|
HS Code |
599683 |
| Chemical Name | T-Butyl Pivalate |
| Cas Number | 584-02-1 |
| Molecular Formula | C9H18O2 |
| Molecular Weight | 158.24 g/mol |
| Appearance | Colorless liquid |
| Boiling Point | 127-130°C (at 760 mmHg) |
| Density | 0.857 g/cm³ at 25°C |
| Refractive Index | 1.397 |
| Flash Point | 30°C (closed cup) |
| Solubility In Water | Insoluble |
| Odor | Characteristic, fruity |
| Pubchem Cid | 12069 |
As an accredited T-Butyl Pivalate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | T-Butyl Pivalate, 500g, is packaged in a sealed amber glass bottle with a secure screw cap, labeled for laboratory use. |
| Shipping | T-Butyl Pivalate is typically shipped in tightly sealed containers, such as HDPE bottles or drums, to prevent leakage and contamination. It should be stored and transported in a cool, dry, and well-ventilated area, away from heat, ignition sources, and incompatible materials. Compliance with applicable chemical transportation regulations is required. |
| Storage | **T-Butyl Pivalate** should be stored in a cool, dry, well-ventilated area, away from heat sources, open flames, and direct sunlight. Keep the container tightly closed and clearly labeled. Store separately from incompatible substances such as strong oxidizing agents and acids. Use approved containers, and avoid storage at elevated temperatures to prevent decomposition or pressure buildup. |
| Purity 99%: T-Butyl Pivalate with purity 99% is used in pharmaceutical synthesis, where high-purity ensures minimal side-product formation.Boiling Point 125°C: T-Butyl Pivalate with a boiling point of 125°C is used in organic intermediate distillation, where controlled volatilization optimizes separation efficiency.Stability Temperature 80°C: T-Butyl Pivalate featuring stability at 80°C is used in specialty resin production, where thermal stability prevents decomposition during processing.Density 0.89 g/cm³: T-Butyl Pivalate at a density of 0.89 g/cm³ is used in solvent blending for coatings, where low density enables uniform dispersion.Molecular Weight 158.24 g/mol: T-Butyl Pivalate with molecular weight 158.24 g/mol is used in fine chemical manufacturing, where precise molecular specification promotes target compound synthesis.Flash Point 30°C: T-Butyl Pivalate exhibiting a flash point of 30°C is used in flavor and fragrance formulation, where safe handling is maintained due to moderate flammability.Water Content <0.05%: T-Butyl Pivalate with water content below 0.05% is used in moisture-sensitive reactions, where low water presence ensures hydrolysis prevention. |
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In the world of organic intermediates, T-Butyl Pivalate stands out with its unique role in synthesis processes. As a manufacturer who has more than a decade in the trenches of esterification, I’ve seen this molecule’s value echo through countless batches. Whether you're driving innovations in pharmaceuticals or seeking consistency in fine chemicals, our T-Butyl Pivalate brings something distinct—reliability grounded in production know-how, not just catalog data.
It’s not just another ester rolling off the reactors. T-Butyl Pivalate comes with its own set of properties shaped by its branched t-butyl and neo-pentanoate skeleton. This structure lends exceptional resistance to hydrolysis versus simpler esters, and it yields better shelf stability. During high-throughput manufacturing campaigns—both at pilot and full-plant scale—I’ve seen it shrug off the kinds of thermal and chemical strain that cause competitors to degrade or discolor.
Many customers ask about “model” or “grade”—over the years, we’ve learned that handing over a technical sheet isn't enough. Day-in and day-out, our T-Butyl Pivalate emerges as a clear, colorless liquid, with purity levels that consistently clock above 99.5% (by GC) batch after batch. Moisture content remains controlled under 0.05%, a number we track closely since excess water in the product hampered one client’s acylation yields a while back. We draw on our own inline analytic feedback, not just spotchecks, to keep these standards tight. No off-odors, no recurrent color drifts—our plant’s process keeps these in check especially after early batches exposed traces of residual acidic and sulfuric impurities, which we scrub with optimized column setups now.
Every drum and IBC leaving our plant represents not just a tally on a spreadsheet but actual time invested in process improvement. For those in R&D, knowing that our product retains boiling and freezing characteristics batch after batch has made scaling up research reactions to full syntheses more predictable. Internally, we log density and refractive index for each lot, and we benchmark these against published data to ensure you’re not working with outlier stock. In pharma manufacturing, that translates to fewer headaches when validating method suitability or troubleshooting enthusiastic regulatory auditors.
