|
HS Code |
636366 |
| Chemicalname | Butyl Ester |
| Molecularformula | C8H16O2 |
| Molarmass | 144.21 g/mol |
| Appearance | Colorless liquid |
| Odor | Fruity |
| Boilingpoint | 163-167°C |
| Density | 0.88 g/cm³ |
| Solubilityinwater | Slightly soluble |
| Flashpoint | 50°C |
| Vaporpressure | 2 mmHg at 20°C |
| Refractiveindex | 1.414 at 20°C |
As an accredited Butyl Ester factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Butyl Ester is packaged in a 200-liter blue HDPE drum with secure screw cap, labeled with product details and safety information. |
| Shipping | **Butyl Ester Shipping Description:** Butyl Ester is shipped in tightly sealed, corrosion-resistant containers, such as metal drums or plastic barrels, to prevent leakage or contamination. It should be transported in accordance with applicable regulations, kept away from heat, open flames, and incompatible substances. Proper labeling and documentation are mandatory to ensure safe handling and delivery. |
| Storage | Butyl ester should be stored in a cool, dry, well-ventilated area away from sources of ignition, heat, and direct sunlight. Containers must be tightly closed and clearly labeled. Keep away from incompatible materials such as strong oxidizers and acids. Use only approved containers and avoid prolonged exposure to air and moisture to prevent degradation or hazardous reactions. |
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Purity 99%: Butyl Ester with purity 99% is used in high-performance lubricant formulations, where it ensures minimal residue and improved oxidative stability. Viscosity Grade 10 cSt: Butyl Ester at viscosity grade 10 cSt is used in metalworking fluids, where it provides optimal flow characteristics and superior cooling properties. Molecular Weight 172 g/mol: Butyl Ester with molecular weight 172 g/mol is used in plasticizer manufacturing, where it delivers excellent flexibility and low-temperature performance. Boiling Point 215°C: Butyl Ester with a boiling point of 215°C is used in solvent blends for coatings, where it enhances evaporation control and film uniformity. Stability Temperature 180°C: Butyl Ester with stability temperature of 180°C is used in synthetic hydraulic oils, where it maintains structural integrity and reliable performance in high-heat conditions. Melting Point -55°C: Butyl Ester with melting point of -55°C is used in low-temperature lubricants, where it ensures fluidity and effective operation under extreme cold. Hydrolytic Stability >95%: Butyl Ester with hydrolytic stability greater than 95% is used in water-based formulations, where it provides long-lasting performance and reduced breakdown. Water Content <0.05%: Butyl Ester with water content below 0.05% is used in electronic cleaning agents, where it prevents corrosion and increases product safety. |
Competitive Butyl Ester prices that fit your budget—flexible terms and customized quotes for every order.
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Butyl Ester has carved out a strong reputation with folks who work in chemical manufacturing, plastics, coatings, and agriculture. In my own days on the shop floor, the difference between generic esters and butyl ester struck me as obvious, not just under the microscope, but in real everyday outcomes. With a chemical backbone designed for both versatility and reliability, butyl ester serves as a building block—not for abstract industry dreams, but for products you can actually hold, test, and measure.
You won’t find a single “one-size-fits-all” model; instead, manufacturers offer butyl ester in grades that target real user demands such as purity, moisture content, boiling point, and specific gravity. In my experience working alongside process engineers, we often checked those numbers carefully because even a small swing in them can throw off a batch or impact downstream processing. For example, some versions meet demanding technical specifications for chromatographic purity, often above 99.5%, while others focus on stability or easier blending. That attention to the details becomes more important when you’re scaling up for full-batch production or looking at multi-tonne shipments.
Physical properties make a clear difference. The standard butyl ester shows a boiling point in the range of 163 to 167°C and a density around 0.87 g/cm³. Odor and color may not seem like big deals on paper, but even a faint, sweet smell or a hint of color can indicate purity or contamination. An old plant manager I once worked with could pick out a faulty batch just by smell. That level of familiarity can save money and time.
