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1-Nonene: Looking Beyond the Basics

Historical Development: More Than a Footnote in Chemistry

Decades ago, organic chemists got interested in alkenes for their versatility. 1-Nonene, a higher olefin in the straight-chain alkene family, didn’t jump into the spotlight the way ethylene or propylene did. Its story runs quietly alongside the greater chemical industry, carving a role for itself as industries searched for high-performing detergents and lubricants. The increased demand for surfactant intermediates and lube oil additives in the second half of the twentieth century brought 1-Nonene into sharper focus. As the American economy industrialized, chemical plants turned to hydrocarbon feedstocks, and so 1-Nonene, once an obscure by-product, found steady value in niche but crucial markets. For folks working in refining or materials science, this molecule represents a textbook example of how commercial pressures often drive innovation long after initial academic interest has faded.

Product Overview: Practical Uses, Real Impact

In daily life, most people rarely think about 1-Nonene, yet it shapes many essentials. Its strongest impact shows up in the creation of alkylated phenols, which become foundational blocks for detergent additives. If your car runs smoothly or your laundry comes out fresh, odds are good you’re seeing the results of chemistry that leans on 1-Nonene. This compound does a lot of unsung work, connecting crude hydrocarbon resources to shelf-ready products. It serves in the plastics and surfactant industry, and finds its way indirectly into various polymers, resins, and synthetic lubricants. The invisible thread it creates between raw material and high-end application demonstrates why even seemingly simple alkenes deserve serious attention.

Physical & Chemical Properties: Not Flashy, But Crucial

1-Nonene appears as a colorless liquid under standard conditions, hydrophobic and distinctly organic in scent. It boils near 146 to 151 degrees Celsius and freezes at a handful of degrees below room temperature. The molecule has nine carbon atoms, designated C9H18, with a double bond at the very front. This unsaturation at the alpha position opens it up for chemical reactions, but the molecule itself stays pretty stable if left in a sealed drum. Flammability must be respected—its volatility brings both opportunities and hazards for chemical engineers. Its density and viscosity fit well among its sibling alkenes, sitting between octenes and decenes in substance and behavior.

Technical Specifications & Labeling: Standards Grounded in Experience

Packaging and handling standards have evolved thanks to years of feedback from logistics, storage, and plant operators. Labels focus on the compound’s flammability and possible peroxidation during storage—long-term exposure to air creates reactive oxygen species. Many producers lean on industry-standard purity grades, generally above 98 percent, to ensure performance and avoid fouling downstream catalysts. Documentation follows strict rules for chemical identification, from the CAS number to UN hazard codes, but it’s in the warehouse and transport yard that risk is truly managed, not just printed out. Temperature management and vapor containment receive regular scrutiny. In practice, most responsible operators know that a simple accident or spill can cascade—the whole system depends on vigilance rather than just checkboxes.

Preparation Method: Not Every Reaction Is Created Equal

The traditional route to 1-Nonene traces back to industrial oligomerization of ethylene or propylene, using specialized catalysts. Manufacturers use alkylation or dehydrogenation approaches, but the so-called ‘trimerization’ of propylene via Zeigler or organometallic catalysts tends to prevail based on efficiency and yield. Anything lower than high selectivity means extra purification or more waste, which translates to cost and environmental burden. In recent years, catalysts containing nickel or rare earth metals have delivered improvements, though supply chain disruptions for rare metals continue to matter. From my own work in research chemistry, I’ve seen how incremental tweaks—temperature, pressure, residence time, co-catalyst ratios—can make the difference between a routine production run and a maintenance headache. The industry rarely goes public with proprietary production data, leaving innovation locked away except for those working directly with process engineers.

Chemical Reactions & Modifications: Room for Creativity

With its terminal double bond, 1-Nonene is a magnet for addition reactions. Industrial labs favor its use in alkylation of phenol to yield nonylphenol, a precursor for non-ionic surfactants. Companies making synthetic oils explore hydroformylation—reacting 1-Nonene with carbon monoxide and hydrogen—to build up aldehydes, which then convert to plasticizers or specialty alcohols. Hydrogenation reduces the double bond, leaving nonane, which may seem trivial but fills a need for certain solvent applications. On the research fringe, chemists keep probing for greener transformation pathways: photochemical epoxidation or enzymatic functionalization, for example. This area promises more sustainable chemistry, but scaling up remains a barrier. The main chemical dance always comes down to what delivers the highest yield with the cleanest product, lowest energy bill, and tightest environmental controls.

