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Ethylcyclohexane

    • Product Name Ethylcyclohexane
    • Alias ethyl-cyclohexane
    • Einecs 202-236-9
    • 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

    591830

    Chemicalname Ethylcyclohexane
    Molecularformula C8H16
    Molarmass 112.21 g/mol
    Casnumber 1678-91-7
    Appearance Colorless liquid
    Boilingpoint 131–133 °C
    Meltingpoint -111 °C
    Density 0.779 g/cm³ at 20 °C
    Refractiveindex 1.426 at 20 °C
    Flashpoint 20 °C (closed cup)
    Solubilityinwater Insoluble
    Vaporpressure 17 mmHg at 25 °C

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

    Packing & Storage
    Packing Ethylcyclohexane is supplied in a 500 mL amber glass bottle with a tight-sealing cap, labeled with hazard warnings and chemical information.
    Shipping Ethylcyclohexane should be shipped in tightly sealed containers, protected from physical damage and sources of ignition. Transport in accordance with local, national, and international regulations for flammable liquids, typically under UN Number 3295. Store in a cool, well-ventilated area, away from oxidizers. Handle with appropriate personal protective equipment during loading and unloading.
    Storage Ethylcyclohexane should be stored in a cool, dry, and well-ventilated area away from heat, sparks, and open flames. Keep the container tightly closed and properly labeled. Store away from strong oxidizing agents and incompatible materials. Use appropriate containers made of compatible materials to prevent leaks. Ensure spill containment and have proper fire safety equipment nearby.
    Application of Ethylcyclohexane

    Applications of Ethylcyclohexane in Industrial Manufacturing

    We supply high-purity Ethylcyclohexane directly to established manufacturers participating in specialized industrial value chains. Below, we outline verified downstream applications, with each sector reflecting unique industry requirements, processing parameters, and final product deliverables supported by practical manufacturing practices.

    1. High-Performance Solvent in Industrial Paints & Coatings

    Industrial manufacturers use Ethylcyclohexane as a non-polar, low-aromatic solvent in the formulation of advanced alkyd and polyurethane coatings. Its evaporation profile supports extended open times during large-scale application, and the chemical’s low reactivity enables use in moisture- and UV-resistant industrial enamels and automotive finish systems. Chemists adjust blending ratios to optimize viscosity control, pigment dispersion, and sprayability while maintaining adherence to regional VOC regulations. Integration occurs at the resin dilution and solvent phase, where inline mixing with co-solvents ensures consistent batch quality and minimal hazardous emissions.

    Industry compliance standards

    • REACH (EC No. 1907/2006) compliance for solvent-grade hydrocarbons
    • US EPA National Emission Standards for Hazardous Air Pollutants (NESHAP): Paints and Allied Products
    • EU Directive 2004/42/EC on the limitation of emissions of volatile organic compounds for decorative paints
    • ISO 12944 Corrosion protection requirements for paint and coating materials

    Typical usage ratio

    • 5% to 35% by weight, adjusted according to resin type, solids content, and final coating application method (spray, dip, brush)

    Downstream process integration

    • Added during initial resin melt or pigment pre-dispersion; continuous monitoring for vapor emissions within closed loop systems, especially on solvent recovery lines

    Final product types

    • Metal-protective coatings (oil & gas, marine)
    • Automotive OEM topcoats and refinishes
    • Factory-applied wood finishes
    • Anti-corrosive pipeline coatings

    2. Intermediate in Cyclohexanecarboxylic Acid Manufacture

    Ethylcyclohexane serves as a starting raw material in the oxidation process to produce cyclohexanecarboxylic acid. This acid is an important intermediate for synthetic lubricants and certain agrochemical actives. The reaction conditions require precise control of temperature and catalyst loading to maximize yield while minimizing by-product formation. Operators feed Ethylcyclohexane directly into continuous oxidation reactors equipped with in-line sampling and controlled oxygen dosing, ensuring compliance with industrial safety and environmental protocols for hazardous organic synthesis steps.

