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HS Code |
220672 |
| Chemical Name | 2,4,6-Trimethylbenzophenone |
| Molecular Formula | C16H16O |
| Molecular Weight | 224.30 g/mol |
| Cas Number | 1086-34-0 |
| Appearance | White to pale yellow crystalline solid |
| Melting Point | 97-101°C |
| Boiling Point | 204°C at 16 mmHg |
| Density | 1.06 g/cm³ |
| Solubility In Water | Insoluble |
| Synonyms | 2,4,6-Trimethyl-diphenylmethanone |
As an accredited 2,4,6-Trimethylbenzophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle labeled "2,4,6-Trimethylbenzophenone, 25g," chemical hazard symbols, supplier details, and batch number for laboratory use. |
| Shipping | 2,4,6-Trimethylbenzophenone should be shipped in tightly sealed containers, clearly labeled, and protected from light and moisture. Store and transport at ambient temperature, complying with local, national, and international regulations. Use appropriate packaging to prevent leaks or spills. Ensure chemical compatibility and provide safety documentation (SDS) with the shipment. |
| Storage | 2,4,6-Trimethylbenzophenone should be stored in a tightly sealed container, kept in a cool, dry, well-ventilated area away from incompatible substances such as strong oxidizers. Protect it from light, moisture, and sources of ignition. Store at room temperature. Always label the container clearly and follow institutional or regulatory guidelines for chemical storage and handling. |
Applications of 2,4,6-Trimethylbenzophenone in Industrial Manufacturing2,4,6-Trimethylbenzophenone serves essential roles as a specialty intermediate in select industrial fields. As a direct manufacturer, we focus on genuine downstream use cases where this compound delivers application-specific performance or processing advantages. Below we outline key sectors with reliable uptake, including detailed compliance protocols, functional concentration guidelines, processing points, and end-use examples. 1. UV Curing Systems for Industrial Printing InksCommercial printing ink manufacturers rely on 2,4,6-Trimethylbenzophenone as a high-efficiency photoinitiator for UV-curable ink formulations. Its absorption spectrum supports rapid curing cycles on high-speed presses, improving production output for applications involving laminated packaging, folding cartons, and labels. The material's compatibility with both acrylate and hybrid resin systems enables controlled polymerization, while migration and extraction tests guide the correct usage level for regulatory compliance. Industry compliance standards
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2. Photoinitiator Component in UV Crosslinked CoatingsIndustrial coatings producers employ this compound as a critical photoinitiator for UV-cured clear coats and pigmented formulations targeting architectural panels, automotive plastics, and electronics casings. Its molecular structure allows for fine-tuning of reactivity in combination with other initiators, ensuring rapid film formation and chemical resistance. End-use compliance rests on both coating testing regimens and material traceability for high-value goods. Industry compliance standards
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3. High-Efficiency Photoinitiator in UV-Curable AdhesivesManufacturers of UV-curable adhesives adopt 2,4,6-Trimethylbenzophenone to provide rapid bond formation on substrates requiring precision alignment, such as electronics assembly and high-speed packaging. This compound’s tailored absorption minimizes yellowing and heat generation while maintaining cure speed, supporting the production of medical devices and specialty optical components that demand minimal residual extractables. Industry compliance standards
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4. Specialty Synthesis Intermediate for Agrochemical ActivesAgrochemical manufacturers use 2,4,6-Trimethylbenzophenone as a controlled intermediate in the multi-step synthesis of certain crop protection compounds. Its aromatic substitution pattern and functional groups provide essential scaffolding for downstream catalytic coupling, which ultimately yield advanced active ingredients. Strict traceability accompanies every batch to support stewardship protocols and pesticide registration documentation throughout the product lifecycle. Industry compliance standards
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5. Photoinitiator Use in UV-Curable Printed Circuit Board (PCB) Solder MasksElectronics materials producers formulate UV-curable solder masks using 2,4,6-Trimethylbenzophenone as a part of advanced photoinitiator systems. The compound’s rapid reactivity allows precise pattern definition with minimal undercut and high chemical resistance after curing. Manufacturers can meet increasingly stringent environmental and reliability standards for substrates destined for high-density consumer devices or automotive control systems. Industry compliance standards
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As a manufacturer with years inside the production halls, we’ve seen demand for 2,4,6-Trimethylbenzophenone grow and change across diverse industries. Our knowledge doesn’t come from a shelf or sales brochure—it comes from the heat of reactors, the hum of filtration units, and direct conversations with users in fields that demand nothing less than purity and batch-to-batch consistency. This molecule, known for its rigid aromatic structure and a CAS number that sticks in the minds of chemists, regularly proves why it holds its place as a trusted intermediate and specialty additive.
We ship 2,4,6-Trimethylbenzophenone as a white to pale yellow crystalline solid. Our processes leave behind minimal residual solvents, and each batch meets the purity requirements specified by fine chemical customers for critical applications. For those working in UV-curable systems, coatings, or specialty inks, this consistency matters. Any hint of impurity can disrupt sensitive polymer reactions. We’ve designed our process controls and QC checkpoints based on input from end-users, not just standard protocols. Shipment size and packaging match what our customers ask for: robust, easy to handle, and preventing exposure to air or moisture that could compromise chemical integrity.
