Bouling Group Co., Ltd

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Dibutyl Phthalate (DBP): A Deep Dive Into Its Story, Science, Safety, And Future

Historical Development

Dibutyl Phthalate has a history stretching back to the early days of the expanding plastics industry. Chemists first recognized its value during the 1920s, as rubber manufacturers searched for ways to make materials more flexible. Factories soon realized they could boost profits by adding DBP to products like PVC pipes, floor tiles, and synthetic leathers. My own exposure to the topic started in a university laboratory, observing how legacy phthalates crop up in often overlooked corners—from old children’s toys to cable insulation. The evolution of DBP use mirrors the boom of plastic in everyday life, riding the waves of mass production and post-war industrial expansion. Over time, as regulations tightened and health research advanced, attitudes toward DBP shifted. It went from an industrial champion to a chemical dogged by controversy—something old-timers in the chemical trade still talk about from their days of mixing and pouring without a second thought.

Product Overview

DBP, a colorless to faintly yellow oily liquid, sprang into ubiquity because it solved a practical issue—how to keep synthetic materials soft and workable. It earned nicknames like “plasticizer extraordinaire” among people working the production lines. As demand for pliable plastics soared, so did the adoption of DBP—not just in manufacturing but in nail polishes, adhesives, and coatings. On busy factory floors, engineers appreciated how DBP could be pumped, blended, and mixed with ease. They looked past early health warnings, instead celebrating its role as a workhorse chemical that could “do it all.” As product lines diversified from vinyl records to automotive parts, DBP’s fingerprint showed up everywhere.

Physical & Chemical Properties

Dibutyl Phthalate features a molecular formula of C16H22O4, sporting moderate solubility in organic solvents and barely mixing with water—traits that have made it so widely adaptable in industrial processing. Its boiling point rises above 340°C, though it likes to evaporate more stealthily at room temperature. This subtle volatility means it lingers around long after production. DBP feels slippery between the fingers, with a mild, sweet odor that hints at its chemical origin. Chemists know it for more than its looks—its refractive index, density of around 1.05 g/cm3, and resilience against many acids mark it as a material with staying power. In my experience with lab samples, DBP always proved hard to fully wash away unless strong solvents entered the picture. These stubborn characteristics made it a favorite for industrial-scale applications, where reliability beats fancy features.

Technical Specifications & Labeling

Regulators insist that DBP in commerce meet tight specifications, typically demanding top-level purity of at least 99%. Labels must list DBP’s hazardous potential under systems like OSHA and REACH, flagging dangers via pictograms and signal words. European product labels often reference the chemical’s EINECS number (201-557-4) and UN code for hazardous substances. North American plant managers train staff to handle DBP-labeled drums with gloves, eye protection, and spill kits nearby. My own compliance workshops drove home the lesson: never ignore label warnings. Long before the reach of today’s GHS rules, the patchwork of labels in warehouses would stump new hires—now standardized hazard symbols tell the story at a glance, keeping workers from treating DBP as just “any old solvent.”

Preparation Method

DBP arrives on the scene through simple chemistry: industrial reactors combine phthalic anhydride with butanol, using a catalyst—often sulfuric acid—to drive esterification. The process runs at high temperatures, pushing butanol and phthalic anhydride molecules to form tight bonds, releasing water in the process. Afterward, careful distillation and purification follow, separating DBP from leftover reactants, water, and by-products. I spent time shadowing technicians in synthesis plants, watching as they fine-tuned temperature and mixing rates to coax out better yields. Many improvements came from trial and error—engineers learning from dangerous spills or sticky residues, striving to minimize waste and maximize purity. Industrial chemists trust this preparation method for its cost efficiency and predictable end product.

Chemical Reactions & Modifications

DBP responds predictably to chemical modification—it survives mild acidic or basic conditions but breaks down under strong ones. Exposure to extreme bases can cleave the ester bonds, leaving behind phthalic acid and butanol. Over years, manufacturers have tried blending DBP with other agents to tweak its properties, like increasing fire resistance or lowering migration in consumer goods. Some labs even use DBP as a precursor for more exotic chemicals, though its role remains cemented as a tried-and-true plasticizer. I remember heated debates about alternatives; some claimed you could swap in citrate esters or other phthalates, yet the subtle shifts in finished product often steered managers back to DBP’s predictable profile. For designers of new polymers, knowing DBP’s reactions has always meant fewer headaches when pushing products to market.

