears up mild issues. For the folks who do end up prescribed lipase, sticking to doses, watching for side effects, and keeping doctors in the loop is key. Real answers beat guesswork every time.

Lipase
Names
Preferred IUPAC name Triacylglycerol lipase
Other names Triacylglycerol acylhydrolase
Steapsin
Pronunciation /ˈlaɪ.peɪs/
Preferred IUPAC name triacylglycerol acylhydrolase
Other names Glycerol ester hydrolase
Triacylglycerol lipase
Triglyceride lipase
Pancreatic lipase
Lipoprotein lipase
Hormone-sensitive lipase
Pronunciation /ˈlaɪ.peɪs/
Identifiers
CAS Number 9001-62-1
Beilstein Reference 2088732
ChEBI CHEBI:53230
ChEMBL CHEMBL3301349
ChemSpider **8757516**
DrugBank DB00161
ECHA InfoCard EC 232-619-9
EC Number 3.1.1.3
Gmelin Reference 96104
KEGG K01012
MeSH D008070
PubChem CID 4392658
RTECS number SAF85444I
UNII K4A3P7D6NF
UN number UN2811
CompTox Dashboard (EPA) DTXSID2020672
CAS Number 9001-62-1
Beilstein Reference 1721642
ChEBI CHEBI:53630
ChEMBL CHEMBL1501878
ChemSpider 13936764
DrugBank DB00178
ECHA InfoCard 06c1ae46-857e-4d7b-886d-568753f93350
EC Number 3.1.1.3
Gmelin Reference 58810
KEGG ec:3.1.1.3
MeSH D008068
PubChem CID 6439784
RTECS number MD3339000
UNII 9Q325BNK60
UN number UN2811
CompTox Dashboard (EPA) C5292604
Properties
Chemical formula C12H21N3O2
Molar mass ~60,000 g/mol
Appearance White to off-white powder
Odor Slightly fatty
Density 1.11 g/cm3
Solubility in water Soluble
log P 2.1
Acidity (pKa) 4.8
Basicity (pKb) 10.8
Magnetic susceptibility (χ) −8.2×10⁻⁶ cm³/mol
Refractive index (nD) 1.450
Viscosity Viscous liquid
Dipole moment 3.6 D
Chemical formula C2852H4404N756O806S21
Molar mass ~35,000 g/mol
Appearance A white to light yellow powder.
Odor Slightly fatty
Density 0.67 g/cm3
Solubility in water Soluble in water
log P 2.22
Vapor pressure Negligible
Acidity (pKa) 7.5
Basicity (pKb) 6.45
Magnetic susceptibility (χ) −6.1×10⁻⁶ cm³/mol
Refractive index (nD) 1.450
Viscosity Viscous liquid
Dipole moment 2.2 D
Thermochemistry
Std molar entropy (S⦵298) 6.32 J·mol⁻¹·K⁻¹
Std molar entropy (S⦵298) 7.96 J/mol·K
Std enthalpy of combustion (ΔcH⦵298) -2519.3 kJ/mol
Pharmacology
ATC code A09AA02
ATC code A09AA02
Hazards
Main hazards May cause allergy or asthma symptoms or breathing difficulties if inhaled
GHS labelling GHS07, GHS08
Pictograms GHSP-Hydrolysis-Hydrolytic
Signal word Warning
Hazard statements H317: May cause an allergic skin reaction.
Precautionary statements May cause allergy or asthma symptoms or breathing difficulties if inhaled.
NFPA 704 (fire diamond) 1-1-0
LD50 (median dose) Greater than 2000 mg/kg (rat, oral)
NIOSH ENZY0069
PEL (Permissible) PEL not established
REL (Recommended) 200 mg
Main hazards May cause allergy or asthma symptoms or breathing difficulties if inhaled
GHS labelling GHS07, GHS08
Pictograms 🤰 🚫 🌡️2-8°C
Signal word Warning
Hazard statements Hazard statements: May cause allergy or asthma symptoms or breathing difficulties if inhaled.
Precautionary statements P261, P272, P280, P302+P352, P304+P340, P305+P351+P338, P333+P313, P363, P501
NFPA 704 (fire diamond) 1-1-0
LD50 (median dose) > 50,000 mg/kg (Rat, oral)
NIOSH ENZY0279
PEL (Permissible) PEL (Permissible Exposure Limit) for Lipase: Not established
REL (Recommended) 800 FU
IDLH (Immediate danger) No IDLH established.
Related compounds
Related compounds Phospholipase
Pepsin
Trypsin
Amylase
Protease
Cellulase
Esterase
Cholesterol esterase
Monoacylglycerol lipase
Lipoprotein lipase
Related compounds Amylase
Protease
Cellulase
Phospholipase
Esterase