|
HS Code |
552012 |
| Chemical Name | 4'-N-Hexylacetophenone |
| Molecular Formula | C14H20O |
| Molecular Weight | 204.31 g/mol |
| Cas Number | 59714-05-7 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 320-324 °C |
| Density | 0.936 g/cm³ |
| Refractive Index | 1.507 |
| Flash Point | 134 °C |
| Solubility | Insoluble in water, soluble in organic solvents |
| Purity | Typically >98% |
| Smiles | CCCCCCc1ccc(C(C)=O)cc1 |
| Storage Conditions | Store in a cool, dry place; keep container tightly closed |
As an accredited 4'-N-Hexylacetophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 25-gram amber glass bottle with secure screw cap, labeled with product name, CAS number, and safety information for 4'-N-Hexylacetophenone. |
| Shipping | 4'-N-Hexylacetophenone is shipped in tightly sealed containers to prevent leakage and contamination. The chemical should be kept in a cool, dry place, away from sources of ignition and incompatible substances. Appropriate hazardous labeling and documentation accompany the shipment to ensure compliance with transportation regulations and safe handling during transit. |
| Storage | 4'-N-Hexylacetophenone should be stored in a tightly closed container, kept in a cool, dry, and well-ventilated area away from sources of ignition and direct sunlight. Protect from moisture and incompatible substances such as strong oxidizers. Always label the container clearly and follow applicable chemical storage regulations. Avoid prolonged exposure to air to prevent decomposition or contamination. |
Applications of 4'-N-Hexylacetophenone in Industrial ManufacturingAs the direct manufacturer of 4'-N-Hexylacetophenone, we have supported a range of established industrial sectors where this compound plays an essential role in both performance enhancement and compliance-driven formulations. The following application scenarios represent focused, real-world integrations of this material across select downstream industries. 1. UV-Curable Coatings for Electronics EnclosuresElectronics producers incorporate 4'-N-Hexylacetophenone as a high-efficiency photoinitiator in UV-curable coating recipes, where it activates rapid polymer crosslinking on plastic and composite enclosures. This addition enables manufacturers to balance production speed with long-term stability, especially under conditions requiring resistance to abrasion and chemical exposure. Recipe developers adjust the input ratio consistent with coating thickness and targeted curing energy, enabling compliance with electronic device surface protection benchmarks. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. High-Performance Liquid Crystal Displays (LCD) Intermediates4'-N-Hexylacetophenone functions as a key molecular building block in the synthesis of certain mesogenic compounds used in the alignment and performance tuning of LCD layers. Its presence allows refinements in molecular geometry, impacting both clearing points and viscosity properties vital for new-generation display technologies. Integration operates within tightly specified guidelines to meet electro-optical and purity requirements central to this sector. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Perfume and Fragrance Synthesis for Fine ChemicalsThis material serves as a pivotal intermediate for ketone-based fragrance syntheses, particularly where robust fixative properties are required in luxury perfume compositions. The structure provides enhanced substantivity in both liquid and encapsulated delivery systems. Specialist fragrance chemists select their input level based on olfactory thresholds and desired evaporation curves, while adhering to strict safety and quality regulations for cosmetic applications. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Specialty Polymeric Additives for Automotive Interior PlasticsLeading polymer compounders employ 4'-N-Hexylacetophenone in masterbatch solutions to enhance UV stability and extend service life of molded automotive interior panels. With an aromatic-aliphatic balance, it goes beyond basic photoprotection to provide color retention under prolonged sunlight exposure. The additive’s ratio is fine-tuned following iterative weathering tests and conforms to automotive sector environmental, health, and VOC regulations. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Photoinitiator for UV-Cured Printing InksFormulators in the printing ink industry use our material to accelerate curing of UV-activated ink systems on packaging films and labels. The compound’s selective absorption enables rapid surface hardening, controlling migration and odor—all of which are crucial for food packaging applications where regulatory compliance is strictly enforced. Addition levels reflect both ink coverage density and the required migration barrier. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive 4'-N-Hexylacetophenone prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
As a chemical manufacturer focused on aromatic ketone derivatives, we have put years of research and feedback-driven improvement into the process behind 4'-N-Hexylacetophenone. Our experience lies not just in batch synthesis but in comprehending the nuances of how small modifications to the acetophenone structure play out in real downstream applications. We see clear differences in crystallization, purity, and performance across the various grades and alkyl substitutions, and these have shaped the way we talk about and offer 4'-N-Hexylacetophenone to our partners in fine chemicals, materials science, and related R&D.