Synonyms & Product Names

Dibutyl Phthalate hides behind a handful of alternate names in technical catalogs: “Butyl phthalate,” “Di-n-butyl phthalate,” and less common trade names depending on region or supplier. Supply chain managers often run into confusion over the abbreviations “DBP” versus “DnBP,” or even “Dibutyl-1,2-benzenedicarboxylate.” Over the years, discrepancies in paperwork have led to shipment errors, compliance lapses, and trouble during audits. Regulatory harmonization and tighter barcode tracking help clear up some of the mess, yet veterans in the trade continue to double-check every reference before signing off on a delivery.

Safety & Operational Standards

Global safety standards for DBP are stricter today than they were a generation ago. Regulations ban or tightly restrict DBP in children’s toys and cosmetics in Europe, North America, and many parts of Asia. Workers handling DBP need chemical-resistant gloves, eye protection, and proper ventilation, as inhaling DBP vapors or absorbing it through the skin can raise health risks. Maintenance crews pay special attention to accidental releases, as DBP slicks can trigger both slips and containments. Safety data sheets instruct responders on using sand, absorbent pads, and neutralizers to mop up spills—my own emergency drills taught a healthy respect for the “invisible” vapors that don’t always have a strong odor. Company safety committees audit storage, handling, and waste disposal procedures, reinforcing the message that DBP is not a chemical to treat lightly just because it looks harmless.

Application Area

DBP’s uses once spanned from soft vinyl flooring and shower curtains to adhesives, sealants, and even personal care. For a while, nail polish manufacturers added DBP to prevent cracking and provide a durable finish. Automotive factories poured DBP-based plasticizers into dashboard coatings, wiring insulation, and weatherstripping. Laboratories valued its stability as a solvent in organic synthesis. During industry tours, I saw just how difficult it is to scrub certain legacy applications from the supply chain, especially among smaller manufacturers using outdated formulations. As awareness grew around health issues, many sectors sought replacements, yet DBP still appears in specialty uses where performance matters more than volume.

Research & Development

Researchers keep exploring DBP’s pathways through the environment—tracking how it leaches from landfills, migrates into food packaging, and persists in water supplies. Green chemistry labs race to find less toxic plasticizers that mimic DBP’s magic touch without the baggage. I learned from project teams that replacing DBP often drags on for years; new candidates struggle to match the slick, predictable properties that process engineers trust. Detailed analytics, like high-performance liquid chromatography and mass spectrometry, shed light on DBP’s breakdown products. Grants from public health agencies now bankroll studies into not just replacements, but also remediation: how to strip out lingering DBP from contaminated soils or waterways, closing the loop on decades of industrial legacy.

Toxicity Research

Mounting stacks of research expose DBP’s risk to human health and the ecosystem. Repeated lab tests link high DBP exposure to hormone disruption and reproductive effects, prompting regulatory agencies to set low-exposure limits. In one toxicology study I reviewed, rodents exposed to high DBP doses developed changes in fertility and liver function. In the real world, the dangers seem most acute for workers or populations living near plastics factories handling bulk quantities. Regulatory pressure forced companies to rethink risk, replacing DBP in items likely to reach kids or vulnerable groups. Environmental impact studies trace DBP’s metabolic byproducts, revealing how they stick around in the food chain, prompting calls for better waste treatment. In health and safety meetings, the message landed hard: no shortcut justifies skimping on containment, even when profit margins feel tight.

Future Prospects

DBP faces a crossroads. Market trends and tougher laws pull manufacturers toward alternative plasticizers, especially in products that touch skin or food. Veteran chemists see hope in new esters derived from bio-based feedstocks that break down faster and present less risk. Yet for industries reliant on decades-old processes, DBP’s cost, performance, and availability mean it won’t disappear overnight. Pilot plants testing “green” substitutes report mixed results—some replacements flop under heat and stress. Real progress will need close cooperation between regulators, manufacturers, and scientists. Greater investment in process innovation, waste recovery, and green chemistry drives the best shot at phasing out DBP while keeping up with the global demand for flexible, affordable plastics.



What is Dibutyl Phthalate (DBP) used for?

