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HS Code |
170905 |
| Chemical Name | Cyclohexylisobutane |
| Molecular Formula | C10H20 |
| Molar Mass | 140.27 g/mol |
| Cas Number | 6573-18-4 |
| Appearance | Colorless liquid |
| Boiling Point | 170-172°C |
| Density | 0.782 g/cm³ |
| Refractive Index | 1.439 |
| Flash Point | 46°C |
| Solubility In Water | Insoluble |
| Odor | Mild, hydrocarbon-like |
| Vapor Pressure | 1.5 mmHg at 25°C |
As an accredited Cyclohexylisobutane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Cyclohexylisobutane is packaged in a 500 mL amber glass bottle with a secure screw cap and chemical hazard labeling. |
| Shipping | Cyclohexylisobutane should be shipped in tightly sealed containers, away from heat, sparks, and open flames, due to its flammable nature. It must be transported in accordance with local, national, and international regulations for hazardous materials, using proper labeling and documentation. Store and handle in a well-ventilated area to prevent vapor buildup. |
| Storage | Cyclohexylisobutane should be stored in a cool, well-ventilated area away from heat, sparks, and open flames. Keep the container tightly closed and protected from direct sunlight. Store separately from oxidizing agents and acids. Use explosion-proof equipment and ground all containers properly to prevent static discharge. Ensure appropriate labeling, and avoid storing with incompatible substances to minimize risk of fire or hazardous reactions. |
Applications of Cyclohexylisobutane in Industrial ManufacturingCyclohexylisobutane finds targeted use in specialty chemical manufacture, polymer modification, high-performance lubricant formulations, and industrial solvent systems. As a leading producer, we supply this raw material directly to OEM processors who integrate it into structured formulations according to established technical and regulatory frameworks. Below are the primary industrial downstream applications with detailed compliance, formulation, integration, and end-use specifics. 1. High-Performance Synthetic Lubricant FormulationMajor lubricant formulators incorporate cyclohexylisobutane as a base fluid component due to its high oxidative stability and tailored viscosity index. It features primarily in synthetic engine and gear oil blends for automotive and industrial machinery, providing thermal resistance and lubricity enhancement under severe operational conditions. Blenders control the proportion of cyclohexylisobutane to optimize low-temperature performance and film strength, balancing against additive packages and other hydrocarbon base stocks for desired finished oil properties. Industry compliance standards
Typical usage ratio
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2. Polymer Additive in Specialty Plastics ManufacturingAdvanced plastics processors use cyclohexylisobutane as a plasticizer and chain transfer agent in production of custom resins, especially thermoplastics requiring improved flexibility and impact resistance. The material modifies mechanical properties of copolymers such as styrenics or acrylates, ensuring performance stability over a broad temperature range and minimizing migration or volatility issues versus traditional aliphatic additives. Industry compliance standards
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3. Solvent Component in Electronic Chemical ProcessingManufacturers of electronic-grade chemicals employ cyclohexylisobutane as a solvent carrier in high-purity photoresist and deposition processes for semiconductor wafer fabrication. Its balanced polarity, low residue profile, and compatibility with organometallic precursors enable precise control during spin-coating and etch processes on advanced logic and memory lines. Solvent systems using cyclohexylisobutane deliver essential uniformity while limiting particle and ionic contamination to sub-ppm thresholds essential for node miniaturization. Industry compliance standards
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4. Intermediate for Agrochemical SynthesisAgrochemical manufacturers select cyclohexylisobutane as an alkylating intermediate or carrier phase in the formulation and synthesis of novel herbicide and insecticide actives. The molecule supports preparation of hydrophobic moieties within active compounds, facilitating controlled-release properties and uptake efficiency in field applications. Downstream processes adjust the cyclohexylisobutane proportion according to group reactivity and desired biologic delivery profile, following strict validation protocols under agrochemical R&D guidelines. Industry compliance standards
Typical usage ratio
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5. Additive in Adhesive and Sealant CompoundsFormulators in adhesive and industrial sealant sectors use cyclohexylisobutane to fine-tune thermal flexibility and hydrophobicity of pressure-sensitive and structural adhesives. It enables manufacturers to improve substrate wetting and thermal expansion control in formulations designed for automotive assembly, aerospace composites, and large-scale construction panels. The proportion and introduction step of cyclohexylisobutane vary depending on polymer matrix and final performance specifications such as shear strength and weathering resistance. Industry compliance standards
Typical usage ratio
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Cyclohexylisobutane caught our wind over a decade ago during the early phases of developing next-generation solvents and specialty intermediates. We took lessons learned from more conventional hydrocarbons and pushed to deliver greater purity, consistent batch quality, and repeatable results. Since adding this molecule to our regular portfolio, the chemistry community has opened our eyes to new opportunities in diverse application sets.