    Industry compliance standards

    • OECD Guideline 111: Hydrolysis as a function of pH
    • EU BAT Reference Document for Organic Fine Chemicals Production
    • ISO 9001:2015 for process control in intermediate manufacturing
    • Local safety permit requirements for exothermic oxidation processes

    Typical usage ratio

    • Base feed at 100 mol% for oxidation, yields adjusted by oxygen and catalyst charge (typically 1:1:0.02 Ethylcyclohexane:Oxygen:Catalyst, by molar ratio)

    Downstream process integration

    • Continuous liquid phase oxidation using air/oxygen with homogeneous or supported catalysts, followed by acid workup and solvent recovery units

    Final product types

    • Synthetic ester lubricants
    • Herbicide and pesticide intermediates
    • Specialty plasticizers
    • Performance additives for engineered polymers

    3. Reaction Medium in Pharmaceutical Fine Chemicals Synthesis

    In the pharmaceutical sector, Ethylcyclohexane functions as an aprotic hydrocarbon solvent for organometallic catalyst reactions where polar impurities must be excluded. Usage centers on synthesis of API precursors and rare active moieties where conventional solvents like toluene or hexane provide insufficient selectivity. The material’s low aromatic content and narrow boiling point range benefit purification and isolation stages, streamlining compliance with residual solvent limits per international pharmacopeias. Integration occurs in multi-step batch or semi-batch systems, employing GMP grade raw materials and equipped with solvent recycling infrastructure to reduce residuals in final APIs.

    Industry compliance standards

    • ICH Q3C: Impurities – Guideline for Residual Solvents
    • EU GMP Annex 8 for APIs
    • United States Pharmacopeia (USP) General Chapter <467> Residual Solvents
    • 21 CFR Part 211: Current Good Manufacturing Practice for Finished Pharmaceuticals

    Typical usage ratio

    • 20% to 60% of total batch solvent volume depending on API synthesis step and impurity control targets; adjustment based on scale and target pharmacopoeial limits

    Downstream process integration

    • Loaded as base solvent in jacketed reactors for metal-catalyzed condensation or reductive coupling steps; removed by vacuum distillation prior to API crystallization and drying

    Final product types

    • Advanced pharmaceutical intermediates
    • Active pharmaceutical ingredients for cardiovascular and CNS therapies
    • Chiral auxiliaries
    • Protected amine building blocks

    4. Process Media in High-Purity Electronic Chemicals

    Electronics chemical producers utilize Ethylcyclohexane for rinsing, isolation, and as a carrier in the production of specialty microelectronic materials where extremely low trace metals and non-aromatic hydrocarbon vectors are crucial. It is chosen for applications such as post-synthesis washing of advanced photoresist resins and as a transport medium in fine metal salt recovery, owing to minimal UV absorbance above 250 nm and high purity grades of contaminant-free supply. This use mandates compliance with strict electronics-grade specifications and integration with solvent-recovery and waste minimization systems compliant with semiconductor industry protocols.

    Industry compliance standards

    • SEMI C27: Specification for Hydrocarbon Solvents in Semiconductor Manufacturing
    • ISO 14644-1: Cleanrooms and associated controlled environments
    • RoHS Directive (EU) 2011/65/EU for electronic chemical components
    • Local EHSMS (Environmental Health and Safety Management Systems) for flammable solvent use

    Typical usage ratio

    • Applied at 8% to 30% by process tank volume in rinse or fractionation steps; levels controlled to achieve maximum permissible organic carryover in final electronic materials

    Downstream process integration

    • Filled into enclosed rinse tanks or used as extractant in continuous fine chemical separation units prior to packaging of photoresists or deposition chemicals

    Final product types

    • Ultra-pure photoresist monomers and polymers
    • High-k dielectric precursor chemicals
    • Microelectronic etchant carriers
    • Metal salt recovery concentrates

    5. Component in Adhesive and Sealant Formulation

    Sealant and adhesive compounders apply Ethylcyclohexane as a plasticizer and solvation aid in non-polar adhesive systems, particularly where fast-curing or moisture tolerance is necessary, such as silicone- and polyurethane-based industrial sealants. The compound ensures rapid wetting of fillers and optimal dispersion of polymer binders, supporting manufacturing of products with precise open time and tack-free performance. Integration involves dosing during initial melt compounding or late-stage viscosity adjustment, facilitating line productivity and reliable setting behavior in edge, joint, and construction sealant applications.

    Industry compliance standards

    • ASTM D2556: Standard Test Method for Plasticizer Content of Adhesives
    • ISO 11600: Classification and requirements for sealants
    • EU Regulation (EC) No. 305/2011: Construction Products Regulation (CPR)
    • OSHA 29 CFR 1910.1200: Hazard Communication for chemicals in workplace

    Typical usage ratio

    • 2% to 15% by weight of total adhesive or sealant mass, adjusted based on desired set time, viscosity target, and final hardness properties

    Downstream process integration

    • Added during batch mixer charging of polymer and filler blend, with continuous in-process QC monitoring of rheology and open time; occasionally fed as a secondary plasticizer for fine-tuning final product consistency