Synonyms & Product Names: More Than One Identity

Anyone ordering or stocking chemicals encounters language drift. 1-Nonene runs by a few aliases in the trade: Non-1-ene, Alpha-Nonene, N-Nonene. These variants usually reflect supplier preference or old habits from process engineers. In the lab, the IUPAC name prevails for clarity, but safety data sheets often list every alternate label to avoid mix-ups. This is more than nit-picking—it prevents dangerous confusion in case of spills or emergency situations, where clear labeling shapes quick response. Such attention to detail isn’t just academic, but forms the backbone of site safety. Everyone from student researchers to seasoned operators benefits from good habits around chemical identity.

Safety & Operational Standards: Minimizing Hazards, Maximizing Uptime

Managing 1-Nonene in large quantities means respecting both its chemical properties and the realities of factory life. Its flammability establishes strict fire control strategies: no open flames, electrical ignition-protected equipment only, well-maintained containment dikes, and portable extinguishers at the ready. Proper personal protective equipment—nitrile gloves, eye protection, and well-ventilated work zones—keeps minor leaks from turning into medical issues. Storage protocols require vapor-tight drums, checked regularly for oxidation products. I’ve seen complacency breed problems in facilities where protocols felt optional. Regular drills, strong reporting cultures, and real buy-in from everyone on the ground keep incidents rare. Chemical hygiene means more than paperwork; it thrives or fails in the everyday work culture and the small checks people do unconsciously.

Application Area: Quietly Enabling Modern Products

Behind every major cleaning agent, lubricating oil, or specialty plastic, there’s a long pedigree of foundational chemicals. 1-Nonene anchors the raw material chain for alkylphenol manufacture, which leads on to nonionic surfactants, plastics, and lubricants. These surfactants show up in industrial detergents and textile processing, where cleaning efficiency and process reliability matter as much as environmental compliance. In synthetic lubricant blends, the nonyl derivatives that start with 1-Nonene contribute to viscosity, temperature stability, and engine wear prevention. Even the tire industry takes advantage of these intermediates to optimize rubber processing. The reach is quiet but vital—supply disruptions or shifts in feedstock price ripple through many consumer products without most folks ever noticing.

Research & Development: Sustainability Calls Out the Next Challenge

Academic and commercial research keep returning to 1-Nonene as an entry point for greener chemistry. Social and regulatory pressure now push hard for alternatives to nonylphenol, given its persistence in the environment. Researchers turn to catalyst redesign for selective alkylation or explore biobased routes from plant oils instead of petrochemical feedstocks. Modifying the structure, tinkering with side chains, and shifting the reaction sequence all play a role in keeping products compliant and competitive. Next-generation purification and process intensification cut both waste and energy usage, answering rising ESG expectations. I’ve seen partnerships forming between academic labs and industrial R&D teams, each side trying to shrink the gulf between benchtop proof-of-concept and thousand-tonne plants. Every time one process tightens up, margins improve and environmental footprints shrink. In my view, the greatest successes come where chemists listen to operators, and vice versa—nobody solves big technical problems in isolation.

Toxicity Research: Risks Under the Microscope

Scrutiny of 1-Nonene means more than just ticking regulatory boxes. Most acute toxicity studies point to effects similar to other light hydrocarbons: headaches and skin irritation for workers exposed to high vapor concentrations, or mild respiratory symptoms if inhaled. Large-scale environmental release raises freshwater toxicity concerns, especially because breakdown products include nonylphenols—known for estrogen-mimicking effects that alarm ecologists. Research efforts now probe both the acute and chronic impacts all along the product chain, from accidental spills during loading to persistent traces in aquifers. I know environmental chemists who spend months tracking low-level contamination from detergent breakdown, worrying less about dramatic poisonings and more about small, long-term shifts in aquatic systems. Pushing for improved containment and rapid reporting of leaks helps reduce these risks, but vigilance stays necessary even as standards improve.

Future Prospects: Next Steps for 1-Nonene

The path ahead for 1-Nonene weaves through sustainability debates and shifting consumer demands. Policy encourages cleaner and safer routes, and companies that produce or use 1-Nonene face steady pressure to minimize risks, cut emissions, and rethink dependency on petro-based intermediates. The molecule’s commercial value won’t disappear overnight, but substitutions and greener synthetic routes look increasingly attractive—especially as FMCG and industrial buyers react to EU bans and stricter global oversight. Some start-ups already chase renewable sources or more benign downstream chemistries, often with the backing of regulatory carrots and sticks. For anyone in the field, this period brings no simple answers—adaptation and openness to new techniques rule the day. Those who pay close attention, learn from mistakes, and keep pushing for better methods will keep 1-Nonene in the conversation, without letting legacy practices stand in the way of safer and smarter chemical production.