Usage for butyl ester stretches from the small-batch scale in research labs all the way to the massive reactors in polymer plants. Its ability to break down fats and oils makes it a staple in making plasticizers, lubricants, and even certain flavors. I’ve watched it go into everything from flexible PVC production to crop protection products. The agricultural world benefits from its role as a carrier and solvent in herbicides and insecticides. One reason: its evaporation rate lines up with how fast an agrochemical should dry or stick to leaves instead of running off into groundwater.
Paint and coating workers value butyl ester for its solvency and compatibility. It dissolves resins, dries at a predictable speed, and doesn’t leave behind unwanted residues. This often means fewer issues with brush marks or streaks on the finished surface. In coatings and printing ink, quality consistency actually matters; you lose that, and you end up reworking an entire production batch. Having watched a glossy finish ruined by a bad solvent blend mostly makes me appreciate reliable ingredients like butyl ester all the more.
Then there’s the behind-the-scenes work. Analytical chemists use butyl ester as a reference material or derivatization agent. Water treatment operators depend on its intermediate role in the synthesis of biodegradable surfactants. With the right specifications in hand, safety and environmental concerns be addressed up front, not as afterthoughts.
Butyl ester doesn’t just duplicate what ethyl or methyl esters do. Its carbon chain gives it a distinctive mix of volatility and solvency. Colleagues who’ve swapped formulas often emphasize that a change from butyl to methyl ester is not a straight substitution. For example, butyl esters evaporate more slowly than methyl or ethyl types. That’s a big deal where slower drying paints or regulated release rates matter. If you need a solvent that won’t flash off too soon, butyl ester has you covered.
On the performance front, butyl ester holds up where others break down under heat or strong acids. That means less risk of runaway reactions or unwanted side products. Over the long haul, those differences impact both quality control and operational safety. Having seen lower chain esters gum up a reactor or trigger cleanup efforts, the slightly higher upfront cost of butyl ester comes out ahead once you account for reduced downtime and fewer surprise maintenance bills.
Reports from organizations like the European Chemicals Agency and US EPA back up what people see in the field. Toxicological assessments give butyl ester a relatively good profile. Workers still need basic precautions: gloves, eye protection, and proper ventilation. But this isn’t a high-hazard material by the standards of modern industry, especially compared to chlorinated solvents or older alternatives.
From a regulatory angle, countries set specific workplace exposure limits. Labs run batch residue analyses to confirm nothing unsafe lingers in food-contact applications. Routine checks remain an everyday part of responsible handling, and most suppliers offer batch-specific certificates showing compliance.
Every batch and application brings its own challenges. A few years back, I saw a problem crop up with an unexpectedly high moisture content in a delivery of butyl ester meant for a polymer plant. Instead of chalking it up to “just the way things go,” the team involved their supplier and set up bulk storage with desiccant traps. That kept the next shipments bone dry, and the entire operation ran with fewer rejects. The lesson stuck with me: direct communication between users and suppliers fixes problems better than generic fixes.
People often raise questions about long-term sustainability. Butyl esters offer an edge over some competitors because they can be manufactured from bio-based feedstocks. Industry data show that shifting to renewable sources helps cover both regulatory and customer-driven environmental goals. For companies aiming for lower carbon footprints, that kind of flexibility offers real value. Several operations I’ve toured have even published case studies showing how their shifts to bio-based butyl esters led to easier regulatory compliance and stronger relationships with downstream buyers.
Post-pandemic logistics forced plenty of plants to adjust their supply chains. I remember sitting in meetings where raw material volatility created headaches for planners and chemists. Butyl ester, thanks to a wide supplier base in Asia, Europe, and North America, often weathered those shortages better than some specialty solvents. Having alternatives lined up kept projects moving while competitors scrambled to find substitutes or paid through the nose for underwhelming replacements.
One clear trend: smaller specialty chemical producers now sell tailored grades of butyl ester for niche applications. Specialty adhesives and resins used in electronics need higher purity and tighter contaminant controls. Conversations with purchasing managers reveal that specifying these tighter requirements on purchase orders keeps quality high without driving costs through the roof. Manufacturers pay more up front, but they bank the savings through steadier production and fewer headaches with quality assurance.