    Final product types

    • High-strength construction sealants
    • Semi-rigid polyether adhesives
    • Industrial-grade filler pastes
    • Moisture barrier edge sealants for glass and metal panels
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    Certification & Compliance
    More Introduction

    Ethylcyclohexane: Practical Experience from the Manufacturing Plant

    Introducing Ethylcyclohexane: What Our Plant Has Learned

    Ethylcyclohexane has earned its place as a practical and reliable hydrocarbon solvent across various fields. Our own journey with this compound began years ago on the production floor, dealing directly with raw materials and finished product, not just the paperwork. The paths from cyclohexane to ethylcyclohexane have brought us countless small improvements year over year—through careful selection of feedstock, real-time adjustments during hydrogenation, and patient refinement of our own distillation systems to get a cleaner product with each run.

    In our experience, ethylcyclohexane has a unique versatility in both laboratory and scale-up applications. We’ve seen research teams use it to replace traditional aromatic solvents in formulation work, citing its good solvency with less odor and a more favorable safety profile. A handful of polymer chemistry departments rely on it during synthesis for its moderate boiling point, giving a stable work range during polymerization. Meanwhile, on the industrial side, distillation operators find its boiling point high enough to avoid evaporation losses but low enough to allow quick cycling in closed system equipment.

    Specifications, Model, and Batch History from the Manufacturer’s Perspective

    For every drum and tank of ethylcyclohexane, our on-site QC lab runs gas chromatography inspections, confirming purity with the main peak aligning to 99% or higher—no broad background noise, no surprises. We use internally drawn reference standards, calibrated every quarter, and keep every batch’s spectral data archived to trace back if a customer flags a difference in odor, color, or residue. The material leaves our plant as a clear liquid, free from visible contaminants, and our operators measure density, water content, and all key markers before anything proceeds to filling. Working hands-on with this system helps us catch problems early: a slight drift on refractive index often signals a contamination event upstream.

    Ethylcyclohexane’s main market format from our plant runs under the model EC-98, denoting the set target for minimum 98% purity. Most batches land over 99% by weight, even after stabilization for storage. We know a handful of buyers request additional drying, demanding water contents consistently below 50 ppm, especially in moisture-sensitive syntheses. Our process allows us to strip water during final distillation rather than relying purely on chemical drying agents, avoiding unwanted byproducts altogether. We listen, too—some partners in pharmaceutical synthesis have worked side-by-side with us, optimizing recipes around our material’s profile.

    Each storage tank here tells a story, every time the valve turns. Our EC-98 model flows from the reactors into lined tanks, which we outfit with nitrogen blankets that keep atmospheric moisture or oxygen out. This direct pipeline lets us move product quickly if a rush order comes in, which can be crucial for large scale polymer plants operating on tight schedules. We don’t just sell from inventory; we maintain direct oversight from raw chemical purchasing all the way to outbound quality control.

    Why Ethylcyclohexane Stands Out on the Production Floor

    The market is full of cycloalkanes and similar saturates, so it helps to keep things grounded with practical differences. Compared to cyclohexane, ethylcyclohexane shows a noticeable reduction in odor and a less aggressive attack on certain rubbers and plastics. Our maintenance staff noticed this years ago when routine seal changes between shipments dropped dramatically just by switching lines. From a process standpoint, ethylcyclohexane’s slightly higher boiling point (around 131°C) over cyclohexane (80°C) offers users longer open time during reactions and fewer evaporation losses—one less headache, especially in summer bulk transfers.

    In rooms where solvents get used for cleaning and flushing, our operators have commented that ethylcyclohexane runs through pumps and hose lines with a lower tendency to cause swelling or softening of elastomer gaskets, unlike some aromatic or chlorinated solvents we used in years past. Machinery lifetimes noticeably improved. In painting and adhesive markets, formulation chemists prefer working with ethylcyclohexane because it helps control drying rates without the sharpness or toxicity profile that comes with certain aromatic hydrocarbons. Our repeated customer conversations focus on these aspects—lower equipment downtime, more predictable evaporation profiles, and minimized occupational exposure risks.

    We have met a steady stream of users from different industries who run side-by-side comparisons in their own labs. Many return to ethylcyclohexane for its odor profile alone. Anyone working in confined mixing rooms knows what a relief it brings when strong aromatic or chlorinated solvent fumes no longer flood the space. Reports show that fewer workers complain of headaches or skin irritation. We hear of less concern in production audits, too—fewer flagged emissions.

