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Few chemicals spark as much interest in the world of industrial oxidizers as Bis(Peroxynonanoic Acid), sometimes recognized under different names but carrying a similar punch. Its journey began with scientists searching for stronger and more selective oxidants. By the tail end of the 20th century, peroxycarboxylic acids had come into focus, taking roots in both academic settings and industrial labs. Not every compound discovered gets picked up in everyday production, but this one caught attention for how it merged reactivity with manageable safety. Over time, research institutions moved the compound from bench-scale curiosity toward pilot production, uncovering the properties that made it suitable for more rigid industrial processes. Regulations and international chemical safety norms shifted through the years, guiding how companies synthesized, stored, and used it—not always with consensus, but enough to build a consistent safety profile and standardize practices across continents.
Manufacturers usually supply Bis(Peroxynonanoic Acid) as an inert solid mixture for convenient shipping and storage, keeping the active content to a maximum 27% while the remainder consists of stabilizing carriers. Having handled similar materials in lab and production floors, I understand the appeal—liquids bring handling headaches and volatility, especially for powerful peracids. Commercial forms emphasize solid state due to both regulatory pressures and the straightforward logistics of transport. Multiple companies develop their own stabilization blends, but the primary intent remains the same: prevent runaway decomposition, enable predictable dosing, and comply with national and global chemical transport laws. Over the past decade, the growing number of suppliers has lowered entry costs, driving up competition and pushing manufacturers toward more efficient formulations to meet user demand for both potency and stability in one container.
In its commercial product form, Bis(Peroxynonanoic Acid) demonstrates a white to off-white solid appearance and remains stable at ambient temperatures—at least when not exposed to heat or sunlight. Its characteristic oxidizing odor gives quick warning to anyone familiar with peracids. The compound dissolves in water to release active oxygen, providing a sharp kinetic burst in many industrial or environmental processes. From personal experience, routine handling calls for consistent vigilance; both skin and eye contact produce strong irritation, and the powerful oxidizing potential means storage alongside compatible stabilizers is not just a best practice—it’s a necessity. Its peroxide bond remains the core of its reactivity, enabling direct transfer of oxygen to target substrates—a feature leveraged in both synthesis and environmental clean-up sectors.
Labeling on commercial packages typically includes a clear percentage of active peracid, total solid content, lot tracking, recommended storage conditions, and hazard pictograms required under GHS. Some suppliers go a step further: batch-specific safety data sheets, explicit warnings regarding temperature-sensitive decomposition, and instructions emphasizing the use of suitable personal protective gear. The solid content figure (above 73%) was set to avoid misclassification as an unstable peroxide under global transport codes. In my time working with hazardous materials, I’ve seen firsthand how standardized labeling helps prevent mishaps. Without precise identification of oxidizing agents and stabilization mixes, everyone from warehouse staff to end-users faces an added layer of risk. Modern facilities lean into QR-coded tracking and real-time verification of production batches to mitigate risks in complex supply chains.
Commercial synthesis of Bis(Peroxynonanoic Acid) generally starts with nonanoic acid, reacting it under controlled conditions with hydrogen peroxide or an appropriate peroxy donor, utilizing acidic catalysts to speed up the transfer of the peroxide group. The process generates heat, so cooling protocols are baked into every step. From personal lab sessions scaling up peracids, maintaining reaction temperature means everything—the difference between high-yield conversion and a scramble to contain runaway gas evolution can be counted in minutes. Post-reaction, purification includes extraction, washing, and drying routines to strip byproducts and stabilize the peracid in a solid matrix for shipping. All production environments adopting this process implement engineering controls such as local ventilated enclosures, double-containment vessels, and proprietary purification sequences to ensure final product consistency and long-term shelf-life.
Once produced, Bis(Peroxynonanoic Acid) acts as a strong oxidizer—more selective than basic hydrogen peroxide, less aggressive than chlorine-based agents. In chemical synthesis, it delivers oxygen atoms to alkenes, sulfur compounds, and certain heterocycles with impressive selectivity. During textile or pulp bleaching, its efficiency outpaces many standard peracids, thanks to its longer carbon backbone and greater lipophilicity. Chemists have experimented by grafting side-chains to adjust reactivity or incorporating stabilizing groups to limit decomposition. Modified forms sometimes find roles in specialty oxidation processes, helping transition away from chlorinated intermediates and lending themselves to greener chemistry. Compared with classic peracids, the controllability of decomposition and oxidative strength matter most. The broader scientific literature notes rapid decomposition above 40°C, so chemical engineers lean on additives or blends to stretch operational temperature windows, especially in warmer climates.
