Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing admin@sinochem-nanjing.com 3389378665@qq.com
Follow us:

2',4',6'-Trimethylacetophenone

    • Product Name 2',4',6'-Trimethylacetophenone
    • Alias TMAP
    • Einecs 219-437-9
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    177555

    Chemical Name 2',4',6'-Trimethylacetophenone
    Cas Number 557-19-7
    Molecular Formula C11H14O
    Molecular Weight 162.23 g/mol
    Appearance Colorless to pale yellow liquid
    Boiling Point 228-230 °C
    Density 0.986 g/cm³
    Refractive Index 1.527
    Flash Point 96 °C
    Solubility In Water Insoluble
    Smiles CC(=O)C1=CC(=C(C(=C1)C)C)C
    Pubchem Cid 12134

    As an accredited 2',4',6'-Trimethylacetophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing A 100-gram amber glass bottle with a secure screw cap, labeled "2',4',6'-Trimethylacetophenone, 98%" and hazard warnings.
    Shipping 2',4',6'-Trimethylacetophenone is packaged in secure, airtight containers to prevent leakage and contamination. It should be shipped as a chemical product, following standard regulations for handling organic compounds. Transport in cool, dry conditions, away from incompatible substances, with appropriate labeling and documentation to ensure safety and regulatory compliance during transit.
    Storage 2',4',6'-Trimethylacetophenone should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizers. Keep the container tightly closed and protected from light. Store at room temperature or as recommended by the manufacturer, ensuring the chemical is clearly labeled and securely stored to prevent accidental spills or exposure.
    Application of 2',4',6'-Trimethylacetophenone

    Applications of 2',4',6'-Trimethylacetophenone in Industrial Manufacturing

    As the original manufacturer of 2',4',6'-Trimethylacetophenone, we supply this selectively methylated acetophenone derivative to industrial customers with well-defined process requirements. Our commitment focuses on genuine downstream users across several mature sectors, where this molecule’s unique structure supports specific formulation, regulatory, and performance criteria. Below, we present key industrial scenarios substantiated by production practice, technical documentation, and end-user specifications.

    1. UV-Cured Coatings and Ink Photoinitiators

    2',4',6'-Trimethylacetophenone serves as a ketone-based photoinitiator precursor, leveraged for its electron-donating methyl groups that enable tailored absorption characteristics in the UV curing range. Formulators add this compound directly during the photoinitiator synthesis step, supporting high-speed production of inks and surface coatings for packaging, flooring, and electronics. Regulations in these sectors demand precise compositional control, including traceability of chemical origins and impurity levels, as downstream customers require reliable curing kinetics and migration compliance.

    Industry compliance standards

    • REACH (EC 1907/2006)
    • RoHS Directive (2011/65/EU)
    • EN 71-3 Toy Safety (for graphic inks)
    • Swiss Ordinance on Food Contact Materials (SR 817.023.21 Annex 10 for printing inks)

    Typical usage ratio

    • In photoinitiator synthesis: 10–40% molar ratio depending on target absorption spectra; adjustment based on desired initiation speed and migration limits.

    Downstream process integration

    • Introduced during the photoinitiator reaction stage (Friedel–Crafts acylation, condensation); purified and integrated into UV-curable resin or ink base formulations immediately after synthesis.

    Final product types

    • UV-cured offset inks for packaging and labels
    • Clear and pigmented UV coatings for electronics and wood flooring
    • Photoresists used in PCB patterning

    2. Pharmaceutical Intermediate Manufacturing

    Our compound functions as a building block in the multi-step synthesis of certain pharmaceutical actives and intermediates, especially within the development of specialty small-molecule drugs. It is incorporated at the early or middle stages of active ingredient assembly, where the steric and electronic effects of its three methyl groups increase selectivity in electrophilic substitution and safeguard sensitive aromatic regions during subsequent functionalization. Customers demand extensive documentation, batch traceability, and raw material conformity to pharma GMP requirements, alongside analytical documentation for DMF filings.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice Guide for Active Pharmaceutical Ingredients
    • USP–NF / EP monograph reference checks (as applicable for parent compounds)
    • 21 CFR Part 211 (US FDA cGMP for finished pharmaceuticals)
    • SFDA (China) Drug Registration requirements for raw materials

    Typical usage ratio

    • Varies by target molecule: usually 0.8–1.2 molar equivalents relative to key condensation partner, strictly controlled to avoid excess and ensure high-purity intermediate output.

