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HS Code |
992037 |
| Cas Number | 88-60-8 |
| Molecular Formula | C11H16O |
| Molecular Weight | 164.25 g/mol |
| Iupac Name | 2-tert-butyl-6-methylphenol |
| Synonyms | 6-Methyl-2-(1,1-dimethylethyl)phenol; 6-Methyl-2-t-butylphenol; AO 29 |
| Appearance | White to off-white crystalline solid |
| Melting Point | 49-53 °C |
| Boiling Point | 257-259 °C |
| Solubility In Water | Slightly soluble |
| Density | 0.95 g/cm³ (at 25°C) |
As an accredited 2-Tert-Butyl-6-Methylphenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 100 grams of 2-Tert-Butyl-6-Methylphenol, tightly sealed, labeled with hazard warnings and product information. |
| Shipping | 2-Tert-Butyl-6-Methylphenol is shipped in tightly sealed containers, protected from light, heat, and moisture. Compliant with relevant transport regulations (e.g., DOT, IATA, IMDG), it is typically labeled as a non-hazardous or irritant material. Ensure secure packaging to prevent leaks and provide appropriate documentation for safe and lawful transit. |
| Storage | 2-Tert-Butyl-6-Methylphenol should be stored in a tightly closed container in a cool, dry, well-ventilated area away from incompatible substances such as strong oxidizers. Protect from moisture, direct sunlight, and sources of ignition. Store at room temperature, and ensure proper labeling. Use appropriate chemical-resistant containers and keep away from heat or flame to prevent decomposition or hazardous reactions. |
Applications of 2-Tert-Butyl-6-Methylphenol in Industrial ManufacturingAs a primary manufacturer of 2-Tert-Butyl-6-Methylphenol, we supply this antioxidant intermediate to major sectors where it plays a targeted technical role in product formulation and stability enhancement. Below, we outline key downstream application scenarios, covering regulatory adherence, true-to-process usage ratios, process integration points, and final outputs as seen in global industrial operations. 1. High-Performance Synthetic Lubricant Antioxidant AdditivesLubricant compounders in automotive and industrial sectors use this phenolic antioxidant to extend base oil life under thermal and oxidative stress. Its incorporation suppresses free radical formation at elevated temperatures, stabilizing synthetic esters and polyalphaolefin formulations. Technical teams calculate precise dosages based on OEM life testing and viscosity index profiles ensuring system reliability under variable operating conditions. Industry compliance standards
Typical usage ratio
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2. Polyolefin and Plastics Resin StabilizationMasterbatch and compounding operations use the antioxidant properties to inhibit thermal degradation during high-temperature resin extrusion and injection molding. Its function is critical in preventing discoloration, embrittlement, and molecular weight drop in polypropylene and polyethylene resins destined for technical and packaging markets. QC labs confirm additive dispersion through melt flow testing and aging simulation. Industry compliance standards
Typical usage ratio
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3. Rubber and Elastomer Processing AidsIndustrial rubber compounders adopt this hindered phenolic antioxidant for its non-staining, low-volatility protective action. It maintains polymer mechanical integrity during both mixing and vulcanization steps, particularly for high-performance tires, industrial belts, and vibration isolators. Application teams focus on compounding balance to avoid blooming and optimize migration control. Industry compliance standards
Typical usage ratio
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4. Fuel Additive and Storage Stabilizer ManufacturingRefinery and specialty chemical formulators apply this antioxidant as an iso-octylphenol derivative to minimize oxidation in gasoline, diesel, and biodiesel blends. Its high solubility and resistance to fuel system metals help suppress gum formation and color changes during both storage and distribution. Product development teams benchmark dosage against ASTM accelerated aging tests and storage field trials. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Industrial Paints, Coatings, and VarnishesProducers of synthetic resins and solvent-based coatings use this hindered phenol to protect film-forming polymers against autoxidation, light-induced yellowing, and gloss loss. Its compatibility with alkyds and polyurethanes ensures stable viscosity and long-term appearance performance, even under exterior exposure. QC laboratories track additive incorporation via spectrophotometry and mandated EN colorimetric tests. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
6. Fine Chemical Synthesis and Agrochemical IntermediateThe controlled reactivity of this phenolic raw material makes it suitable for synthesis routes in agrochemical and specialty chemical manufacturing. Downstream producers leverage its molecular structure in the creation of advanced fungicides, stabilizers, and high-purity intermediates for crop protection formulations. Each campaign run must document full traceability and impurity profiles through process analytical technology. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Competitive 2-Tert-Butyl-6-Methylphenol prices that fit your budget—flexible terms and customized quotes for every order.