Compared to general-purpose benzophenones, this compound’s triple methyl substitution at the 2, 4, and 6 positions lends distinct electronic and steric properties. Those who formulate with it typically seek better photoinitiator performance in UV-curable resins or a more stable intermediate for custom synthesis. More methyl groups mean less susceptibility to undesirable side reactions in complex organic syntheses. Some formulators gravitate toward 2,4- or 4,4’-substituted analogues, but in many photoinitiator blends, the trimethyl pattern stands out for promoting fast cure rates and high yields.
Technical feedback points to its reliable shelf life and high melting point, which helps avoid caking and process interruptions. We see how deviations—a little impurity, a shift in melting profile—can bring lines to a standstill or force expensive rework cycles. As actual producers, not intermediaries, we act on these observations, tightening process tolerances after each audit and acting on the smallest batch deviations. The result is a product trusted by chemists who don’t have time for trial-and-error batch selection.
Custom compounding facilities and major coatings producers come to us looking for more than a catalog item. They want a solid track record and reliable documentation. Our long-term clients don’t ask for the theoretical specs—they want proof from recent batch data, and they visit our site to inspect the filtration, drying, and milling equipment that ensures particle size, color, and flow properties hold up. Some applications, such as UV-ink production, demand both tight color tolerance and residue-free performance. Details like these went into redesigning jacketed reactors to reduce hot spots and updating centrifuges for more thorough mother liquor removal during purification.
After years of feedback, we installed dedicated lines for 2,4,6-Trimethylbenzophenone to avoid contamination from other benzophenones and photoinitiator precursors. Clients say they notice lower levels of troublesome trace contaminants this way—not a small thing for those running product through multi-step downstream syntheses. Consistency makes life easier for line operators across the industry.
Work in our sector never stands still. Downstream partners push for lower dusting, better wetting, finer crystallinity, and purities that meet demanding internal protocols as well as global standards. 2,4,6-Trimethylbenzophenone has grown popular among UV-cure ink producers who need quick initiation times and lot-to-lot consistency. The fragrance and pharmaceutical intermediates markets keep asking for even tighter impurity specs, since trace residuals can introduce off-odors or unwanted reaction byproducts in delicate syntheses. Our close partnership with machinery and lab personnel allows us to adjust techniques in real time—fine-tuning parameters after each plant run, documenting what actually works instead of sticking to textbook wisdom.
We’ve worked with partners who need both large-scale and specialty runs. Lesser-known differences between our product and the more widely-handled benzophenones become apparent in both scaling and real-time process monitoring. The trimethyl-substituted product resists degradation from both light and heat, standing up to extended storage with little change in reactivity or color. It handles the harsher solvent environments common in ink and coating manufacture better than the unsubstituted or dimethyl analogs, and our hands-on testing confirms this performance. End users care about these distinctions—a photoinitiator that yellows or decays quickly can affect print sharpness and shelf life.
A chemical with great potential brings its own challenges. Keeping trace residues of starting material and byproducts within agreed limits sets a high bar. To eliminate problematic impurities—especially those that can hinder catalyst function or introduce foreign odors—we updated our crystallization and drying procedures. We share detailed methods and analytical data with our clients and welcome outside audits. We have seen how manufacturers and downstream formulators can chase hours or days of troubleshooting due to a minor batch impurity.
It is our experience that users rely heavily on suppliers who can back up purity claims not only with a certificate but also by inviting questions, opening records, and providing solutions for unexpected issues. We invite feedback and see each technical issue brought to us—be it inconsistent melting point, trace polymerization, or color shift—as a real-world data point to improve process design. After listening to ink manufacturers working on high-speed presses, we fine-tuned the drying stage to ensure product flowability meets high-throughput requirements. Rather than sticking to generic process settings, we review customer reports and run experiments directly tied to their pain points.
Demand for safer and more environmentally responsible chemicals has affected how we manufacture 2,4,6-Trimethylbenzophenone. Reducing waste solvent, minimizing energy, and bringing cycle times down also keeps costs under control. Rather than relying only on end-of-pipe cleanup, we modified upstream steps—adapting feed ratios or switching to greener solvents that are easier to recover and recycle. Several partners evaluating our product in consumer-facing applications—such as food packaging inks—raise questions about impurity profiles and secondary photolysis. Our facility has responded by adopting practices that generate clearer QA records and transparent labeling around potential trace constituents, supporting their regulatory and safety requirements.
Waste management steps matter. During filtration and drying, we separate process streams and monitor them to see what can be reused, recycled, or safely disposed. Our operators see the direct results of these changes—they point out when our older procedures led to longer downtimes, more frequent filter changes, and more scrap generation due to inconsistent grain size or contamination. Implementing incremental improvements, often suggested by those closest to the process, raised overall efficiency and strengthened our environmental stewardship.
