|
HS Code |
988757 |
| Chemical Name | Ethylene Glycol Monophenyl Ether |
| Synonyms | 2-Phenoxyethanol |
| Cas Number | 122-99-6 |
| Molecular Formula | C8H10O2 |
| Molar Mass | 138.17 g/mol |
| Appearance | Colorless oily liquid |
| Boiling Point | 245°C |
| Melting Point | -2°C |
| Density | 1.10 g/cm³ at 20°C |
| Solubility In Water | Miscible |
| Odor | Faint aromatic odor |
| Flash Point | 121°C (closed cup) |
| Vapor Pressure | 0.02 mmHg at 20°C |
| Ph Value | Neutral |
| Refractive Index | 1.532 at 20°C |
As an accredited Ethylene Glycol Monophenyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Ethylene Glycol Monophenyl Ether is packaged in a 500 mL amber glass bottle with a tightly sealed cap and clear hazard labeling. |
| Shipping | Ethylene Glycol Monophenyl Ether should be shipped in tightly sealed, corrosion-resistant containers, clearly labeled and protected from physical damage. Transport in accordance with applicable regulations for hazardous materials, as it may pose health and environmental hazards. Store upright in a cool, well-ventilated area, away from incompatible substances, ignition sources, and direct sunlight. |
| Storage | Ethylene Glycol Monophenyl Ether should be stored in a cool, dry, well-ventilated area, away from sources of ignition, heat, and incompatible substances such as strong oxidizers and acids. Keep containers tightly closed and properly labeled. Store away from direct sunlight and moisture. Utilize appropriate chemical storage cabinets, and ensure all local regulations for hazardous materials are strictly followed. |
|
Purity 99%: Ethylene Glycol Monophenyl Ether with a purity of 99% is used in precision electronic cleaning agents, where it ensures minimal residue and optimal circuit performance. Molecular weight 138.17 g/mol: Ethylene Glycol Monophenyl Ether with a molecular weight of 138.17 g/mol is used in specialty ink formulations, where it enables controlled evaporation and improved print definition. Boiling point 245°C: Ethylene Glycol Monophenyl Ether of boiling point 245°C is used in high-temperature metalworking fluids, where it provides thermal stability and reduced volatility. Low viscosity grade: Ethylene Glycol Monophenyl Ether with low viscosity grade is used in waterborne coatings, where it enhances substrate wetting and smooth surface finish. Stability temperature 200°C: Ethylene Glycol Monophenyl Ether with a stability temperature of 200°C is used in industrial degreasing solutions, where it maintains effectiveness during prolonged heating cycles. Melting point -15°C: Ethylene Glycol Monophenyl Ether with a melting point of -15°C is used in antifreeze and deicing formulations, where it ensures reliable performance in subzero temperatures. Density 1.10 g/cm³: Ethylene Glycol Monophenyl Ether with a density of 1.10 g/cm³ is used in solvent blends for pharmaceutical synthesis, where it allows precise process control and homogeneity. Water solubility moderate: Ethylene Glycol Monophenyl Ether with moderate water solubility is used in cosmetic emulsion systems, where it promotes stable dispersion and prevents phase separation. |
Competitive Ethylene Glycol Monophenyl Ether prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: sales3@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Ethylene Glycol Monophenyl Ether, often abbreviated as EGPE or known by its chemical name 2-Phenoxyethanol, is not the first thing most people think of in their daily lives. I remember my first exposure to specialty chemicals during a summer internship at a coatings factory. Long days in musty warehouses made me appreciate both the strength and the challenges of different solvents. EGPE always stood out to me as one of those niche, unassuming liquids that demonstrates real value once you see how it fits into the workflow. With the model C8H10O2, its relatively mild odor and manageable properties make it favored in multiple lines of production, including cosmetics, inks, coatings, and pharmaceuticals.
