|
HS Code |
181793 |
| Chemical Name | 4-Methyl-6-Tertiarybutylphenol |
| Cas Number | 1879-09-0 |
| Molecular Formula | C11H16O |
| Molecular Weight | 164.25 g/mol |
| Appearance | White to pale yellow crystalline solid |
| Boiling Point | 255-257°C |
| Melting Point | 51-53°C |
| Density | 0.976 g/cm3 |
| Solubility In Water | Insoluble |
| Flash Point | 124°C |
| Refractive Index | 1.526 |
| Purity | Typically ≥98% |
| Storage Conditions | Store in a cool, dry, well-ventilated place |
As an accredited 4-Methyl-6-Tertiarybutylphenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500g of 4-Methyl-6-Tertiarybutylphenol is packaged in a sealed amber glass bottle with a secure screw cap and hazard labeling. |
| Shipping | 4-Methyl-6-Tert-butylphenol is shipped in tightly sealed containers to prevent contamination and moisture exposure. The chemical is typically packed in UN-approved drums or bottles, clearly labeled and accompanied by a safety data sheet (SDS). Transportation follows local and international hazardous material regulations, ensuring safe handling, storage, and delivery. |
| Storage | 4-Methyl-6-tert-butylphenol should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from incompatible substances such as oxidizing agents. Store away from sources of ignition and direct sunlight. Ensure proper labeling and avoid exposure to moisture. Use appropriate personal protective equipment when handling to prevent contact with skin and eyes. |
Competitive 4-Methyl-6-Tertiarybutylphenol prices that fit your budget—flexible terms and customized quotes for every order.
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Tel: +8615380400285
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Working day in and day out with phenolic compounds shapes your understanding of what a molecule can actually do. We’ve spent years refining our production of 4-Methyl-6-Tertiarybutylphenol. This isn’t the kind of phenol you’ll find in bulk commodity markets masquerading under a dozen different grades. We control every batch right down to the last part-per-million, chasing a standard our team has cared about for a decade.
4-Methyl-6-Tertiarybutylphenol—often appearing with a clean white crystalline appearance, recognizable by its stability and consistent reactivity—offers a unique set of properties tailored for specialty chemical manufacturing. We focus on purity levels that matter in every application, not just the type you read about in a spec sheet. In our experience, a product like this acts as a linchpin in formulations, whether used as an intermediate, stabilizer, or building block for downstream chemistry.
Our material comes from reactors we monitor around the clock, not offshore boats or transient warehouses. The model we manufacture—often referenced as CAS 88-60-8—meets purity benchmarks that aren’t negotiable if you’re running finely-tuned synthetic pathways or sensitive polyolefin stabilizations. You’ll notice the color and melt point stay constant, lot after lot, because we monitor for byproducts that slip in with less precision. Typical specifications trend far above 99% purity, with water content and volatile organics staying way below the levels that trigger headaches in advanced chemical synthesis or plastic additive use.
One key point: this is not a one-size-fits-all bulk additive. On our shop floor, chemists go after very specific isomer ratios, making sure the methyl and tert-butyl groups hit their mark for desired end uses. If you’ve worked with generic butylated phenols, you’ll recognize the challenges that come up when trace impurities start creeping into your reaction tanks. Those impurities translate directly into downstream cleanup, more waste, and even off-color or brittle polymer batches. 4-Methyl-6-Tertiarybutylphenol from our shop has shown repeatedly in customer runs to cut those headaches down, whether the end goal is a medical packaging masterbatch, an antioxidant stabilizer, or a specialty resin.
On paper, the uses look straightforward: antioxidant applications, polymerization inhibitors, electronic chemicals, and as a reactant in pharmachemical routes. In practice, what you notice is how this molecule reacts in complex environments. Our production teams have been pulled into troubleshooting sessions for everything from discoloration in polyethylene to performance slumps in UV-exposed formulations. Small differences in phenolic purity multiply over scale. For some, that comes out as color drift in plastics; for others, it’s shelf life dips in adhesives or esters.
