Products

Methylcyclohexanone

    • Product Name: Methylcyclohexanone
    • Alias: hexahydro-o-toluidone
    • Einecs: 202-505-0
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    832482

    Chemicalname Methylcyclohexanone
    Molecularformula C7H12O
    Molarmass 112.17 g/mol
    Appearance Colorless to pale yellow liquid
    Odor Ketone-like
    Boilingpoint 169-176 °C
    Meltingpoint -17 °C
    Density 0.92 g/cm³
    Solubilityinwater Slightly soluble
    Refractiveindex 1.448-1.453
    Flashpoint 62 °C
    Vaporpressure 2 mmHg (at 25 °C)

    As an accredited Methylcyclohexanone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Methylcyclohexanone is packaged in a 25-liter blue HDPE drum, tightly sealed, with hazard labels and product identification clearly displayed.
    Shipping Methylcyclohexanone should be shipped in tightly sealed, chemical-resistant containers, clearly labeled and protected from heat and ignition sources. It must be transported according to local and international hazardous materials regulations, typically as a flammable liquid (UN No. 2810, Class 6.1/3), with appropriate safety documentation and emergency response information included.
    Storage Methylcyclohexanone should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from sources of ignition, heat, and incompatible materials such as strong oxidizers or acids. Keep it away from direct sunlight and moisture. Storage areas should be equipped with appropriate spill containment and the substance should be clearly labeled to ensure safe handling and identification.
    Application of Methylcyclohexanone

    Applications of Methylcyclohexanone in Industrial Manufacturing

    As a direct manufacturer, we supply methylcyclohexanone to downstream producers in regulated sectors where this solvent and intermediate supports core manufacturing routes. Below, we detail proven industrial applications, specifying regulatory context, precise formulation ratios, integration in established processing lines, and main end products in each segment.

    1. Agrochemical Intermediate Synthesis

    Agrochemical manufacturers use methylcyclohexanone as a key building block in the synthesis of herbicides and insecticides, particularly in cyclohexanone-derived crop protection chemistries. In these applications, the compound serves as a controlled reacting agent in fine chemistry routes that demand high purity and reproducible performance. Synthesis conditions are tightly managed under environment, health, and safety protocols, especially due to strict residue and purity requirements for agricultural actives destined for regulated markets.

    Industry compliance standards

    • REACH Regulation (EC) No 1907/2006 — registration and substance evaluation
    • EPA TSCA (US) — pesticide active ingredient approval controls
    • ISO 9001 certified quality management systems during synthesis
    • Chinese National Standard GB2763 — agrochemical residue evaluation

    Typical usage ratio

    • 20–35% by weight in reaction mixtures; the exact ratio adapts to targeted molecule and production scale, balancing conversion yield and process efficiency

    Downstream process integration

    • Charged to batch reactor at controlled addition rates
    • Catalyzed cyclization or condensation, followed by purification
    • Intermediates isolated by solvent extraction, distillation, or crystallization

    Final product types

    • Triketone maize herbicides
    • Novel pyrethroid insecticides
    • Non-selective pre-emergence weed control agents
    • Chiral intermediates for specialty pesticides

    2. Polymer Resin Manufacturing (Nylon and Engineering Plastics)

    Methylcyclohexanone is implemented in the polymer industry as an essential intermediate and specialty solvent for nylon resin and high-performance plastic manufacturing. Producers use this material to induce specific properties during polyamide precursor formation or as a strong polar solvent for precise polymerization processes. Appropriate handling and purity grades are necessary to satisfy downstream thermal and mechanical property testing, as well as compliance with regulations on leachables and extractables in polymer materials destined for food contact or automotive sectors.