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Manufacturing 2-Tert-Butyl-6-Methylphenol requires deep attention to detail, both in sourcing raw materials and running precise processes. In our facility, the approach comes from years of hands-on work fighting batch inconsistencies and chasing purity margins. Every drum that rolls off our line comes with the certainty that our own teams have watched it at every stage, not just read the analytical sheet. We have learned that even the smallest contamination in the phenol backbone will introduce problems downstream, so process control matters as much as final measurement. Failures tend to show up where the differences between products might seem minor to the textbook—purity, moisture, off-spec color—but downstream users, especially those formulating antioxidant blends or adhesives, notice immediately.
Some people try to substitute similar alkylated phenols—like 2,6-di-tert-butylphenol or 4-methyl-2,6-di-tert-butylphenol—thinking the antioxidant activity will carry over. In our lab and with our customers, 2-Tert-Butyl-6-Methylphenol stands apart. Its precise structure, with a single tert-butyl group and a methyl at the 6-position, offers a different performance profile. It supplies strong steric hindrance against oxidative degradation, making it effective as an antioxidant for oils, polymers, fuels, and lubricants, but it also avoids excessive viscosity buildup and gelling, a challenge seen with more heavily substituted phenols. So formulators get stability against aging without sacrificing processability or clarity.
Purity remains central here—scaling up the production from pilot to full commercial volume taught us that side-products from incomplete alkylation don’t just lower assay numbers; they interact unpredictably in finished systems. Our plant uses multi-stage distillation and post-reaction purification to trim unwanted isomers and residual acids. In practical terms, we keep assay levels for 2-Tert-Butyl-6-Methylphenol above 99.5% as a standard, with tight moisture control—typically below 0.1%. These numbers aren’t just on paper but verified by our in-house gas chromatography and moisture analysis. Regular feedback from polymer producers and lubricant blenders lets us know if we are drifting from target, and we don’t wait for complaints to change a process step.
There’s a big difference between buying material from a factory like ours and getting it from a generic source that trades on specs alone. Many customers visit our production site, ask to see both raw material inflow tanks and final product QC, and review our batch logs. For those making resins, adhesives, or antioxidant blends, confidence in stability and long-term performance outweighs a few fractions of a dollar per kilogram. They bring us samples of their own production failures to troubleshoot, and we’ve tracked issues down to trace isomer contamination or sub-par water control in the phenol stream. These issues don’t show up in a basic certification; they come out in practice, with yellowing or loss of oxidative resistance in final goods.
In polymer compounding, 2-Tert-Butyl-6-Methylphenol gets blended into polyolefins and other plastics to prevent oxidation during both processing and use. Regular 2,6-di-tert-butylphenol tends to cause haze or migration, especially at higher loadings. Our product, with its more compact profile, shows less tendency to exude or crystallize out, giving a clearer finished product. We’ve run long-term tests with thin films under UV exposure and tracked color shift and mechanical drop-off to demonstrate these benefits. Our engineers have spent months adjusting process conditions—like phenolation reaction temperatures and washing cycles—to strip out colored impurities that drive unwanted color formation after molding.