For those tracking regulatory or supplier databases, Bis(Peroxynonanoic Acid) appears under alternate names such as Peroxynonanoic Acid Bisester or BPNPO. Trade names differ based on vendor, but product monikers often reference the active oxygen percentage or denote proprietary stabilization mixes. Distributors in Europe and the US keep alignment with REACH and TSCA labeling, often using explicit CAS numbers and risk statements pulled straight from ECHA or EPA playbooks. Industry insiders rely on both synonym lists and chemical structures to cut through the confusion caused by differing regulatory or legacy nomenclature, reducing purchasing or compliance headaches and helping those responsible for workplace safety connect the hazard dots across local inventory systems.
Safety protocols in modern facilities remain built on three pillars: containment, monitoring, and staff training. From my time overseeing hazardous material storage, every peracid brings both promise and risk. Systems monitor temperature and humidity around the clock, maintaining conditions below the decomposition threshold. Local exhaust ventilation and explosion-proof electricals head off ignition risks. Comprehensive emergency plans lay out neutralization steps—typically using sodium thiosulfate or other reducing agents—and detail immediate containment to limit exposure if a spill occurs. Staff wear chemical-resistant gloves, goggles, and fitted respirators; periodic drills reinforce escape routes and first-aid procedures. Firms work with regulatory agencies to verify every safeguard, both during import inspection and facility audits. The push toward third-party verification grows, as corporate clients and insurance partners demand evidence beyond paperwork. The same culture of caution trickles into lab and pilot-scale settings, keeping incidents rare despite the chemical’s potent oxidizing character.
Industrial demand for Bis(Peroxynonanoic Acid) crosses from specialty synthesis into environmental technologies and advanced materials. Chemical manufacturers use its oxidative force to tweak molecular structures in pharmaceuticals and polymers, while environmental firms value its breakdown of organic contaminants in water or soil matrices. Pulp and textile plants swap out chlorine oxidants for peroxycarboxylic acids to shrink persistent pollutant footprints and hit tightening government targets. In my consulting experience with water treatment teams, transition to peracids delivers tangible improvements in effluent quality, restraining both color bodies and trace organics without inviting the formation of halogenated byproducts. The expansion is not without hurdles—some processes require recalibration, and downstream neutralization of spent oxidant needs robust engineering. Still, its broader adoption signals a long-term shift toward cleaner, less persistent oxidation strategies in several industries grappling with the push for corporate sustainability reporting and stricter regulatory oversight.
Research teams pursue safer, more potent oxidants with every passing year. Academic groups publish on mechanism studies, showing how Bis(Peroxynonanoic Acid) interacts with substrates on a molecular level, optimizing conversion rates for pharmaceutical or materials synthesis. Industry-funded projects focus on shelf-life extension, developing new solid-state formulation strategies with encapsulants that slow decomposition and allow use under higher temperatures or longer storage periods. Environmental engineers trial advanced oxidation processes coupling the compound with UV or catalytic activators, using pilot-scale reactors to upgrade municipal and industrial water purification. Intellectual property filings show a steady uptick in process improvements, especially as companies race to meet environmental certification standards. Active collaborations between universities and industry partners keep in-house labs up to date and feed the flow of next-generation formulations into new application domains. As demand rises, R&D efforts look to both incremental improvements and disruptive leaps, aiming for both safer working conditions and a smaller ecological footprint.
Toxicity data drive much of the operational caution surrounding Bis(Peroxynonanoic Acid). Acute exposure produces corrosive effects on skin and eyes, while inhalation brings respiratory irritation—findings borne out by both animal studies and real incident reports in manufacturing settings. Chronic exposure remains less understood, emphasizing the need for ongoing studies and monitoring. Regulatory filings demand both acute and sub-chronic toxicity tests, and emerging research looks at potential breakdown products, ensuring no lasting environmental residue. Companies respond by implementing real-time monitoring of air and water for both parent compound and metabolites. At plant level, periodic worker health screenings and continuous education form a critical feedback loop to catch early symptoms and preserve staff safety. The growing database of animal and in-vitro studies informs both insurance standards and product labeling. As new analytical tools become available, understanding expands, even as product developers pursue ways to lock down worker and environmental risk to the lowest practical levels.