4'-N-Hexylacetophenone occupies a useful position among the para–substituted acetophenones. With a straight-chain hexyl group at the para position, the molecule presents unique physical properties, including enhanced lipophilicity and solubility in nonpolar solvents, compared with shorter alkyl homologues or unsubstituted acetophenone. Our experience shows that increasing the chain length to hexyl pushes melting points downward compared with the butyl and pentyl variants, streamlining operations for users targeting low-melting intermediates or formulations.
Our production process prioritizes consistency and traceability at every stage, from raw material qualification to downstream reactor management and isolation. Over time, we've developed a protocol for 4'-N-Hexylacetophenone employing Friedel-Crafts acylation routes and subsequent work-up refinements. This delivers high purity—routinely exceeding 99% by GC—and controlled moisture content, every time. We never stop at analytics alone: in-process inspections and routine spectral verifications build reliability batch after batch. The main isomeric content and side-product profile are mapped batchwise, so that our partners see minimal lot-to-lot variability, which matters during downstream derivatizations or scale-up work.
We prepare 4'-N-Hexylacetophenone to an expected GC purity exceeding 99%. Out-of-specification objects—minor diketones, unreacted starting materials, or chain isomerization artifacts—are kept at trace levels, with strict limits maintained below 0.3%. Moisture and inorganic salt carryover, often overlooked in non-specialist supply channels, receive close monitoring with targeted finishing steps. In our dried, filtered, and vacuum-sealed packing, the compound arrives as a clear, low-melting white to pale solid, with minimal color and practically no residual base or catalyst aroma. Our repeated investments in reactor lining, agitation uniformity, and work-up automation help contain metal content and particulate matter to levels well below most research and commercial project specifications.
End-users find that our carefully formulated lot structure accelerates handling: the lower melting point lets users handle, melt, or dissolve it into reaction feeds without the need for aggressive heating or long pre-mix times. Viscosity at near-ambient temperatures favors rapid dispensing and volumetric measurement—this ergonomic experience shapes smoother operations for scale-up or automation. These details stem directly from our plant-floor insights and end-user reports, not generic idealizations from technical literature.
Industry partners and researchers reach for 4'-N-Hexylacetophenone as either a direct building block or as an intermediate with further functional potential. Its core popularity comes from the combination of the aromatic ketone functionality with the extended nonpolar tail, serving as a versatile scaffold for pharmaceutical discovery and specialty polymer synthesis.
We routinely supply this molecule for applications in organic photonics, where the para-hexyl group introduces favorable phase behavior or enhances compatibility with nonpolar matrices. Its unique physical property profile finds particular favor in sensor materials, UV-curable monomer systems, and catalytic studies. Most partners working on material development appreciate the increased hydrophobicity and processability 4'-N-Hexylacetophenone offers, compared to shorter alkyl analogues or unsubstituted acetophenone, where undesired crystallinity or incompatibility can pose a roadblock.
Some of our long-term collaborators in the dyes and pigments sector use 4'-N-Hexylacetophenone to tune solubility and melting points of final products, while teams in fragrance intermediates value the low volatility and altered odor properties relative to more volatile ketones. Every project brings its own demands—be it purity thresholds for catalysis, particle size control for composites, or just trouble-free shipment to remote labs—and our feedback network ensures process adjustment is swift and targeted to end-user reality, not hypothetical purity metrics.
