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HS Code |
293440 |
| Chemical Name | 1-Phenylhexane |
| Molecular Formula | C12H18 |
| Molar Mass | 162.27 g/mol |
| Cas Number | 1077-16-3 |
| Appearance | Colorless liquid |
| Boiling Point | 244-248 °C |
| Melting Point | -39 °C |
| Density | 0.852 g/cm3 at 25 °C |
| Refractive Index | 1.474-1.478 at 20 °C |
| Flash Point | 99 °C |
| Solubility In Water | Insoluble |
| Structure | C6H5-(CH2)5-CH3 |
As an accredited 1-Phenylhexane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 1-Phenylhexane is supplied in a 100 mL amber glass bottle with a secure screw cap, labeled with safety and product details. |
| Shipping | 1-Phenylhexane is shipped in tightly sealed containers, typically glass bottles or metal drums, to prevent leakage and contamination. It should be transported according to local and international regulations for flammable liquids, kept away from sources of ignition, and stored in a cool, well-ventilated area to ensure safety and stability during transit. |
| Storage | 1-Phenylhexane should be stored in a cool, dry, and well-ventilated area away from sources of ignition or heat. Keep the container tightly closed and protected from direct sunlight. Store separately from oxidizing agents and acids. Use appropriate chemical-resistant containers, clearly labeled, and ensure proper secondary containment to prevent leaks or spills. Follow all applicable local and national regulations. |
Applications of 1-Phenylhexane in Industrial Manufacturing1-Phenylhexane serves as an essential nonpolar aromatic hydrocarbon intermediate in several sectors of the chemical industry. Leveraging its desirable solvency, reactivity, and hydrophobicity, manufacturers incorporate this material into specialized production flows to achieve technical and performance goals in downstream finished products. 1. Fine Fragrance and Aroma Chemicals SynthesisPerfume and aroma chemical manufacturers use 1-phenylhexane as a key building block for producing long-lasting, hydrophobic fragrance ingredients. Its hydrophobic chain structure influences the volatility and deposit behavior of aroma compounds, aiding in the design of slow-release musks and fixatives that remain on the skin or substrates for extended periods. Synthetic musks, cyclohexyl derivatives, and specialty aroma intermediates all draw on its unique chemical framework for achieving targeted scent profiles in complex formulations. Industry compliance standards
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2. Specialty Solvent for Organic SynthesisDownstream chemical plants use 1-phenylhexane as a specialty nonpolar solvent for reactions involving heat-sensitive or easily oxidized substrates. Its aromatic core and long alkyl chain reduce polarity, enable effective dissolution of lipophilic substrates, and suppress side reactions. This property supports high yields in coupling, substitution, and rearrangement syntheses, where controlling solvent environment minimizes byproduct formation and increases selectivity for target molecules in pharmaceutical and agrochemical intermediate production. Industry compliance standards
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3. Intermediate for Liquid Crystal Material ManufactureManufacturers of liquid crystal display (LCD) components use 1-phenylhexane for alkylation to create biphenyl and terphenyl derivatives with tailored transition temperatures and anisotropies. The C6 alkyl side chain controls the melting point, clears phase temperature, and improves solubility, essential for blending liquid crystal mixtures. Precision in substitution enables reliable electro-optic behavior for both small and large panel electronics, especially in TFT-LCD and advanced display technologies where crystalline uniformity determines image clarity. Industry compliance standards
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4. Synthetic Lubricant Additive ManufacturingProducers of advanced lubricant additives use 1-phenylhexane as a hydrophobic aromatic precursor for synthesizing anti-wear, friction-modifying, and thickening agents. Its structure enables the production of high molecular weight alkyl aromatic compounds, which impart viscosity stability and oxidative resistance in demanding automotive and industrial lubricants. Chemical engineers utilize it for bridging hydrophobicity and aromaticity, controlling phase behavior and solubility in nonpolar lubricant oils, particularly for high-load and extreme temperature applications. Industry compliance standards
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In the chemical industry, there are always a handful of molecules that end up doing the real heavy lifting across synthesis and research projects. 1-Phenylhexane, with its distinctive structure, stands out among the linear alkylbenzenes. As a manufacturer who spends countless hours ensuring purity, consistency, and traceability, I can say this molecule earns its keep on the production floor and in the lab.