Lubricants and fuels present a tougher challenge since small impurities can promote varnish or sludge, especially under high-temperature service. Specialty lubricant blenders have pushed us to drop sulfur and phosphorus contaminants to below parts-per-million, since even trace elements will promote engine deposit formation. We wash with high-purity solvents and run regular ICP tests to catch metal contamination before drums get filled. Some producers try to blend their own antioxidant packages with generic suppliers’ input, but reliability drops sharply—batch-to-batch volatility in quality gets passed on directly to end users. The complaints always come back to the original phenol, so we take thorough records and hold batch samples for months after delivery.
In our factory, the story of 2-Tert-Butyl-6-Methylphenol evolves constantly. Early on, we approached synthesis with the idea that if a competing product met spec, that was enough. But as end-users pushed us to help solve failures in their systems, we found the details mattered more than any paper certificate would suggest. We don’t manufacture in a vacuum; our process knowledge comes from real feedback, both welcome and painful. For example, a large adhesive producer ran into crosslinking issues during high-temperature processing. After reviewing their formulations and comparing with their historical data, we identified slight increases in ortho-methylated impurities from incomplete fractionation. Even though these weren’t out of specification, they triggered cascade effects, ruining production runs. We added an extra purification train—a costly move but critical for the stability of downstream uses.
This kind of adaptation comes straight from our relationships with downstream engineers and chemists. We run joint trials, ship pilot lots for new product development, and absorb the cost and time of back-and-forth iteration. If our process needs to shift to meet demands, we make those adjustments at the plant level. This can mean tighter distillation parameters or a new impurity standard—internal targets often stricter than those listed on any public datasheet.
Environmental safety and handling also matter. Employees at our site go through regular training not just on reactor operation but on proper containment, spill response, and regulatory compliance. Safety auditing teams listen carefully to operators on the floor; hazardous events are rare but always possible when dealing with phenolic compounds, so protocols stay sharp and training gets reviewed after every incident or near-miss. Our wastewater is managed through both in-house neutralization and third-party verification, with continuous improvement a requirement. Sharp eyes—sometimes from the most experienced foreman on shift—catch details in real-time that a visiting auditor might overlook.
Competitors in the market offer a variety of alkylated phenols with overlapping suggested uses—antioxidants, intermediate synthesis, stabilizers in fuels and polymers. Our hands-on experience shows that performance diverges quickly beyond laboratory numbers. 2,6-Di-tert-butylphenol, with bulkier dual tert-butyl groups, does provide strong antioxidant impact in many plastics but tends to cause crystallization problems in clear resins and increases viscosity. That can limit formulation flexibility or produce haze. 4-methyl-2,6-di-tert-butylphenol, another common comparison, sacrifices ease of dispersion due to its added bulk and different spatial structure. Many end-users switch to our 2-Tert-Butyl-6-Methylphenol because they want better compatibility, both during blending and in final end-use properties.
In several industrial processes, aggressive conditions—like elevated temperatures and high-shear mixing—reveal the subtle differences between antioxidant grades. Lubricating oil blenders, for instance, will see gelling if the wrong isomer is present or if the additive package has poor solubility or reactivity. Early on, we learned this the hard way, through field failures and excessive customer support calls. Today, our materials support smooth compounding and remain stable across a broad temperature window, a quality we confirm through accelerated lab aging and customer feedback in real-world use. Some additive packages never report the source purity, so problems crop up far down the line. As a manufacturer, we stand behind every shipment with a clear production trail and sample archive for later auditing.
Downstream blending partners in adhesive and resin systems show us time and again that small impurities, undetected by standard screening, can trigger yellowing, brittle failure, or inconsistent cure rates. Substituting generic antioxidant grades—often from third-party traders—brings price benefits in the short term but erodes reliability and trust in longer deployment. Our technical team frequently assists clients with root-cause identification for these application failures, tracing the source to off-grade input materials. Product recalls and customer downtime usually cost far greater than any saving on a per-kilogram basis. The difference often comes down to subtle things—control over process water, regular maintenance and cleaning of reactors, and relentless documentation, all stemming from years-long investment in the right equipment and a culture that respects precision.