Looking ahead, Bis(Peroxynonanoic Acid) stands poised to play a bigger role in sustainable chemistry, advanced material development, and environmental remediation. Market drivers include demands for greener, chlorine-free oxidation, tighter compliance with global chemical directives, and expanded capabilities to degrade persistent environmental hazards. Future adoption depends on continued improvement in product stability, supply chain transparency, and more thorough understanding of environmental breakdown pathways. Advances in encapsulation, safe packaging, and automated dosing equipment may increase access for smaller-scale users without sacrificing safety. Ongoing interdisciplinary research, bringing together chemists, engineers, toxicologists, and government stakeholders, shapes both regulatory landscapes and product innovations. With research dollars chasing both incremental safety gains and leaps in reactivity or shelf-life, expect to see this compound reach further into manufacturing, pollution control, and specialized synthetic chemistry in the years just around the corner.
Anyone who’s spent time around a pool or skimmed through local water treatment updates has probably heard about the ongoing fight against stubborn contaminants. For years, my own summer swimming plans have started with a trip to a crystal-clear pool, thanks to the invisible work happening behind the scenes. In that world, one name pops up: Bis(Peroxynonanoic Acid), especially at concentrations up to 27%, mixed with a large share of inert solid.
This strong oxidizing agent isn’t famous like chlorine, but it plays a powerful role where pools and municipal water supplies need more than the basics. Its real value comes through in disinfection. Not just tackling bacteria and algae, but also breaking down tough organic residues that chlorine alone might miss. Around every corner of the water industry, people dedicate themselves to keeping water safe, clean, and clear. This chemical offers an option that stands up to high-stakes jobs—like shocking water after outbreaks or cleaning up after heavy use.
Peroxyacids carry serious punch as oxidizers. From spending years near farms and greenhouses, I’ve seen how crucial it is to clear out pathogens in irrigation supplies. Using Bis(Peroxynonanoic Acid) for periodic deep cleaning helps make sure lines don’t become breeding grounds for hidden threats. The mix’s inert solids help stabilize the product, preventing wild swings in potency or hazardous volatility. In practical terms, this makes transport and handling more feasible and less risky, since pure peroxyacids would crank the danger way up.
One conversation I had with an agronomist sticks with me. He explained that old-school treatments demanded lengthy system shutdowns, lost crops, and higher waste. With newer solutions—including peroxynonanoic compounds—cleanouts become faster, with better pathogen kill rates and less residue left behind. Anyone who’s hauled out old irrigation pipes knows residues add up, and labor for manual cleaning grows every season. This chemical shortens that cycle.
The backbone of bis(peroxynonanoic acid)’s appeal will always tie back to water safety. It doesn’t linger as much as some traditional disinfectants and leaves behind byproducts less worrisome than those from standard chlorine. Research shows that peroxyacids break down into non-toxic compounds like water, oxygen, and low-chain organic acids. Public health agencies routinely evaluate such chemicals for both effectiveness and safety, and regulations around their use remain tight.
Anyone who cares for people and the environment faces the same challenge: kill the germs, but don’t put in something worse. If you handle pool or irrigation systems, it’s tempting to crank up dosage to wipe out outbreaks fast. Here, label reading and application know-how make all the difference. Most misuse comes from misunderstanding—so training and straightforward instructions could save water managers trouble.
Clean water won’t take care of itself. Innovations in chemistry, like bis(peroxynonanoic acid) blends, fuel progress in public safety. But no chemical solves everything. Monitoring, process controls, and consistent training close the loop. There’s no magic fix—just smart tools, good habits, and people who won’t cut corners. With strong oversight, chemicals like this one do their job: keep water usable, crops thriving, and swimmers safe year after year.
Every product meant for household or workplace use brings its own set of safety challenges. Over time, you learn that skimming safety sections on labels barely covers what actually happens. For example, I once forgot to check the fine print with a common cleaning agent and paid the price with itchy, red hands for days. It seems like a small thing, but that experience taught me how important it is to actually read instructions before popping the lid or uncapping a bottle.
