|
HS Code |
773838 |
| Chemical Name | 4-Isopropylcyclohexanone |
| Cas Number | 770-41-0 |
| Molecular Formula | C9H16O |
| Molecular Weight | 140.23 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 206-208 °C |
| Melting Point | 41-42 °C |
| Density | 0.917 g/cm3 |
| Refractive Index | 1.463 |
| Flash Point | 81 °C |
| Solubility In Water | Insoluble |
| Smiles | CC(C)C1CCC(=O)CC1 |
As an accredited 4-Isopropylcyclohexanone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 4-Isopropylcyclohexanone, 100g, securely packed in a sealed amber glass bottle with tamper-evident cap and hazard labeling. |
| Shipping | 4-Isopropylcyclohexanone is shipped in tightly sealed containers to prevent leaks and contamination. It should be stored in a cool, dry, well-ventilated area, away from oxidizing agents and direct sunlight. Transportation must comply with applicable regulations for chemical substances to ensure safety and environmental protection during transit. |
| Storage | 4-Isopropylcyclohexanone should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers. Protect from heat and direct sunlight. Store at room temperature and avoid moisture. Proper labeling is essential, and access should be limited to trained personnel. Follow relevant safety and regulatory guidelines during storage and handling. |
Applications of 4-Isopropylcyclohexanone in Industrial Manufacturing4-Isopropylcyclohexanone serves as a specialized intermediate in multiple chemicals production sectors. Our manufacturing experience ensures material suitability for regulated and high-purity industrial synthesis, particularly in high-value downstream applications. Below, we outline the primary application channels, detailing operational requirements and integration specifics. 1. Fragrance and Aroma Chemical SynthesisThis intermediate sees major consumption in the synthesis of high-grade odorants for perfumery and personal care. Niche use as a building block in the manufacture of musky and woody fragrance molecules relies on specific chemical selectivity. Supply contracts often require validation by end users for batch-to-batch olfactory reproducibility. Robust analytical support during scale-up ensures product acceptance in odor-critical applications. Industry compliance standards
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2. Pharmaceutical Intermediate SynthesisAs a cyclic ketone, the product forms the backbone of targeted synthetic routes for advanced pharmaceutical intermediates, especially those with cyclohexane or tetralin skeletons. Process chemists value its reactivity in enone and reductive amination sequences. We maintain traceability and impurity profiling per ICH Q3A/B, collaborating closely with API manufacturers during process validation and regulatory submission. Industry compliance standards
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3. Agrochemical Active Ingredient ProductionThis raw material enters the production chains of specific insecticidal and fungicidal active substances, where cyclohexanone moieties play a crucial role in bioactivity. Downstream processors demand consistent assay and low residual solvent levels to avoid regulatory delays. Formulation plants may further require batch traceability linking every drum to field efficacy submissions in major crop protection markets. Industry compliance standards
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4. Fine Chemical and Specialty Polymer Synthesis4-Isopropylcyclohexanone performs as a specialty monomer or modifier for tailored high-molecular weight polymers and resins used in automotive, electronics, and high-performance coatings. These sectors need precise reactivity and consistent purification for downstream polymerization processes. Quality control includes detailed lot analysis for residual moisture, peroxide index, and UV absorbance. We provide technical batches adjusted for end-use compatibility testing. Industry compliance standards
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5. Chemical Research and Development (R&D) Reference Compound SupplyChemical R&D organizations and contract research labs require high-purity 4-Isopropylcyclohexanone in structure-activity relationship studies, catalyst trial programs, and novel scaffold explorations. Our batch documentation, spectral data, and impurity profiles meet the expectations of advanced academic and industrial R&D centers engaged in custom syntheses and material science innovation. Industry compliance standards
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In our chemical plant, 4-Isopropylcyclohexanone is more than just a line item on a product sheet. Every batch reflects the lessons we’ve carved out over decades of refining processes, listening to our partners upstream and downstream, and watching industries shift their focus—from fine chemicals to specialty plastics, and from flavors to pharmaceutical intermediates. We have worked with this ketone long enough to see its characteristics bring specific advantages to end users, and we have seen up close where it stands apart from similar compounds on the market.