A Common Ingredient with a Big Reach

Dibutyl phthalate, known in short as DBP, finds its way into a surprising number of items. Most people have used products containing this chemical without thinking twice. For decades, DBP has been a key player in making plastics softer and more flexible. This effect isn’t just about comfort or aesthetics—it’s about practicality. Many household and commercial products call for flexible plastics, and DBP delivers that quality, especially in items made from PVC (polyvinyl chloride).

DBP in Everyday Items

Nail polish, perfumes, adhesives, paints, and even some medical products once relied on DBP to perform better. In nail polish, for instance, DBP stops the polish from cracking and makes application smoother. Pure acetone makes nails brittle and weak, but DBP, mixed into nail products, keeps them pliable. Shoes, shower curtains, art supplies, and even automotive parts have all featured DBP at some point.

The appeal seems clear—DBP’s ability to make materials easy to shape and resistant to breaking matches what manufacturers and consumers want out of daily goods. In the workplace, I’ve seen how DBP-based adhesives can speed up intricate repairs—the glue sets just right, not too hard, not too soft.

The Flip Side: Human Health and Environmental Concerns

A closer look at DBP tells a different story, especially for health. Several scientific studies have shown DBP disrupts normal hormone function in humans and animals. This disruption links to reproductive issues and concerns around child development. The U.S. Consumer Product Safety Commission and the European Union started taking action. Restrictions on DBP in toys and childcare articles came into effect, especially in products aimed at children under three.

Even as regulations kicked in, older consumer goods and imported products can still contain this chemical. Most of us have experienced that distinct plastic smell from a new shower curtain or vinyl flooring. That smell points to chemicals like DBP vaporizing and entering the air—an effect called off-gassing. In an unventilated room, this vapor can linger and get inhaled repeatedly, raising exposure risks.

Why Transparency and Alternatives Matter

Transparency stands as the only way for people to make good decisions about what goes into their home. Often, ingredient lists for plastics or fragrances only mention “fragrance” or “plasticizer"—they don’t tell you what’s really inside. Chemicals like DBP can crawl under the radar this way. More companies are opting for safer substitutes, like citrate-based plasticizers or alternative resins, to answer growing concerns. These changes don’t just help people avoid exposure; they can lower the footprint chemicals like DBP leave on waterways and soil. Tiny decisions—reading labels, supporting brands that disclose their ingredients, and choosing low-VOC materials—add up.

It’s on regulators, manufacturers, and each one of us to keep pushing for safer, transparent options. My own shift to water-based adhesives and fragrance-free home goods came from learning about how DBP and similar chemicals work in the real world. By staying informed and demanding better options, the cycle starts to break. People do have some power to shrink their daily exposure, even with a chemical that shows up everywhere.

Is Dibutyl Phthalate (DBP) safe to use?

The Role of DBP in Daily Life

Anyone who’s bought nail polish or a plastic shower curtain has probably come into contact with dibutyl phthalate, or DBP. Industry likes DBP because it can make plastics flexible, soft, and durable. I’ve seen it listed on dozens of product labels: cosmetics, adhesives, even toys. This isn’t just some obscure chemical hidden away in a lab. It shows up where families, especially kids, might touch it every day.

What Science Says About Health Risks

Scientists have been looking at DBP for years. There’s enough research now that several countries have labeled DBP as a risk. Lab tests show DBP can mess with hormone systems in animals. The Centers for Disease Control and Prevention says most people in the U.S. have some DBP byproducts in their bodies. These byproducts usually leave the body quickly, but repeated exposure keeps levels higher than they might be otherwise.

People in public health worry about DBP because phthalates—DBP’s chemical family—have links to problems in reproduction, asthma, and early-onset puberty. A meta-analysis published by the National Institutes of Health connected higher levels of phthalates in urine to more frequent cases of developmental problems in children, such as changes in attention or learning difficulties.

Regulations and Industry Response

Lawmakers haven’t let DBP slide. In the European Union, authorities banned DBP from cosmetics and restricted it in toys. California lists DBP under Proposition 65 as a chemical known to cause birth defects. There’s pressure on manufacturers to swap DBP for safer options in household products.

Despite the warnings, DBP still finds its way into plenty of everyday products. Companies argue that small doses are safe, backed by decades of industry-backed research. Yet, the science keeps growing, and each year more groups push for zero exposure.

The Challenge for Consumers

Choosing products is tricky. Labels can be cryptic, especially in the U.S., where DBP doesn’t always show up as “DBP” on the bottle. Sometimes it hides under broader chemical groups, so shoppers have no way of telling what’s really in the mix. I’ve stood in store aisles trying to decipher ingredients, and I know I’m not the only one.