    Downstream process integration

    • Used in initial or second-step Grignard, Friedel–Crafts, or selective halogenation process. Addition occurs in closed, validated reactor systems with in-process analytical controls (HPLC, GC-MS) for trace impurity monitoring.

    Final product types

    • Custom pharmaceutical intermediates
    • API precursors for specialty analgesics and antipyretic agents
    • Fine chemical blocks for labeled reference standards

    3. Agrochemical Synthesis (Herbicide and Pesticide Precursors)

    Formulators in crop protection routinely use our material as a methylated aromatic core to enable synthesis of select herbicide and pesticide actives. Its controlled methyl substitution pattern supports regioselective functionalization, influencing downstream biological activity and formulation stability. Adherence to strict global agrochemical raw material standards is mandatory, particularly the control of unreacted acetophenone derivatives and specific methylated impurities impacting final product safety assessments.

    Industry compliance standards

    • FAO/WHO Specifications on Technical Materials for Pesticides
    • ISO 9001:2015 (Quality Management for agrochemical manufacturing)
    • OECD guidelines for chemical testing (e.g., residue and metabolite profiling)
    • EU Regulation (EC) 1107/2009 (Approval of active plant protection substances)

    Typical usage ratio

    • 5–20% by mass depending on the complexity of the agrochemical molecule and desired substitution reactions; subject to calibration based on reaction selectivity and yield requirements.

    Downstream process integration

    • Fed at the first or second step of active ingredient synthesis by lithiation, halogenation, or coupling reactions. Purity closely monitored with intermediate sampling to ensure exclusion of unwanted isomers.

    Final product types

    • Precursor intermediates for selective triazine and phenoxy herbicides
    • Pesticide synthesis blocks for pyrethroid or neonicotinoid analogues
    • Stabilizers for high-load dry formulation granules

    4. Fragrance and Aroma Ingredient Synthesis

    Aromatic compound producers utilize this raw material for the controlled synthesis of specialty fragrance ketones and musks. Its methylation profile yields intermediates with nuanced olfactory attributes unattainable through unmethylated variants. Process operators integrate it during the key acylation or cyclization stages, where purity and isomer distribution significantly impact downstream distillation and scent profile. Compliance with IFRA and major flavor/fragrance regulatory bodies is essential, as manufacturers supply to global markets with strict compositional disclosure requirements.

    Industry compliance standards

    • IFRA Code of Practice for Fragrance Ingredients
    • EU Regulation (EC) No 1223/2009 (Cosmetic Products Safety)
    • US FDA CFR Title 21, Part 182 – Substances Generally Recognized as Safe (GRAS) for indirect additives
    • JECFA specifications for food-contact and flavoring agents

    Typical usage ratio

    • 5–15% by mass as an intermediate; ratio determined by ring closure efficiency, target musk or aroma compound, and downstream distillation parameters.

    Downstream process integration

    • Introduced into batch reaction vessels during acylation or cyclization with acid catalysts. Subsequent distillation or crystallization refines the intermediate for downstream blending or compounding into finished aroma formulations.

    Final product types

    • Specialty synthetic musks (macrocyclic ketones)
    • Fine fragrance bases for perfumes
    • Flavoring components for beverage and confectionery applications

    5. Polymer Additive and Modifier Synthesis

    Compounders and masterbatch producers incorporate 2',4',6'-Trimethylacetophenone derivatives as building blocks for polymer modifiers and specialty additives, affecting final properties such as UV resistance, melt flow, and thermal performance in niche engineering plastics. Chemical engineers dose the intermediate at early functionalization stages, especially in the creation of aromatic block copolymers or cross-linking agents. Technical specifications require detailed audit logs of additive origins and quantified residuals to satisfy downstream product liability and use in regulated markets.