Those who formulate advanced coatings and specialty inks value empirical proof of performance. Reports from print shops using our product point to clean, fast cure times, little color drift, and stable viscosity, even during long production runs. Fragrance ingredient formulators report easy downstream reactivity and reliable purification with our product, supporting batch yields and reducing chromatographic workload. Pharmaceutical clients flag fewer compatibility concerns compared to products from less rigorous producers, affording them more predictable regulatory compliance. These outcomes only come from close review and continual collaboration—not from arm’s-length supply arrangements.
A distinguishing feature of our material relates to its flow and solubility profile. The trimethyl pattern increases organic solubility and minimizes precipitation issues common with the mono- or dimethyl analogs during resin or polymer synthesis. Our QA team troubleshoots each complaint to source, whether it stems from particle size, storage conditions, or shipping delays. Training staff to spot subtle signs of degradation—before filling containers—has cut back on returns and customer headaches.
World events, regulatory updates, and changing logistics create disruptions for many chemical consumers. After the past decade’s supply shocks, our users want more than a “just in time” promise. We maintain strategic raw material reserves, source alternatives when upstream shortages threaten, and document each batch’s provenance for traceability. Seasoned buyers value visibility—they expect to see where the product started, how it was handled, and what data backs up claims at every step. Having lived through tight market windows ourselves, we designed inventory systems to buffer both our production and our client’s procurement cycles against sudden interruptions.
Getting this right means continuous investment. We upgraded storage facilities to fight product caking and adopted analytics to scan for changes in impurity profiles. As demand in regional markets surges, or regulatory rules shift, quick requalification cycles only happen if documentation remains precise, accessible, and broad enough to cover new requirements. Over time, these systems help us resolve issues faster and keep batch quality stable, even during periods of stress in the wider market.
Over years of making and supplying 2,4,6-Trimethylbenzophenone, we’ve built rapport with customers who want confidence, not empty promises. Everybody from the small batch customizer to the multi-national ink producer faces the risk of an off-spec lot causing hours of rework or even product recall. Delivering consistently across the year—through freeze, thaw, or heat—removes much of the friction that can undermine even the best R&D or scale-up plans. Small investments in extra purification, tailored blending, or packaging upgrades have paid off in fewer complaints and long-term partnerships.
The users who get the best outcomes from our product understand its specific features: the high melting point ensures stability and ease of storage, while the triple methyl substitution reduces fade and maintains clarity in demanding applications. They ask for and get detailed advice, not just a product shipment. Our technical team has talked through applications ranging from complex polymerizations to fast-acting UV adhesives, sharing observations about best handling practices or compatibility quirks noticed in other users’ lines. These conversations generate the kind of feedback that keeps our production improving.
Choosing the right benzophenone derivative can define the outcome in many downstream processes. Users compare our 2,4,6-Trimethylbenzophenone with alternatives like 4,4’-Dimethylbenzophenone, 2,4-Dimethylbenzophenone, or even unsubstituted benzophenone. The difference isn’t subtle once the formulation hits production. More methyl substituents enhance solubility in nonpolar systems and improve the photoinitiation efficiency in UV-cure blends. Our testing and process feedback show reduced formation of problematic oligomeric byproducts, which translates to higher purity and more effective performance, particularly in high-speed inkjet operations.
The distinction in physical handling stands out too. 2,4,6- versions resist both caking and dusting, cutting down loss during transfer and storage. Fewer dusting problems lead to cleaner lines and less equipment downtime. Stability against light and oxygen further reduces the need for tight warehouse controls, an advantage over less robust analogues. Pharmaceutical and fragrance formulators have told us about fewer separation steps or easier crystallization. Small changes at the molecular level show up as real workday savings inside formulation labs and plant floors.
We don’t just welcome but actively seek critiques from end users and R&D teams. They not only spot rare defects—they point out subtle attributes that help us push for improvements. Insights around melting range, trace odor, or critical particle sizing come up in weekly calls and technical exchanges. Our technical team passes this direct user feedback to production and process control staff, who incorporate practical upgrades. This loop reinforces accountability and upholds a standard based on current realities rather than fixed notions from lab manuals. As on-site audits and customer visits become more frequent, transparency and openness to tough questions yield loyal partnerships, where each improvement cements trust.
2,4,6-Trimethylbenzophenone continues to gain ground across growing application fields. Our job as a manufacturer does not end at meeting specs—we take it further by sharing our production experience, the lessons learned from user challenges, and data from continuous process monitoring. By working directly with downstream partners, from initial R&D to commercial launch, we innovate processes that help them get the results they need with fewer setbacks. As each market evolves, so do our facilities and support teams, aiming to deliver what real users want: consistency, transparency, and a technical dialogue built on shared results.
We recognize that the landscape keeps shifting as end markets adapt to new safety guidelines, environmental standards, and performance expectations. Our commitment—grounded in the detail of daily work and a history of long-term customer partnerships—remains focused on supporting users through clear communication, robust product performance, and ongoing innovation.