There’s also the problem of price. Products labeled “phthalate-free” often cost more. Not everyone can afford to be picky about shampoo, toys, or flooring.

Looking for Answers and Alternatives

The safest move comes from leaning on what the independent studies—and not just the industry—say. People can push back by demanding clearer labeling and buying from brands that publicly disclose their ingredients. Manufacturers could invest more in alternatives. Some replacements, like acetyl tributyl citrate, already turn up in safer nail polishes and plastics.

Community voices matter. Parents, in particular, have power by calling for tighter rules, better warnings, and transparent testing. The recent moves by some states to outright ban DBP in children’s products are signs of progress. Information is power, and real change happens when enough people push for safety over convenience.

What are the health risks associated with Dibutyl Phthalate (DBP)?

Everyday Exposure: Where DBP Shows Up

Plastic seems to crop up in every pocket of life—food wrappers, toys, even personal care items. Dibutyl Phthalate, or DBP, sneaks into homes through these routes. Most people don’t give a second thought to what makes their nail polish last longer or what keeps plastics flexible and tough to break. That’s DBP at work. The trouble is, this compound doesn’t stay put. DBP can seep out over time, slipping into skin or entering the body through food or dust on hands.

Why DBP Raises Health Concerns

The health risks aren’t just a matter of individual choice. Science gives a clear nudge about the need for caution. Exposure starts early, sometimes even before birth. DBP can cross the placenta, and babies absorb more from their curious habit of biting or sucking toys.

Human studies and years of research reveal DBP doesn’t just pass through. It acts a bit like a hormone impersonator. Inside the body, it can mess with the natural signals that guide development. Kids exposed to higher DBP levels may face a higher risk of behavioral issues. Research flags a drop in sperm quality and testosterone in men who come in regular contact with DBP-heavy products.

Women face their own set of troubles. DBP shows up in studies on fertility. High concentrations could push the risk of problems like endometriosis or irregular menstrual cycles.

Sometimes, the effects remain hidden for years. DBP can stir up asthma and allergies, especially in homes where plastic softeners cling to air and dust. Skin irritation also isn’t rare, especially among people working closely with plastic products every day.

Fact-Checked Evidence

The National Toxicology Program and other major health agencies haven’t taken DBP concerns lightly. Animal studies highlight DBP’s power to disrupt normal growth. The European Union and countries like Canada responded by banning DBP in babies’ toys and childcare articles.

The U.S. Food and Drug Administration points out that cosmetics with DBP are on the decline, but the chemical’s run in older household items lingers. Phthalates like DBP don’t break down overnight. They linger in dust, turning up in routine blood and urine tests.

Toward a Healthier Approach

Some people argue real change starts with better labeling. Shoppers deserve to know what’s hiding in their personal care products and plastics. Learning to spot DBP on the ingredient list clears away mystery and gives people power.

For families and workers most at risk, swapping plastic items for natural materials or DBP-free options makes sense. Routine handwashing can cut exposure, especially right before eating. Airing out rooms and regular cleaning helps keep dust—and what’s hidden in it—at bay.

Policy can play a big role. Governments could push companies toward safer alternatives. Local bans and tighter regulations on cosmetics, packaging, and toys lay a strong foundation for public safety. Industry innovation often follows stricter rules, so the push for more transparent, safer materials becomes easier.

DBP’s health risks highlight how chemical safety isn’t just a regulatory topic—it’s about everyday choices and collective effort. Trusting science, reading labels, and asking questions about what goes into household staples bring small but steady steps toward healthier lives.

Is Dibutyl Phthalate (DBP) banned in any countries?

Understanding Dibutyl Phthalate’s Ubiquity

Dibutyl phthalate, known as DBP, pops up in many everyday goods: nail polish, adhesives, plastics, and even some toys. It acts as a plasticizer, making things bendy instead of brittle. Growing up, I remember those little army figures or plastic erasers with a recognizable slick feel—chances are, DBP had a role in crafting that texture. For decades, few paused to question what made these products so flexible, so tossable, so durable.

Health Concerns and the Push for Action

Fast forward to recent years, health experts started connecting overexposure to phthalates with hormone disruption, developmental problems in kids, and links to allergies. Environmental scientists pointed fingers at DBP as a contributor to water pollution, noting its persistence and its knack for leaching into soil and streams. These warnings made regulators and consumers uneasy, especially parents who wanted peace of mind about what kids touched and mouthed daily.