The details sit in the application, not just the base chemistry. For polymer manufacturers, our customers have confirmed that switching to high-purity 4-Methyl-6-Tertiarybutylphenol slashes the gels and inconsistencies that kill glossy finishes or reduce transparency. Additive suppliers have relied on our product to cut down radical scavenging failures, especially in high-demand UV stabilization tasks. R&D teams tackling new lubricant or grease compounds lean on the product’s melting and solubility profile, since even the tiniest solvation variances upend performance tests. Each of these real-life accounts came from direct access to technical feedback loops—site visits, pilot runs, and lab-to-lab troubleshooting sessions.
Plenty of manufacturers dabble in similar methylated or butylated phenols—4-tert-butylphenol, 2,6-di-tert-butylphenol, nonyl phenol, and comparable products pop up in catalogs. Each brings a slightly different behavior package, and those differences show up fast in rigorous production or application settings. With 4-Methyl-6-Tertiarybutylphenol, the dual substitution pattern—one methyl, one bulky tert-butyl group—delivers a balance: enough steric protection for oxidation, but not so much bulk as to wreck solvency or complicate reactivity for further functionalization.
We’ve handled direct process swaps in customer lines, seeing firsthand how other phenols trigger yellowing, migration, or breakdowns above certain temperatures. In contrast, this grade supports thermal stability and low color even under stress. Customers working with more highly-alkylated phenols experienced viscosity issues or poor compatibility with certain resin systems. Others using less-substituted grades couldn’t hit the antioxidant thresholds for demanding automotive or UV-resistant applications. In our labs, small differences in ortho and para substitution patterns result in meaningful changes in reactivity and end-product consistency. These aren’t footnotes—they’re the reasons manufacturers make or lose money on technical performance claims.
We don’t outsource the critical steps. Our reactor techs check every charge, watching for raw material swings and batch-cycle drift. We’re aware that even minor temperature shifts during synthesis can throw off isomeric ratios or let reactive side-products accumulate. Once you’ve dealt with the fallout of under-vacuum dehydration slip-ups—for example, sticky products in your driers or off-odor residues—you learn to never cut corners.
One outcome of this diligence: shelf-stable, easy-to-transfer product that doesn’t present as a source of contamination or operational delays. We package only after multi-stage QA checks. Our in-house analytics, combining gas chromatography and wet-method titrations, stop contaminated or low-spec product before it leaves the site. Since we keep stocks on-hand, a phone call or PO reaches our team, not a third-party warehouse. That’s why customers running tight production schedules—coatings, plastics, adhesives—can rely on on-time, predictable supply.
Our support doesn’t end at the shipping dock. We hear regularly from operations managers and process chemists who’ve moved from commodity phenols to our material. The themes repeat: more uptime, fewer filter changeouts, less clumping. One extrusions operator highlighted how pigment dispersion improved after switching, reportedly due to the regulated melt characteristics and lack of agglomerates from low-grade byproducts.
Technical teams experimenting with new applications—advanced polymers, elastomers, or photoresist materials—often send samples back for joint analysis, especially if something odd pops up in development. We see value in that, since even minor product shifts under strict conditions (like those encountered in semiconductor chemical supply) have outsized impacts. Problems uncovered in customer lines feed straight into our process improvements. That hard-won feedback loop sets benchmarks more useful than marketing whitepapers.
Handling alkylated phenols means keeping a close eye on occupational health and waste streams. We’ve reduced fugitive emissions and tracked solvent recovery rates, minimizing both volatility losses and contact exposure for workers. Over years of process adjustments, our teams adopted closed-system charging and scrubbers, not because it’s trending—because solvent and product losses eat straight into operating costs. These upgrades also drive a safer workplace and a tighter spec product.
Waste minimization adds more than regulatory compliance. Side-streams and off-spec lots used to go straight to incineration or external handling. By refining our process, the majority now get repurposed internally or sold as industrial cleaning agents when purity permits. Full traceability of batches has become second nature, not just for audits, but to hammer down inconsistencies and prevent liabilities from re-entering the supply chain. These moves matter more to our customers than any generic “green” label, since cost and quality walk hand-in-hand in real business decisions.
Supply disruptions are real, and over the past few years, force majeure and logistics interruptions rattled raw material flows. We learned to invest in back-up supply sourcing, keeping multiple raw materials qualified and on-site. For critical products like 4-Methyl-6-Tertiarybutylphenol, we maintain enough capacity to buffer between fluctuating raw feed costs and customer orders. This isn’t abstract risk management—it lets polymer makers, OEMs, and formulators sidestep the chaos of last-minute shortages.