What is 1-Nonene and what are its main uses?

What Exactly is 1-Nonene?

1-Nonene is an organic chemical that chemists classify as an alkene. Picture a molecule made of nine carbon atoms arranged in a chain with a double bond stuck between the first and second carbons. Its structure gives it a special knack for bonding and reacting with other chemicals. I remember the sharp, gasoline-like smell from my lab days, where even a splash on your gloves could fill the room. This chemical doesn’t appear on a store shelf, but it plays a hidden part in the things we use.

Biggest Players in the 1-Nonene Space

Most of the world’s supply comes from places with major petrochemical infrastructure, like the U.S. Gulf Coast, Western Europe, and China. Suppliers turn long chains of hydrocarbons from crude oil or natural gas into substances like 1-Nonene through a process called oligomerization. Working next to cracking units and the steady rumble of tubes always put into perspective how much the products of the oil industry touch daily life, even before the fuel makes it to the pump.

The Heart of Modern Detergents

1-Nonene’s biggest claim to fame sits in laundry rooms and kitchens. Chemical companies use it to make nonylphenol, a key ingredient in nonionic surfactants found in many liquid soaps and detergents. Nonylphenol lets oils and greasy stains mix with water, so clothes or dishes actually come clean. Nonylphenol gets attention because it doesn’t break down easily and can accumulate in rivers, putting fish and human health at risk. Wastewater engineers know that balancing cleaning power and environmental safety adds a layer of challenge.

Other Uses in Modern Chemistry

Lubricant manufacturers use 1-Nonene as an intermediate to create additives that keep engines and machinery running smoothly, especially under high pressure or heat. These additives help form protective films on metal surfaces, prolonging equipment life. My old mechanic would point out how even small chemistry changes in lubricants can mean fewer breakdowns and more miles on the road.

1-Nonene also plays a part in the plastics industry. Its derivatives often modify resins or toughen up plastics, boosting strength or flexibility for packaging, containers, and countless consumer goods.

Challenges and the Way Forward

Chemicals like 1-Nonene draw criticism for their links to pollution. Many countries now regulate nonylphenol in detergents, pushing the industry to develop safer alternatives. People in the field track regulations from agencies like the EPA or European Chemicals Agency. Research labs and green chemists amplify the hunt for options that break down faster in the environment without giving up performance. Some companies now market new surfactants made from plants or safer synthetic molecules.

Improvement doesn’t just rest with manufacturers. Businesses that use cleaning products can look for safer formulas. Home consumers might support brands that carry eco-friendly certifications. Governments can fund research, set stricter discharge limits, and create incentives for greener chemistry. In my experience, lasting change happens when every layer of the chain shifts together, from the refinery technician up to the shopper scanning ingredients in a store aisle.

What are the physical and chemical properties of 1-Nonene?

Physical Features that Matter

Straight out of my college days messing around in the Chem Lab, I remember the distinct smell some chemicals leave behind, and 1-Nonene has one that stays with you: sharp, a bit like gasoline, but there’s a faint sweetness in the air. It comes as a colorless liquid, stays clear without clouding, and doesn’t mix with water. So if it ever hits the floor, water won’t wash it away easily. Don’t expect big puddles, though — 1-Nonene evaporates fairly quickly, thanks to a boiling point sitting at about 146°C. In a hot factory or lab, that makes a difference for storage and handling.

Density isn’t always the first thing on people’s minds, but in industrial settings, it counts. 1-Nonene weighs in at about 0.74 grams per cubic centimeter, lighter than water. Drop some in and it will float. This fact alone tells you about the nature of 1-Nonene and goes a long way in separating it out from waste streams or spills. It also means it travels easily through pipes or tanks built for hydrocarbons.

Talking Chemistry: Why 1-Nonene Reacts Like It Does

Give folks in organic chemistry a simple, straight-chain alkene like 1-Nonene, and you see their eyes light up. This molecule sports nine carbon atoms in a row, with a double bond at the end. It doesn’t just sit quietly in a container — given the right nudge, it wants to react. That double bond is the active site, making 1-Nonene valuable for making other chemicals. It’s got a knack for going through addition reactions. Acid loves it, halogens attach easily, and so do hydrogen atoms if you run it through hydrogenation.