At its core, 1-Phenylhexane is a clear, colorless liquid composed of a phenyl group bonded to a straight six-carbon chain. Its molecular formula, C12H18, grants it properties that chemists trust for both finished formulations and as an intermediate. The density and boiling point measures not only guide our storage and transport protocols. They also set expectations for handling and integration into downstream reactions. The balance between aromatic and aliphatic character gives 1-Phenylhexane both stability and solubility in a range of organic solvents.
What matters most on our line is producing a batch that delivers less than 0.2% water content and a purity upwards of 99%. These specs matter more than marketing claims. Each run’s record supports traceability—no guessing, no cutting corners. Every drum comes with a certificate of analysis, because that speaks louder than slogans.
Industrial scale-up isn’t for the faint-hearted. The story of 1-Phenylhexane at our facility begins with the careful selection of precursors. We synthesize using catalytic alkylation processes that offer both efficiency and a low impurity profile. Not every plant will invest in corrosion-resistant reactors or distillation columns with frequent calibration—those decisions matter if you want a 1-Phenylhexane that meets the demands of end-use applications.
Our processing teams rely on in-process analytics to spot deviations before they impact output. We test for residual unsaturates, sulfur, and halogen content throughout production. Any adulteration—be it with low-boiling fractions or non-aromatic hydrocarbons—would compromise the integrity of the product. Waste minimization practices, solvent recovery, and controlled emissions are part of our daily routine, not checkboxes on a compliance sheet.
1-Phenylhexane doesn’t often get the limelight outside specialty chemical circles, but its footprint spreads wide. For those of us producing it, seeing the tangible outcomes in applications gives a direct sense of contribution.
In laboratories and industrial plants, this compound steps up as a solvent for organic synthesis, especially where more polar or branched analogues would disrupt selectivity. Its non-polar profile means it won’t compete or interfere in Friedel-Crafts alkylations or acylations, nor does it bring reactivity that muddles the outcome.
Olefins and polystyrenes industries call on 1-Phenylhexane as a molecular standard or as a reference material for GC calibrations. Those requests depend on reliability. A chromatogram won’t lie about impurities. Calibration relies on clean, well-characterized material with predictable retention. Our production trials keep this front-and-center, using reference standards and collaborative testing with academic groups.
Beyond solvents and standards, the fragrance sector occasionally leverages the mild aromaticity of this compound as a blending component for specific notes in perfumery. Though rarely used in high concentrations, its stable structure can help stabilize more volatile blends. The same chemical inertness valued in catalysis plays out in fragrance formulation, reducing the risk of unwanted side reactions.
The world is not short of alkylbenzenes, and sometimes, the distinctions matter more than price. Straight-chain and branched forms serve different purposes. For example, 1-Phenylhexane keeps a straight chain—other analogues bring branching, altering their physical properties and impacting their fit in applications. Compared to 1-phenyloctane or 1-phenyldecane, 1-Phenylhexane runs at a lower boiling point. That’s useful for labs without high-temperature systems, where fractions need to distill cleanly without thermal decomposition.
Many customers ask what advantage 1-Phenylhexane brings over benzene or toluene beyond price. Safety always comes up. With the hexyl group extending out from the phenyl ring, the molecule drifts away from the listed carcinogenic risks of its lower homologues. That’s a real plus on safety data sheets and for those handling drums on a daily basis.
For those after eco-friendly routes to surfactants, 1-Phenylhexane acts as a proving ground for new catalysts and process schemes. It mimics commercial LABs used in detergents, but with a set chain length that removes the variability found in traditional alkylbenzene sulfonates. Regulatory scrutiny on surfactant molecules grows every year; our feedback to collaborators leans on these small but impactful differences.
Some customers need technical grade to test a hypothesis or probe a reaction mechanism. Others—especially reference labs—require analytical grade 1-Phenylhexane. This is one of those moments where systems, not just intentions, make the difference. Maintaining trace metal levels below 1 ppm, suppressing halogen content, and storing in inert atmospheres are practices we’ve doubled down on after fielding feedback from partners in both academia and industry.