Our 4-Isopropylcyclohexanone comes primarily in a clear, colorless liquid form. Its chemical structure, C9H16O, presents a key blend of stability and reactivity that makes it a sought-after intermediate. We monitor every variable, from isomer distribution to purity percentage. Purity generally exceeds 98%, and water content falls below 0.2% in our standard batch output. Years of tweaking the oxidation process help suppress side isomers and minimize residual starting materials.
We typically offer bulk shipments in drum or IBC container formats. Small-lot packaging also leaves the factory for lab-scale or specialty blending, but our strength rests in scaling up to serve customers requiring hundreds or thousands of kilos per month. For logistics, we maintain transparent paperwork and shipment records, and hold back retention samples for every production. Nothing replaces that peace of mind in this business.
Every chemical finds its utility based on how it behaves—not just on paper, but in real-life reaction vessels. As an experienced manufacturer, we pay close attention to what chemists and process engineers need. 4-Isopropylcyclohexanone draws interest because of its selectivity in key transformations. Its cyclohexanone backbone transforms under hydrogenation and condensation conditions, opening routes to both linear and branched synthetic targets. The isopropyl group adds steric heft, changing reactivity patterns relative to unsubstituted cyclohexanone or the closely related 4-tert-butylcyclohexanone.
We often see inquiries from the fragrance and flavor industry. Here, 4-Isopropylcyclohexanone serves as a bridge to musks and high-value aromatic molecules. The subtle difference in substitution gives derived musk compounds a different olfactory note, often more durable and robust, reflecting the isopropyl orientation. In these sensitive applications, both odor purity and control of trace byproducts matter. Factory protocols on raw material screening and inert-atmosphere handling ensure our batches stay within the required fineness.
Down the pharmaceutical pipeline, research teams call in for this material as an intermediate or starting point in the synthesis of specialized APIs. Our technical support team keeps up with regulatory standards and impurity profiling for pharma partners. Through collaboration, we developed testing regimes to quantify trace contaminants—not just relying on standard GC but also LC-MS and NMR when structural integrity is critical for downstream synthesis.
We see demand from the plastics and resins sector, too, where cyclohexanone derivatives modify polymer flexibility and enhance thermal or UV resistance. In these uses, color stability, residual odor, and volatility levels all come up during contract discussions. Years ago, our team realized that not every customer has the same volatility tolerance, so we invested in headspace analysis and long-term stability tests on our product lots. This allowed us to fine-tune conditions, reducing loss during melt compounding.
As manufacturers, we operate in a reality where superficial differences have lasting effects. 4-Isopropylcyclohexanone stands apart from classic cyclohexanone in several ways. Chemically, that isopropyl group on the ring blocks certain oxidation pathways, giving slightly better stability—especially under aerobic or hot processing conditions. This lets customers push process temperatures higher, sometimes speeding up their production timelines. At the same time, our continuous flow reactors, with carefully monitored residence times and oxidant feeds, suppress unwanted ring-opening byproducts. The resulting product often requires fewer downstream purification steps.
Certain projects require distinguishing one isomer from another or controlling chiral purity. We don’t just ship bulk and forget about specificity. Our team maintains the ability to conduct small-lot distillation, chromatography, and real-time impurity monitoring for clients running critical syntheses. We know which questions to ask because we’ve seen lab-scale woes get magnified in full-scale plants. A batch with an elevated side-isomer content can make or break a fragrance profile or, worse, ruin the selectivity in a pharmaceutical coupling step. Not all suppliers sweat these fine points. Our customers tell us that the difference shows up during formulation, not just on a spec sheet.