    Industry compliance standards

    • EU 10/2011 — plastics intended for food contact materials
    • ISO 14001 — documented environmental management during production
    • FDA 21 CFR 177 — indirect food additive compliance for polymer resins
    • Global Automotive Declarable Substance List (GADSL)

    Typical usage ratio

    • 1–15% by total monomer mass in copolymerization processes, with adjustments according to targeted nylon grade and melt flow properties

    Downstream process integration

    • Pre-mixed into monomer charge for controlled ring-opening polymerization
    • Used as a solvent for dissolving polymer intermediates before casting or spinning
    • Removed by vacuum distillation before pelletizing or extrusion

    Final product types

    • Nylon 6 and copolymerized nylon pellets
    • Injection-molded engineering plastic parts
    • High-performance fibers for automotive and industrial filtration
    • Transparent, heat-resistant films

    3. Industrial Solvents for Paint & Coating Formulations

    Technical-grade methylcyclohexanone plays a specified role as a strong solvent in certain industrial coating and ink systems. Manufacturers use it to facilitate pigment dispersion, control drying rates, and modify viscosity in solvent-borne paint environments, particularly where high-polarity solvent action is required. Its performance is closely monitored in the context of workplace safety limitations, environmental emissions compliance, and downstream product emission certification.

    Industry compliance standards

    • Directive 2010/75/EU (IED) — control of VOC emissions in industrial installations
    • OSHA 29 CFR 1910.1200 — workplace exposure and labeling of chemicals
    • EN 71-3 — migration of chemical elements from surface coatings (applies to toy coatings)
    • AP-42 Compilation of Air Pollutant Emission Factors (US EPA) for solvents

    Typical usage ratio

    • 2–8% as a proportion of total liquid phase in paint or varnish premixes; adjusted for target viscosity, drying time, and pigment type

    Downstream process integration

    • Added in grinding stage for pigment dispersion
    • Maintained during letdown stage to tune application properties
    • Evaporates during film curing or baking cycle

    Final product types

    • Automotive OEM and refinish coatings
    • High-durability metal protective paints
    • Decorative wood stains and varnishes
    • Industrial printing inks

    4. Pharmaceutical Synthesis Intermediate

    The pharmaceutical sector selects methylcyclohexanone as an intermediate in the multi-step synthesis of certain active pharmaceutical ingredients (APIs) and advanced intermediates. Pharmaceutical manufacturers require high assay and low-impurity lots of this material, directly supporting API syntheses for select non-parenteral drugs. Stringent quality controls are maintained throughout the process, from incoming raw material qualification to batch release, fully tracked for regulatory inspections and traceability.

    Industry compliance standards

    • ICH Q7 — GMP for active pharmaceutical ingredients
    • USP/NF and Ph. Eur. monograph standards where applicable
    • 21 CFR Part 211 — finished pharmaceutical CGMP
    • China Pharmacopoeia ChP for registered pharmaceutical intermediates

    Typical usage ratio

    • 5–18% as process solvent or stoichiometric intermediate; precise ratio determined by synthesis route and impurity control requirements

    Downstream process integration

    • Employed as a ring precursor in stepwise multi-component reactions
    • Participates in enantioselective hydrogenation or halogenation steps
    • Removed in final purification to meet residual solvent limits

    Final product types

    • Key API intermediates for antitubercular preparations
    • Cyclohexyl-containing antihistamine drug components
    • Final oral pharmaceutical actives (after multi-stage transformation)
    • Registered high-purity intermediates for global pharma exports

    5. Adhesives and Sealants Manufacturing

    Adhesive formulators incorporate methylcyclohexanone as a specialty carrier solvent in the production of high-performance bonding agents, especially where plastic or metal substrates demand controlled evaporation rates and enhanced solubility. The material allows controlled dispersion of specialty polymers, with consistent evaporation profiles required to satisfy industrial bonding, automotive, and electronics-grade standards. All batches pass routine quality certification during inbound inspection, as required by auditing and customer product performance guarantees.

    Industry compliance standards

    • ISO 10993-5 — cytotoxicity testing for adhesives with potential biomedical uses
    • ASTM D4236 — labelling for chronic health hazards on art and industrial adhesives
    • RoHS Directive (EU) 2011/65/EU — electronics adhesives limiting hazardous substances
    • GB/T 2793 — Chinese national testing for adhesive bonding strength

    Typical usage ratio

    • 3–12% by total adhesive formulation weight; varies by polymer content and application substrate

    Downstream process integration

    • Blended with tackifying resins and elastomers in mixing tanks
    • Incorporated during hot-melt or solvent-casting process step
    • Removed by flash-off or baking before final cure

    Final product types

    • Solvent-based contact adhesives
    • Flexible sealants for the construction sector
    • Industrial-grade pressure-sensitive adhesive tapes
    • Plastic and metal assembly glues

