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HS Code |
153729 |
| Iupac Name | 1-(2-ethylphenyl)propan-1-one |
| Molecular Formula | C11H14O |
| Molar Mass | 162.23 g/mol |
| Cas Number | 4323-77-7 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 258-260 °C |
| Density | 1.003 g/cm³ |
| Melting Point | -12 °C |
| Refractive Index | 1.518 |
| Solubility In Water | Insoluble |
| Flash Point | 103 °C |
| Smiles | CCC1=CC=CC=C1C(=O)CC |
As an accredited 2'-Ethylpropiophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 100 grams of 2'-Ethylpropiophenone, sealed with a screw cap and featuring a printed hazard label. |
| Shipping | 2'-Ethylpropiophenone is shipped in secure, tightly sealed containers, compliant with chemical transport regulations. It should be stored in a cool, dry, and well-ventilated area, away from incompatible substances. Proper labeling and documentation are required to ensure safety during transit, and handling should be performed by trained personnel using appropriate protective equipment. |
| Storage | 2'-Ethylpropiophenone should be stored in a tightly sealed container, protected from light, moisture, and incompatible materials such as strong oxidizers. Store it in a cool, well-ventilated area away from sources of ignition and heat. Proper chemical safety labeling should be used, and access should be limited to authorized personnel trained in handling hazardous chemicals. |
Applications of 2'-Ethylpropiophenone in Industrial Manufacturing2'-Ethylpropiophenone, as manufactured under stringent quality controls, serves as a precise intermediate in several advanced chemical synthesis chains. This section presents verified downstream industrial application scenarios, highlighting regulatory adherence, formula integration, and clear linkage to end-use product classes in global manufacturing. 1. Pharmaceutical Intermediate for Sedative SynthesisIn the pharmaceutical sector, 2'-Ethylpropiophenone acts as a critical intermediate in synthesizing specific sedative drug actives, particularly those classified under arylpropanone structures. Plants introduce it at the condensation or acylation stage, ensuring molecular consistency for active pharmaceutical ingredient (API) formulation that meets prescription market standards. Built on batch-to-batch reproducibility, process engineers monitor both purity and moisture parameters to minimize downstream chromatographic losses and optimize API crystallization. Industry compliance standards
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2. Aromatic Ketone Intermediate for Agrochemical Actives2'-Ethylpropiophenone is employed by agrochemical manufacturers as a scaffold for synthesizing specialty herbicide and pesticide actives. Its chemical structure enables efficient functionalization with targeted substituents required for downstream bioactivity, minimizing byproduct formation and facilitating later purification through standard column operations. Consistent raw material quality supports high reproducibility in multi-step synthesis typically mandated by agrochemical active development cycles. Industry compliance standards
Typical usage ratio
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3. Fine Chemical Synthesis Catalyst PrecursorChemical producers use 2'-Ethylpropiophenone as a tailored precursor in fine chemical syntheses involving asymmetric catalytic processes or chiral catalyst anchoring. Its steric and electronic properties help streamline ligand framework installation, which is fundamental for high-value specialty fine chemicals that require precise control of configuration and reactivity during scale-up. Here, raw material traceability and low residual solvent levels remain indispensable for maintaining downstream yield and catalyst lifetime. Industry compliance standards
Typical usage ratio
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4. Fragrance Ingredient Intermediate for Aroma Compound ManufactureIn the fragrance and aroma industries, formulators select 2'-Ethylpropiophenone as a bridging intermediate to synthesize key aroma molecules and specialty aldehydes used in fine fragrance compositions. The molecule’s ethyl substitution pattern provides a foundation for introducing desired olfactory nuances and for producing complex blends demanded by luxury market segments. Stringent organoleptic testing and adherence to industry code underpin consistent aroma profile generation from batch to batch. Industry compliance standards
Typical usage ratio
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In the course of decades handling organic intermediates, a few compounds emerge as genuinely versatile. 2'-Ethylpropiophenone stands out. Many customers approach us with clear questions about consistency, purity, and handling practicality. They want detail rooted in experience, not catalogue words. So, what sets 2'-Ethylpropiophenone apart for users in fine chemicals, pharmaceutical intermediates, and beyond?
2'-Ethylpropiophenone presents as a clear, near colorless liquid under normal lab and plant conditions. Batch after batch, our team checks for clarity and absence of suspended matter because these qualities signal a controlled synthesis and clean workup. Every bottle goes through strict GC and HPLC analyses; the industry asks for at least 98% purity, with most end-users preferring to work with material reading above 99%. With a molecular formula of C11H14O and a molecular weight hovering near 162.23 g/mol, this compound delivers reliable reactivity while fitting easily into a wide range of organic syntheses.