There is always pressure in the market to chase volume over precision. Mistakes in this area come back as customer complaints or, worse, halted assays days after dispatch. This is why our teams run replicate batch testing and participate in third-party proficiency schemes every quarter. Those relationships with reference labs and the opportunity to engage directly with clients at their facilities keep quality front and center.
Years ago, a medicinal chemistry lab reached out, chasing better reproducibility in an aromatic substitution series. They traced their batch variability to minute differences in alkylbenzene stock. Up at their end, only a handful of milligrams were at stake—but for them, repeatability meant days or weeks of progress. We adjusted our purification regime to dial down low-boiling homologues and delivered a batch that gave sharper NMR spectra and tighter melting point distribution. Stories like this cut through abstract objectives—we see the why behind the what.
Another time, an industrial client scaling up a catalyst screening campaign needed a solvent with precise boiling behavior, nonreactivity, and complete documentation. With 1-Phenylhexane, we provided our analytical run logs alongside the batch, showing not only the expected purity but the full impurity profile to the lowest detection levels. This transparency paid off in faster import clearance and less time spent negotiating with internal compliance groups.
Increasing scrutiny on chemical production processes forces hard decisions about how we make and supply compounds like 1-Phenylhexane. Our team goes beyond regulatory compliance—anyone can update SDS sheets, but the real work comes in reducing waste and energy use per kilogram. Our distillation columns have been reconfigured for heat recovery, which we’ve tracked to a double-digit percentage drop in energy consumption. By using closed handling systems, staff exposure and site emissions stay at low levels, minimizing risks we all used to accept as just part of the job.
There’s also growing demand from clients who want to know about the lifecycle impact of their intermediates, not just their origin in a spreadsheet. In response, we’ve invested in raw material traceability and supported regional supplier networks wherever feasible. Clients in Europe and Asia now ask more probing questions about source transparency—those conversations aren’t just PR trends, they are shifting real supply chain choices and priorities.
The safety profile of 1-Phenylhexane is one of its advantages, but we still treat every barrel as a potential hazard. Long before finished goods roll out, our operators, engineers, and quality leads insist on clear labeling, proper PPE, and emergency drill routines. Our focus on worker safety isn’t about ticking boxes—most of us have seen what shortcuts look like, and nobody wants to lose a colleague to a chemical burn or inhalation incident.
We train new team members on hazard recognition, not just SOPs. Every worker can call a halt if something looks off, which keeps incidents rare and builds trust across shifts. After moving to smaller charge sizes and enhanced ventilation at one point, our exposure monitoring picked up sharp reductions in volatile organic compound levels throughout the plant. This translates to fewer near miss events, less absenteeism, and higher job satisfaction.
Even with an established product like 1-Phenylhexane, standing still means slipping behind. R&D isn’t a side department—our teams rotate through pilot lines to spot tweaks that could shave hours off a batch or lower background trace compounds. We’ve piloted continuous-flow alkylation processes that knock down energy use, limit unwanted byproducts, and fit smaller facility footprints. Pushing up yields means less waste downstream, and reduced pressure at storage and transport stages.
Collaborative projects with research institutes let us contribute not just supply but process insights. Our technical team regularly exchanges notes with academic and startup partners who want to use 1-Phenylhexane for testing new materials or running controlled degradation studies. We share what we see on the front lines: batch-to-batch drift, influence of catalyst age, and handling tips that often don’t make it into the literature. Feeding this knowledge back to product design raises both industry standards and customer trust.
1-Phenylhexane might be a niche molecule, but to those who rely on it—synthetic chemists, fragrance formulators, chromatographers—it is anything but an afterthought. Producing it with care means delivering not only on specification but on trust, reliability, and support for whatever new applications might arise. From raw materials right through to loading the truck, our team stands behind every drum with technical depth and a commitment that goes beyond numbers.
Chemical manufacturing at its best isn’t just scale and speed. It’s a willingness to listen to users, keep improving, and bring both safety and sustainability into daily reality. For us, making 1-Phenylhexane well brings together generations of process knowledge, close client collaboration, and the constant drive to build on what works. Those principles don’t show up on a spec sheet, but they shape every order that leaves our site.
As research and industry needs continue to evolve, we remain ready to innovate, adapt, and deliver solutions that make a difference—one molecule, one drum, and one partnership at a time.