    Using Ethylcyclohexane: Real-Life Application Insights

    Our company interacts regularly with coatings formulators and polymer houses who mix up batches on the kilo or ton scale. Ethylcyclohexane acts as a key component in several proprietary formulations where vapor pressure, drying time, and interaction with polymers can make or break a recipe. In some hot melt adhesives, it creates ideal viscosity retention throughout application, while allowing fast set-up once exposed to air. The main gain is flexibility: customers adjusting process temperatures and blending ratios benefit from a single, reliable solvent that doesn’t shift unexpectedly in performance.

    We’ve worked with elastomer compounders who swap ethylcyclohexane in to reduce swelling or crazing on sensitive synthetic rubbers. Some printing ink processors like it as a carrier for pigment dispersions thanks to its comparatively neutral character toward inks and plasticizers. Its use steers clear of the flashpoint hazards linked to lighter solvents and outperforms heavier alkanes on drying rates—even subtle improvements here can streamline an entire shift’s output, as our own batch operators noticed.

    Some customers in the extraction and purification sectors let us know that ethylcyclohexane’s solvency fits their separation tasks without pulling undesirable residues from natural feedstocks. We confirm this firsthand by matching their process samples side-by-side with competitive cyclohexanes—ours repeatedly show cleaner residue patterns under GC-MS analysis. Technical staff at these plants value this performance, since even trace residues can derail a high-end fractionation run.

    We’re always looking ahead, troubleshooting with users. If a plant experiences foaming or pressure spikes due to solvent volatility, we suggest process tweaks based on data collected from our own internal runs. Engineers adjusting for higher throughput often tap into our process team’s experience on recovery rates and tank agitation. It’s better to share these lessons up front than learn them the hard way after the fact.

    Scaling Up: What It Takes to Deliver Consistent Quality

    Producing high-grade ethylcyclohexane at significant scale means addressing technical challenges and maintaining traceability. Our operations group manages every phase from hydrogenation of ethyl-substituted cyclohexenes using palladium catalysts to deep vacuum distillation for purity. Solvent plant workers have developed a real hands-on feel for the “right” distillation curve, relying on column temperature monitoring and product draws. Even one misadjusted reflux ratio can lead to tails bleeding into product, so we always keep experienced eyes on controls, especially during month-end campaigns where tanks mesh with the tightest delivery timelines.

    Routine lab analysis anchors every production run, but so does field observation. Batch-to-batch, we chart everything—distillation split points, GC peak patterns, water content, and even odor notes taken by trained staff. It’s not uncommon for plant operators to call out small but useful differences in texture or smell during transfer operations that instruments miss but human senses catch right away. These organoleptic checks have prevented more than a few costly reworks—and customer complaints.

    We have invested in plant maintenance to minimize downtime—scheduled column washes, re-catalyzation cycles, and cleaning-in-place protocols get followed to the letter, using real feedback from our process teams. Records from the plant floor feed daily production meetings, keeping everyone on the same page on yield, product performance, and any trends in raw material deliveries. Our product isn’t just the sum of the chemistry; it’s every lesson our operators capture shift after shift.

    By maintaining a closed-loop feedback with customers, we often adjust our production schedule to accommodate blended custom lots for specialty uses. Our technical account managers spend time onsite at major customer facilities, troubleshooting problematic formulations or adapting solvent blends for seasonal shifts in temperature and humidity. Every factory we supply sees the direct benefit of this field-to-factory connection. We document all such special runs on-site, logging cross-contamination control and verifying blend ratios, ensuring targeted performance for each unique project.

    Concerns, Regulations, and Worker Health: Learning on the Line

    No solvent is risk-free, and ethylcyclohexane presents its own handling and environmental concerns. Plant workers are trained to respect its flammable liquid status, carrying out transfers using closed systems and vapor recovery where possible. Ventilation, proper PPE, and strict access controls in drum filling areas come from years of learning what works and what doesn’t. In our own safety meetings, real-world accident reports get reviewed to spark ongoing improvements. Decades on the floor teach that shortcuts have no place in safe chemical handling.

    From our vantage, compliance with local and international chemical safety standards is simply part of the work. Updates to regulations happen regularly, so we keep a rotating team on documentation—transport markings, REACH registrations, and labelling practices get checked quarterly. Customer audits help us stay sharp; walking a client through our storage and blending bay often surfaces small process improvements we can implement to lower risk.

    Our workforce’s direct health is always at the forefront. We minimize vapor build-up with regular LEV (local exhaust ventilation) system checks and keep our air monitoring results visible to every shift. Feedback from the team matters as much as anything coming from outside consultants. Over time, we’ve swapped older rubber gaskets with fluoropolymer seals to increase reliability and reduce maintenance calls, prompted by staff feedback during high-turnover periods.