    Industry compliance standards

    • EN ISO 9001 (Quality management for plastics and rubber industry)
    • UL 94 Flammability Ratings (for electrical and appliance parts)
    • EU Regulation (EU) No 10/2011 (Plastic Materials in Food Contact)
    • ANSI/SPE 90-2019 for specialty polymer additives

    Typical usage ratio

    • 2–8% by mass of total additive package, optimized during formulation trials for polymer matrix compatibility and performance attribute targets.

    Downstream process integration

    • Dosed directly into early-stage functionalization reactors during copolymer or block copolymer formation, or post-polymerization blending units for additive masterbatch production.

    Final product types

    • UV-stabilized engineering resins
    • High-performance polymer masterbatches
    • Specialized cable insulation and appliance housings
    Free Quote

    Competitive 2',4',6'-Trimethylacetophenone prices that fit your budget—flexible terms and customized quotes for every order.

    For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.

    We will respond to you as soon as possible.

    Tel: +8615371019725

    Email: admin@sinochem-nanjing.com

    Get Free Quote of Sinochem Nanjing Corporation

    Flexible payment, competitive price, premium service - Inquire now!

    Certification & Compliance
    More Introduction

    2',4',6'-Trimethylacetophenone: A Closer Look at Our Core Product

    The Role of 2',4',6'-Trimethylacetophenone in Specialty Chemistry

    In the world of fine chemicals, 2',4',6'-Trimethylacetophenone occupies a unique position. Direct, consistent, and predictable performance drives demand for this molecule across sectors, especially for companies focusing on advanced organic synthesis. Our purpose-built manufacturing line delivers 2',4',6'-Trimethylacetophenone under strictly observed parameters, and our years in the field back every batch that leaves our facility. We appreciate what matters to formulators and process chemists — uniform melting point, minimal impurity profile, defined moisture content, and repeatable chromatographic behavior — and we push for these benchmarks beyond standard batch acceptance testing.

    Defining the Product: Knowing 2',4',6'-Trimethylacetophenone

    Chemists recognize 2',4',6'-Trimethylacetophenone for its three methyl groups arranged on the aromatic ring, with the acetyl group in the para position. This clear structure yields both physical and reactive properties that stand apart from simpler acetophenones. Typical specifications involve tight control over melting range, color, refractive index, and GC purity, so every shipment supports demanding synthetic routes. In our own experience, customers who synthesize fine fragrances, advanced polymers, or pharma intermediates cite not only the raw chemical but the certainty of its attributes as critical to sustained production.

    Putting the Product to Work: Practical Applications

    Our clients come from various industries, though the most precise feedback arrives from people who push organic molecules to their limits. In fragrance development, for instance, perfumers have praised the clean, controlled aroma brought by our 2',4',6'-Trimethylacetophenone grade. Research groups exploring the synthesis of photoinitiators for high-performance coatings tell us that reliable behavior under UV exposure is critical, and deviations — even small ones in isomer content or water traces — disrupt entire batches. Over the years, consistency has proven just as important as initial purity, since changes between one delivery and the next create unpredictable outcomes at the reactor scale.

    Pharmaceutical innovators rely on the precise placement of the methyl and acetyl groups for scaffold-building in small molecule discovery. The regioselectivity of their coupling reactions improves dramatically when their starting materials follow strict physical and chemical benchmarks. In our plant, every kilogram must meet those levels — it isn’t just about producing a chemical, but about enabling the next innovation in labs downstream.

    Comparing 2',4',6'-Trimethylacetophenone to Other Acetophenones

    Not all acetophenone derivatives behave the same. Standard acetophenone possesses a single methyl group or none at all, and as we’ve learned in close consultation with formulators, this difference means altered boiling and melting points, changed solubility, and divergent chemical reactivity. Our own comparative TEAR (Technical Evaluation and Application Research) trials show a distinct improvement in yields and product purity for processes designed specifically around the 2',4',6'-trimethyl substitution pattern. In more complex syntheses — for instance, in the assembly of sterically hindered building blocks or in regioselective transformations — this structure gives an advantage that simpler acetophenones simply can’t replicate.

    We pay close attention to trace impurity levels and isomer content. Unlike commodity acetophenones from less focused lines, every step of our process integrates analytical controls that flag even minimal variance, especially for challenging isomeric separation. This scrutiny benefits customers running high-throughput combinatorial synthesis or scale-ups for regulated markets, where batch-to-batch identity matters far more than simply meeting a generic acetophenone spec.

