|
HS Code |
859093 |
| Cas Number | 1126-14-7 |
| Molecular Formula | C10H14O |
| Molecular Weight | 150.22 g/mol |
| Appearance | Colorless liquid |
| Boiling Point | 225 °C |
| Melting Point | -40 °C |
| Density | 0.935 g/cm3 (20 °C) |
| Solubility In Water | Insoluble |
| Flash Point | 85 °C (closed cup) |
| Refractive Index | 1.493 (20 °C) |
As an accredited Butyl Phenyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Butyl Phenyl Ether is packaged in a 500 mL amber glass bottle with a secure screw cap, labeled with hazard and handling information. |
| Shipping | Butyl Phenyl Ether should be shipped in tightly sealed containers, protected from moisture, heat, and ignition sources. It is typically transported as a hazardous material, in accordance with regulations such as DOT and IMDG. Ensure containers are clearly labeled and handled with appropriate safety precautions to prevent leaks and environmental contamination. |
| Storage | **Butyl Phenyl Ether** should be stored in a cool, dry, and well-ventilated area away from direct sunlight, heat sources, and incompatible substances such as strong oxidizers. Keep the container tightly closed when not in use, and use appropriately labeled, chemically resistant containers. Avoid storing near open flames, and ensure proper grounding to prevent static discharge during transfer. |
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Purity 99%: Butyl Phenyl Ether purity 99% is used in pharmaceutical synthesis, where it ensures high yield and minimal byproduct formation. Viscosity 3.5 cP: Butyl Phenyl Ether viscosity 3.5 cP is used in specialty lubricant formulations, where it improves flow characteristics and reduces frictional losses. Boiling Point 238°C: Butyl Phenyl Ether boiling point 238°C is used in heat transfer fluid systems, where it provides superior thermal stability and minimizes evaporation loss. Molecular Weight 178.27 g/mol: Butyl Phenyl Ether molecular weight 178.27 g/mol is used in organic synthesis, where it acts as an efficient reaction solvent for aromatic substitution due to its stability. Stability Temperature up to 200°C: Butyl Phenyl Ether stability temperature up to 200°C is used in polymer processing, where it maintains chemical integrity and prevents thermal degradation. Water Content ≤0.05%: Butyl Phenyl Ether water content ≤0.05% is used in anhydrous chemical reactions, where it prevents hydrolysis and ensures consistent reactivity. Flash Point 98°C: Butyl Phenyl Ether flash point 98°C is used in industrial cleaning applications, where it offers a safe balance between solvency and fire hazard control. Solubility in Aromatic Hydrocarbons: Butyl Phenyl Ether solubility in aromatic hydrocarbons is used in resin formulations, where it enables homogeneous mixing and enhances optical clarity. Color APHA ≤20: Butyl Phenyl Ether color APHA ≤20 is used in the manufacture of specialty coatings, where it guarantees minimal color contamination and improved product appearance. Density 0.965 g/cm³: Butyl Phenyl Ether density 0.965 g/cm³ is used in liquid blending for adhesive production, where it ensures predictable volume integration and consistent mixture properties. |
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In the world of specialty chemicals, Butyl Phenyl Ether stands out for its performance and reliability across demanding applications. I’ve worked in both laboratory and industrial environments, where specifics truly matter—purity, stability, and dependable sourcing weigh more than flashy packaging or generic promises. The real value of Butyl Phenyl Ether comes alive not just in its clear liquid form, but in its ability to adapt to complex tasks without adding confusion or hassle.
Let’s be real—many ethers claim versatility. Butyl Phenyl Ether brings a different attitude. It doesn’t overpromise, and it brings a unique chemical structure that takes the guesswork out of processes, whether you’re in research, manufacturing, or formulating custom solutions for clients. Whenever I’ve run extractions or tackled solvent blend challenges, this ether stepped up to bat, offering strong resistance to reaction conditions while still playing well with common reagents. Its aromatic ring combined with a butyl side chain tweaks the boiling point and solvent power, separating it from typical dialkyl ethers or plain aromatic ethers that just don’t hit the same technical targets.
I’ve handled Butyl Phenyl Ether mostly in its purest form, colorless and carrying a distinct but not overpowering smell. Several technical grades exist, but for high-end labs or quality-driven production lines, purity levels above 99% are the gold standard. The ether boils close to 230°C, which places it in a sweet spot above most aliphatic ethers but below heavy aromatic solvents. This gives flexibility—good for processes where you need both elevated temperature tolerance and controlled evaporation rates. Its compatibility with glassware and standard lab plastics means it never forced me to switch up workflows or worry about container degradation.