Fire safety isn’t just a checkbox — it’s part of the daily grind for workers and lab techs around 1-Nonene. With a flash point hovering around 37°C, it catches fire more easily than many folks realize. Vapors can travel far, meaning one spark or static charge can set off an accident. In my early chemical safety career, I saw more than a few fire drills started by small leaks of similar compounds. Proper ventilation and good grounding are more than just rules; they’re life-savers.

What Makes It Useful (And Risky)

1-Nonene isn’t just a chemical on a shelf. Makers of plastics, surfactants, and lubricants depend on it. The reason? That double bond doesn’t just wait for someone to come along; it joins up with other molecules, letting manufacturers build up larger and more useful products. It’s important for producing nonylphenol, which finds its way into cleaning agents and plastics. Applications like these create jobs, drive innovation, and touch our lives every day, from the way car engines run smoothly to the sparkle of clean glass.

That same reactivity that makes 1-Nonene so handy demands respect. If handled carelessly, the risks go beyond fires. This hydrocarbon can irritate skin, eyes, and lungs — not a surprise for something in its family. Good training, solid safety data sheets, and personal protective equipment aren’t just a formality; they’re the backbone of worker safety. Routine checks and spill protocols reduce exposure and keep workplaces healthy.

Moving Forward: Balancing Use and Responsibility

With tighter environmental rules these days, companies now double down on leak prevention and recovery systems. Scrap and off-gas streams get special treatment to keep air and waterways clean. Cleaner production techniques aren’t just buzzwords; they’re benchmarks for responsible manufacturing. Safer substitutes for some applications are also under development, especially given 1-Nonene’s ties to persistent byproducts like nonylphenol.

Learning about chemicals like 1-Nonene from personal experience and research highlights why practical safety and smart design belong at the core of every lab and factory. It remains an important player, from the science classroom to full-scale industry, and with the right care, it benefits many without leaving a heavy mark.

Is 1-Nonene hazardous or toxic to humans?

What Is 1-Nonene?

1-Nonene belongs to a group of chemicals called alkenes. You’ll run across it mainly in the industry where it acts as a building block for surfactants, lubricants, and plasticizers. The stuff doesn’t just pop up spontaneously – it’s made on purpose, put into barrels, and sent out to do a job. Folks who don’t work with it directly probably won’t bump into it, but for those who do, questions about safety and health risks are fair.

Exposure Concerns and Immediate Effects

Sitting with a safety data sheet and flipping through the warnings, I always kept a cautious eye on chemicals with strong smells, like 1-Nonene. Even without complicated chemistry lingo, the nose can tell about the potential for irritation. 1-Nonene can irritate the skin or eyes, and breathing in high concentrations causes discomfort in the lungs or throat. A splash on bare skin can leave a burning sensation behind. Workplace incidents remind me that most of the trouble comes from accidental spills or sloppy handling.

Risk of Toxicity

It gets tempting for non-scientists to lump all unfamiliar chemicals as equally dangerous. But the record on 1-Nonene doesn’t look like it causes cancer or reproductive harm at common levels found in industry settings. Regulatory groups, including OSHA and the European Chemicals Agency, don’t list it as acutely toxic or chronically hazardous. That means there's little evidence of long-term damage from the types and amounts most people might meet at work.

Real-world cases help clarify. Factory workers handling 1-Nonene in well-ventilated settings, using gloves and goggles, rarely report more than mild irritation, if anything. Safety routines matter a lot more than abstract hazard warnings.

The Importance of Handling Practices

Many chemicals that seem dangerous can be managed safely with the right habits. The lesson from long days on the shop floor? Respect for the product keeps accidents low. Proper ventilation takes the edge off fumes. Protective gear protects skin and eyes from surprise splashes. Training goes far—if the folks handling this stuff know what they’re working with, they can avoid short- and long-term issues.

Facilities that follow established chemical safety programs rarely end up with medical emergencies tied to 1-Nonene. Problems usually start with ignoring safety advice, not from the chemical itself sneaking up and causing harm.

Public Health and Environmental Questions

Once outside the plant, 1-Nonene breaks down relatively quickly in the air, especially with sunlight and oxygen working on it. That quick breakdown keeps widespread contamination risk low. I spent years covering environmental spill responses, so I notice that official clean-up crews worry more about persistent chemicals than about 1-Nonene.

Worries shift a little in locations without strong manufacturing rules. Poorly stored chemicals can leak, and without proper equipment, workers run bigger risks. Regulation and oversight levels matter—stories out of factories in less regulated regions underscore the need for attention to basic workplace protections.