For users comparing 4-Isopropylcyclohexanone to 4-tert-butyl or 4-ethyl analogs, the balance between volatility, reactivity, and downstream odor profile often tips the decision. The isopropyl variant offers a middle ground: a moderate boost in boiling point without becoming too viscous, and a distinctive backbone that changes reactivity just enough to benefit certain synthetic routes without making downstream separations a headache.
Scaling up 4-Isopropylcyclohexanone takes more than textbook chemistry. We have worked through issues like temperature control during exothermic oxidation steps and deactivation of catalysts over time. The isopropyl substituent, compared with methyl or tert-butyl, needs tighter control on oxidant delivery—too slow and you lose throughput, too fast and byproducts spike. Only continuous process feedback and tight monitoring keep these variables in check.
Waste management also takes priority. After every run, we analyze spent catalysts and vent streams for environmental compliance. By developing closed-loop recycling of solvents and reducing purge rates, our team has dropped emissions per kg of product over the past several years. Investments in scrubbers, secondary condensers, and process water filtration let us run large batches without environmental citations or regulatory headaches. It’s more than box-ticking; it's how we keep operating costs under control and minimize environmental impact long-term.
Shipping this product, especially during extreme weather or over long distances, brings another set of hurdles. We monitor container integrity, temperature, and moisture levels. Customers sometimes request special transport, especially for high-purity or low-odor lots bound for fragrance or pharma blending. We work directly with logistics partners trained in chemical handling and keep close records on each shipment—a practice we learned after seeing what even small leaks can do to a batch quality and customer trust.
No chemical keeps its place by standing still. 4-Isopropylcyclohexanone continues to evolve in the hands of buyers seeking greener processes, safer workspaces, and higher-purity outputs. Over the years, we have shared process data and research insights with partners wanting to test new catalysts or conduct more sustainable syntheses. Our R&D team regularly works with pilot plants, testing alternative oxidants and improving batch yield—sometimes chasing fractions of a percent if it matters for a customer’s process economics.
We see increased attention to the lifecycle impact of intermediates like this ketone. Both flavor houses and resin formulators have asked us about trace allergens, cross-contamination, and leftover solvent markers. Each time, we open our process data and invite customer audits—not after problems crop up, but as a normal part of onboarding new partners. Transparency pays off. This habit started after an equipment cleaning misstep a decade ago left us with a customer rejection. Instead of hiding the error, we worked out a solution and put in traceability logs, a move that built long-term trust and repeat business.
Our plant team has also learned that no quality control plan can account for everything on its own. We train staff to check for “off” odors, appearance, and small shifts in pour point or viscosity. Lab-scale anomalies, even outside specification, prompt further investigation. These real-world lessons shape our manufacturing rhythm. Some of our longest-term customers credit this vigilance for the smoothness of their own scale-up from sample to production.
We have seen the knock-on effects of regulatory changes, especially as European and North American authorities tighten pollutant standards. We anticipate questions, run tests early, and maintain detailed substance dossiers. Internal audits and collaboration with outside labs keep us ahead of shifting compliance standards—rather than racing to catch up when the rules change. Practical knowledge counts for everything in these situations, and we pass updates to customers rather than let surprises disrupt their supply chains.
Manufacturing 4-Isopropylcyclohexanone leaves little room for shortcuts. The journey from raw material to finished product draws on supplier relationships, equipment reliability, and hands-on checks at every step. We see each batch as part of a larger conversation—not a transaction. Our chemists track reaction kinetics and batch histories well beyond what a certificate of analysis covers. Periodic sample archiving lets us go back and troubleshoot if customers encounter issues months later—helping them find answers faster and protect both product and reputation.
Collaboration with users shapes our product just as much as our own process improvements. We’ve watched end-use cases evolve, from legacy fragrance musks to new pharmaceutical synthesis scaffolds. Customer feedback prompted refinements in drying, handling flow, and impurity reduction. Some buyers need custom fractionation or documentation tied to specific regulatory filings. We treat these as natural extensions of our work, not complications. Meeting these demands sometimes calls for slowing production or expanding analytical routines, but the payback in reliable partnerships is clear.
