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HS Code |
511030 |
| Cas Number | 589-92-4 |
| Molecular Formula | C7H12O |
| Molar Mass | 112.17 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 171-172 °C |
| Melting Point | -60 °C |
| Density | 0.895 g/cm3 at 25 °C |
| Refractive Index | 1.4500 (at 20 °C) |
| Flash Point | 61 °C (closed cup) |
| Solubility In Water | Slightly soluble |
As an accredited 4-Methylcyclohexanone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 500 mL amber glass bottle with a tight-sealed cap, labeled "4-Methylcyclohexanone," includes hazard and handling instructions. |
| Shipping | 4-Methylcyclohexanone is shipped in tightly sealed containers, typically made of glass or high-density polyethylene, to prevent leakage and contamination. It should be transported as a flammable liquid according to applicable regulations, kept away from heat, sparks, and open flame, and stored in a cool, well-ventilated area, with proper labeling and documentation. |
| Storage | 4-Methylcyclohexanone should be stored in a tightly closed container in a cool, dry, well-ventilated area, away from direct sunlight, ignition sources, and incompatible substances such as strong oxidizers or acids. Store at room temperature and keep away from moisture. Ensure proper labeling and use appropriate chemical storage cabinets if available. Regularly inspect containers for signs of leakage or damage. |
Applications of 4-Methylcyclohexanone in Industrial ManufacturingAs a dedicated manufacturer of 4-Methylcyclohexanone, we provide this raw material to global industries. Our product supports multiple downstream sectors with distinct processing requirements, compliance needs, and application procedures. Below, we detail the main industrial application areas, each reflecting real market and technical standards for integration and product quality. 1. Agrochemical Intermediate for Crop Protection Synthesis4-Methylcyclohexanone serves as a key building block in synthesizing selective herbicides and fungicides. Several leading agrochemical companies employ this material in hydrogenation and condensation stages during the manufacture of active ingredients for crop protection agents. Producers must implement precise catalytic conditions to ensure consistent downstream yields and product purity. Careful handling during the formulation phase is vital to avoid by-product formation and downstream contamination. Sourcing high-purity grades directly impacts active ingredient performance in formulated products intended for regulated agricultural use. Industry compliance standards
Typical usage ratio
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2. Nylon and Polyamide Monomer SynthesisThe cyclohexanone structure, with a methyl substituent, enables use as a precursor in specialty polyamide and nylon monomer production. Polymer manufacturers use this material in oxidation or cyclization reactions, integrating the intermediate during adipic acid or caprolactam synthesis. Strict quality control is essential, as residual methylcyclohexanone levels affect polymer viscosity, fiber strength, and color properties in finished textile or engineering resin applications. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Fragrance and Flavor Ingredient ManufactureThis ketone acts as a fundamental intermediate for synthesizing aroma molecules used in fragrance and flavor compositions. Downstream producers leverage its reactivity in producing macrocyclic musks and other specialty aroma chemicals via ring expansion or selective hydrogenation. Control over impurity profile and isomer distribution is mandatory to maintain consistent sensory quality in high-grade, IFRA-compliant compounds. The end products find use in perfumes, personal care, and consumer goods by multinational brands. Industry compliance standards
Typical usage ratio
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4. Pharmaceutical Intermediate for Active Substance SynthesisSelective hydrogenation and condensation reactions incorporating 4-Methylcyclohexanone play vital roles in the synthesis of several pharmaceutical APIs. The substance is frequently used to construct cyclical moieties required in central nervous system (CNS) and cardiovascular medicines. Strict control over starting material traceability, GMP batch segregation, and purity profile management are required to satisfy regulated drug synthesis. Industry compliance standards
Typical usage ratio
Downstream process integration
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5. Solvent for Specialty Coating and Resin FormulationThe solvent properties of this compound support resin, ink, and specialty coating production, offering high compatibility with cycloaliphatic compounds. Industrial mixers employ this raw material during resin backbone dissolution, flow leveling, and pigment wetting in complex formulations. Formulators regulate concentration to maximize substrate adhesion and control application viscosity, especially in automotive and high-performance electronics coatings. Industry compliance standards
