|
HS Code |
284540 |
| Cas Number | 150-76-5 |
| Molecular Formula | C7H8O2 |
| Molecular Weight | 124.14 g/mol |
| Iupac Name | 4-methylbenzene-1,3-diol |
| Appearance | White to off-white crystalline powder |
| Melting Point | 111-114 °C |
| Boiling Point | 243 °C |
| Solubility In Water | Soluble |
| Density | 1.18 g/cm³ |
| Synonyms | 2,4-Dihydroxytoluene |
| Odor | Phenolic |
| Pka | 9.84 (approximately) |
As an accredited 4-Methylresorcinol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, screw cap, hazard labels, and white printed label displaying "4-Methylresorcinol, 100g, CAS 452-86-8". |
| Shipping | 4-Methylresorcinol should be shipped in tightly sealed containers, protected from light, moisture, and incompatible substances. It must be labeled as a hazardous chemical and handled according to local regulations. Ensure adequate cushioning to prevent breakage and comply with transport guidelines for laboratory chemicals to ensure safe and secure delivery. |
| Storage | 4-Methylresorcinol should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizing agents. Protect it from light and moisture. Store at room temperature and keep away from heat sources or open flames, as the compound may be combustible. Use appropriate safety labeling and maintain careful inventory control. |
Competitive 4-Methylresorcinol prices that fit your budget—flexible terms and customized quotes for every order.
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Years of hands-on chemical synthesis have taught us that accuracy matters more than any marketing phrase. With 4-Methylresorcinol, no shortcuts or compromises deliver the same results as a controlled, well-monitored reaction process. We manufacture this fine chemical by starting with reliable raw materials, maintaining strict batch records, and applying rigorous purification steps. Once finished, we test purity with high-performance liquid chromatography—our process regularly achieves specifications exceeding 99% in content, and trace impurities remain consistently low. Suppliers and partners who work with us know our product stands out because we maintain traceability and repeatable quality.
Chemically, 4-Methylresorcinol, also called 4-methyl-1,3-dihydroxybenzene, merges a methyl group onto the benzene ring’s fourth position, flanked by two hydroxyl groups. This subtle arrangement gives it properties distinct from both Resorcinol and its cousin 2-Methylresorcinol. Practical chemists, especially those working in demanding end applications, see clear differences—not just in reactivity or solubility but also in how it integrates into multi-step syntheses. It crystallizes as a white to off-white powder and dissolves readily in organic solvents, making it versatile for both laboratory-scale research and factory production lines.
Stepping beyond abstract talk, 4-Methylresorcinol forms a real backbone in several industries. In the cosmetic sector, hair color developers use it to balance color intensity with gentleness on the scalp. Dermatologists sometimes recommend formulations containing this compound as a milder active ingredient when compared to pure resorcinol, especially for sensitive applications. Over time, manufacturers seeking alternatives to harsh chemicals have come to appreciate its unique profile.
In specialty resins and polymers, 4-Methylresorcinol’s methyl group changes the way it interacts with crosslinking agents. This means formulators can tune the flexibility and strength of finished polymers more precisely. Manufacturers of high-performance adhesives or specialty coatings don’t select this ingredient randomly. They rely on batch-to-batch consistency and well-understood material behavior. Lab teams frequently use it for controlled substitution reactions and to adjust the electronic properties of aromatic systems, which can lead to new discoveries in materials chemistry.
Many chemicals look similar on a technical sheet, but experience with real ingredients reveals the difference. Over years of manufacture, we have prioritized not only the chemical's purity but also its physical characteristics. The flow of the powder, particle size distribution, and hygroscopicity all matter. Those who have handled poorly manufactured batches know the headaches: inconsistent flow, unexpected caking, or off-spec reactivity. By managing every aspect of our drying and milling steps, we supply a product that stays free flowing and easy to handle, even in humid conditions.
Repeated investments in analytical equipment allow us to spot trace by-products before they become a problem. This diligence pays off in applications like pharmaceutical intermediates or high-end cosmeceutical lines, where even a small impurity can have a domino effect on product safety or effectiveness. In some years, we received customer inquiries puzzled by yellow or pink off-hues in competitor’s lots—these never arise with our material due to our multistage purification regime and routine batch inspections for color, odor, and melting point.
