|
HS Code |
262721 |
| Cas Number | 101-97-3 |
| Molecular Formula | C10H12O2 |
| Molecular Weight | 164.20 g/mol |
| Appearance | Colorless liquid |
| Odor | Sweet, floral, honey-like |
| Boiling Point | 248°C |
| Melting Point | -24°C |
| Density | 1.023 g/cm³ at 25°C |
| Solubility In Water | Insoluble |
| Flash Point | 110°C |
| Refractive Index | 1.5035 at 20°C |
| Vapor Pressure | 0.08 mmHg at 25°C |
| Synonyms | Acetic acid, phenethyl ester; 2-Phenylethyl acetate |
| Uses | Flavoring agent, fragrance ingredient |
| Stability | Stable under normal temperatures and pressures |
As an accredited Ethyl Phenyl Acetate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Ethyl Phenyl Acetate is packaged in a 500 mL amber glass bottle with a tightly sealed cap and clearly labeled hazard warnings. |
| Shipping | Ethyl Phenyl Acetate is typically shipped in tightly sealed containers, such as drums or bottles, made of compatible materials to prevent leaks and evaporation. It should be transported in a cool, well-ventilated area, away from sources of ignition or heat, and in accordance with relevant chemical transport regulations and safety guidelines. |
| Storage | Ethyl Phenyl Acetate should be stored in a cool, dry, well-ventilated area away from sources of ignition, heat, and direct sunlight. Keep the container tightly closed and properly labeled. Store away from incompatible materials such as strong oxidizers and acids. Use corrosion-resistant containers. Ensure access to spill containment and eye-wash stations in the storage area for safety. |
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Purity 99%: Ethyl Phenyl Acetate with 99% purity is used in pharmaceutical synthesis, where it ensures optimal reaction yields and minimal impurity formation. Boiling Point 244°C: Ethyl Phenyl Acetate with a boiling point of 244°C is used in fragrance manufacturing, where it provides high thermal stability during distillation processes. Molecular Weight 164.20 g/mol: Ethyl Phenyl Acetate with a molecular weight of 164.20 g/mol is used in flavor formulation, where it allows accurate dosage and predictable sensory profiles. Odor Threshold 0.02 ppm: Ethyl Phenyl Acetate with an odor threshold of 0.02 ppm is used in perfumery, where it delivers strong and long-lasting aromatic notes. Stability Temperature 120°C: Ethyl Phenyl Acetate exhibiting stability up to 120°C is used in cosmetic emulsions, where it maintains consistent product quality under heat processing. Density 1.045 g/cm³: Ethyl Phenyl Acetate with a density of 1.045 g/cm³ is used in solvent blending, where it facilitates uniform mixing and controlled evaporation rates. Refractive Index 1.502: Ethyl Phenyl Acetate with a refractive index of 1.502 is used in optical applications, where it improves light transmission and clarity in resin formulations. Water Solubility <1 g/L: Ethyl Phenyl Acetate with water solubility less than 1 g/L is used in waterproof coatings, where it enhances hydrophobic properties. Flash Point 116°C: Ethyl Phenyl Acetate with a flash point of 116°C is used in industrial cleaners, where it provides safer handling and reduced fire hazards. GC Assay ≥98%: Ethyl Phenyl Acetate with a GC assay of at least 98% is used in analytical standards preparation, where it ensures high accuracy and reproducibility of results. |
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Ethyl Phenyl Acetate (EPA) has developed a quiet reputation as a dependable ingredient in a broad range of industries. Anyone who spends time in a fragrance lab or a flavor house, or who works with specialty chemicals, knows that raw material choice can make or break a formula. The model most commonly discussed in professional circles features a chemical composition of C10H12O2. Distilled through well-established processes and strictly quality-checked, genuine Ethyl Phenyl Acetate stands out because it delivers a distinct, sweet, floral aroma with a touch of honey and rose. This specific scent profile opens up an entire landscape of creativity for perfumers and flavor professionals.
Ethyl Phenyl Acetate never shouts for attention, but anyone who’s worked with it recognizes its value right away. Its molecular structure places it squarely in the ester family, giving it aromatic and organoleptic qualities that differ from more common esters like ethyl acetate or methyl phenyl acetate. That means anyone working on new fragrances, flavorings, or personal care products gets a tool that brings subtlety and complexity. I’ve seen formulation teams light up after sampling what EPA does to a blend. Even in tiny dosages, it fills out softer notes in fruit blends or provides a floral touch that’s different from other typical esters.