We've seen customers benefit from the consistent boiling point—usually around 260-262°C under atmospheric pressure—which helps in both distillation and process optimization. Its measured density lines up with certificate data, reassuring users handling scale-ups. Small shifts in those readings may hint at residual solvent or unintended isomers. These are not academic notes, but practical flags that matter to every plant manager and bench chemist. Each lot ships with thorough analytical disclosure and a representative chromatogram. Through years of audits, our experience has been that clear, plainspoken information from origin helps downstream users spot issues before they grow costly.
Our chemists blend reduction, Friedel-Crafts acylation, and separation know-how to manufacture 2'-Ethylpropiophenone efficiently. Demand priorities come from a broad market—frequently in pharmaceutical R&D, specialty flavors and fragrances, and more recently, emerging materials science projects. Take the pharma development channel: several teams leverage the aryl ketone core of 2'-Ethylpropiophenone as a building block in synthetic schemes, either as a direct precursor or via alkylation, reduction, or further functionalization. The ethyl group in ortho position plays a huge role in influencing the selectivity and rate of reactions downstream. From field feedback, a practical insight emerges: this subtle alteration speeds up certain coupling reactions and can open up regioselective access that bulkier groups or para-isomers cannot provide.
Many plants carry aromatic ketones with various side chain lengths and placements in inventory. Lab and pilot teams experimenting with 2'-Ethylpropiophenone often notice its improved solubility in non-polar and mid-polarity solvents, especially compared to related propiophenones with bulkier substituents. This opens more options in formulation and extraction workups, lowering agitation times or solvent loads—which in a production economy can translate to real savings.
Most seasoned buyers and chemists know that minute differences among similar aromatic ketones are not academic. For example, swap the ethyl group to the para or meta position and reactions involving nucleophilic attack will behave differently—sometimes enough to disrupt a yield or stereochemical outcome. Some teams switching from standard propiophenone derivatives to the 2’-ethyl version have flagged cleaner end-point HPLC chromatograms and fewer side-products, especially in reductive aminations or Grignard additions.
Compared to a simple propiophenone or acetophenone, the ortho-ethyl variant also changes physical stability. Its structure produces marginally higher UV absorbance at certain wavelengths, and we have seen this leveraged by analytical development teams looking for more sensitive detection in process monitoring. Not everyone needs that, but the point bears out: tweaks in core structure, even slight, create measurable and sometimes critical shifts in both chemical behavior and logistics management.
Many large-scale fragrances and flavors formulators use 2’-Ethylpropiophenone not only for its own scent note—which is subtle and barely perceptible, faintly sweet and aromatic—but as an intermediate for structural modifications. Its manageable volatilization and neutral sensory impact give it utility both as a backbone and as a passthrough intermediate in batch processes. Some flavor chemists blending citrus or spicy notes find that the ortho-ethyl group imparts slight modulations without dominating lighter esters or aldehydes.
Handling hundreds of drums yearly, our process engineers, QC analysts, and warehouse teams keep a close eye on shelf-life stability and warehouse conditions. Stored at recommended ambient temperatures and away from direct sunlight, 2’-Ethylpropiophenone resists rapid oxidation or color formation—a practical advantage in real-world inventory management, compared to some homologous ketones that quickly yellow or thicken. Logistically, this can prevent costly rework or waste disposal, especially for distributors operating just-in-time delivery models.
Packing choices have evolved. While we started with small amber glass bottles for R&D customers, more clients order in HDPE drums fitted with secure seals and tamper-proof locking threads. This material is both chemically inert to the product and robust to rough freight. Based on feedback, clients in humid regions see less risk of ingress or contamination compared to traditional metal or open-topped supplies. All packaging meets international transport requirements and supports batch-level traceability.
Our experience through thousands of shipments says much: the attention you give at origin—clean reactors, well-calibrated pumps, lots segregated by synthesis date—directly affects customer complaints, product returns, or process slowdowns. Practical lessons accumulate from years of hands-on troubleshooting, much more so than from perfect paperwork.
Plant teams and lab researchers often ask for specifics. 2'-Ethylpropiophenone shares handling similarities with related aromatic ketones. Standard PPE—nitrile gloves, safety goggles, vapor control—serve well. Its volatility remains moderate at room temperature, meaning good ventilation and basic controls prevent unwanted exposure. Inhalation risk, while not as acute as many amines or halide intermediates, should not be ignored. We've seen that improper storage or split containers left open lead to unnecessary residue buildup and that routine housecleaning and cap checks matter.
Spillage scenarios in both R&D and production scale can cause slips—its oily texture causes a surface film. Experience tells us immediate cleanup with absorbent pads followed by non-chlorinated solvent application cuts down on persistent odors or stickiness. Untrained hands sometimes over-apply neutralizing agents, which can lead to sticky residues on floors or glassware. Our process trainers stress the value of rigorous, stepwise cleaning over rapid fixes.