Manufacturers often have their preferences, and through chatting with old colleagues in the industry, I realized those decisions are not just a matter of chemistry; they're informed by experience on the floor. Unlike more aggressive solvents that can leave behind strong odors and pose safety concerns, EGPE provides a practical middle ground, delivering solid solvency without the volatility found in something like toluene or xylene. Its boiling point, sitting at approximately 245°C, allows for process flexibility. Its solubility with both water and common organic compounds creates room for one-pot formulations, cutting down processing time and cleaning labor.
Many facilities see value in the way EGPE’s chemical structure interacts with resins used in paints and printing inks. While I used to struggle to clean glassware after using high-resin-content samples, switching to EGPE made a noticeable difference. It helps dissolve stubborn residues, making machinery maintenance less taxing in real-world operations. You come to appreciate this when, at the end of a shift, you’d rather not spend an hour scrubbing tanks.
What sets EGPE apart from similar chemicals is its mix of characteristics. While other glycol ethers like Ethylene Glycol Monoethyl Ether (EGEE) or Ethylene Glycol Monobutyl Ether (EGBE) also serve as solvents, EGPE maintains a balanced solvency profile with lower volatility and a more favorable odor threshold. During my time working near inkjet production lines, I noticed safety teams preferred EGPE-based cleaners over their more aggressive cousins. Less harsh odor indoors means better working conditions, and no one goes home with headaches or stinging eyes.
The difference matters beyond the job site. In consumer products, especially cosmetics and topical formulations, EGPE acts as both a solvent and a preservative enhancer. The molecule slips easily into emulsions and dispersions, supporting product consistency and helping keep bacteria at bay. In my own home, certain wound care products include this compound—its antimicrobial properties help limit spoilage without leaning so heavily on harsh preservatives.
The technical details around EGPE reveal why production managers and chemists keep using it. Standard purities typically exceed 99 percent. Liquid at room temperature, it sports a moderate viscosity, making it simple to measure and blend by hand or machine. If you’ve ever worked the morning production shift, you know how a splashy or sticky solvent slows down filling lines. EGPE pours smoothly, doesn’t foam easily, and doesn’t clog fine filters. These quirks translate straight to fewer headaches and steadier output.
Stability under storage conditions also stands out. In regions with sweltering summers and chilly winters, the product can stay on-site for months without breaking down or separating. Contrast that with less-stable solvents that crash out solids or become acidic; that’s when you start worrying about ruined batches or out-of-spec goods. EGPE holds up through those cycles, which reduces spoilage and supply chain interruptions.
Whenever people talk solvents, the question of safety and environmental impact comes up quickly. The shift in attitudes around workplace health and chemical stewardship in the past few decades is hard to ignore. EGPE’s toxicity profile lands far milder than early-generation solvents. Acute effects remain rare and manageable with proper ventilation, and its relatively low skin irritation index contributes to workplace comfort. From my early days handling solvents with nothing but thin latex gloves, I can say the less biting the chemical, the less likely it will become an emergency on the floor.
Disposal practices need attention regardless—EGPE is biodegradable over the long term, but it’s still hazardous to aquatic life in concentrated form. Over the last ten years, many facilities have steered toward closed-loop recovery units and careful wastewater treatment. Modern effluent controls, combined with regular environmental audits, lower the risk of leakage. While no solvent scores a perfect record, the move away from older, heavier, more persistent solvents in favor of EGPE trends in the right direction for both people and the planet. A few places I’ve worked at have even seen insurance premiums decline because of switching to solvents with more favorable hazard classifications.
There’s a quiet revolution that happens in chemical plants as technology changes. Visiting veteran technicians reveals a surprisingly practical perspective about why certain products win out in the daily grind. With EGPE, the preference stems from issues people outside the industry rarely see: gummed pipes, odors that stick to clothes, lost batches from off-spec blends, difficulty keeping products shelf-stable through shipping. EGPE usually comes in drums or ISO tanks, ready for use in processes from large-scale printing to fine fragrances.