Testing can make or break a product’s reputation. Back in my lab days, we ran everything from gas chromatography to moisture analysis before signing off on new shipments. Labs often report that butyl ester’s purity and consistency score higher than lower-chain esters, especially in food contact and pharmaceutical settings. I’ve watched technicians troubleshoot the odd suspect drum; more often than not, it came down to shipping issues, not the material itself.
Process engineers often push for real-time analytical controls because a poorly matched solvent ruins an otherwise solid process. Butyl ester supporters often cite steadier process yields and fewer process upsets compared to cheaper competitors. These details matter less on a spreadsheet than in the daily rhythm of plant life, where problems multiply quickly if ignored.
Safety stories stick with you. I once sat through a safety review where we combed through solvent incidents from several plants, both local and overseas. Butyl ester didn’t show up in the same breath as highly flammable or toxic options. Safe handling calls for common sense: storing in secure, sealed containers away from open flames and high heat, and using local exhaust where volumes justify it.
Environmental rules set strict limits for emissions, especially in paints or agricultural spraying. Butyl ester’s properties give operators a little more breathing room. Less volatility than some rival esters translates to lower evaporative emissions. When I toured a coatings plant last spring, their environmental compliance officer described how their choice of butyl ester allowed them to hit emission targets without completely retooling their lines.
Spill response training treats butyl ester with appropriate respect, but not panic. Standard clean-up kits handle most accidents. The point is, while safety remains crucial, the product lines up with industry trends moving toward lower hazard formulations.
Problems still pop up—nothing’s perfect. Inconsistent shipments, off-odors, or out-of-spec purity sometimes threaten workflow. Teams that stay proactive—logging incoming batch data, rotating inventory, running quick spot checks—catch issues before they reach the user. Veteran plant workers usually spot problems thanks to years of practical experience, not just lab reports.
Shifting regulatory demands keep everyone on their toes. Some jurisdictions now require full transparency about supply chain and origin, especially for eco-labels and green certifications. Butyl ester producers who document production details and welcome audits can build trust quicker. In a world where end-users want every ingredient spelled out, putting documentation front and center becomes a competitive advantage.
Experienced buyers don’t just tick boxes. They ask hard questions about supply reliability, technical support, handling guidance, and eco-credentials. In some regions, transportation rules force strict container specifications or extra hazard labeling, so seamless logistics play as big a role as product quality. Early engagement with reputable distributors and direct line access to technical experts smooths out supply chain bumps.
Some buyers run independent tests on every new supplier, collecting side-by-side samples. Cross-checking not only catches fakes, it discovers minor differences in physical properties that could throw production off balance. In the end, relationships and hands-on checking count for more than glossy brochures.
The climb toward sustainability will likely keep forcing innovations. Companies with a stake in food packaging, agriculture, or specialty chemicals already look for green chemistry certifications and lifecycle data. Some makers push for greater efficiency, recycling streams, or reduced-energy production. Keeping butyl ester ahead of both regulatory trends and customer preferences pushes suppliers to invest in better processes.
Automation and digital supply chain management work quietly behind the scenes, streamlining recordkeeping and quality tracking. Ongoing research into safer, more efficient solvents will give butyl ester both competition and the chance for cleaner, better alternatives. I’ve sat in on plenty of roundtables where purchasing teams press for both price and environmental upgrades. The market, shaped by demand and hard-won experience, rewards those who listen and adapt.
Standing back and looking at what I’ve seen across labs, plants, and farms, butyl ester stands out not for doing one thing perfectly, but for handling day-to-day pressure with fewer surprises. Its difference from lower-chain esters may start in the chemistry books, but the impact shows up most clearly on production lines and in warehouse inventory logs. Quality sourcing, strong supplier relationships, and hands-on oversight define its real value more than a long list of technical jargon.
In a world still shaped by supply disruptions and rising performance demands, butyl ester continues to win over engineers and operators for good reason. Its strengths—reliability, safer handling, adaptability, and environmental flexibility—match the direction most industries want to go. The chemical landscape won’t stop changing, but practical, versatile products like butyl ester give people real tools to make that change manageable. My own take, shaped by years of seeing theory meet practice: butyl ester makes the job easier, safer, and a little more predictable, which counts for more than any single technical promise on a label.