Across jurisdictions, 2'-Ethylpropiophenone falls under typical aromatic ketone categories. Most authorities request proof of origin, details of synthesis route, and batch-level quality disclosures in advance, especially for high-volume pharma or fragrance applications. Trace contaminants, analog impurities, or carryover from bulk solvents are flagged in regulatory audits. With increased interest in green chemistry and process transparency, we've begun offering detailed lifecycle analysis—how raw material choice, waste output, and utility footprint relate to each production run.
Practically, labs and plants choosing to substitute or supplement other ketones with this material appreciate the documented impurity profiles. It’s the rare case, but shifts in raw material supply or weather events affecting procurement can trigger shipment delays or lot-to-lot variance. Open communication, and willingness to disclose process modifications or batch deviations, lead to far more sustainable operations and fewer downstream complications.
Some partners need kosher or halal certification, others documented absence of animal-derived raw materials. Our records and supply chain tracking help large brands maintain clean audit trails. And as sustainability standards tighten, we’ve seen more requests for recycling programs for packaging and safe reuse options for leftover small-scale product—another mark of evolving industry expectations.
The journey from bottle to application isn’t always straightforward. Customers occasionally run into bottlenecks: solubility mismatches with novel excipients, unexpected reaction exotherms at scale, or batch failures where subtle impurity spikes in the raw material go unnoticed. Our technical team has built a portfolio of real-case reports—from soap manufacturers to peptide companies—detailing troubleshooting steps taken on shop floors and in kilo labs.
Sometimes a change in source solvent or a minor tweak in catalyst, based on how our 2’-Ethylpropiophenone was made that quarter, can make all the difference. Our own chemists often hold phone calls directly with customer R&D teams, reviewing TLC or NMR data to troubleshoot together. Open sharing of process lessons rather than guarded secrecy pays dividends. Over repeated cycles, a partnership built from sharing actual operational history and test failures leads to more reliable supply and better product fit.
In parallel, requests for ultrafine impurity analysis—using advanced LC/MS or GCxGC rather than standard GC-FID—have increased among cutting-edge pharmaceutical clients. These needs require up-front investment but have also accelerated our own analytics capability, resulting in cleaner and more consistent product even outside that market segment. There's growing awareness in regulatory circles about certain aryl ketone derivatives being flagged as controlled precursors, so we work closely on compliance to prevent accidental regulatory exposure for any customer.
Over the years, custom-labeled or adjusted synthesis of 2’-Ethylpropiophenone for research, pilot, or full-scale batches has revealed much about shifting client trends. Increasingly, research groups working at the interface of organic electronics, polymer chemistry, and next-generation catalysts see the value in subtle functional group tuning. The ortho-ethyl placement changes electronegativity and strain within the molecule, factors that can influence photophysical properties or crosslinking efficiency. New performance demands—whether for smart coatings, sensor anchors, or precursor blocks to complex natural product analogues—drive conversations about different grades, custom purification, and process intensification.
Based on field trials, we've fine-tuned crystallization and distillation steps, reducing batch-to-batch haze or unstable refractive indices that sometimes crop up in larger volume runs. Small details matter: even trace sulfonate or aromatic amine residues, barely a blip in older QC sheets, become critical for high-purity applications. Consistent dialogue with end-users means each improvement tightens the product’s match to its intended use. Two-way conversations, rather than one-way paperwork, have trimmed troubleshooting time and cut process waste in half for more than one large client.
Academics and pilot-scale specialty producers appreciate on-demand access to technical support for unusual applications—say, preparing labeled analogs for metabolic studies, or upscaling to multi-hundred kilo scale with validated process flow. We offer blank analytical support, help with sample preparation protocols, and recommendations on safe solvent recovery for both small and large batch users. Experience shows that the quickest way to lost production time is unclear instructions or incomplete documentation. By fostering real working relationships—with shared case studies and open lines to our technical staff—both parties win.
The true value of any chemical is not in its abstract description, but in how it works for the customer’s real process day in and day out. 2'-Ethylpropiophenone consistently performs for teams that need an aromatic ketone with flexibility and a consistent, clean output, whatever the scale or application. Over time, competing products in the same family—acetophenone, para-ethylpropiophenone, isobutyrophenone—each find their niche, but feedback and repeat orders consistently point toward the ortho-ethyl placement offering a unique balance of reactivity, manageability, and stability across applications.
Trust builds over time through collaboration, technical exchange, and a history of meeting evolving customer needs with practical advice and improvements. As more sectors look beyond standard materials, this is one case where small differences, honed through decades of hands-on experience, create measurable benefits in both quality and performance for those who rely on 2'-Ethylpropiophenone in their innovation pipelines.