Sourcing quality ingredients has always been a pain point in manufacturing. Raw material choices shape product performance, safety, regulatory compliance, and the final perception experienced by a consumer. Inferior or impure EPA doesn’t just threaten a batch; it can cause costly product recalls or safety concerns. There’s a lesson here—a reputation built over decades, not mere months, matters more than flashy marketing.
I’ve seen plenty of products overpromising clean or “natural” aromas, but only with tightly specified EPA can a scent formulator achieve multilayered, long-lasting notes. Cheaper alternatives or less pure batches tend to go flat or introduce unwanted off-notes. With Ethyl Phenyl Acetate, quality control starts at the chemical level and is visible all the way to the finished perfume or flavor. The difference is real, especially if you’ve spent even a weekend working directly on the production floor or in small-batch blending.
Take the beverage industry. Whether you’re making cola, pear nectar, or a specialty liqueur, EPA can bridge fruity and floral elements. Unlike other ester-based compounds, it doesn’t overwhelm softer fruits, and it integrates into both alcoholic and non-alcoholic formulas. From experience, working with EPA presents fewer headaches with solubility or separation than rival ingredients. Its melting point sits high enough to remain solid at normal room temperature, but it becomes a flowing liquid under production conditions—a trait that helps manufacturers incorporate it evenly in complex mixtures.
Aromachemistry isn’t just about what smells nice in the vial. EPA’s value shows in technical details. The boiling point keeps it stable under moderate heating, and the low volatility ensures that finished products retain their aroma longer. High-purity lots come out nearly colorless to pale yellow, which matters when clarity and visual appeal can shape consumer perception—for example, clear fragrances in luxury personal care products.
Some competitors offer alternatives that seem appealing on paper, but practical testing reveals weaker performance in shelf-stability, off-odors, or flavor masking. Over the years, I've come to look for batch traceability and clear GC-MS analytics that guarantee the content matches what’s promised. These assurance measures don’t just meet regulatory requirements; they save time during formulation development and quality control. There’s less troubleshooting down the road, and customers get a better, safer product.
Synthetics like ethyl acetate or benzyl acetate share some chemistry with EPA, but their profiles differ in both aroma and chemical behavior. Ethyl acetate is harsh, almost vinegary, and is far more volatile; its top note blasts out, then vanishes. Benzyl acetate tips heavily toward a sickly sweetness, which can dominate blends. In contrast, EPA stays put, playing out its floral-fruity notes in a measured way.
If the goal is a nuanced finish in a fragrance, or if the profile needs to blend with natural essential oils like rose or ylang-ylang, EPA couples better thanks to its more grounded structure. It’s not about chasing "naturalness" in a narrow sense—pure EPA can come from either synthetic or bio-engineered origins—but about achieving a balanced result that survives both time and customer scrutiny.
Even niche alternatives, like phenethyl acetate, have their drawbacks. The scent tips too heavily into rosy territory, and it fades much sooner in exposed blends. EPA’s balance between floral and slightly honeyed notes gives perfumers more flexibility. For the flavor industry, using EPA means replicating stone fruits, berries, pear, or even contributing a background warmth to pastry-inspired products. Unlike some synthetic esters, it doesn’t introduce greasy or plastic nuances—important for innovation in vegan and plant-based confections where masking off-flavors is a daily challenge.
No responsible chemical editor skips over the sustainability discussion. Over the last few years, I’ve watched the demand for EPA sourced from renewable feedstocks tick up. Traditional synthesis draws on petrochemical derivatives; now, bio-based pathways use plant sugars and fermentation. These newer manufacturing routes cut the carbon footprint and invite more brands to disclose their supply chains with confidence.
The regulatory landscape also favors those suppliers who test thoroughly for residual solvents and process byproducts. There are stricter limits now on impurities like benzene, and finished product safety relies on raw materials tested above routine standards.