Other members of the glycol ether family each have distinctive traits—some evaporate too quickly, others cause irritation or present flashpoint risks. EGPE avoids those extremes. This steadiness wins it a place in both performance-driven industrial settings and applications where the end user demands reliability, whether painting a façade, formulating hand sanitizers, or mixing up a batch of water-based paint. Companies keep EGPE in rotation because it supports smoother transitions between product grades, reduces rework, and connects seamlessly into multi-use cleaning cycles.
Every chemical comes with trade-offs. During conversations with R&D chemists, a common refrain involves cost and long-term regulatory dynamics. EGPE remains more expensive per unit than simpler alcohols or conventional esters. Some nations keep a watchful regulatory eye on glycol ethers, given their broad industrial usage and the need to guard against hazardous by-products. That said, a robust base of toxicology and regulatory data supports its continued use with established handling guidelines. Unlike legacy solvents phased out because of long-term health risks or environmental legacy, EGPE draws on a clearer record.
Globalization brings new challenges to logistics and quality control. I’ve seen first-hand what happens when incoming shipments don’t match purity standards—it grinds progress to a halt. Strengthening supplier qualification and batch traceability could further reduce risks. Digital batch tracking and professional third-party testing offer pathways to reliability, especially as markets in Africa and Southeast Asia increasingly demand consistent, high-grade materials for pharmaceuticals and specialty coatings.
The world rarely settles for “good enough” forever. Solvent innovation continues as researchers explore bio-based or even non-solvent processing routes. Within the glycol ether family, EGPE shares space with variants like Propylene Glycol Monomethyl Ether (PGME), which boasts lower toxicity. But from my experience working field support for a German adhesives plant, swapping a reliable solvent isn’t always a simple technical fix. Each alternative comes with quirks—PGME works in some blends but breaks others, while certain bio-solvents lag in solvency.
Modern green chemistry programs target further reductions in hazards, while advanced recovery tech aims to reclaim used EGPE more cheaply and thoroughly. Over time, the economics of solvent recycling will likely get as much attention as the supply price itself. In a market where sustainability reports come up at quarterly meetings, the ability to reduce chemical consumption and waste factors into every big purchasing decision.
I once met a coatings engineer who swore by EGPE for keeping block-print inks workable in high-humidity months. She walked me through her notebook, page after page of blend ratios, temperature readings, and “panic mode” entries when inks wouldn’t flow through nozzles. EGPE found its way into her trusted recipes, and she credited it with saving several production runs from being scrapped. Out on the line, results matter more than theory. Sweat stung as we hustled to clear a jammed line, but EGPE could be counted on to clear the buildup much faster than our previous fix.
In another local packaging plant, shift supervisors told stories of battling resin stains that wouldn’t budge—switching to EGPE-based formulations didn’t just clean better, it slashed downtime for tank cleaning, letting them get through more product per week without extra overtime. The simple stuff adds up: better throughput, fewer rejected lots, easier compliance sign-off. It’s these details that drive change from the ground up.
EGPE’s edge comes through its blend of safety and reliable solvency. In the market’s push to banish the worst offenders from factory floors—think benzene, toluene, and older glycol ethers—the demand remains strong for products with a lower impact profile and respectable technical abilities. It’s easier for teams to adopt rules and routines when a solvent doesn’t sting the nose or skin, trigger alarms, or leave residues tied to poor air quality. Besides, in many global markets where regulatory shifts churn with every election cycle, the predictability of EGPE’s compliance characteristics brings rare peace of mind.
For end users, especially those in sensitive industries like electronics or pharmaceuticals, purity checks and supplier certifications form the backbone of every outgoing delivery. Field teams measuring solvent residues on finished devices or medical products need assurance that what they pour into holding tanks matches what regulatory filings promise. Consistency stems in no small part from solvents like EGPE, which, through careful production controls and long-standing analytical techniques such as gas chromatography, lend reliability batch after batch. The backbone of consumer trust starts with ingredients that keep problems low and performance high.