Manufacturers know their products inside out. So the bold symbols, color-coded hazard warnings, and those annoying “rinse immediately if in eyes” phrases come from years of studies, reports, and sometimes accidents. For instance, the symbol of a skull or an exclamation mark isn't just for show. Failing to pay attention to these symbols leaves room for unnecessary accidents. Shortcuts don’t just bite back; they make small mistakes memorable for the wrong reasons.
Rubber gloves, goggles, aprons—sounds like overkill until you deal with an unexpected splash. In one job mixing garden chemicals, a coworker refused gloves because it felt “faster.” Minutes later, he was scrubbing his hands under freezing water and heading to the nurse’s office. Whether you’re handling something sharp, corrosive, or just plain messy, these simple shields are one line of defense. If instructions mention ventilation, find that open window or step outside. Respirators aren’t a sign you’re dramatic; they stop fumes from setting up camp in your lungs.
I grew up in a house where household products didn’t mingle in bathroom cupboards. My parents never mixed bleach and ammonia. Turns out, the gas released by that combo is dangerous enough to send people to the hospital. So treating product storage like a game of “who stays with who” helps. Strong cleaners stay away from food, kids, and pets. Original containers matter, too. Handwritten masking tape labels wear off and stories about someone accidentally drinking from a repurposed sports bottle are too common. Stick with originals, well out of reach, locked up if you can.
No one expects accidents, but knowing what helps ahead of time makes quick action easier. Poison control numbers, directions for rinsing skin or eyes, and knowing when to call emergency services make a difference. Hospitals see plenty of cases every year from misuse or mistaken exposure. Having the emergency steps posted in easy reach, or stored in your phone, means less panic and more action if an accident happens.
Using less than you think you need, measuring instead of guessing, and sticking to what the label suggests keeps things on track. Thinking twice before mixing with other products, even if the label doesn’t spell it out, prevents unwanted reactions. There is real peace of mind in sticking with the boring basics: closed lids, clean-ups after use, and no shortcuts with gear. These aren’t huge steps, but experience has shown me they prevent bigger headaches down the road.
Bis(Peroxynonanoic Acid) brings more to the table than a complicated name. It’s a strong oxidizer that plays a role in cleaning up water supplies, bleaching textiles, and prepping surfaces in many industries. From experience in handling strong peroxides, it’s clear they demand respect. Even a moment’s neglect can spell trouble for both people and property.
Trusted sources—including material safety data sheets—stay consistent on one core point: keep peroxides like this one cool, ideally below 30°C. Heat speeds up breakdown, which leads to gas and heat buildup, and nobody wants to face a runaway reaction in a storage area. Forget the boiler room or anywhere that sees a strong sunbeam. Think dark storage, away from other heat-generating equipment.
Moisture acts as a trigger for all sorts of chemical surprises. I’ve seen bulk containers go unstable just from invisible condensation. Even the most careful operators can trip up if a seal’s not tight or a drum lid goes on backed by a sweaty glove. Using airtight, HDPE (high-density polyethylene) containers slashes the risk. Opaque packaging steps in as a solid backup, as UV rays from sunlight start breaking peroxides down. Storage rooms painted in pale shades and stripped of direct sunlight lower the odds of unintended reactions.
Stacking containers high saves on space but breeds danger. Bis(Peroxynonanoic Acid) works best on sturdy, metal shelving, kept low to the ground. Spacers between drums stop any friction or impact if someone fumbles a container. Simple habits—just putting containers upright and leaving a buffer zone—carry more weight than fancy monitoring systems.
Looking at OSHA’s incident reports, mixing peroxides with flammable solvents makes for terrible headlines. Acids, bases, and combustible materials belong in another part of the warehouse. I once saw a label mix-up set off alarms that nearly triggered a hazmat response. Labelling and color-coded storage cut down on risk and confusion, especially if new shifts come on board.
Peroxides don’t sit well for long. Over time, vapors and gases sneak out, and the pressure inside sealed containers goes up. A few years ago, a missed inspection meant a bulging barrel went unaddressed, risking an explosion. Daily walkthroughs and weekly pressure checks become second nature once you’ve watched a simple oversight threaten a team’s safety. Never skip the logbook—what someone else catches could make the difference next week.
Sophisticated sensors and monitoring devices help, but nobody beats well-trained staff. I’ve seen teams handle peroxides for decades without issues simply by sticking to tried-and-true basics. Clear standard operating procedures, periodic refresher courses, and visible signage trump gadgetry every time.