Here on the factory floor, every shipment of cyclohexylisobutane starts from transparent supply chain inputs managed by our in-house team. We process using continuous distillation with calibrated temperature gradients, maintaining a purity level that meets or surpasses 99%. Our production team oversees regular GC trace analysis and bulk sampling, keeping an eye out for any residue peaks or moisture traces. We batch this product mainly in ISO-grade sealed drums, minimizing headspace and keeping oxidation at bay.
For reference, we classify our current output as Model CHIB-220. The compound appears as a clear, colorless liquid with an unremarkable—almost neutral—odor and a boiling point typically in the 150–160 °C range. Specific gravity hovers right under 0.8 at standard temperatures. During storage, cyclohexylisobutane does not show significant polymerization or decomposition when shielded from sunlight and strong oxidizers.
What surprises many first-time users is its lower volatility compared to isobutane or conventional branched paraffins. As a result, evaporation rates slow, providing a more manageable working environment in high-throughput processing lines. Other physical features include its limited hygroscopic tendency and chemical inertia in basic industrial handling. Storage is straightforward—standard steel drums remain compatible, as well as most lined containers.
Much of our client base works in specialty coatings, polymer modification, advanced lubricants, and additive formulation. Cyclohexylisobutane functions best where controlled solvency and improved dispersibility matter. We watched formulators experiment with lower-cost cycloalkanes or simple paraffins, only to circle back toward our material for its combined attributes.
Automotive lubricant manufacturers in particular highlight the clean-burning, residue-free performance of cyclohexylisobutane in engine and transmission oil blends. Unlike many lower-molecular-weight hydrocarbons, this compound reduces deposit formation even after long operational cycles. Synthetic polymer developers look for dissolving powers that stand up against polyolefins and modern elastomers without softening or swelling the host matrix. In these cases, cyclohexylisobutane wins out by offering balanced polarity and minimal migratory interference.
Paint and coating houses now request this product for pigment dispersion and resin delivery, taking advantage of its moderate evaporation rate and chemical stability. Field experience shows greater pigment wet-out and extended open time before curing. Coating specialists also report a noticeable uptick in sprayability and flow, particularly for applications demanding a glass-smooth finish across plastics and glossy metals.
We field constant questions on the difference between cyclohexylisobutane and classic hydrocarbons like n-butane, isobutane, cyclohexane, or even methylcyclohexane. At first glance, these molecules might seem interchangeable, but real-world testing draws some clear distinctions.
Cyclohexane and related ring-structure hydrocarbons gained favor for their solvency and relative stability. Still, their volatility often limits open handling and makes them less desirable in large-scale batch environments. Cyclohexylisobutane’s added bulk and branched isobutyl side chain delivers enhanced control in evaporation, leading formulators to use it for intermediate stages in processing that demand a tighter balance between solvency and flash-off.
Looking at linear or branched alkanes such as n-butane or isobutane, their high volatility renders them poorly suited for blending in any environment where controlled release is important. Cyclohexylisobutane, built around the combination of a ring and a branched side chain, bridges the gap: it maintains operational advantages of low reactivity while decreasing handling risk, presenting a unique value proposition for teams active in closed-loop or semi-open processing installations.
Regulatory drivers also nudge users away from some traditional solvents. Many older hydrocarbon solvents carry VOC (volatile organic compound) restrictions, lower permissible exposure limits, or region-specific labeling requirements. We produce cyclohexylisobutane with a focus on compliance, and our testing methods keep us in line with current safety and workplace exposure standards.
In the chemical manufacturing world, theory matters only if it translates to repeatable results. We experimented with dozens of cycloalkyl-alkyl hydrocarbon combinations before building out a full-scale production campaign for cyclohexylisobutane. Early pilot runs highlighted a raft of stability and purity hurdles, especially around feedstock control and side-product management.
We responded by reinforcing supplier traceability, adding redundant purification steps, and implementing split batch tracking. Over the last several years, we logged every test run and operational cycle, slowly tightening our output standards. The result feels tangible: customers rely on our product to operate predictably across a range of use cases even as supply chain volatility affects much of the broader chemical market.
Investment in in-house analytical chemistry built a foundation for trust. Our technicians use state-of-the-art GC/MS and FTIR to spot minute shifts in composition, rather than relying entirely on batch-end product tests. By keeping tabs on every tank and drum, issues around off-odors, color drift, or water pickup never escalate beyond the plant floor.
On the floor, we see first-hand how small variances can disrupt large-scale blending – a drum contaminated with even trace oxidants can derail an entire formulation run. Fielding technical calls from R&D and plant operators sharpened our focus: no matter how advanced the chemistry, plant reliability, and clarity of information remain the real difference-makers.