As solvent science moves forward, there’s an unspoken energy about what might come next. Technicians and entrepreneurs alike chase improved formulations and greener processes. Several academic labs now dig into safer alternatives and new blend strategies, yet the gulf between bench scale and full factory roll-out remains real. Process change costs time, money, and confidence. It’s not just about finding a solvent that works, but about one that slides into daily routines without missing a beat—autoclaves that clean just as easily, pumps that stay clear, and operators who don’t need retraining after every switch.
With global supply chains facing shocks, another challenge looms: ensuring adequate raw material inventory to meet demand. Last year, severe weather events squeezed logistics networks, and stories circulated about sudden shortages. For those in procurement and planning, maintaining a steady supply of solvents like EGPE means investing in resilient transportation, smart contract management, and buffer sourcing. These topics come up in management meetings now more than ever, and the companies that think ahead stand a better chance of weathering market storms.
The chemical industry rarely stands still. Regulations evolve, customer expectations shift, and technologies advance. EGPE’s place among solvents is a product of both its technical merits and its social acceptability, a result of years of practical feedback from line workers, chemists, regulatory bodies, and customers. Its balanced character—good solvency, workable safety record, moderate cost—anchors it in modern production. It isn’t glamorous or headline-grabbing but plays a steady, reliable role that ties together vast swathes of today’s industrial web.
Looking to the next decade, I see EGPE’s footprint shaped less by dramatic leaps and more by methodical improvement. On visits to pilot facilities and in conversations with suppliers, I sense movement toward fine-tuning existing products—reducing trace impurities, lowering residual solvent levels in finished goods, and squeezing down carbon footprints from point of manufacture through disposal. Customers ask sharper questions about supply chain transparency, workplace testing protocols, and product lifecycle costs. This pressure nudges producers to document best practices and continually revisit their emissions, packaging, and worker training.
Solutions rarely arise from one side alone. Cooperation between end users, suppliers, regulators, and the communities around production sites fosters better outcomes. One promising path forward involves closed-loop solvent recovery and in-house distillation units, making it easier for manufacturers to reclaim spent solvent and cut raw material use. Over time, these investments defray costs, minimize hazardous waste, and keep supply chains nimble. Governments can encourage these upgrades through regulatory incentives and technical training partnerships.
Another meaningful step is transparency: clear, regular reporting on solvent use, emissions, occupational health stats, and supply chain events. In the early days, tracking this data was a headache but new digital platforms simplify the work. Community forums, supplier audits, and independent workplace safety initiatives build trust and let employees flag potential issues before they become systemic risks. Through targeted investments in research and development, as well as robust supplier engagement, the next wave of EGPE use might bring even cleaner, safer, and more cost-effective products.
Having spent years around production lines, I see the impact that choices around solvents like EGPE have on daily lives—workers, families, supply chain managers, towns ringed by industrial parks. A solvent that cuts downtime or lowers accident rates affects job satisfaction just as much as quarterly profits. Responsible use echoes beyond numbers on a balance sheet. It shapes the health of communities, the safety of working environments, and the environmental legacy left behind. Every drum shipped, every formula tweaked, can either reinforce public trust or chip away at it.
As the public grows more interested in the origins of what they use—be it a shampoo, a medical cream, a painted surface—the quality, safety, and transparency of ingredients like EGPE come into clearer focus. The companies that listen, adapt, and share their journey stand to build enduring relationships with customers and neighbors alike. It’s in these everyday choices—quiet ones, often overlooked—where real progress roots itself.
For those of us steeped in chemical production, EGPE is more than an ingredient—it’s a lens on the evolution of modern industry. Its story links breakthroughs in worker safety, advances in productivity, shifts in environmental awareness, and the rise of global trade. With each refinery run, each delivery to the shop floor, the collective expertise of generations pushes ahead, answering new challenges and raising the bar for what an industrial solvent can deliver. The future of EGPE, just like the industries it serves, hinges on a mix of tried-and-true knowledge and a willingness to rethink old habits for a safer, cleaner, more connected world.