Which Countries Took Action?

Europe decided not to wait. The European Union added DBP to its list of substances of very high concern. Since 2007, European rules under REACH regulations clamped down hard on DBP in toys and child care articles, restricting it to less than 0.1 percent by weight. RoHS rules in Europe also bar DBP in electronics. This kind of move set a clear precedent: if an ingredient poses a potential threat, it should not be in reach of the most vulnerable.

The United States followed with its own approach. The Consumer Product Safety Improvement Act put DBP on the blacklist for use in children’s toys and certain child care products at levels above 0.1 percent. California’s Proposition 65 treats DBP as a chemical known to cause reproductive harm, forcing manufacturers to either remove it or slap clear warnings on their products sold in the state. Canada moved in a similar direction, ruling out DBP in soft vinyl children’s toys and child care articles. Brazil and South Korea also joined this growing club, restricting DBP in items for kids. The momentum comes from repeated studies showing developmental risks, not just in laboratory rats but in real-world childhood blood samples and allergy rates.

Why These Bans Matter

Early bans forced manufacturers to rethink standard recipes. Companies scrambled for new plasticizers. There were production delays, higher costs, and head-scratching over how to match the feel and durability of old-school DBP-filled items. In the nail salon industry, where DBP once helped polish go on smooth and resist cracking, smaller brands felt pinched. The flip side: the shift drove innovation. Supply chains reorganized. Shoppers started asking for ingredient lists; trust shifted toward brands that could show their safety credentials.

Seeking Balance and Safer Alternatives

For policymakers, bans bring tough questions. Which chemicals replace DBP, and are those safer or just less studied? Phthalates as a chemical family run deep. Each carries its own risk profile, so closing one loophole sometimes lets another slip open. Regulators should lean on ongoing research, open ingredient disclosure, and global cooperation in setting standards. Manufacturers ought to invest not just in new formulas, but in testing long-term health impacts, not short-term market gains.

The Real Issue: Building Trust and Safety

As someone who cares about what kids and adults touch every day, these bans resonate. Seeing governments step up to limit an ingredient based on emerging science signals a commitment to public health over convenience. The story isn’t just about DBP itself, but about confidence in the products stacked on store shelves. Parents, teachers, and even nail salon workers depend on regulators getting this right, so homemade chemistry experiments do not become hazards in disguise. We all win when product safety gets a permanent spot on the agenda.

How should Dibutyl Phthalate (DBP) be stored and handled?

Looking Closer at DBP in the Real World

Dibutyl phthalate, better known in the lab as DBP, sticks out as one of those chemical additives that spark debate both over its use and its safety. Folks find it in plastic products, adhesives, even nail polishes. It’s a key player in making materials flexible, but it’s got a reputation for causing trouble if managed with carelessness. Storing DBP safely isn’t all red tape—it’s a real, everyday step to keep workplaces healthier and the environment cleaner.

Proper Storage Isn’t Just a Box-Checking Exercise

Working around chemicals for years teaches you the value of a well-labeled bottle and a good sense of caution. DBP doesn’t pose the highest risks compared to some industrial heavyweights, but it’s no water and vinegar, either. Keep it in tightly sealed containers, preferably glass or certain plastics that won’t react or leak. Leaving DBP containers near heat or direct sunlight only invites trouble. At temps above 50°C, vapor pressure rises, which means the risk of fumes and leaks goes up. Heat also speeds up breakdown, which can send harmful byproducts into the air or onto your hands.

Always store DBP away from food, drinks, and any substances for human consumption. Having seen a few close calls in busy labs, clear separation between chemicals and everyday items is rule number one. Prefer a cool, well-ventilated spot—ventilation isn’t just a suggestion on the data sheet, it really matters. Proper air flow helps limit the smell and lowers the risk of breathing in fumes. Anyone who’s ever opened a poorly stored bottle of DBP will recognize its strong, almost bitter odor right away. Try explaining to building maintenance staff why the whole floor smells like chemicals because a storeroom didn’t have exhaust fans.