To a chemist, not all methylated resorcinols are interchangeable. The position of the methyl group governs reactivity. For example, 2-Methylresorcinol’s placement next to a hydroxyl group alters its electron density, affecting how it behaves in coupling reactions—a critical concern in dye production or in the synthesis of active pharmaceutical ingredients. 4-Methylresorcinol provides a balance: its para-methyl group dampens certain types of phenol ring reactivity, which enables more predictable downstream synthesis.
Compared with unmethylated resorcinol, the 4-methyl variant introduces subtle changes in melting point, solubility, and UV absorbance. These distinctions may seem academic, but when scaling up from laboratory trials to full-scale manufacture, small differences impact filtration, drying times, and product stability. Customers switching from resorcinol for cost or safety reasons often report fewer formulation headaches and longer shelf-life with the 4-methyl version. In regulated markets—personal care in Japan, industrial coatings in the EU—manufacturers seek documented, repeatable chemical identity, which is why our Certificate of Analysis remains robust and detailed for every lot.
Hair colorants form one of the best-known outlets for 4-Methylresorcinol. Color chemists value how a methyl group smooths intensity and leaves less residual odor, all while maintaining coverage and shade accuracy. In factory settings, the powder’s manageability reduces clumping—this matters for automated mixing and for consistent batch-to-batch performance. Lab technicians working with water-based blends note that the methyl group helps prevent premature oxidation, extending pot life during production runs.
Beyond cosmetics, the polymer field owes several innovations to this compound. Resin chemists require phenolic monomers that introduce just enough bulk or rigidity without inducing brittleness. By shifting to 4-Methylresorcinol rather than fully methylated alternatives, formulators create resin blends that bond reliably to both natural fibers and synthetics. This flexibility means product designers can choose adhesives or coatings more freely, knowing their critical performance specifications stay met.
Fine chemical synthesis teams develop pharmaceutical intermediates from 4-Methylresorcinol. It acts as a precursor to more complex aromatic systems, serving as an anchor for further substitution. Sophisticated coupling or nitration steps leverage its reliable behavior, saving costs by reducing side products. Those running large-scale multi-step synthesis have found that a pure, well-characterized source saves both time and compliance effort—regulatory reviewers remark on impurity profiles and trace metal content, which our documentation transparently tracks.
Daily lab checks verify that every batch matches strict in-house standards. End users rely on our attention to detail: we don’t delegate critical analysis. Each production run gets measured for melting point, infrared spectrum, water content by Karl Fischer titration, and purity by HPLC. Whenever a new technology emerges—such as updated trace metal testing—we invest in it, using our experience to validate that any improvements offer real-world benefits. Long-term clients know they can request detailed impurity profiles supported by mass spectrometry.
Sometimes chemists discover application-specific issues, such as color drift in compounded products or unexpected pH shifts during storage. We trace these back to raw material variability or overlooked contaminants. By maintaining full transparency in our sourcing and keeping redundant samples for every batch, we help customers troubleshoot problems before they interrupt production. This readiness to run deeper analysis when needed keeps our product line agile and our reputation secure.
We encourage new users to familiarize themselves with phenolic safety and handling protocol. 4-Methylresorcinol, while milder than plain resorcinol, still demands respect in bulk use. In our own facilities, we maintain robust ventilation systems, double-process dust collection, and train staff on both personal protective equipment and spill control. The advice we share comes from daily experience, not just from reading safety data sheets: work with this material in well-controlled settings, keep humidity low, and use closed-process transfer systems where feasible. For customers needing application-specific tips—for example, optimizing for high-shear mixing or working in dry climates—our technical staff offers recommendations refined by years on the factory floor.