Many producers in our industry rely on brokers or third-party logistics to insulate their supply against market swings. We took a different path, focusing on process transparency and traceable lot records. Lab staff can pull product samples down to exact reactor runs, tying physical parameters into our digital QA platform. Rapid identification means tighter error resolution and real lessons for continuous improvement.
Industry asks more every year—in emissions thresholds, workplace safety, and end-use compliance. Cyclohexylisobutane stands out for teams aiming to future-proof product portfolios against shifting regulatory pressure. Collaborating on test programs with customers, we adapt both process and packaging to address plant and laboratory-specific requirements.
On sustainability, direct emissions control starts with disciplined process engineering. By recapturing vapors and investing in closed-loop distillation, our plant minimizes off-gassing and cuts down on solvent loss. In logistics, multi-use containers reduce packaging waste and support circularity. These steps aren’t marketing talking points—they translate to measurable cost savings and a smaller environmental footprint.
Our team works closely with downstream partners to tailor bulk shipments and storage protocols that reflect local compliance landscapes. Whether shipping to a western automotive OEM or a southeast Asian polymer blender, we’ve seen firsthand how differences in temperature, moisture exposure, and handling standards affect product performance. The more we share lessons across these real-world boundaries, the more robust our quality methods become.
No material is a silver bullet. While cyclohexylisobutane solves volatility and stability concerns, it won’t replace every solvent or diluent on the market. Some customers demand even higher flash points. Others may need extreme polarity to dissolve aggressive resins. Instead of forcing a one-size-fits-all approach, we recommend pilot batch evaluations and technical dialogues to spot fit or mismatch early.
Our technical team keeps communication open, sharing use histories where performance data aligns and collecting feedback to improve next runs. Ongoing collaborations led to tweaks in purification and introduced real-world stress testing, such as hot/humid cycling and extended UV exposure. As a result, plant operators gain practical knowledge—a direct benefit over relying on generic product data sheets from resellers or market middlemen.
Customers regularly share stories about blends outperforming past benchmarks: paints resisting yellowing under harsh lights, machine oils running cleaner after extended drains, and adhesives showing longer open times without sacrificing bond strength. Partners in the electronics assembly world praise our compound for reducing static build-up in polymer coatings. Across the board, teams appreciate honest numbers over marketing hyperbole.
As global working environments shift and process requirements evolve, we keep an ear to the ground. QC teams track every deviation and pilot plant feedback, even after products leave our site. Many improvements in our last few years—whether reformulating an antioxidant system or retuning pH buffers for cleaner emulsions—trace directly to lessons learned in partnership with on-site engineers and plant operators.
Not all chemical supply chains survive the stresses of shifting regulations, global trade disruptions, and tightening customer tolerances. Our model relies on early identification of issues and clear, documented communication—from the moment raw materials enter, through final drum fill, to customer unloading. We provide documentation built off batch-level analytics rather than marketing claims.
For customers, faster technical support and transparent documentation leads to shorter troubleshooting cycles and less downtime. Our teams run real-time QA checks and maintain digital logs available for client review, striking a balance between regulatory diligence and practical usability. By focusing on problem-solving, not bureaucracy, we help customers move from concept to scale-up with less friction.
Innovation won’t slow down. Researchers keep exploring novel uses for cyclohexylisobutane: from green chemistry solvents in pharmaceutical intermediate synthesis, to base fluids for new-generation heat transfer systems. We encourage open experimentation—pilots, scale-ups, formulation tricks—since these spur both our own advances and wider industry capability.
Applauding customer ingenuity drives us to iterate on our own production and logistics. Some partners experiment with bulk storage under nitrogen atmospheres to push shelf life for sensitive blends. Others request drum-by-drum certification and chain-of-custody attachments to meet strict ISO or GMP standards. No matter the parameter—delivery timeline, shelf life, downstream stability—we treat every feedback loop as a point for learning and improvement.
Our focus on cyclohexylisobutane aligns with a wider trend toward smarter, safer, and longer-lasting specialty chemicals. As industry standards rise, we’ll keep investing in analytical infrastructure, stronger supplier relations, and open lines of technical support. The bond between production reality and customer application guides every step, from the quiet hum of our reactors to the pressure-sealed drums heading out to sites across the globe.
We know buyers have more choice than ever. What sets suppliers apart is the lived-in experience of working through supply headaches, handling quirks, and end-use surprises side by side with customers. Reliable supply, transparent quality, and practical partnership—that’s the ground we stand on with cyclohexylisobutane, and the standard we commit to carrying well into the future.