From an ethical standpoint, customers have started asking detailed questions about where and how each raw material is sourced. In my own consulting, I advise companies to share this information openly on data sheets, not just for compliance but because transparent sourcing earns long-term loyalty. Ethyl Phenyl Acetate’s traceability fits right in with this shift toward responsible manufacturing. Some laboratories now publish third-party audits and analytical results as part of their transparency commitments.
In the drinks industry, flavors and aromas need to meet shifting consumer preferences—natural, responsibly sourced, and free of allergens. EPA has emerged as a relatively safe bet, with documented allergenic risks sitting lower than older aromatic compounds. This doesn’t mean zero risk for sensitive populations, but with proper quality checks and disclosure, EPA-supported formulas can meet growing safety expectations.
In perfumery, EPA’s versatility stands out. Historical formulas rarely reveal their secrets, but many iconic floral and fruity scents rely on EPA at their core. Even modern unisex and gender-neutral fragrances now use it to connect botanical top notes with creamy, warmer bases. The result: more balanced, longer-lasting scents that withstand temperature swings and consumer handling.
Hair and skin care products present their own set of design challenges. Lotions, conditioners, and soaps use EPA to cut through the fatty base notes that result from natural oils or waxes. Where harsh chemically-derived scents mask rather than blend, EPA softens the edge and delivers a finish that seems fresher and lighter. That’s why more upscale bar soap manufacturers and boutique candle brands mention EPA among their “signature” ingredients. It shows up in brands that want their vanilla or almond notes to pop, without an artificial overtone.
Food scientists working in flavored beverages, vegan yogurts, or bakery fillings face stringent flavor-labeling and allergen disclosure requirements. EPA fits into fruit flavor blends where authenticity counts. With proper use, it can round out the aroma of raspberry, pear, or even peach. Unlike older synthetic flavors, EPA delivers without imparting strange aftertastes. This benefits producers who want to move away from artificial flavor stigma without risking flavor stability.
I’ve seen bakeries cut down on wasted batches by swapping out lower-grade esters for EPA, especially in filled pastries and delicate cakes. With the right EPA, the filling carries its core notes even after several days on the shelf. This technical improvement cuts product loss and increases customer satisfaction—a win for both bakers and their bottom line. Artisanal confectioners use EPA in fondants and creams to support berry and citrus notes, and to temper the richness of white chocolate.
No chemical ingredient solves every challenge on its own. Even with high demand, the EPA market remains affected by supply disruptions, driven by changes in global regulatory frameworks or shortages in key precursor chemicals. Some suppliers fluctuate in their ability to deliver high-purity batches due to either outdated processing technology or lower commitment to post-production quality checks.
Traditional procurement based solely on cost leaves brands exposed to variable results, especially once a product scales. Over my years in the industry, I’ve seen repeated lessons: always verify supplier credentials with analytical test data, and invest time in batch testing before integrating new lots into large-scale runs. It’s tempting to cut corners, but a single inconsistency can undo months of work and erode trust built with customers. Open communication between manufacturers and raw material suppliers, coupled with regular auditing, guarantees ongoing performance and protects consumers.
Safety isn’t just a checkbox; it requires day-to-day vigilance. Workers handling EPA benefit from its relatively straightforward hazard profile. Compared to older agents—some of which carried substantial health risks, or required elaborate ventilation—EPA poses less danger when proper guidelines are followed. Spills are easy to handle, storage requirements demand only modest adaptation, and the compound doesn’t interact dangerously with most common packaging plastics.
Compliance under REACH in Europe and GRAS (Generally Recognized As Safe) status in the United States offers further reassurance to companies seeking to export food or personal care products globally. Meeting these standards isn’t automatic—companies need to document every input and control cross-contamination at every step. In the best workplaces I’ve visited, EPA use aligns with a broader approach: cross-training staff, running regular safety drills, and keeping technical data close at hand.
On the innovation side, EPA continues to inspire. It’s a rare ingredient—simple enough to use in traditional manufacturing, and yet versatile enough for startups and artisan producers to experiment with. I once worked with a small-scale beverage entrepreneur developing a new pear-flavored liqueur. Conventional fruit essences muddied the mix, but EPA brightened it up, allowing the true fruitiness to shine through. The finished product tasted natural, with just enough subtlety to linger on the palate. That success convinced the team to explore EPA across their full product range.