    Reporting to environmental authorities happens seamlessly: emissions and effluents get tracked continuously, with a dedicated team reviewing discharge lines and air scrubbers. We measure our success in the frequency of incidents—keeping this number close to zero shows the systems in place actually work, not just sit in paperwork. Regular table-top drills prepare us for any containment breached in spite of controls, and the lessons learned get baked into updated procedures every year.

    Comparing Ethylcyclohexane with Alternatives

    Ethylcyclohexane’s competitors vary. Cyclohexane remains more common for base-level use and offers a lower boiling point, but years of fieldwork prove it produces a sharper odor and higher vapor pressure, which brings added volatility concerns. The difference matters most on lines with open transfer points—plant operators report less odor exposure since their switch. Looking at isoalkanes or heavier straight-chain alkanes, product engineers find them too slow for drying applications, and their solvency differs just enough to complicate bench-top to plant transitions.

    Some buyers used to rely on aromatic solvents (like toluene or xylene) due to their excellent solvency, but persistent air quality restrictions and occupational health attention pulled many away. Our first-hand experience tells us ethylcyclohexane bridges this gap for most applications, offering a non-aromatic option that’s more palatable to HSE departments but doesn't fall short in basic dissolving power. Recent project trials confirmed this: one coatings team improved both gloss and cure time just by substituting our product into their existing formula.

    Environmental and safety trends drive change, and we adapt to those shifts. Increasing pressure to lower workplace exposure means plant managers scrutinize every solvent on site. Ethylcyclohexane stands out as a practical choice for users seeking to reduce both flashpoint-related hazards and aggressive solvent action on plastic or rubber equipment. The real test lies in day-to-day operation and worker feedback, which consistently points to smoother handling and fewer complaints.

    Comparing against heavier naphthenic solvents, some customers report challenges with residue and incomplete evaporation under normal shop conditions. We face similar findings internally during equipment cleaning and maintenance cycles. Batch analytics routinely show ethylcyclohexane lags less in drying and leaves minimal films, helping us reduce both post-process cleaning times and waste residue disposal.

    Continuous Improvement: Listening and Responding

    Every solution, tweak, or recipe that emerges from our process labs finds its roots in customer experience and feedback. Each improvement—whether a tighter distillation cut, faster order turnaround, or lower water content spec—takes shape after hours of talking directly with plant engineers and technical staff. We approach each new request as a fresh challenge. For the growing green chemistry trend, we’ve begun evaluating new hydrogen sources and lot tracking systems that tighten raw material traceability. Recent upgrades to our purification columns stemmed directly from a multinational client’s feedback on color stability.

    We hold regular Q&A sessions with teams across applications: paints, adhesives, rubber, extraction, and resins. Across these fields, we hear similar themes—demand for strong solvency, reduced health risk, predictable drying, and a chemical profile pure enough for high-performance reactions. Our commitment remains listening before answering, then acting decisively. This direct connection to end-users grounds every batch and improvement our people carry out. Achieving tight specs on a global stage means more than lab graphs; it means every worker’s knowledge adds to the finished result.

    The world’s expectations of chemical suppliers grow every year. Product stewardship and transparency drive long-term partnerships. We maintain detailed dossiers on each supplied batch, showing the full production and quality oversight journey. These records back our promises of product consistency, offering peace of mind in sectors where every percent of purity and water content can make or break a formulation’s performance. Buyers with especially tight product demands appreciate our willingness to customize—from large production runs to trial-size pilot lots for R&D teams.

    Trusted Supply from Real-World Manufacturing Know-How

    Trust grows over time, not from marketing copy but from repeated, predictable results. Our production of ethylcyclohexane reflects a deep respect for hands-on knowledge and open communication with customers. Inside our plant, workers trade notes on product experience with customers days, weeks, and sometimes years after each shipment. That feedback shapes how we handle process changes, what we monitor in QC, and which upgrades roll out next. We know what works because we see the real outcomes in factories every week.

    As global standards evolve—whether around emissions control, product documentation, or raw material tracing—staying connected to both regulators and customers is critical. Key lessons often come not from top-down mandates, but from that one bottling technician or process operator who spots an early warning sign. Standing inside a plant full of hard-earned experience sharpens every decision that affects the safety, consistency, and quality in each liter of ethylcyclohexane shipped out.

    We remain invested in sharing our experience and supporting partners across sectors—with reliable product supply, ongoing technical support, and regular updates drawn from our frontline workers. This long-term commitment means more than selling a commodity; it means helping every user get the best performance and safest operation from each batch, every time.