Solutions and Smarter Practices

Factories do best by setting up solid training for anyone working near chemicals. Providing up-to-date material safety data sheets in plain language keeps everyone on the same page. Investing in exhaust systems, gloves, and goggles doesn’t just tick a box on a compliance list—it keeps real people safe at the end of a long shift. For communities near large plants, open lines of communication help raise concerns and allow quick response to leaks or accidental releases.

The takeaway isn’t about panic over this one chemical. It’s about the ongoing need to keep workplace safety simple, accessible, and enforced. 1-Nonene responds to respect for protocols—no magic required, just straightforward attention to best practices that cover a lot more than any one ingredient can.

How should 1-Nonene be stored and handled safely?

What You’re Dealing With

1-Nonene often finds its way into industrial settings because it serves as a building block for detergents, lubricants, and chemical intermediates. This colorless liquid may seem ordinary at first glance, but don’t mistake it for something harmless. It catches fire easily, releases vapors that can cause headaches or dizziness, and reacts with strong oxidizers. I’ve seen workplace accidents happen simply because basic storage rules were ignored. Nobody wants that story repeating itself.

Keeping 1-Nonene in Check

Forget about storing it near a heat source or sunny window. That’s asking for trouble. I’ve walked through warehouses where workers stacked chemical drums haphazardly next to machinery that ran hot all day—inevitably, somebody paid the price with a close call. The right place for this liquid is a cool, dry storage room away from sunlight or ignition sources. Metal drums or approved containers stand up best, with tight lids that block evaporation.

Ventilation turns out to be a bigger deal than many realize. Vapors build up quickly, especially in small rooms. Proper airflow means less risk of reaching those dangerous vapor concentrations. From my experience, cheap fixes—fans in windows, cracked doors—never really cut it. Mechanical ventilation with explosion-proof fans truly drives down risks.

Gear Up Right

Handling 1-Nonene, nobody walks in with bare hands or a T-shirt. At my first plant job, I watched a guy splash his skin because he skipped gloves. The burn that followed kept him off the floor for a week. Gloves made of nitrile or neoprene block contact. Splash goggles and a face shield guard against spills, since it doesn’t take much for liquid to bounce up. Aprons and long sleeves give another layer, especially if working over open containers.

The air you breathe matters, too. If vapor levels tick up—or if spills kick fumes into the air—respirators rated for organic vapors make a difference. Don’t trust your nose; 1-Nonene doesn’t always warn you with a strong smell.

Train Like You Mean It

It’s tempting to treat safety drills as a formality. The truth is, spills and fires don’t send a warning. Employees only react well if they’ve had the right walk-throughs and seen emergency gear in action. Fire extinguishers (Class B, rated for flammable liquids) should always stand within reach. Spill response kits, complete with absorbent pads, gloves, and containers for waste, keep everything localized before hazards spread.

Labeling and signage take the guesswork out of safe handling. It’s not enough to scribble a name on a drum. Clear hazard labels, information sheets nearby, and rules for who’s allowed to move or open containers cut way down on mistakes.

Respect the Rules—For Good Reason

Regulations shape every step of storing and handling chemicals. OSHA and EPA don’t write guidelines just to fill a binder. Inspections and records—like logs of who accessed storage and how much was used—help spot patterns before problems grow. Proper disposal counts for just as much as safe storage. Leftover 1-Nonene runs toxic if poured down the drain or dumped with general waste; only certified disposal routes keep water and soil safe.

Treating 1-Nonene with respect isn’t about paranoia. It’s about learning from real incidents and building safer workplaces. The effort pays off when people go home healthy and operations run without a hitch.

What industries commonly use 1-Nonene in their processes?

Chemicals and Surfactants

1-Nonene may not pop up in everyday conversation, but for anyone who’s spent time around chemical manufacturing, it’s almost like that key spice in a family recipe. The chemical industry uses it mainly to make synthetic surfactants. These surfactants clean everything from kitchen counters to your favorite shirt. When manufacturers start with 1-Nonene, they end up with nonylphenol. Mixing nonylphenol with ethylene oxide creates nonylphenol ethoxylates, heavy lifters in the world of industrial detergents. These chemicals bring the grease-fighting power many cleaners promise on the label.

The scale of use is hard to ignore. According to reports, the global surfactant market continues to grow, much of it anchored by demand from Asia-Pacific as urban populations rise. That puts 1-Nonene in a practical spotlight, supporting jobs and supply chains that reach from chemical plants to supermarket shelves. Rising regulations over environmental and health impacts of nonylphenol-based products have pressured manufacturers to rethink formulations, spurring research in safer alternatives, but 1-Nonene’s core role hasn’t shifted overnight.