Over years of production and technical support, clear patterns emerge between the different para-alkyl acetophenone analogs and their behaviors in application. Many users originally try shorter chain homologues—such as 4'-methyl, ethyl, or n-butylacetophenone—but find they lack the same physical flexibility or solvency in nonpolar contexts. The jump to a hexyl side chain brings clear advantages: a lower melting profile, broader compatibility with synthetic organic feeds, and easier handling in bulk or small reactor setups.
We often discuss with formulation chemists and process engineers in electronics and coatings who started with para-tert-butylacetophenone or straight-chain butyl and discovered solubility and stability issues. The n-hexyl derivative nearly always outperforms them when compatibility and reduced crystallinity are needed, while providing a more predictable response through analytical instruments (thanks to its traceable spectral profile and low main-isomer content). Compared to longer-chain analogues—like octyl or dodecyl—the hexyl version still balances melt- and processability, so that users don't face excessive stickiness, slow crystallization, or problematic odor burden that arise with longer alkyl tails.
A down-to-earth reality in chemical manufacture is that physical properties drive usability as much as raw purity. A compound may look perfect on paper but act up in real plant settings, making a mess out of dispensing, weighing, or storage. Our 4'-N-Hexylacetophenone bridges these concerns: batches behave consistently during high-throughput handling and maintain a low color index across months of storage when kept cool and dry. Our internal shelf-life trials reflect better stability here than in more reactive or low-boiling ketones.
From lab benches to multi-kilogram reactors, partners demand repeatability with every lot, particularly during sensitive transformations such as chlorinations, etherifications, and condensation reactions. Our internal studies show that even trace metal or catalyst residues can set off chain reactions of unpredictability farther down the workflow. Because we see the real impacts—troublesome NMR spectra, hard-to-interpret GC traces, or catalyst “poisoning”—we make it a point to control feedstock sources, audit purification sequences, and retrain on packing protocols whenever downstream feedback turns up a hidden flaw.
Many university labs and scale-up teams have commented that our lots of 4'-N-Hexylacetophenone show more reliable melting, measurability, and reactivity compared with samples from merchant resellers who lack traceable line-of-sight to source processes. That single point of approval—from reactor to packed drum—lets us offer customized analysis dossiers, residual solvent profiles, and impurity maps on request. This in-turn helps regulatory audit teams and research collaborators reduce filing times and pass method validation more smoothly.
Good chemical manufacturing doesn’t end at batch analytics or on-time delivery. It means anticipating how storage mishaps, contamination, or regulatory changes might play out years down the road. We develop 4'-N-Hexylacetophenone lots to arrive in shatter-proof containers, nitrogen sealed, and with inert desiccants. After dozens of partner audits and joint retrievals from year-long storage experiments, our packaging protocol strikes the balance between shelf-life, user safety, and low environmental impact.
Safety documentation and compliance for 4'-N-Hexylacetophenone draw on our in-house testing and decades of incident-free transport. Whether it’s data on decomposition temperature, vapor pressure, or recommended fire suppression, we collect primary results—no guesswork or overwritten generic guidelines padded with unsourced claims. As a manufacturer, we encourage partners to review our own safety bulletins and shelf-life histories before deciding on purchase or scale-up, ensuring that regulations are met in every jurisdiction receiving our material.
The logistical hurdles of supplying specialty ketones like 4'-N-Hexylacetophenone aren’t theoretical. Our production planners deal with fluctuating raw material markets, shipping bottlenecks in odd corners of the world, and the seasonal surges that pull lead times tighter every year. Rather than build extra margin into pricing or sacrifice on purity, our approach focuses on communication—updating partners when a feedstock delays ship-out or when a technical challenge arises, instead of surprising them at the invoice stage.