Typical usage ratio
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6. Chemical Intermediate for Plasticizer ProductionThis cyclohexanone derivative functions as a precursor for manufacturing plasticizers used in flexible PVC and specialty polymer processing. Industrial producers convert the material via esterification and hydrogenation reactions, allowing fine-tuning of plasticizer molecular weights to match application-specific migration and flexibility requirements. Quality-critical stages require input material with minimal unsaturation and controlled impurity content to avoid end-product discoloration and migration failures during long-term use. Industry compliance standards
Typical usage ratio
Downstream process integration
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7. Intermediate for Adhesive and Sealant AdditivesThis compound is incorporated into the synthesis of adhesion promoters and flexibility modifiers for advanced sealant and industrial adhesive formulations. Chemists introduce the cyclohexanone derivative to boost cohesive strength and aging resistance in adhesives specified for electronics assembly, building, and automotive joint sealing. Process technicians must balance material loading to enhance performance without exceeding volatile organic compound limits mandated by end-use regulations. Industry compliance standards
Typical usage ratio
Downstream process integration
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In chemical manufacturing, some molecules stand out because they create possibilities for industries that shape everyday life. 4-Methylcyclohexanone is among those workhorse compounds—putting science into practical motion in everything from fine fragrance creation to specialty coatings. Our team has watched demand for this compound surge over the years, as applications expand and the world asks for more precise, reliable raw materials. Pulling from our direct production experience, here’s why this compound commands such respect and how we ensure what leaves our site meets tough industrial expectations.
4-Methylcyclohexanone is a clear, organic liquid recognized for its subtle, slightly minty odor and a high level of chemical stability under normal storage conditions. As a true cyclohexanone derivative, its structure features a six-membered ring with a single methyl group tucked onto the fourth carbon and a reactive ketone group at the first carbon. This small change—just one extra methyl branch—reshapes its entire reactivity profile, which chemists rely on when pushing for higher selectivity in downstream syntheses. We manufacture 4-methylcyclohexanone under strict batch control, focusing on purity and minimizing byproduct residues, since these contaminants create headaches for customers later on. No unnecessary additives. No surprise tints or off-odors. Each lot carries our in-house QC stamp, reflecting our pride in handling every stage from raw material selection to final packaging.
Commercial 4-methylcyclohexanone rarely gets the same shelf attention as more familiar chemicals, yet the pressure to keep quality consistent stands just as high. In our plant, each drum or IBC of the product moves out the door meeting a minimum purity of 99.0%. Because common byproducts like methylcyclohexanol or unreacted cyclohexanone raise problems in later chemical steps, we set our gas chromatography screens to a tight window—rejecting any lot displaying trace impurity spikes above our threshold. Product leaves at a density suitable for downstream processes—around 0.92 g/cm³, with a known boiling point in the vicinity of 171-173°C. Water stays well below 0.1%, protecting equipment against corrosion. We regulate and monitor aromatic and non-volatile impurities closely. Our familiarity with supplier variability over decades cements our habit of double-checking each tank before signing off on release.
4-Methylcyclohexanone might be overshadowed by cyclohexanone or cyclohexanol in textbooks, but its value arrives when reaction selectivity and tailored intermediates matter. In our experience, most of this compound finds a home in fine chemicals and specialty materials. Synthetic chemists value it for its ability to yield intermediates for pharmaceuticals, perfumes, and antioxidants. The presence of the methyl group alters reaction kinetics—precision that some customers depend on to introduce distinct substituents in a molecular skeleton. For fragrance applications, the compound’s reactivity leads to musk or mint-note ingredients that wouldn’t be practical without a reliable 4-methyl starting point. Industrial companies building specialty resins or adhesives require consistent reactivity; otherwise, final properties drift. We hear most from customers in the perfume and agrochemical sector, where strict regulations demand reproducibility from every batch. These tight requirements drive us to document our production lots closely and adapt processes as their requirements evolve.
