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HS Code |
847398 |
| Cas Number | 78-83-1 |
| Molecular Formula | C4H10O |
| Molar Mass G Per Mol | 74.12 |
| Appearance | Colorless liquid |
| Odor | Characteristic alcohol-like odor |
| Density G Per Cm3 | 0.802 |
| Melting Point C | -108 |
| Boiling Point C | 108 |
| Solubility In Water | 8.7 g/100 mL (20°C) |
| Flash Point C | 28 |
| Autoignition Temperature C | 415 |
| Vapor Pressure Mmhg 20c | 10.5 |
| Refractive Index N20d | 1.399 |
| Logp Octanol Water | 0.82 |
| Pka | 16 |
As an accredited Isobutanol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Isobutanol is packaged in a 25-liter blue HDPE drum with a secure screw cap, labeled with hazard and handling information. |
| Shipping | Isobutanol is classified as a flammable liquid and should be shipped in tightly sealed containers, typically drums or IBCs, compliant with UN 1212 regulations. It must be labeled and handled according to hazardous material guidelines, kept away from heat and ignition sources, with proper ventilation during transit to ensure safety. |
| Storage | Isobutanol should be stored in a cool, well-ventilated area, away from sources of ignition, heat, and direct sunlight. Use tightly sealed, corrosion-resistant containers, preferably made of stainless steel or high-density polyethylene. Ensure proper grounding and bonding to prevent static discharge. Store separate from oxidizers, acids, and other incompatible substances. Clearly label containers and follow all relevant safety regulations and guidelines. |
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Purity 99.5%: Isobutanol Purity 99.5% is used in the synthesis of pharmaceuticals, where it ensures high product yield and minimal impurities. Viscosity Grade Low: Isobutanol Viscosity Grade Low is used in coatings formulations, where it provides improved application smoothness and reduced streaking. Molecular Weight 74.12 g/mol: Isobutanol Molecular Weight 74.12 g/mol is used in chemical intermediates production, where it enables consistent process reactions. Boiling Point 108°C: Isobutanol Boiling Point 108°C is used in extraction processes, where it allows for efficient recovery and recycling. Density 0.802 g/cm³: Isobutanol Density 0.802 g/cm³ is used in solvent blends for inks, where it ensures optimal dispersion and print quality. Flash Point 28°C: Isobutanol Flash Point 28°C is used in industrial cleaning agents, where it provides rapid evaporation and reduced residue. Water Miscibility Limited: Isobutanol Water Miscibility Limited is used in lubricant formulations, where it prevents unwanted water absorption and phase separation. Melting Point -108°C: Isobutanol Melting Point -108°C is used in antifreeze products, where it maintains fluidity at extremely low temperatures. Stability Temperature up to 100°C: Isobutanol Stability Temperature up to 100°C is used in resins manufacturing, where it ensures process reliability and thermal stability. Reactivity Low: Isobutanol Reactivity Low is used in plasticizer synthesis, where it minimizes side reactions and improves product consistency. |
Competitive Isobutanol prices that fit your budget—flexible terms and customized quotes for every order.
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In the search for alternatives to traditional solvents and fuels, Isobutanol has stepped forward as a staple in both manufacturing and innovation. You won't find it making headlines like electric vehicles or solar panels, but this clear, colorless alcohol plays a quiet role that keeps many industries running smoothly. Many years in plant operations have taught me that what really matters are products that work, cut costs where possible, and lessen headaches around compliance and storage. That's what sets Isobutanol apart from familiar players like ethanol or methanol.
Isobutanol, sometimes labeled as 2-methyl-1-propanol on technical sheets, stands out for its four-carbon structure. This makes it part of the butanol family, but don’t let the shared name fool you. Compared to straight-chain n-butanol, this structural tweak brings a slight difference in boiling point, solubility, and – most importantly – behavior in various mixes.
On the floor, workers appreciate Isobutanol’s moderate volatility. It evaporates more slowly than ethanol, giving more working time when used as a solvent in lacquers or inks. The faint odor doesn’t rise off the drum like some sharper-smelling chemicals, which earns a nod from anyone blending paint mixes or running bottling lines nearby.
Use of Isobutanol spans several industries, but paints, coatings, and synthetic flavors have taken the biggest interest. I’ve watched teams in furniture factories reach for Isobutanol because it thins resins without leaving the finish too brittle. It boosts flow in nitrocellulose lacquers, helping achieve that smooth, “wet look” that makes a difference when customers run their hands across the final piece.
Printing houses count on Isobutanol to tweak the drying curve of their inks. The extra drying time keeps colors crisp and prevents clogging in high-speed printers. In the oil industry, it proves valuable in the extraction process and for adjusting fuel formulation. This does not simply rely on chemical theory but on the real-world need to manage costs, minimize waste, and maintain safety.