    Our Manufacturing Approach: Why Process Matters

    In chemical manufacturing, shortcuts compromise more than just data sheets; they impact plants, jobs, and balance sheets. With 2',4',6'-Trimethylacetophenone, attention to process pays off. We select only specific grade starting materials, and every synthesis undergoes close monitoring for byproduct formation. Rapid detection of side reactions during the Friedel-Crafts acylation step — something we’ve baked into our workflow through decades of troubleshooting — keeps purity high and downstream separation simple.

    Early in our facility’s history, we noted that even small temperature drifts amplified impurity formation, so we invested in heat-tracking systems and online chromatographic monitoring. Now, we rarely see the sort of color drift or unexpected fluorescence that used to trouble older lines. Since adopting in-situ process analytics, customer complaints about batch variation virtually disappeared. These controls cost money and time, but they protect the reputation of every plant that relies on our output.

    Handling and User Experience: Beyond the Bottle

    Many in the industry think the job ends with the COA, but our experience says otherwise. Every researcher and production supervisor who calls us for follow-up knows our commitment goes further. Accurate labeling, clarity on shelf-life, and batch traceability have become nonnegotiable for customers working under tight schedules. We recognize how delays born from mislabeling or logistical missteps create headaches far downstream. By tying each lot to a digital record with full release and re-test histories, we take pressure off our customers' compliance teams.

    Packing and shipping — often afterthoughts elsewhere — influence everything from user experience to safety audits. Our standard packing avoids recycled drums, never mixes incompatible batches, and tracks pilot plant and main plant lots separately in storage and transit. Years back, a customer flagged contamination from an unlined export container; in response, we reworked packhouse procedures to eliminate double handling at the port and added humidity sensors to every shipping container. As a result, product received years later maintains the exact performance of the initial dispatch, giving customers one less variable to worry about in scale-up.

    Sustainability and Regulatory Notes

    We balance performance with sustainability. Solvent recovery and waste minimization routines reduce impact without cutting corners on yield or reproducibility. Our in-house environmental specialists monitor the effluent streams, and water used in our cleaning steps never carries organic residues above set internal limits. Shifting to closed-loop solvent transfer reduced our monthly chemical loss figures, and visiting regulatory auditors have taken note of our below-average violation count. As regulatory environments tighten across continents, these changes ease burdens for customers who need confidence that their own products meet the latest guidance.

    Years of managing safety data updates position us as a long-term partner, not just a supplier. We don’t issue safety documentation by rote; all recommendations reflect real lessons learned from our own site — for instance, the specific selection of PPE relevant for static-dissipative environments, or the actual runaway risk profile detailed in batch logs. Our plant-based technical team keeps information current, working jointly with compliance personnel to preempt emerging requirements. This culture of transparency benefits customers facing regulatory inspections and certification audits in their own plants.

    Listening to Customers: Feedback Drives Continuous Improvement

    Customers regularly share feedback not only on the product but on the entire experience, from product inquiry to final application. Years ago, long lead times between request and delivery jeopardized customer production schedules, especially in regions with port hold-ups. We now maintain buffer inventories for fast-moving grades such as 2',4',6'-Trimethylacetophenone, and real-time order tracking offers reassurance that no batch goes missing in transit. These decisions grow from direct conversations with our users, not just management forecasts.

    Our team values technical conversations just as much as commercial discussions. When a pharma partner described changes in their reaction endpoint after switching lots, our application lab worked together with their chemists, breaking down GC data and assigning an experienced process engineer to run parallel reactions in our pilot plant. Pinpointing a subtle lot-to-lot moisture variance led to process adjustments on both sides. Not only did this solve the immediate issue, but it built trust and improved our cross-site quality framework.

    Addressing Challenges: Purity, Reproducibility, and Supply Continuity

    Every specialty molecule faces its own sets of hurdles. With 2',4',6'-Trimethylacetophenone, impurity management continues to challenge the industry. Our customers ask tough questions about residual solvents, trace metals, and unpredictable by-products. Knowing this, we couple routine analytical screening with in-depth batch review, pulling archived data to spot trends before they cause trouble downstream. Years of documentation back up any certificate we issue, enabling rapid response to customer or regulatory questions.