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    Certification & Compliance
    More Introduction

    Methylcyclohexanone: Proven Performance and Practical Value from Direct Synthesis

    Experience Built in Real Manufacturing, Not the Showroom

    Every batch of methylcyclohexanone produced in our facility comes straight from hands-on chemical engineering experience. For over a decade, we have pursued clear results, not textbook ideals. Our team doesn’t approach methylcyclohexanone as a faceless commodity. We developed our MCH-One standard with real-world feedback, scalable process control, and results from our own process lines. Methylcyclohexanone carries a lot more value when it is clean, narrow in specification, and produced for daily use—not just for compliance paperwork. It takes genuine effort to make each drum reliable, and we are not relying on anyone else’s blend or third-party stock.

    As Real Chemical Manufacturers, We Know the Details Matter

    Anyone who works with organic solvents day-to-day has dealt with the grime of inferior or inconsistent supply. We track every parameter, from substrate control to hydrogenation efficiency. Our process eliminates cross-contaminants and dimerization products, which are common headaches with methylcyclohexanone from less consistent sources. This vigilance started as a response to bottlenecks that our own downstream users once faced—cloudy final products, unpredictable reactivity, or lingering odor that complicated production in coatings, agrochemicals, and pharmaceuticals.

    Methylcyclohexanone is not just another line on a datasheet for us. The color must stay absolutely clear, the water content must regularly come in below 0.05%, and we do not cut corners on batch monitoring. As a result, our methylcyclohexanone pours smoothly and stays stable in storage—good shelf performance matters as much as purity. We see our own products move from tankers to process vessels, so any shortcut comes back to haunt us right away. You won’t find vague odor, off-hue, or noncompliance in our MCH-One model.

    Specifications That Reflect Real Chemical Needs

    The most important features in methylcyclohexanone have never been the easiest to see from a spreadsheet. Purity must run at least 99.5%, because many uses in crop-protection or pharma intermediates show ugly surprises even at a tenth of a percent drift. Over time, we have honed our process to repeatedly reach this level without stress testing. Moisture is the next item on any chemist’s checklist. Water content often comes up, especially in reactions with tight demands on solvent dryness. Through controlled vacuum distillation, we achieve water levels routinely below industrial spec and double check every finished drum.

    We record boiling point closely, targeting the 167–169°C range. Off-spec boiling points usually mean hidden contaminants, which again affect performance in time-sensitive reactions and solvent recoveries. Furthermore, residual aromatic content remains a long-standing problem for those who use solvent-sensitive catalysts or manufacturing processes with strict analytical controls. Our team refines hydrotreatment and distillation methods to keep aromatics virtually absent, which would not be possible without running our own pilot and production lines for solvent purification.

    Uses That Add Value, Chosen By Actual Operators

    It’s one thing to read about methylcyclohexanone’s uses in a catalog. It’s another to troubleshoot an unexpected drop in polymer clarity or to chase a side-reaction caused by solvent impurities. By talking directly to chemists and trialing methylcyclohexanone on our own downstream units, we identified the essential roles: as a solvent in polyurethane production, a processing aid in cyclohexanone derivatives, a carrier phase for agrochemical formulation, and a stable medium in dye synthesis. Each application brings its own demand for purity, dryness, and trace control—there’s always pressure to tighten the spec and never tolerance for vague performance.

    The flexibility of methylcyclohexanone lies in its moderate polarity and careful balance between solvent power and evaporation speed. Years of running it in resin synthesis have shown that too much variance in purity or moisture lengthens reaction times and creates defects in finished materials. That’s no abstract concern—those defects turn into lost revenue and scrap from the factory floor. For pesticide formulations, consistency in boiling point and no oddball trace components make a huge difference in shelf stability and ease of suspension. We built our synthesis and analysis protocols after seeing these issues repeatedly, so feedback from actual production lines remains our most valuable guide.