Food processing brings another story. Isobutanol can act as a base for making natural and artificial flavors, contributing that faint, fruity note found in some beverages. While direct consumption is not on the table, the transformations possible with a simple molecule like this continue to surprise even seasoned chemists.
Many within the chemical supply business are quick to lump Isobutanol with ethanol, methanol, and n-butanol. In the daily grind, these products are more like distant cousins. Methanol, for example, offers high volatility and costs less per gallon, but the toxicity risks are enough to keep anyone up at night. Ethanol burns cleaner but draws regulatory attention due to its use in beverages and fuels.
Isobutanol offers a balance that the others struggle to match. Unlike ethanol, it can dissolve both polar and non-polar substances, making it a handy choice for manufacturers switching between water-based and oil-based formulations. Fatigue on the job often comes from running into one-size-fits-all products that fall short. Isobutanol sidesteps that scenario by offering flexibility in use without the jump in hazard risk associated with methanol.
Consider n-butanol, a close chemical relative. It behaves differently under heat and mixes, showing less solubility with water and altering the drying process in paints. Isobutanol gives more working time and fewer headaches with phase separation, which is why you see it selected for jobs where a smoother blend truly matters.
Brochures often emphasize purity percentage, but the field speaks to consistency more than just raw numbers. Industrial-grade Isobutanol usually meets purity levels above 99 percent, which means less downtime due to contaminants clogging up valves, spray nozzles, or reaction tanks. The rest comes down to trace moisture and acidity, details that matter in sensitive processes such as pharmaceutical manufacturing or specialty coatings. Workers in those trades rely not only on testing certificates but also on their own observations—foam levels in tanks, reaction rates, and feedback during quality checks.
Drum packaging and shelf-life also affect daily workflow. Isobutanol’s chemical stability means drums can sit on steel shelving for months without the crust or off-odors that signal the start of degradation. On a personal note, I’ve spent many mornings popping bungs on barrels, and Isobutanol consistently delivers a clean pour. Other chemicals often seem to demand rushing into production to beat the clock.
The discussion around sustainability often seems reserved for consumer-facing products. Sourcing and impact, though, play out in boardrooms and logistics meetings in tougher ways. Traditional Isobutanol production draws from propylene, a petroleum-derived feedstock. This fact is hard to dance around, but recent shifts show promise. Several companies have developed fermentation-based routes, feeding renewable sugars to engineered yeast strains and capturing the resulting alcohol.
The push for bio-based Isobutanol bridges gaps between chemistry and agriculture, supporting farmers as much as it does biochemists and plant operators. While the technology still costs more compared to fossil routes, demand from green-minded brands in paints and fuels keeps driving research and scaling investment.
On the buying side, managers take these factors to heart. Bio-based labels often tip the scales in favor of Isobutanol during procurement rounds for eco-labeled products. In my own research, conversations with buyers consistently highlight a willingness to pay extra for clear proof of sustainability, provided the supply chain remains steady.
Safety protocols around Isobutanol may feel familiar to anyone used to handling organic solvents, but practical knowledge makes all the difference. Skin and eye protection belong in any production line. Ventilation matters, though the lower volatility takes some pressure off handling compared to the higher risk of vapor flashes from methanol or acetone.
The biggest lessons come from actual accidents and near-misses. Spills involving Isobutanol rarely lead to the kind of rapid evaporation that drives up worker exposure. The relatively low acute toxicity lessens risk, though complacency should never sneak in. Cleanup procedures focus on containment and proper disposal rather than immediate evacuation. Lessons from colleagues show that a clear plan and regular drills trump any sticker on a drum.
Looking at the bigger picture, environmental agencies set guidelines for permissible levels in air, land, and water. Isobutanol breaks down biologically, reducing long-term persistence. Disposal should always run through approved waste channels, especially near surface water. In my own career, watching how waste policies changed over the years taught me that practical compliance cuts both regulatory risk and actual hazards.
Nothing in the chemical industry moves without pressure. Isobutanol sits in the crosshairs of several ongoing debates. Fuel blending continues to drive much of the demand, and shifting regulatory landscapes complicate planning. Some countries favor bio-based blending components, while others set strict purity or emissions standards. Even within a given country, rules change with every administration.
Access to reliable suppliers has grown more complicated as shipping and geopolitical events shape pricing and lead times. During port disruptions and shortages, I’ve seen teams scramble to source alternatives, splitting orders among several vendors and building in backup stocks. This ties up capital but pays off by smoothing over the volatility that has marked the last decade.