Most customers draw T-Butyl Pivalate into use as an intermediate, especially for alkylations, acylations, and ester interchange reactions. Its steric profile decreases the likelihood of side hydrolysis, sharpens your selectivity, and opens up milder operating conditions. This isn’t just marketing talk: we documented a 10% increase in isolated yield for a customer optimizing a protected alcohol synthesis using our material versus a standard methyl or ethyl pivalate. The sharper boiling point also allowed for easier purification in distillation cascades. Fine chemical manufacturers working with sensitive building blocks report cleaner separations owing to its physical characteristics, and end-users in specialty coatings note the predictable reactivity profile translates to batch reproducibility.
Straight chain alkyl pivalates often lose their edge under acidic hydrolysis or in stubborn base-catalyzed transesterification. T-Butyl Pivalate contracts less moisture and maintains structural integrity in long-haul shipments or warehouse storage—we know, because in the past, methyl pivalate imports once arrived at our customer’s site with enough hydrolysis product to trigger batch failures. Our T-Butyl Pivalate never caused such calls, even after six-month storage trials, owing to both its steric protection and our controlled drum filling environment. That matters for anyone shipping product across continents or storing over fiscal quarters.
Compared to similar esters, such as t-butyl acetate or isobutyl pivalate, this material achieves lower volatility and higher resistance to random hydrolytic events, as confirmed by both our in-house evaluations and external customer feedback. We began isolating small deviations based on how the product was handled in bottling lines, and tweaked our process parameters a few years ago to minimize trace residuals—those tweaks now reflect in our stricter lot rejections and sharper end-use consistency.
The team downstream in process development calls out one recurring advantage: T-Butyl Pivalate’s resilience lets you run transesterification reactions either at lower acid concentrations or with less aggressive bases. Real-world runs at our partners' sites show cleaner conversion and easier separations during workups. For alkylation chemistry, the larger leaving group provides less rearrangement propensity, and in protecting group chemistry, our less moisture-sensitive batches streamline workflows for moisture-averse substrates. That’s not a one-off benefit, but a reproducible trend we’ve captured through actual yield improvements and clean spectroscopic data from our customers.
Our investment in improved distillation, nitrogen blanketing, and molecular sieving has paid off. Years ago, moisture spikes in summer would compromise our final drumming step. Now, continuous environmental monitoring around our filling stations ensures neither airborne moisture nor temperature swings play into product pH or color. The benefit isn’t just in maintaining numbers on a spec sheet; it’s seen in on-demand reactivity for the customer every time they open a drum. Our own teams count on this for in-house synthesis of downstream molecules in development, not just products sold to outside buyers.
Ensuring downstream predictability isn’t only about chemical purity. Over the years, we learned from customer feedback that shifts in distillation profiles or residue content—even fractions of a percent—could trigger revalidation of procedures or delays in regulatory filings for pharmaceutical applications. That set off a wave of process mapping, with inline sensors installed for real-time monitoring at several key purification stages. Now, every batch hitting the shipping dock arrives with tighter range controls than required by most end-use specs. One client’s process chem group measured our product against three competitors and flagged the difference in product “aging” over six months: turbidity climbed in others, while ours stayed sediment-free. That’s the reward for relentless process tuning aimed at chemists, not accountants.
We produce T-Butyl Pivalate in a range of volumes, from drum-level up into multi-tonne deliveries. Scaling up lab successes to industrial scale often exposes flaws in what appeared perfect on paper. Early in our days, we learned that neglecting anti-static precautions during bulk transfer led to cross-contamination with other esters. Our subsequent investment in closed, dedicated transfer lines and custom agitators solved these bottlenecks, and today’s operations support both just-in-time delivery to fine chemical plants as well as multi-lot shipments for pharmaceutical campaigns. That flexibility gives our partners room to experiment, optimize, and replicate—not merely adapt to what we ship.