A lot has changed since the early days of open-quoted trading for key phenolic compounds. These days, buyers care much more about what they will get—batch after batch—than how much flexibility exists in a material’s printout. By managing upstream sourcing and downstream storage simultaneously, we offer a stable hand, helping customers weather sourcing shortages and price shocks that can shut down a line or void a supply contract.
We work shoulder-to-shoulder with developers and operations teams, troubleshooting unexpected challenges as soon as they pop up. Collaborative R&D, from pilot plant trials to simulation modeling, has brought surprising gains—faster scale-ups, improved final product appearance, and shelf life enhancements in tough-to-stabilize systems. This hands-on partnership delivers more than a static product; it creates continuous improvements grounded in real data from actual use and line feedback.
One recent project involved a pressure-sensitive adhesive producer battling inconsistent curing rates due to low-grade stabilizer imports. After head-to-head trials, adopting our 4-Methyl-6-Tertiarybutylphenol led to smoother runs and fewer early-cure rejects. The producer found that batch-wide viscosity averages stayed within tolerance for the first time in months, reducing offcuts and scrap rate. Similar stories pop up among polymer masterbatch customers, who’ve replaced erratic commodity sourced materials with our grade and seen anecdotal and measured improvements in color stability after repeated thermal cycling.
Regulatory landscapes shift at a dizzying pace, especially around phenolic compounds flagged for potential health or ecosystem impacts. Over time, shifting away from controversial precursors has demanded intense scrutiny not just of our main product, but also of all in-process intermediates and remnants. Our investments in analytical detection—down to trace nitrosamine and non-intent processing artifacts—give partners peace of mind and get batches through compliance gates worldwide.
Customers with high-profile product lines, such as food packaging or medical-grade resin, demand absolute clarity over what lands in their materials. We open our manufacturing and analytical practices, offering third-party and customer-site assessments. If there’s ever a data gap or compliance query, answers come straight from our technical team, not shuffled from desk to desk. This transparency matters more than abstract statements or templated certificates, especially for global purchasers dealing with international agency queries.
Anyone working in chemical manufacturing knows the hidden cost of rework—the lost time, stuck materials, and end-user complaints that ripple from a single low-grade lot. Over the years, our experience puts a premium on delivering the same profile, every time. That’s what 4-Methyl-6-Tertiarybutylphenol represents for us. It isn’t just one more item on a long list; it’s a commitment to a level of performance and reliability that hundreds of companies have built their formulations around.
We don’t chase racing to the bottom on price. Instead, we anchor every shipment on long-term performance. That’s the feedback we hear most often—the reassurance that every drum will work exactly like the last, and any questions will get answered promptly and plainly. Customers who’ve worked through the challenges of stabilizing synthetic routes, or scaling up a new additive for sustained runs, quickly realize how much time and cost is saved by a partner who’s obsessed with detail.
We see R&D pipelines pushing for higher standards every year—cleaner electronics, longer-lasting coatings, stronger plastics. 4-Methyl-6-Tertiarybutylphenol forms the backbone of new stabilizer blends aimed at recyclability, from bottle-grade plastics to extended-warranty insulation materials. With emerging green chemistry projects, our teams are pursuing lower-carbon synthesis and improved lifecycle performance. The product’s structure, with its balance of reactivity and resistance, keeps doors open for creative use in next-gen materials.
As requests come in for smaller runs, higher purities, or custom packaging for automated facilities, we shift to match. It isn’t enough anymore to simply offer a standard grade. Dedicated R&D support, real-time supply visibility, and an open door for technical collaboration keep our product at the center of hundreds of commercial innovations globally.
4-Methyl-6-Tertiarybutylphenol reflects years on the lab bench and in the plant, bridging chemistry, logistics, and hands-on application support. Difference in substitution may look subtle on a whiteboard, but the effect on polymer stabilization or adhesive curing is profound. As a manufacturer, our experience says the details—handling, purity, traceability—matter more than any technical data list. For customers facing shifting performance standards and regulatory hurdles, those real-world details set the difference between success and wasted hours chasing a fix. We carry that responsibility batch after batch, helping each user reach performance benchmarks nobody thought possible just years ago.