Many procurement specialists compare 4-methylcyclohexanone with the plain cyclohexanone. On paper, the difference seems trivial—a methyl group swapped at one location—but the impact echoes throughout both physical and chemical behavior. Cyclohexanone offers greater volatility, making it easier to distill at lower temperatures but also more difficult to confine due to stronger vapor pressure. The methyl group in our product lowers volatility, cuts down on unplanned evaporative losses, and impacts solubility in common solvents. Chemists looking for selectivity in reaction mechanisms gravitate to 4-methyl for its altered electronic properties, which let them synthesize otherwise hard-to-reach molecular targets. Conversely, variants like 2-methylcyclohexanone fail to provide identical selectivity or yield in these niche reactions. Pharmaceutical companies who value clean reaction profiles avoid the side products frequently associated with the more basic cyclohexanone route.
Through the years, we’ve discovered that downstream headaches often stem from upstream complacency. Our QA team guards against this with hands-on batch sampling, infrared analysis, and regular calibration of our GC devices. Our production operators know which temperature holds produce the cleanest conversion from base cyclohexanone, and they trim run times to avoid over-oxidation that encourages nasty byproducts. Stability studies under different conditions help us provide realistic shelf-life ranges, with our storage recommendations shaped by real-world incidents from our own and our clients’ previous experience. Routine feedback from R&D chemists in customer labs reminds us that even ppm-level contaminants leave unanticipated marks on intricate reactions. That’s why we’ll often hold back shipments until we’re sure nothing in the sample falls outside the lines set by our most rigorous applications.
We don’t just ship and forget. As a manufacturer, we’re accountable for how 4-methylcyclohexanone performs in the field. Several years ago, a partner in the flavoring sector reported filter clogging due to trace polymerization products. We traced the cause back to an unexpected anomaly in our raw material feed—a lesson that nudged us to adjust filtration steps and install upgraded monitoring sensors. Another example: a specialty coating customer pointed out tiny process yield drops tied to water content. We improved vacuum stripping procedures and started logging dew point data for each lot. Input like this drives us to see our product as more than a line-item on a manifest; it becomes a living component within someone else’s critical process.
Long-term partnerships rest on delivering 4-methylcyclohexanone safely and in top condition. Our logistics protocols don’t stop at routine regulatory compliance. Over time, we refined packaging to shield against accidental air ingress, which minimizes peroxide formation and color changes. We recommend nitrogen blanketing and shroud containers in a UV-opaque wrapping to discourage decomposition during months-long sea journeys. Our bulk shipments involve periodic inspection and tank circulation to keep the liquid moving if held for longer periods. Drums that return with dents or damaged seals never get refilled unless they pass a full leak check and inspection for residual crystalline solids. These steps aren’t just about following the rules—they build reliability and let our clients work without unexpected interruptions.
Our team doesn’t overlook environmental stewardship. Waste control starts with recovery—offcuts, side-streams, and volatile losses all get rerouted, condensed, and purified whenever possible to cut environmental burdens and lower overheads. Internal solvent purification units let us reintroduce reclaim back into the system. Off-gassing and exhausts pass through carbon scrubbers and active biofilters to eliminate fugitive emissions. We’re directly accountable for our impact—no offshoring the headache to subcontractors. Every step from material source selection to residue disposal lines up with local, national, and international environmental rules. Transparency means we publish regular metrics and conduct third-party audits, knowing our responsibility doesn’t end at the loading dock.
It’s one thing to design a process in a control room. The true test starts amid real production. Early on, we realized that 4-methylcyclohexanone vapor can accumulate in confined spaces, so we built rigorous air sampling routines around filling and emptying lines. Personal protective equipment serves as a backup—not a substitute for solid engineering controls. Regular team training on spill response shortcuts the panic if a drum leaks during transfer; absorbents, neutralizers, and ventilated zones do more good than any after-the-fact paperwork. Our plant medics and trainers update safety protocols with every new incident or near-miss, making sure experience shapes written procedures, not the other way around. That everyday vigilance keeps both our people and our product safe.