    Differences from Standard Cyclohexanone and Industry-Grade Solvents

    Methylcyclohexanone often gets lumped together with cyclohexanone in solvent guides, but real-life use quickly exposes their differences. Adding the methyl group pushes solvent power in a slightly different direction—our own tests with resin producers and adhesive formulators showed better compatibility with certain polyesters and greater stability in some pigment systems. Cyclohexanone can drag along more side impurities, especially aromatic residues from older, batch-based syntheses. Our methylcyclohexanone, thanks to continuous improvement in feed purification, stays cleaner in these challenging environments. We measure solvent loss after multiple distillation cycles and see lower residue in reactor flushes with our product compared to competitor cyclohexanone.

    In terms of evaporation profile, methylcyclohexanone delivers a slightly slower evaporation than cyclohexanone, and that quality allows for more open working windows in coating lines and textile applications. Our experience running coating trials bears this out—a controlled drying rate prevents surface defects and improves leveling in materials that require precise appearance standards. Industry-grade solvents, often repackaged from crude separation, fail to match this repeatability, especially with moisture ingress during transport and storage. Our sealed drums and tankers use corrosion-tested linings and desiccant protection, based on lessons learned from years of returns and field failures.

    Beyond Specifications: Real-World Support and Problem Solving

    Some solvent suppliers focus on volume, not outcome. After years of dealing directly with end users—from small batch specialty plants to continuous reactors in large-volume plants—we know that every deviation in solvent performance shows up in the bottom line. Operators count on us to answer honestly about each batch and resolve technical issues quickly. We maintain live batch tracking instead of distant traceability. Our lab team revalidates retention times, GC profiles, and Karl Fischer moisture on both in-process and storage samples.

    Whenever someone raises a field problem—gelling in resins, unexplained haze in final products, or issues with blending additives—we analyze our methylcyclohexanone side by side with production samples. On more than one occasion, our intervention traced performance setbacks to old-style, open-tank transfers or missed drying cycles in bulk tanks. This level of involvement goes beyond simple supply. In our view, chemical manufacturing means standing with your products long after they’ve left the plant.

    Safeguarding Against Quality Creep

    Small lapses compound quickly in solvent production. In the early days, our plant learned the value of sampling at every step, not just relying on end-point analysis. A lot can change from upstream hydrogenation to downstream drum filling. For methylcyclohexanone, sampling at intermediate points exposed minor but costly shifts — a spike in peroxide when cooling lines slowed down, a slip in color when anti-oxidant addition lagged behind demand. These details set direct manufacturing apart from third-party or toll processors. We catch the outliers before they reach a customer’s blending or synthesis tank.

    Preventing quality creep is about more than just equipment investment. Each shift operator on our line takes part in regular training to identify off-odors or subtle hue shifts, and we reward anyone who catches a spec deviation before it travels downstream. It’s this system, developed across years of direct production rather than just procurement management, that keeps batches within tight and trusted limits.

    Packaging, Handling, and Reliability in Real Conditions

    Years in the business teach you which packaging choices actually protect solvent quality through changing weather and long-haul shipments. Our methylcyclohexanone leaves the plant in sealed drums or bulk tankers tested for chemical compatibility and vapor barrier, not based on catalog options but on failures we’ve witnessed from clients and our own storage. Absorption of moisture or leaching of plasticizers ruins solvent performance, especially in fine chemicals.

    Together with operators, we developed monthly drum inspection protocols and cycle-testing under variable humidity. While this takes extra effort, it keeps field complaints to a minimum and lets us stand by every drum. Comparing returns and support calls over five years, investment in better packing and constant monitoring produced clear cost savings not just for us but for end users who work with sensitive recipes. In handling, simple steps like color-coded venting, anti-static bonding lines, and trained loading staff make spills and mix-ups rare, even at high traffic docks.

    Meeting Compliance and Building Confidence—Step by Step

    In our sector, paperwork can hide poor quality and supply issues. From synthesis through delivery, our methylcyclohexanone matches actual test reports performed batch-by-batch, not just paperwork from old master files. Regulators and end-users have growing concerns over trace contaminants, so we submit random drums from production cycles for third-party GC-MS and residue testing. Discrepancies trigger process audits, led by the same people responsible for production—there’s little separation between quality and operations on our team.

    Our regular compliance checks include more than regulatory boxes—they reaffirm the trust customers place in a straight-from-the-source supplier. Tight controls on incoming feed, strict scheduling of maintenance, and full records on every input allow us to trace small changes before they migrate through multiple product lines. Other operations may outsource these steps, but our experience has shown that keeping them in-house brings fewer surprises, faster troubleshooting, and better predictability for customers with their own compliance audits.