We draw on custom-run procedures for projects requiring modification: sometimes that means higher-purity, solvent-free lots for sensitive electronic formulations, or a slightly altered particle size for material compounding. This hands-on approach, informed directly by production feedback, sidesteps the bland one-size-fits-all paradigm. Our feedback loop with high-frequency clients lets us respond to gaps in the market, adjusting the product or pack size within real-world plant limits.
Every season brings a new learning. In some years, global freight or raw chemical supply lines destabilize. In others, a client’s novel application reveals a nuance—a latent impurity, a handling shortfall, or an unexpected byproduct—nobody predicted at the start. Because our team spans plant operation veterans, analytical experts, and process-improvement chemists, we respond with experimentation and incremental process upgrades. Many of our improved isolation steps, extra in-process HPLC checks, or holiday-shift maintenance schedules came from a tangible bottleneck traced during an urgent R&D challenge.
Today’s innovation pipeline moves at an accelerated pace. Our 4'-N-Hexylacetophenone batches strive to keep up, crossing from kilogram lab pilots to tens or even hundreds of kilograms for ongoing research and early phase production. Biotech firms, advanced materials startups, and established specialty chemical brands need more than just reliable shipment—think detailed traceability records, rapid compliance data, and support for documentation-heavy submissions into regulated markets.
We adopt an open collaborative strategy: instead of setting up artificial barriers or passing requests back through layers of intermediaries, our technical leads talk directly to research teams needing spectral documentation, impurity analysis, or advice on downstream derivatizations. In the past year alone, sharing results and observations—such as minor polymorph formation during extended storage or the effect of low-level water—has helped several partners avoid costly bumps in their project timelines. There’s no shortcut for earned expertise. The conversations we hold with partners reflect years of close study of how our 4'-N-Hexylacetophenone actually performs beyond the confines of standard COAs.
We also study the regulatory and ecological backdrop. As chemical vigilance for environmental impact tightens, subtle differences in waste profile or toxicity threshold occasionally drive major changes in the selection of a core intermediate. The n-hexyl modification sits in a middle ground: more environmentally manageable than longer-chain alkyl acetophenones, and with a cleaner degradation profile than heavy aromatic or halogenated analogues. Our research and compliance teams contribute real emission and fate data, never relying solely on secondary or literature reports.
Producing 4'-N-Hexylacetophenone at industrial and research scale is an ongoing process, not a one-time achievement. We see the value in understanding real usage pain points—whether it's quicker throughput for pharma, lower color for optoelectronics, or improved storage for academic labs—and translating those practical findings into stepwise process improvements. Our lean team culture means operations staff, QA leads, and client-facing chemists all communicate freely to close the loop and deliver on both the technical and practical expectations that define long-term supplier partnerships.
Throughout the years of manufacturing 4'-N-Hexylacetophenone, we’ve watched the conversation around “quality” evolve. Partners today do not only look for tight quality metrics—they want authenticity, proven documentation, and a willingness to respond when something unexpected goes wrong. That means open logs, honest batch histories, and a reminder that every lot shipped builds a history with the client.
The differences between our 4'-N-Hexylacetophenone and what traders or non-specialist outlets provide go deeper than specification sheets or sales claims. It’s the visible, practiced commitment to batch reliability, supply transparency, and responsiveness to challenge that sets a real manufacturer apart. Results in the lab and plant reinforce these points. Breaking out of the routine—running detailed impurity maps, tracing side-products, or opening logistics conversations—prevents costly surprises, and supports the spirit of shared innovation our sector needs.
Manufacturing chemicals like 4'-N-Hexylacetophenone connects us to a network of challenges and shared success. Every kilogram leaving our site represents decades of accumulated practice, improved by partner feedback and front-line learning. As regulations, research demands, and supply chain realities shift, we continue recalibrating—layer by layer—our approach to make each lot a little more robust, traceable, and fit for purpose.
Whether for novel material synthesis, advanced R&D, or established industrial workflows, we take pride in supplying a product shaped by hands-on expertise—one conversation, one improvement, and one successful batch at a time.