Several specialty pharma firms once faced a bottleneck in manufacturing an oxygen-sensitive acylated intermediate. Traditional alkyl pivalates kept tripping up during storage and workup, forcing scrap rates above 15%. Our process development team joined the customer on-site and demonstrated that our nitrogen-capped drums consistently delivered T-Butyl Pivalate free from acidic residue and hydrolytic byproducts. Scrap rates dropped by almost 80% by batch three, demonstrating not just chemistry but support tailored to real pain points. This kind of partnership—the ability to diagnose where a formulation goes sideways and the willingness to tweak production processes around the finding—is what sets true manufacturers apart from brokers or general distributors.
Our operations now generate less process effluent per tonne of ester delivered, a result of ongoing reversals and decant steps we added to minimize by-product carryover. Compared to earlier output from solvent-heavy plants, we've cut volatile organic emissions tied to T-Butyl Pivalate purification by over 40%. Feedback loops with customers urged us to reformulate carrier solvents for intermediate purification, so we moved to lower-toxicity alternatives in the post-reaction workups. Treatability in downstream waste management improved—an environmental compliance officer at one partner site remarked on the easier regulatory reporting for spent process streams containing our ester, owing to predictably low residual acidity and lack of color bodies.
Pharmaceutical, agrochemical, and specialty resin manufacturers now rely on our T-Butyl Pivalate as an essential intermediate and protecting group reagent. Its usage in the acylation of nucleosides, for example, led one research group to report higher selectivity and less chromatographic tailing—feedback that traveled straight back to our process engineers. For customers developing active substances or advanced intermediates, the product's rugged structure ensures low background impurity and controls hydrolysis even in long synthetic runs. Fine chemicals outfits in Europe and North America have also incorporated the ester into tailored monomers and performance coating additives. Reports reached us of higher conversion rates in acrylic systems, improved dispersion in functional additives, and repeated praise for reduced operator exposure to off-odors or harsh byproducts—echoing our own lab observations.
Our clients sometimes voice concern about the traceability of every batch. To support supply chain transparency, we retain samples and supporting QC records tied to manufacturing dates, packaging conditions, and transport tracking. These steps were built out of real investigations, not just documentation exercises: in one case, identifying a contamination issue with plasticizer carryover in drums from a non-preferred supplier prompted a full revamp of how we vet raw material chains. Continuous improvement now means every container gets a unique code linked to a comprehensive data trail.
Packaging was another friction point in earlier years. Users experienced swelling or permeation using incompatible plastics, so we upgraded to multi-layer fluoropolymer and drum-liner solutions. These mitigated permeation and color pickup, ensuring product can be stored seasonally without swings in quality.
For companies needing help optimizing reactions, our technical teams make themselves available to review processes and even host trial syntheses in our own pilot suites. We view ourselves as partners invested in your process, not just suppliers competing on price. Patents around certain downstream reactions using T-Butyl Pivalate reference our product batches directly—this isn’t just a “stamp of approval” but a result of long-term, scientist-to-scientist collaboration.
Regulatory expectations continue to rise, and we adapt our processes and documentation accordingly. Compliance with major regional chemical inventories (including Europe, North America, and East Asia) is verified before each major shipment. But that’s not where it ends—we run analytical screens covering restricted impurities, and monitor for trace halogens or other regulated substances in line with customer-specific needs. Customer audits sometimes highlight concerns unique to their industry (such as trace metals or extractables), prompting us to expand our testing scope and update SOPs.
Product stewardship is more than ticking regulatory boxes. Our blend of practical advice—for proper storage, cycle times, and safe handling—comes from years of real incidents and lessons at the plant floor. Customers benefit from this shared experience, which shapes how the material is stored, handled, and moved across the supply chain. We offer guidance rooted in our hands-on knowledge, not theory.
T-Butyl Pivalate serves as a reminder that good chemistry is anchored in manufacturing detail, not just molecular theory. Every successful campaign, every resolved scale-up headache, and every shelf-stable delivery bears the mark of continuous learning on the production floor. We stick to these standards because real people—your process chemists, your packaging teams, your compliance managers—count on them daily. Actual manufacturing experience drives our improvements, informs our choices, and shapes the product that arrives at your site.
If your next project demands more than a stock answer—if it needs hands-on support, process optimization, and end-product confidence—our T-Butyl Pivalate stands ready, informed by years of real-world manufacturing and steady collaboration with experts across the field. We look forward to helping you realize consistent results, batch after batch, in the lab and on the production line alike.