    Listening to End Users and Changing Process for Real Improvements

    Through constant feedback loops, we adjust our methylcyclohexanone process—not just to meet published spec, but to support actual process needs in coatings, pharma synthesis, and fine chemicals. Operators who run night shifts, or troubleshoot on the spot, tell us when sticky residues pop up or when cleaning cycles drag on longer than planned. These are not minor complaints—we treat them as action items.

    Our last major process overhaul took direct input from users who needed lower non-volatile residue content. Instead of defaulting to higher filtration, we modified our distillation headspace and reformulated the inhibitor package for more responsive shutdowns. Outcomes improved not only in lab numbers but in ease of drum emptying, tank flushing, and less down time at packaging units. The message here is clear: chemical production isn’t fixed in stone or left to batch variance. The people who use methylcyclohexanone shape how we manufacture it, and each adaptation is measured by outcome, not just compliance.

    Facing Energy Costs and Process Economics with Transparency

    Few things challenge chemical operations as much as rising energy costs—solvent purification uses real steam, cooling power, and vacuum maintenance, not imaginary inputs from a spreadsheet. Our methylcyclohexanone line favors closed-loop solvent recycling and heat-exchange optimization. High purity demands mean we prioritize feed efficiency and waste minimization daily. When costs for hydrogen, natural gas, or utility steam rise, we transparently communicate the trade-offs with procurement teams and support them with real consumption figures. End users get more than an invoice—they get reviews of how product yield, purity and packaging choices translate to their own cost control efforts.

    These efforts grow from the ground up, built from years of process trials, not “best practice” handbooks. In critical load planning meetings, our engineers model not just what’s possible on paper, but what holds up when operators face late trucks, unexpected rework, or faulty utilities. That reliability, in price and supply, matters most to customers who carry actual manufacturing risk.

    Building on Trust and Improving Year Over Year

    We measure success in repeat business, not just sales volume. Each customer who returns for methylcyclohexanone after a challenging production run or a competitive trial means more than a marketing win. It’s proof that being the original manufacturer brings day-to-day advantages—traceable quality, timely support, and willingness to stand in when things go wrong. This doesn’t come from tables or catalog specs; it grows from meeting problems face to face.

    From small-batch specialty runs to hundred-ton orders for multi-site plants, our methylcyclohexanone remains reliable because every improvement, every spec tightening, comes from collaboration with real users and years spent in our own tank farm and control room. We know the difference between a theoretical spec and what clean, dry, stable solvent means in actual practice. That history shows at every stage—production, shipment, and beyond.

    Why Source Methylcyclohexanone Direct from the Manufacturer Really Matters

    Plenty of supply chains conceal where products originate or how many hands touch the material before it lands at your dock. Complications happen when source control slips. We run a closed supply chain—raw material to finished tank—so every kilogram of methylcyclohexanone can be traced back to a single campaign, with full access to batch data, operator log sheets, and historical samples. That security helped customers weather raw material crises and geopolitical shocks over the past years.

    Unlike distributor inventories or jobber repacks, our direct supply model reduces cross-contamination, keeps spec drift in check, and answers field issues with firsthand process expertise. When users need technical documents, on-site support, or “split batch” parallel testing for new formulations, our team sends real production staff, not just salespeople. That commitment to transparency and technical depth separates true chemical producers from the broader commodity market.

    Commitment through Generations of Chemical Practice

    True manufacturing doesn’t mean chasing the lowest cost or the biggest volume. It means standing behind each drum, each batch, each result—because those outcomes travel all the way into your processes. Our methylcyclohexanone reflects years of trial, occasional error, constant feedback, and a belief that solving problems beats shifting risk. Customers gain a solvent that’s built on practical know-how and direct investment in every link of the process, from raw feed to finished product.

    This approach has given real benefits—tighter analytical ranges, better response in downstream chemistry, and fewer headaches for production managers. On the hardest days, when supply chain stress runs high, or a big job needs a quick turnaround, it makes the difference between costly delay and a finished product delivered on time, on spec, and with the certainty that only a direct manufacturer delivers.

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