Over the past decade, we’ve found real value in listening closely to chemists experimenting with 4-methylcyclohexanone in new reactions. University collaborators tell us where edge-case impurities create false positives in analytics; they push us to advance distillation cuts or tweak purification steps. Joint process development shortens cycle times for everyone—when a customer develops a catalyst system sensitive to a certain class of minor ketones, we adapt our plant to trim those traces, helping their research progress faster. We believe that transparency in process chemistries builds confidence in our output. Sharing our analytical data or opening plant tours may set a higher bar for accountability, but it also roots our relationship deeper in mutual success rather than transactional supply.
Increasing production speed hasn’t meant lowering our standards. Surges in raw material cost or sudden policy shifts sometimes test our ability to keep price and quality stable. Instead of shopping for cheaper, low-grade feedstocks, we safeguard resilience by building redundant supplier networks and negotiating contracts that stress consistent composition and origin traceability. When our shipping partners bump up lead times, we stagger output to maintain buffer stocks and offer flexible, staged delivery schedules for loyal customers. Weather events or port strikes may slow distribution, but our direct manufacturing gives us levers to adjust blend cycles on short notice, keeping the lag from cascading down to customers. Direct feedback loops between the shop floor, QA lab, and outbound logistics team speed up adaptive measures, so problems get nipped early instead of growing into critical production hiccups.
Our support for regional technical schools and university science programs stems from firsthand appreciation of well-trained chemists. We sponsor practical training using real process samples, not simulated test sets, so students learn the differences subtle impurities make in practice. Guest lectures by plant operators explain not only the function but the challenges of handling compounds like 4-methylcyclohexanone: odor control, storage obstacles, disaster response. Internship programs run alongside line workers so skills transfer naturally and tomorrow’s chemists understand the stakes of precision and accountability. We view these investments as foundational for sector-wide progress; a well-informed workforce leads to safer, more innovative process chemistry tomorrow.
Though consistent supply anchors our reputation, looking ahead keeps us competitive. We keep ongoing pilot programs looking for new synthesis routes to 4-methylcyclohexanone with less waste, lower energy, or improved throughput. Catalysts and bio-based raw materials, for example, now form a meaningful part of our development focus. By experimenting in limited runs and scaling only those methods that show not just laboratory promise but plant-scale reliability, we ensure we’re not chasing trends at the expense of stability. Advanced sensors and predictive maintenance software allow us to track batch-to-batch variations and continuously tighten our process controls. These investments lift long-term margins but also let our customers depend on the same or improved product profile every year, even as the underlying science and raw material markets shift.
Talk to our operators or lab technicians, and you’ll hear stories about overcoming real process hurdles with resourcefulness. Years back, a chill in the supply of high-grade precursor nearly derailed several lots; quick thinking and rapid-fire communication among teams head off the shortage with last-minute supplier coordination. Not every batch runs smoothly—sometimes distillation needs adjusting, sometimes a trace impurity creeps in from equipment wear—but our philosophy focuses on open communication rather than hiding errors. Troubleshooting becomes a team effort. This culture keeps our standards high and builds trust over decades, not just fiscal quarters. Customers know one point of contact isn’t going to dodge a tough question or gloss over a tough patch; instead, they reach workers and leaders who carry first-hand knowledge of the process and a real sense of accountability for each shipment.
Our edge stems less from price than from trust, responsiveness, and confidence that each delivery matches or surpasses the last. Returning clients reference batches made over many years, confident the look, odor, and impurity profile won’t drift without upfront notice and joint testing if a process change becomes necessary. Some only call us when projects push technical boundaries; others reorder routinely, counting on smooth cycle-to-cycle integration. For custom derivatives or tailored impurity limits, we eagerly sit down with formulation and R&D teams to map out new targets—then push plant operations and QA to adapt procedures, rather than forcing a one-size-fits-all product onto every partner.
Industrial chemicals like 4-methylcyclohexanone struggle to compete for attention with flashier molecules, yet they power innovation quietly and reliably. Decades of manufacturing experience remind us that each drum or tank carries not only a product, but the sum of many lessons learned—lessons in process control, customer partnership, environmental stewardship, and personal responsibility. We see ourselves not just as suppliers, but as partners, always honest about product capability and limitations, always seeking new pathways for improvement. Each shipment leaving our site carries that commitment, grounded in expertise and a deep belief that great chemistry grows from great collaboration.