Another factor involves growing concern over Health, Safety, and Environment compliance. As end-customers ask more questions about chemical footprint and traceability, documentation and digital tracking have taken center stage. New tracking systems, driven by blockchain or centralized data standards, are appearing everywhere. Adapting to these systems has eaten up budgets and staff time, but has made auditing simpler for everyone from purchasing to quality control.
Market trends rarely stay still for long. Not long ago, Isobutanol was mostly a niche chemical. Today, auto manufacturers experiment with gasoline blends containing Isobutanol to replace or reduce ethanol, seeking both improved engine compatibility and reductions in emissions. Paint producers, too, are refining waterborne and low-VOC formulas, and Isobutanol’s unique solubility makes it one of the few alcohols that work across these competing requirements.
New applications keep surfacing every year. Pharmaceutical companies analyze its potential as a carrier or reaction medium, noting the smoother handling compared to some traditional solvents. The fragrance industry, traditionally reliant on ethanol, eyes Isobutanol as a way to modulate scents and extend shelf life in boutique formulations.
Despite the competition from old stalwarts like n-butanol and ethanol, Isobutanol’s adaptability secures its spot. Recently, demand in Asia has seen notable growth, especially as local industries upgrade technology and increase environmental scrutiny. Distributors in Europe point to stable customer bases built around adhesives and industrial cleaners, where Isobutanol remains preferred thanks to ongoing performance and lower regulatory hurdles.
Resolving the challenges that surround Isobutanol starts with upstream investments. Boosting bio-based production capacity remains high on industry wishlists. Shifting more facilities toward fermentation using agricultural waste or purpose-grown crops can improve both environmental impact and insulate supply chains against oil price swings. The more we anchor chemical supply to renewable sources, the fewer surprises we meet when global trade hits a bump.
Innovation has also come from packaging and delivery. Some suppliers deliver Isobutanol in returnable, tamper-proof tanks with tracking chips embedded right in the cap. These reduce contamination and theft, and allow for remote monitoring of stocks. Feedback from plant managers indicates this moves the needle on both efficiency and loss prevention.
Digital twins—computer models that run virtual process simulations—are another practical tool. By modeling how Isobutanol flows through existing plant setups, engineers can tweak recipe input or equipment calibration to optimize yields and minimize waste. Several plants have reported substantial cost savings and emission reductions through small process changes identified in these digital tests.
I’ve had the chance to speak with people across the value chain, from truck drivers delivering bulk deliveries to chemists developing new coatings in small labs. What strikes me is the straightforward appreciation for a product that fits into a broad range of jobs with minimum fuss. Forklift operators note that pallets of Isobutanol spill less and store cleaner, making for easier inventory checks. Quality-control staff rely on its predictable performance batch after batch, which cuts down on troubleshooting and production delays.
Even at the level of small and medium enterprises, Isobutanol holds appeal. Its flexibility means that smaller outfits can purchase a single drum and use it across several processes—cutting paint, mixing flavors, or cleaning gear. That sort of utility makes a difference for companies chasing tight margins.
Keeping up with evolving regulations poses a real, ongoing challenge. Agencies shift policies to address everything from emissions to storage and transport. Isobutanol lands in a safer spot than methanol for many labeling and transport regulations, but rules can change rapidly, especially in regions tightening VOC (volatile organic compound) controls in paints and printing.
One solution for staying ahead of the curve involves closer cooperation with trade groups and regulatory consultants. Open lines of communication with these bodies allow companies to influence policy and receive timely updates. Some plant teams now review local laws weekly and implement process tweaks or reformulations on short notice—a practice that didn’t exist a decade ago.
The digitalization of paperwork has smoothed audits and reduced errors. Automated systems flag compliance issues before shipments leave the gate, lowering the risk of costly violations. Teams I have worked with point to fewer surprise fines and better alignment with client sustainability goals.
While much of the work around Isobutanol happens out of sight, increasingly, end-users ask questions. Whether it’s companies buying paint for office buildings or manufacturers adding flavors to health drinks, buyers are getting savvier about the ingredients flowing through their supply chains. This rise in awareness places new demands on everyone from marketers to logistics coordinators.
To address this new reality, many suppliers share detailed background on sourcing and production practices. Full transparency—with QR codes linking to third-party certifications or lifecycle analyses—offers a competitive advantage as well as reassurance. I have seen contracts won or lost on the basis of this kind of information.
Isobutanol does not offer the glamour of new gadgetry or headline-making environmental impact. Yet, in the day-to-day reality of chemical production, manufacturing, and logistics, its unique characteristics and dependability give it a staying power that outshines many trendier innovations. As companies focus more on sustainability, worker safety, and end-product performance, Isobutanol answers these demands with a blend of practicality and versatility that has kept it in the conversation for decades—and, from where I stand, shows every sign of sticking around for many more.