Bis(Peroxynonanoic Acid) doesn’t care about shortcuts. Consistent storage habits, cool and dry spaces, smart shelving, and constant vigilance make all the difference. Rely on common sense and teamwork, backed by a healthy respect for the risks tied to powerful industrial chemicals.
Walking through grocery shelves or hardware stores, bright logos and fancy slogans make it tough to see what’s really inside the products tossed into carts. Everyone cares about safety and clean surroundings, but it’s confusing trying to figure out what’s harmless and what’s risky. Companies want to sell, so some “green” products wear leafy badges or promises of wellness. That doesn’t make something healthy or safe for the world outside your home. I always take time to check the ingredients and warnings. Not every bottle with healthy-sounding words means less risk. Real details matter, not just the packaging.
Labels filled with chemical names like “phthalates” or “parabens” rarely hint at what these ingredients do to bodies or soil. I remember reading about synthetic fragrances in detergents—tiny pieces can wash out with the water and pile up in rivers. Some substances never break down and end up in fish, then in people. Friends who work in construction tell me about headaches and breathing trouble from paint fumes or glues. They keep windows open, wear masks, and avoid certain brands. Real experience sticks with you more than any ad campaign ever could.
Research has linked some everyday products to problems like asthma, hormone changes, or even higher cancer risk. Scientists have flagged microplastics from beauty products clogging oceans. The Centers for Disease Control lists harsh cleansers and air fresheners among common triggers for indoor allergies. Once you see these patterns, you start asking different questions at the store.
It’s true that new laws push for clearer information on labels. The European Union banned several toxic chemicals that pop up in cleaners or cosmetics. In the U.S., California’s Proposition 65 lists chemicals known to cause cancer or reproductive harm. Scrubbing toilets or doing dishes, it feels better knowing I picked something rated by third-party groups or government agencies, not just a flashy “eco” sticker.
One step is swapping out unknowns for plain ingredients. Vinegar and baking soda take care of a lot of cleaning without the fumes or residue. I’ve used these at home and watched how much less sneezing happens. For skincare, fewer chemicals mean a better shot at knowing what goes onto skin and down the drain.
Companies owe everyone honest details, not distract us with marketing talk. Regulators should demand simpler lists, more warnings, and public sharing of product safety studies. People also help by asking questions, reading up, and passing along information to neighbors or friends. Retailers can put truly safe products within reach, price them fairly, and run in-store education about risks.
Every trip to the store is a chance to vote for what matters. Check for ingredient lists you recognize. Search whether chemicals hang around in water, air, or the body. Take real stories and research seriously. Plenty of alternatives won’t harm family health or future seasons. Changing habits takes effort, but improving what we use rewards everyone—both today and for the next generation.
Bis(Peroxynonanoic Acid) lands in a category that doesn't belong anywhere near the neighborhood garbage bin. This chemical, often used in specialty sterilization or tough cleaning cycles, carries both oxidizing strength and a real risk if tossed without care. In my own lab days, we used this acid for controlled reactions, always knowing spills spelled trouble—burned paper, corroded gloves, and that nose-stinging aroma made you double-check every step. Mishandling this stuff can hurt people and eat through metal; dump it, and you risk fires, injuries, and contaminated soil.
Ultimately, water systems can’t handle strong oxidizers. Pouring this stuff down the sink isn’t just a violation of most waste rules—it has a real impact. Pipes take a beating, and you put utility staff at risk. Chlorinated water plus oxidizers kicks off chemical reactions that can release gas or corrode municipal lines. A 2020 EPA bulletin listed peroxides among the top hazardous wastes to keep out of drains. So it’s not about following rules for their own sake. That warning comes from hard-won experience.
The safest route starts with neutralization. Facilities that buy Bis(Peroxynonanoic Acid) usually have a chemical fume hood and strict waste bins marked “Oxidizers.” Spent solutions never sit around. Most of us wear heavy gloves and masks, diluting the acid down with a carbonate or a reducing agent under supervision. The neutralized liquid gets labeled and picked up by a licensed hazardous waste contractor. These folks know how to treat it—high-heat incineration, chemical treatment, or a combination. Years back, our team watched as disposal pros used sodium thiosulfate to quench leftover peroxide strength, then packed the contents for offsite incineration.