Plastics and Polymers

The plastics industry cares about performance, cost, and reliability. 1-Nonene brings its muscle as an intermediate in making certain types of plasticizers and resins. Think of plasticizers like the stretch in a gym band—they let plastics bend and flex. Nonene-based compounds show up in metallocene-catalyzed polymers, such as tough plastic wraps and high-clarity packaging films. The presence of these molecules helps improve processing and end-use qualities: thinner packaging, stronger bags, fewer tears. It’s one way companies meet demands for higher-performing products without overhauling their entire operation.

I’ve seen suppliers tout these benefits at trade shows, where engineers and buyers swap stories. Yet the growing public concern about plastic waste keeps the industry on its toes. Some manufacturers now push for recycling and new polymer designs that minimize environmental impact. Still, for many current products, the reliability of 1-Nonene-based intermediates keeps them in the production mix.

Lubricant Additives

Lubricants may not charm the average shopper, but ask anyone maintaining machinery and you’ll hear about the relentless push for better oil. 1-Nonene earns its place in additive chemistry, especially in producing alkylated aromatics and synthetic lubricants. These substances help oils withstand the punishing heat and stress inside engines and gearboxes. It’s about extending service life and cutting operational costs for industries where downtime means lost profit.

Automobile and industrial lubricants represent massive markets. Data from the American Fuel & Petrochemical Manufacturers shows that additive demand remains steady, with companies seeking formulas that meet stricter emissions and efficiency standards. In this cycle of research and regulation, 1-Nonene helps bridge the gap, enabling a leap in performance while producers experiment with greener technologies.

Looking Forward

Plenty of industries depend on 1-Nonene to deliver products that keep homes, businesses, and vehicles running smoothly. Ongoing research explores ways to make these applications safer for people and the planet. In my experience, the companies that thrive are those that address safety head-on, invest in staff training, and keep an eye on emerging science. By making smart choices today, industries using 1-Nonene can support innovation and keep communities, workers, and consumers in mind—while staying competitive in a market that never stands still.

1-Nonene
1-Nonene
Names
Preferred IUPAC name non-1-ene
Pronunciation /waɪˈnɒniːn/
Identifiers
CAS Number 124-11-8
Beilstein Reference 1433872
ChEBI CHEBI:38846
ChEMBL CHEBI:37586
ChemSpider 61242
DrugBank DB14009
ECHA InfoCard 100.120.223
EC Number 214-249-1
Gmelin Reference 37144
KEGG C08381
MeSH D009647
PubChem CID 8221
RTECS number RN9275000
UNII 88V91Q4FE6
UN number UN2302
Properties
Chemical formula C9H18
Molar mass 126.24 g/mol
Appearance Colorless to pale yellow liquid
Odor pleasant, aromatic
Density 0.759 g/mL at 25 °C
Solubility in water Insoluble
log P 5.34
Vapor pressure 1.27 mmHg (25°C)
Acidity (pKa) 44.4
Basicity (pKb) pKb ≈ 15.2
Magnetic susceptibility (χ) -7.04×10⁻⁵
Refractive index (nD) 1.41401
Viscosity 0.661 mPa·s
Dipole moment 0.44 D
Thermochemistry
Std molar entropy (S⦵298) 311.0 J·mol⁻¹·K⁻¹
Std enthalpy of formation (ΔfH⦵298) -46.3 kJ/mol
Std enthalpy of combustion (ΔcH⦵298) -5571.8 kJ/mol
Hazards
GHS labelling GHS02, GHS07
Pictograms GHS02,GHS07
Signal word Warning
Hazard statements H315, H319, H411
Precautionary statements H226, H304, H315, H319, H335
NFPA 704 (fire diamond) 3-2-2-NULL
Flash point 46 °C (Closed cup)
Autoignition temperature 447 °C
Explosive limits Explosive limits: 0.7–6.0%
Lethal dose or concentration LD50 (oral, rat): 2090 mg/kg
LD50 (median dose) LD50 (median dose): Oral rat LD50: 2500 mg/kg
NIOSH RN0165
PEL (Permissible) PEL: 5 ppm (skin)
REL (Recommended) 100 ppm
IDLH (Immediate danger) IDLH: 250 ppm
Related compounds
Related compounds 1-Decene
1-Octene
Nonan-1-ol
Nonanal