Market demand doesn’t stay still—polymer technology evolves, engine designs set tougher deposit controls, and environmental regulations increasingly tighten requirements for chemical handling and trace impurity limits. Our own operation responded to these real-world demands not through theoretical improvements but by reviewing actual complaints and failures from customers, then adjusting both upstream and final QC accordingly. For polymers and resins destined for critical uses, like medical components or food-contact materials, we routinely field audits from clients and their customers. Sometimes this means revalidating equipment or running redundant assays to prove absence of targeted substances, such as heavy metals or certain PAHs. Analytical equipment upgrades follow, including headspace GC-MS and ultra-trace metal screening, even if government minimums don’t yet require that level.
For fuel and lubricant applications, stability over long service life tests the antioxidant package. Our chemists devote time to building aging trials that replicate real-world conditions, pushing our 2-Tert-Butyl-6-Methylphenol through temperature cycling, oxidative blasts, and compatibility checks with other additive partners. We regularly share performance data, both good and bad, with downstream users, inviting joint problem-solving whenever control anomalies crop up. Our engineering team participates directly in resolving field issues, running both internal simulation and on-site reviews, so we keep direct lines of communication across the value chain. Problems rarely wait for convenient times to show up, so responsiveness remains essential.
As green chemistry rises in profile, our approach shifts with it. Adoption of cleaner process feedstocks, energy efficiency drives, and a focus on minimizing waste, all become standard practice. Some of these changes stem from government mandate; others grow organically from workforce pride and customer input. A few years back, when a key customer requested non-toluene cleaning for process lines, we piloted alternatives, absorbed the higher cost, and brought both greener solvents and reduced emissions. That adaptation fed back into safer working conditions on the plant floor and eliminated a chronic concern for residue handling in the plant’s wastewater outflow.
Direct manufacturing experience goes deeper than meeting technical parameters—it shapes long-term trust in the material. Our team doesn’t just see 2-Tert-Butyl-6-Methylphenol as a commodity, but as a reflection of operational excellence and a proof point for everything else we make. Each test run, plant expansion, and complaint resolution leaves a mark on how we produce this molecule. Customers, from major international resin groups to local compounders, depend on the difference between a tight, well-documented manufacturing flow and a lowest-bid offering from a remote source. Regular plant audits, full traceability, and an open line to technical support build confidence higher than any third-party analysis.
Pricing pressure can always tempt a shortcut. Over the years, we have seen the market swing toward cheaper imports with unpredictable quality, and inevitably, the real cost appears in failed product runs, lost contracts, and damaged reputations. Our philosophy rejects that approach; we win business based on a reputation for reliability and technical backup. That means absorbing the high cost of regular process review, frequent staff training, and continuous equipment upgrades. The payback comes through loyalty—many of our relationships with large processors started with crisis-solving or adapting products to offset a global raw material shortage.
In the years ahead, we see market needs for 2-Tert-Butyl-6-Methylphenol continuing to evolve, driven by changing regulations, new end-use applications, and more demanding performance standards. Our manufacturing approach grows alongside, shaped by feedback, real failures, and lessons learned the hard way. Customers can count on our experience in every drum and pail they receive. The commitment runs from procurement and process design to delivery and field troubleshooting, always focused on long-term partnership and mutual success.
Each batch we ship carries both a history of improvements and an eye toward the next challenge. Working directly as a manufacturer of 2-Tert-Butyl-6-Methylphenol taught us that margins for error shrink as applications become more demanding and regulations get stricter. We carry lessons from fighting contamination, improving consistency, and backing up every promise we make. Our focus never leaves the intersection of day-to-day plant discipline and the pursuit of long-term quality. As new uses and new challenges appear, we remain committed to adaptation, investment in people and equipment, and a total dedication to producing reliable, high-performance specialty chemicals. Experience shapes every solution, every batch record, and every customer partnership we build around 2-Tert-Butyl-6-Methylphenol.