To us, 4-Isopropylcyclohexanone means more than a molecule. It is a collective record of innovations, missed opportunities, issues faced, and solutions found. Each improvement comes from real bottlenecks—a plant pump running hot, a contaminated lot, a customer recipe change. We don’t believe in one-size-fits-all. Our production menus and support networks stay flexible because the industries we serve keep shifting, and no two use cases test our material quite the same way.
Our approach draws heavily on process repeatability, batch traceability, and feedback-driven change. For example, some years ago, a resin producer found trace discoloration in pelletized output traced back to minor aldehyde contaminant. By mapping every reagent and cleaning procedure, our technicians discovered an upstream supplier had changed their stabilizer formulation. Fast intervention, better incoming raw screening, and revised documentation stopped the problem at the source—a solution that other suppliers overlooked for months.
In high-sensitivity applications, even single-digit ppm impurities can mar an end product. Our quality lab employs GC-MS, Karl Fischer titration, and refractive index checks with NIST-traceable standards. We revisit calibration schedules every quarter, track instrument drift, and send repeat check samples to external validation labs. It’s a practice rooted in real-world troubleshooting, not just compliance for its own sake.
Customers sometimes ask about scalability. They want reassurance their pilot or lab-scale results will carry through at plant volumes. Our engineers actively bridge this gap by running parallel batch trials, scaling from 25 kg up to full 3-ton units—always tracking yield, impurity uptake, and drying time differences. Each scale brings its own wrinkles, something we have learned through decades of iterative process control.
We never treat customer complaints as just quality incidents to close. Years of supporting both established and emerging users showed that early, joint problem-solving beats waiting for incidents to escalate. In one case, a fragrance formulator noticed shifting aroma notes across deliveries. Lab follow-up tied it to seasonal differences in plant feedstock, something subtle but measurable. Our procurement team built redundancy into our sourcing and flagged natural origin indicators to the lot level, keeping batches more consistent for perfume houses where formula accuracy counts.
Safety and sustainability grow in importance every year. Our approach prioritizes risk reduction for both plant staff and customers. Solvent recovery lines on our oxidation reactors capture over 93% of expelled solvent, reducing emissions and saving raw material. Wastewater streams pass through dual-bio filtration and activated carbon polishers, slashing organic discharge. Staff training now covers GHS labeling changes and spill response, both key in high-throughput facilities.
Open feedback channels let us stay current with shifting regulations, especially on trace contaminants, exposure limits, and transportation requirements. We adapt process design and documentation practices ahead of new rules. Customer-led audits and third-party assessments keep us sharp, creating a cycle where compliance and customer expectations drive plant upgrades instead of reactive scramble.
In every conversation with buyers, technical questions and practical headaches lead the discussion. Rather than push generic solutions, we dig into how our 4-Isopropylcyclohexanone fits a client's reality. Some customers need batch-specific COAs with impurity breakdowns for regulatory filings. A new buyer might ask for small-lot sampling to validate their own formulations. We dispatch samples within days, wrap them in clear labeling, and invite feedback, treating each request as a chance to refine both process and partnership.
Customer priorities don’t stand still. Attitudes shift on environmental performance, supply chain transparency, and social responsibility. We share emissions records and waste reduction figures with partners responding to public transparency campaigns. Product stewardship now becomes a shared effort down the supply chain, and real-time data adds credibility that standard brochures cannot match.
Across all these priorities, our central lesson is to stay close to the practical needs and evolving demands of users. 4-Isopropylcyclohexanone remains a robust, flexible intermediate for chemists and product developers—provided it arrives on-time, in-spec, and with all questions answered up front. We put experience into every drum that leaves our plant, knowing that the real measure of value sits with those who depend on each batch to keep their own operations moving forward.