Some might write off Butyl Phenyl Ether as a lab-only curiosity, but my experience tells a different story. Industries put it to work in areas you might not expect. As a solvent in organic synthesis, it gently coaxes stubborn substrates into solution, creating a friendlier environment for reactions that bog down with other ethers. In electronics, folks prize it for cleaning and degreasing, especially where residues from heavier solvents risk damaging sensitive parts. Paint and coatings professionals—my neighbor among them—like its balance, slow enough to support even film formation without trapping impurities.
Folks working with extraction processes (think fragrances, essential oils, specialty chemicals) turn to Butyl Phenyl Ether for its smooth partitioning between phases. It holds its own whether the job means drawing out actives from dense slurries or coaxing fine chemicals from raw botanical feedstock. It even finds its way into specialty adhesives as a processing aid, helping to control viscosity while resisting unwanted reactions that other ethers might trigger under pressure or heat.
I’ve had my share of projects stall because solvents either boiled away too quickly or let impurities sneak through. Butyl Phenyl Ether’s temperature profile kept everything on course. Unlike diethyl ether, which flashes off at the first hint of warmth, or diphenyl ether, which can feel bulky and unwieldy, butyl phenyl slot into a “just right” comfort zone—high enough for process stability, low enough to avoid cumbersome energy costs in recovery. It stays inert across a broad pH range, helping keep final product quality stable batch after batch.
When blending solvent systems to tweak solubility, this ether proved less aggressive than chlorinated options—no need to worry about complex disposal or safety headaches. Its evaporation rate also gave more working time during coating or cleaning steps, a small but critical difference for teams working toward precise standards and repeatable quality.
Working side by side with alternatives, the differences show up quickly. Methyl tert-butyl ether throws off an unmistakable odor and brings regulatory baggage around environmental effects. Diethyl ether excites safety teams thanks to its low flash point. Anisole, another aromatic ether, often falls short because its solvent power leaves polar substances out in the cold. Butyl Phenyl Ether, by contrast, avoids these pitfalls with a structure that feels purpose-built for selective dissolving—tackling hard-to-dissolve resins or extracting subtle flavors from botanicals without dragging along excess contaminants.
I’ll never forget a project involving polymer functionalization that kept failing with cheaper ethers. Switching to Butyl Phenyl Ether, the difference in reaction completeness startled my whole team. Monitoring purity before and after the switch backed up what we saw—lower impurities, fewer unwanted byproducts, smoother workup steps. There’s also an economic reality; while the upfront price tags run higher than bulk commodity solvents, we saved more long-term by cutting down waste and reducing rework.
Butyl Phenyl Ether feels familiar to anyone who’s managed hazardous organics yet keeps a solid safety record if handled with standard precautions. Its flash point lands much higher than common low-boiling ethers, creating less risk during transport or storage. It doesn’t corrode metal or degrade labware, easing the burden on facilities managers and technical staff. Still, standard chemical gloves and ventilation make sense, just as they do with any potent organic.
For teams conscious of environmental impacts, it's not as bioresistant as chlorinated solvents or perfluorinated compounds. Smart waste stream management and deliberate disposal keep things responsible, and even smaller outfits can partner with solvent recyclers to shrink their footprint. Clear labeling and solid documentation help trace its route from drum to process to finished product, a habit that pays off during any audit or regulatory review.
Let’s look past marketing claims for a minute. PubChem and the National Center for Biotechnology Information both catalog Butyl Phenyl Ether’s profile—clear data on boiling point, toxicity, and compatibility. I’ve relied on these databases for confirmation before adopting new chemicals. Reports from industrial partners show how its solvent performance leads to cleaner extractions and lower backgrounds in analytical workups, especially where GC-MS or HPLC analysis dictates the need for stable, low-impurity solvents.
Journal articles in organic process research often highlight Butyl Phenyl Ether’s use for coupling reactions or selective phase separations, confirming its niche value when standard ethers or esters fall short. My tech contacts in the coatings field note improvements in flow and finish for advanced architectural finishes, especially where appearance and durability matter in the final product. Even competitors admit grudging respect where speed and safety balance against solvent power.
No chemical solves every challenge, and Butyl Phenyl Ether comes with its own set of trade-offs. Cost makes chemists think twice, especially when commodity solvents tempt budgets. Availability varies—global supply chain hiccups or shifts in regulatory focus can dampen enthusiasm just when momentum builds for a new process.
As for volatility, it avoids extremes but isn’t as forgiving as some glycol ethers in water-laden processes. There’s a learning curve. Teams who rely only on textbook recommendations sometimes miss small procedural tweaks that make Butyl Phenyl Ether sing. Investment in training, clear mixing protocols, and good old-fashioned experimentation unlocks its best properties and guards against avoidable stumbles.