Personal Safety and Cleanliness on the Job

Unlabeled bottles or sloppy transfer methods make for accidents. Use gloves—nitrile does the trick—and safety glasses when pouring or measuring DBP. A chemical-resistant apron keeps splashes off clothes. Spills happen quickly; I once knocked over a container during a hectic morning rush, and having absorbent pads close by saved a load of post-incident paperwork. If a spill does occur, wipe it up with vermiculite or sand, not just a rag, since DBP seeps into porous materials and stays there.

Waste matters just as much as storage. Don’t pour DBP or its residues down the drain. Instead, collect it in a labeled sealed drum for hazardous waste pickup. I’ve seen what happens when chemical residues get dumped; local treatment plants aren’t set up to filter these compounds, and downstream pollution becomes someone else’s problem. Proper handling protects the folks downstream as much as the team on site.

Keeping an Eye on Regulation and Best Practices

Governments place restrictions on DBP, especially in toys, childcare articles, and cosmetics, mostly because long-term exposure links up with hormone disruption and reproductive harm. Following regulations isn’t just about avoiding fines—it’s about showing respect for workers’ health and the public’s well-being.

Plenty of incidents and studies suggest there’s no good excuse for ignoring safe handling. Training everyone who comes close to DBP makes a world of difference. Emergency eye wash stations, up-to-date Material Safety Data Sheets (MSDS), and clear signage interrupt bad habits and help people stay alert. DBP isn’t going away anytime soon, so every facility that uses it owes its people real protections—simple routines, the right gear, and a sense of responsibility for each other’s safety. That approach does more to prevent headaches than any rulebook ever could.

Dibutyl Phthalate(DBP)
Names
Preferred IUPAC name Di​butyl benzene-1,2-dicarboxylate
Other names Dibutyl phthalate
DBP
Dibutyl 1,2-benzenedicarboxylate
Butyl phthalate
Phthalic acid dibutyl ester
Di-n-butyl phthalate
Pronunciation /daɪˈbjuːtɪl ˈθæleɪt/
Identifiers
CAS Number 84-74-2
Beilstein Reference 1208734
ChEBI CHEBI:2783
ChEMBL CHEMBL1406
ChemSpider 5486
DrugBank DB00763
ECHA InfoCard 100.003.240
EC Number 204-214-7
Gmelin Reference 60340
KEGG C07294
MeSH D004064
PubChem CID 3026
RTECS number TH9625000
UNII B9353Y1CS9
UN number UN2555
Properties
Chemical formula C16H22O4
Molar mass 278.34 g/mol
Appearance Colorless to pale yellow oily liquid
Odor Odorless
Density 1.05 g/cm³
Solubility in water 0.13 g/L (20 °C)
log P 4.5
Vapor pressure 0.00013 mmHg (25 °C)
Acidity (pKa) 7.2
Basicity (pKb) pKb: 10.2
Magnetic susceptibility (χ) -8.62×10⁻⁶
Refractive index (nD) 1.490 - 1.492
Viscosity 12-18 mPa·s (at 25°C)
Dipole moment 2.85 D
Thermochemistry
Std molar entropy (S⦵298) 354.7 J·mol⁻¹·K⁻¹
Std enthalpy of formation (ΔfH⦵298) -759.1 kJ/mol
Std enthalpy of combustion (ΔcH⦵298) -11240 kJ/mol
Pharmacology
ATC code D11AX18
Hazards
GHS labelling GHS02, GHS07, GHS08
Pictograms GHS02, GHS07, GHS08
Signal word Warning
Hazard statements H360: May damage fertility or the unborn child.
Precautionary statements P202, P210, P261, P264, P270, P280, P301+P312, P302+P352, P305+P351+P338, P308+P313, P330, P337+P313, P405, P501
Flash point 180 °C
Autoignition temperature 402 °C (756 °F)
Lethal dose or concentration LD50 (oral, rat): 8000 mg/kg
LD50 (median dose) LD50 (median dose): 8000 mg/kg (oral, rat)
NIOSH NIOSH: NI0350000
PEL (Permissible) 5 mg/m3
REL (Recommended) 5 mg/m3
IDLH (Immediate danger) 400 mg/m3
Related compounds
Related compounds Dimethyl phthalate (DMP)
Diethyl phthalate (DEP)
Diisobutyl phthalate (DIBP)
Diisononyl phthalate (DINP)
Di-n-octyl phthalate (DNOP)
Benzyl butyl phthalate (BBP)
Di(2-ethylhexyl) phthalate (DEHP)