    Consistency often hinges on fine-tuning process controls that slip outside the standard SOP checklist. Process drift can take hold gradually, showing its effects in subtle ways that traditional batch-release testing won’t catch. We keep a tight loop between plant operators, QC staff, and the lab, so findings in production feed back to pilot-scale trials and future batches. This internal feedback system prevents lapses in quality and supports customer projects that demand unwavering reproducibility week after week.

    Supply disruptions create frustration for producers whose schedules depend on timely replenishment. Political situations, logistics delays, or sudden spikes in demand force difficult choices for chemical plants everywhere. To keep lines moving, we prioritize long-term supply deals and staggered shipments, holding strategic reserves in regional storage points. Our business grew through reliability, not just pricing, and every repeat order tells us just how much customers value stable access to 2',4',6'-Trimethylacetophenone without last-minute apologies or rationing.

    Industry Trends: Staying Ahead of the Market

    Market needs evolve fast. A few years ago, calls for greener chemistry began to reshape procurement demands. Today, biobased and low-carbon alternatives shape purchasing habits, especially among multinationals with clear sustainability targets. Our R&D unit invests both in incremental improvements — like process yield enhancement and raw input qualification — as well as in pilot trials for alternative routes using renewable feedstocks. While petroleum derivatives still dominate the market, customer sentiment leans ever stronger toward reducing the environmental footprint without losing control or purity.

    We see a clear shift in customer expectations around documentation and transparency. Clients once satisfied with basic data sheets now want full disclosure of QA routines, chain-of-custody records, and even carbon accounting. Our approach remains simple: disclose what we actually do in the plant, allow customer audits, and provide firsthand evidence, not generic claims. This culture of openness grows from habit; customers no longer need to chase phantom spec updates or worry about incomplete traceability.

    Knowledge Sharing and Ongoing Collaboration

    Customers sometimes face new application challenges — changing formulations, novel reaction conditions, or sudden shifts in regulatory landscapes. Because our team consists of people who’ve worked in synthesis, kilolab scale-up, and multi-ton manufacturing, our advice comes from practical experience. When a customer has an issue with solubility in a novel solvent, or questions the interaction of 2',4',6'-Trimethylacetophenone with new process aids, we do not refer them to a generic knowledge base. Instead, the team investigates in-house, replicates the scenario if practical, and shares findings directly.

    We foster a longer-term partnership model. Rather than focus solely on the immediate transaction, our applications support group follows customer developments years after the first batch ships. We keep channels open with feedback surveys, technical site visits, and co-hosted troubleshooting sessions. This persistent back-and-forth means both sides improve — customers optimize their syntheses, and we gain insights that drive our process upgrades and next-generation offerings.

    Documented Successes and Real-World Outcomes

    A several-year collaboration with a multinational fragrance company underscores the value behind all our investment in controls and communication. Each campaign, focused on a flagship ingredient built from 2',4',6'-Trimethylacetophenone, required batch-specific coordination: tailored logistics; custom packaging; and specification tightening across several parameters, all tracked in near real time between their labs in Europe and our plant. The technical hurdles kept our teams in constant contact, troubleshooting not just synthesis steps but every facet of scale-up and final product QA.

    Outcomes extended beyond immediate delivery. By specifying joint improvement goals, our teams refined methods for impurity removal and batch-to-batch chromatography tracking. These upgrades now apply to other customers, ensuring that the learning born from one project improves the raw material quality across the whole sector. Our plant remains ready for the next round of challenges; the years of data, team expertise, and hard-earned lessons stand behind every future shipment.

    Looking Forward: Continuous Progress

    The marketplace keeps moving, and new regulations, customer-driven technical requirements, and sustainability commitments shape what matters in the world of fine and specialty chemicals. For 2',4',6'-Trimethylacetophenone, our commitment to robust manufacturing, transparent communication, and technical improvement stands as the result of decades of listening and adapting to real-world user needs. Every step from the reactor to the packaged product reflects the shared interests of the chemists, engineers, and quality teams that trust our plant as their source for this essential building block.