Another success shows up in plant-based yogurt. Many dairy alternatives fall flat at the finish due to flavor gaps and unwanted aftertastes from pea or soy proteins. A touch of EPA doesn’t just round out the initial aroma—it covers unpleasant beaniness and ties the entire blend together. Products born from this kind of ingenuity meet customer expectations for taste and clean labeling, as a growing market expects more from both plant-based and mainstream goods.
Traceability isn’t just a buzzword; it shapes everything from regulatory compliance to consumer trust. In today’s market, every lot of EPA needs documentation from source to shelf. Modern ERP and batch management systems make it easier to track a product’s journey—how it’s made, packaged, tested, and delivered. In businesses serious about risk management, this means fewer surprises during regulatory audits and happier customers who know what’s in their products.
Over the years, I’ve noticed more clients asking for full transparency on EPA’s origin, possible GM content, and even water usage or emissions associated with its production. These questions don’t come from regulators anymore—they’re front and center in consumer forums, professional associations, and company sustainability reports. The shift isn’t just about ticking boxes; it’s about forging connections between suppliers, manufacturers, and end users.
Industry best practices now include third-party certification. Some companies have EPA batches certified as allergen-free, non-GMO, or sourced from renewable feedstocks. Independent laboratory verification lifts confidence, which translates into smoother product launches and stronger brand loyalty. The ability to point to rigorous data—shared up and down the supply chain—reassures customers all the way to the point of use.
From my own consulting, the most successful product launches never hide behind technical jargon or vague green claims. Instead, they publish clear data on sourcing, purity, and performance. That openness draws in not just B2B clients, but everyday shoppers who care what they’re buying. EPA lends itself to this era of transparency; it is fundamentally a straightforward molecule, but its quality and value rest on the honesty and rigor behind how it is sourced and supplied.
Processors and buyers have learned to plan for the unexpected. Severe weather, geopolitical tensions, and shifting markets create regular hurdles for those sourcing EPA at scale. Many successful companies now use dual sourcing strategies—working with multiple approved EPA suppliers and conducting regular blind tests between lots. Early investment in robust supply agreements pays back tenfold when normal supply lines are disrupted, preventing both empty shelves and panicked reformulation sprints.
Managing long-term relationships with preferred suppliers inspires higher standards. Supply chain partners know that performance (measured in consistency, transparency, and timely delivery) means more business. I’ve seen a well-crafted partnership shake up underperforming suppliers, prompting investment in new purification systems or greener chemical pathways. Open communication and fair, mutually beneficial contracts lift both sides of the equation.
Technical training for procurement and R&D teams also pays off. Internal staff who can read and interpret GC-MS reports, ask for extra purity data, or spot subtle batch differences give their employers a sharper edge. Higher in-house expertise translates into faster development times and more resilient product launches, delivering consistent value for customers in a competitive market.
Ethyl Phenyl Acetate finds itself at a crossroads, with market demands pushing both purity and sustainability. Biotechnology and green chemistry continue advancing. Newer EPA production involves biocatalysts and microbial fermentation, trimming down toxic byproducts and cutting long transportation chains. These developments align with consumer expectations for more responsible, less polluting products—moving beyond buzzwords into real, documentable improvements.
Digitalization will change how EPA is tracked from start to finish. Blockchain technology, though still emerging in chemicals, promises streamlined transparency, connecting raw material origins to finished fragrances and flavors in ways that can’t be easily faked or altered. Early adopters of this tech stand to build new levels of trust, both with regulators and the ultimate end-users.
Taste and fragrance preferences also evolve. Younger generations want more authentic, “realistic” profiles, with less over-sweetness or chemical harshness. EPA’s nuanced aroma aligns perfectly with this trend, helping formulators innovate everything from niche colognes to cutting-edge non-alcoholic cocktails. Flexible, well-characterized ingredients like EPA serve as the launchpad for these new products.
Ethyl Phenyl Acetate doesn’t get splashy headlines, but those who work in flavor, fragrance, and specialty chemicals know the value of a high-quality, transparent, and rigorously tested ingredient. Its unique aromatic and functional properties unlock possibilities for clean-label innovation, robust supply chains, and safety in an ever-evolving regulatory environment. Those willing to invest in traceable sourcing, technical rigor, and ongoing partnership with reliable producers will discover EPA not just as another ester, but as a genuine asset for the next generation of consumer products.