We’ve learned that manufacturing isn’t only about chemistry. Seasoned chemical operators know that even small changes—a slightly different batch of starting materials, a subtle drift in reaction temperature, or a clogged filter—can affect final product quality. Every challenge teaches us something new about reproducibility. We keep careful records not only for regulatory compliance but also for continuous process improvement. Our feedback loop stretches from the lab bench to customer application, and our field engineers sometimes spend days at a partner’s site resolving a tricky formulation issue. In return, our customers share unexpected use cases or alternative process tweaks, resulting in benefits both ways.
Many of our competitors don’t see the value in these partnerships. To them, 4-Methylresorcinol is just another line on an inventory list. For us, every order reinforces a track record—successful scale-ups, repeat front-line user feedback, and steady performance over years.
Making chemicals responsibly means more than box-checking for regulations. We document every step—raw material origin, processing environment, and post-production storage. Our compliance with standards finds its roots in our own commitment to traceability. With customers shipping finished goods into global markets, trace elements and impurity profiles get real scrutiny. Over the last decade, tighter restrictions in Europe and East Asia have made comprehensive Certificates of Analysis essential, and we update documentation whenever regulatory guidelines shift.
Supporting our customers’ regulatory filings, we provide access to stability data, batch traceability, and purity records. Concerns sometimes arise about banned by-products, labeling claims, or heavy metal thresholds. Our test records and supply chain audits address these before they become barriers to trade. When testing methods evolve, we validate new approaches side-by-side with established ones, making sure legacy and new records agree. This approach prevents surprises when exporting finished cosmetics or chemical intermediates into jurisdictions with aggressive enforcement.
The landscape surrounding phenolic chemicals never sits still. Shifts in consumer preference for safer, greener ingredients drive continuous adaptation. Several of our customers, particularly in personal care, now request biomedical screening for trace allergens or skin sensitization. Our product evolution reflects these demands. We continue to explore downstream functionalization, seeking to improve characteristics like reduced volatility or even lower by-product formation.
Our in-house R&D group experiments with modifications to the methyl group’s location and additional substituents. These changes sometimes result in better stability or altered interaction with specific catalysts. We share our findings through regular technical updates—not just to promote new products but to support honest dialogue about what works and what’s possible. Working alongside application chemists and materials scientists, we seek to discover new use cases and address existing pain points.
Chemical manufacture brings daily challenges. Atmospheric moisture, unfamiliar raw material lots, and logistical bottlenecks all affect product quality. By investing in closed storage, quick transfer to desiccated containers, and regular employee training, we have reduced material spoilage, powder buildup in processing lines, and finished product returns. Sometimes supply chain delays threaten timely delivery, so we maintain buffer stock and actively manage logistics partners to prevent customer production shortfalls.
Occasionally, customers face downstream issues such as scale up problems or unexpected reactivity. We emphasize open communication: chemists calling our technical hotline find experienced staff ready to walk through each process step. Whether the concern relates to filtration rates, product color, or reactivity shifts, we don’t offer boilerplate answers. Instead, we review procedures, examine retained samples, and help trace the root cause of any issue—returning confidence to the manufacturing process.
Decades of chemical production have convinced us that success relies on more than laboratory excellence. Trust grows from consistency, openness, and shared learning. Partners return to us because they remember not just the product’s performance, but also the reliability of our documentation and the transparency of our relationship. From first-time buyers to long-standing collaborators, customers value our willingness to explain and our readiness to adapt.
Our understanding of 4-Methylresorcinol doesn’t just rest in its formula. It comes from daily production, troubleshooting challenging syntheses, and supporting evolving end-use demands. Working directly with formulation chemists, process engineers, and regulatory specialists, we develop methods that work both on paper and in real-world production lines. Each improvement, each cycle of feedback and innovation, strengthens both our product and our long-term partnerships.
Through countless batches, unexpected turns, and technical demands, we have learned that producing 4-Methylresorcinol requires more than standard operating procedures. It means vigilant monitoring, constant improvement, and a willingness to listen as much as to teach. This chemical stands as a key building block across multiple fields—its consistent production and thorough documentation enable our partners to innovate confidently.
We look forward to further advances driven by honest collaboration and a commitment to both quality and technical leadership. For those searching for reliability in raw materials and in the people who stand behind them, our 4-Methylresorcinol reflects the lessons earned across years of real-world chemical production.