In the face of higher costs, some teams get inventive by recycling spent ether through distillation—conserving supply while minimizing waste. Partnering with reputable suppliers also cushions against supply chain fluctuations. Building relationships with distributors who understand quality control offers better assurance compared to shopping on price alone, something I learned early on while chasing uniform output from different batches.
Documentation helps. Keeping records of batch analysis, solvent usage, and final product results lets teams correlate small changes in sourcing or handling with big outcomes in process consistency. Leaning on technical support from chemical suppliers—most offer application guides and troubleshooting FAQs—smooths bumps in process scaling or unexpected reactivity.
Exploring blends also helps harness Butyl Phenyl Ether’s positives without overcommitting on cost. Combining it with less expensive co-solvents often stretches performance and budget alike. I’ve seen labs pair it with dipropylene glycol dimethyl ether for clever extraction protocols or solvent cleaning that saves both time and money.
My early experiences with Butyl Phenyl Ether stayed mostly in R&D, but the real excitement comes in scaling discoveries to full production. Teams that approach adoption as a process—not a single event—find more success. Piloting new applications using this ether lets process engineers spot wrinkles before they run up against production quotas or regulatory deadlines.
Consistent documentation, safety reviews, and honest assessment of process steps—these build credibility and trust both for regulatory compliance and for upholding quality promises to customers. The difference between a passable batch and an outstanding one often comes down to choosing solvents and process conditions that respond to real-world demands, not just idealized lab tests.
It’s easy to chase after the newest synthetic advance or rush toward trendy “green” solvents—sometimes at the expense of proven solutions. Butyl Phenyl Ether represents a practical compromise. It doesn’t carry the same branding as legacy go-tos like acetone or hexane, but it quietly handles tasks many other ethers or aromatic solvents struggle with. Tackling specialty extraction, polishing electronics, or improving heavy-duty coatings—these are not one-size-fits-all challenges, and generic solutions often leave process engineers frustrated or chasing their tails.
I keep coming back to the simple fact that Butyl Phenyl Ether offers clarity, stability, and repeatability. Colleagues across industries—from small-batch perfumers to high-volume coatings formulators—have found it worth the investment for projects where details make all the difference.
Technical data might set the stage, but field experience turns good choices into smart investments. Butyl Phenyl Ether rewards that hands-on engagement. Whether the job means tweaking a formulation for higher yield, boosting purity in a tight synthesis, or building a solvent blend that tackles “impossible” separations, this ether delivers where others struggle.
I’ve seen the mood in the lab turn from frustration to optimism after one successful trial run. That’s more than chemistry—it’s the difference between spinning wheels and building something that works. Teams who take a few extra steps to understand its properties, review technical documentation, and communicate openly about their goals end up with fewer delays, fewer surprises, and higher quality outcomes.
As industries move toward tighter quality standards, Butyl Phenyl Ether finds new homes. The push for precision in pharmaceutical intermediates favors solvents that minimize side reactions and clean up well. In specialty polymers, solvent choice shapes everything from mechanical flexibility to shelf life—qualities that this ether quietly supports. Analytical labs lean more on solvents with low background noise in sensitive equipment, and Butyl Phenyl Ether checks that box without bringing along volatile contaminants.
Research into new-age battery materials, functional coatings, and biotechnology processes points toward solvents that balance reactivity and selectivity. Butyl Phenyl Ether joins a short list of candidates for these next-generation tasks. Its contributions may not grab headlines, but for technicians and engineers on the ground, those steady properties mean more successful experiments and more consistent end products.
Trust in chemicals comes from transparency. Suppliers who share safety information, batch-specific data, and application notes make it easier to choose the right grade and process conditions. I’ve seen the best results from companies that offer open lines of communication—sharing successes and failures alike, and helping find creative solutions for unique process needs. While no one chemical offers a magic fix, clarity in product information goes a long way toward building confidence and ensuring that Butyl Phenyl Ether matches real-world requirements.
The broader conversation around sustainable chemistry includes responsible sourcing and thoughtful waste management for all solvents, not just the obvious troublemakers. Teams that treat Butyl Phenyl Ether as part of a holistic approach—not just a consumable—position themselves to navigate regulatory reviews and environmental concerns without costly changes down the road.
Much of what’s written about specialty solvents reads like a catalog or a technical regulatory document. That misses what matters most on the floor or in quality control: Does the product actually make life easier? Will it make a real difference at scale, and can teams rely on it to back up quality claims? From my years working across research and industry, Butyl Phenyl Ether fits those criteria.
Before jumping on new chemical trends, it’s worth a closer look at reliable, thoughtfully produced solvents that actually solve pressing problems. It’s not the flashiest name in the catalog, but it often secures cleaner reactions and higher yields for those who really dig into what their process needs. Practical, steady, and built to support progress—those qualities matter most, and Butyl Phenyl Ether keeps delivering for those ready to put in the effort to understand and use it well.