Empty containers have residue—a sneaky risk. Even a plastic jug, once used, keeps traces of oxidizer on the rim or cap. Leaving it unwashed or tossing it in regular trash opens up the danger of slow leaks or reactions with other waste. We always rinsed these containers out three times with water, which then joined the rest of our chemical waste stream—and never, ever, the recycling bin. The empty, triple-rinsed bottle gets marked and handed over to hazardous waste handlers, who won’t let it meet the heat until every detail is checked off their list.
In the end, it comes down to basic safety and respect for others down the line—the sanitation workers, the folks at treatment plants, and the neighbors relying on clean water and soil. The best move is to check local hazardous waste schedules or get advice from a pro. Most public health websites outline drop-off schemes or scheduled pickups for dangerous household chemicals. If you are in a spot without local chemistry knowledge, organizations like ACGIH or your regional EPA offices answer questions from small businesses or curious citizens. We all share the backyard, and a little extra effort with chemicals like Bis(Peroxynonanoic Acid) keeps it safe for everyone.
| Names | |
| Preferred IUPAC name | Bis(peroxyoctanoic acid) |
| Other names |
Peroxynonanoic acid, bis compound with inert solid Bis(peroxynonanoic acid) compound with solid Bis(peroxynonanoic acid) [<27%] on carrier |
| Pronunciation | /ˈbɪs pəˌrɒk.si.noʊˈneɪ.ɒk ˈæs.ɪd/ |
| Identifiers | |
| CAS Number | ['105055-47-4'] |
| Beilstein Reference | 2398737 |
| ChEBI | CHEBI:141517 |
| ChEMBL | CHEMBL4295028 |
| ChemSpider | 21630838 |
| DrugBank | DB11239 |
| ECHA InfoCard | 03eef4f8-bc90-491c-9452-5a887269d3eb |
| EC Number | 401-280-0 |
| Gmelin Reference | Gmelin Reference: 102110 |
| KEGG | C21131 |
| MeSH | D000072670 |
| PubChem CID | 132474298 |
| RTECS number | GF8575000 |
| UNII | 38W8RF669M |
| UN number | UN3116 |
| CompTox Dashboard (EPA) | DTXSID2022348 |
| Properties | |
| Chemical formula | C18H34O6 |
| Molar mass | 676.86 g/mol |
| Appearance | White granular solid |
| Odor | Slightly pungent |
| Density | 1.06 g/cm³ |
| Solubility in water | insoluble |
| log P | 3.8 |
| Vapor pressure | Vapor pressure: < 0.05 hPa (20 °C) |
| Basicity (pKb) | pKb < 0 |
| Dipole moment | 2.9001 D |
| Thermochemistry | |
| Std enthalpy of combustion (ΔcH⦵298) | -12256 kJ/mol |
| Pharmacology | |
| ATC code | D08AX99 |
| Hazards | |
| Main hazards | Oxidizer, harmful if swallowed, causes serious eye damage, may cause respiratory irritation. |
| GHS labelling | GHS02, GHS05, GHS07, DANGER, H242, H302, H314, H332, P210, P220, P234, P260, P264, P270, P271, P280, P301+P312, P302+P352, P304+P340, P305+P351+P338, P310, P321, P370+P378, P403+P235, P405, P501 |
| Pictograms | GHS03,GHS05 |
| Signal word | Danger |
| Hazard statements | H242, H302, H318, H335, H410 |
| Precautionary statements | P210, P220, P221, P234, P260, P264, P271, P272, P273, P280, P283, P302+P352, P304+P340, P305+P351+P338, P312, P321, P330, P332+P313, P333+P313, P337+P313, P361+P364, P370+P378, P403+P233, P403+P235, P405, P501 |
| NFPA 704 (fire diamond) | 3-1-4-OX |
| Autoignition temperature | 160°C |
| Lethal dose or concentration | LD₅₀ Oral - Rat: > 2000 mg/kg |
| LD50 (median dose) | > 2000 mg/kg (rat) |
| NIOSH | RX1400 |
| PEL (Permissible) | PEL (Permissible): Not established. |
| REL (Recommended) | 0.2 mg/m³ |
| IDLH (Immediate danger) | Unknown |
| Related compounds | |
| Related compounds |
Nonanoic acid Peracetic acid Bis(peroxylauric acid) Bis(peroxyoctanoic acid) Hydrogen peroxide |
