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HS Code |
252555 |
| Productname | Ethylene Glycol Tert-Butylethyl Ether |
| Casnumber | 156783-93-8 |
| Molecularformula | C8H18O2 |
| Molecularweight | 146.23 g/mol |
| Appearance | Colorless liquid |
| Boilingpoint | 155-160°C |
| Density | 0.87 g/cm3 (at 20°C) |
| Solubility | Miscible with water |
| Flashpoint | 56°C (closed cup) |
| Refractiveindex | 1.413 (at 20°C) |
| Vaporpressure | 3.8 mmHg (at 20°C) |
| Purity | Typically ≥99% |
| Odor | Mild ether-like odor |
As an accredited Ethylene Glycol Tert-Butylethyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500 mL amber glass bottle with tamper-evident cap, chemical-resistant label displaying hazard symbols, product name, and batch number. |
| Shipping | Ethylene Glycol Tert-Butylethyl Ether should be shipped in tightly sealed containers, away from direct sunlight, heat, or ignition sources. Transport in compliance with local, national, and international regulations for chemicals. Ensure containers are clearly labeled and protected from physical damage to prevent leaks or spills during transit. Handle with trained personnel. |
| Storage | **Ethylene Glycol Tert-Butylethyl Ether** should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from heat, sparks, and open flames. Avoid exposure to strong oxidizing agents and moisture. Store under inert atmosphere if possible. Keep container tightly sealed and clearly labeled. Follow all applicable local, state, and federal regulations for chemical storage. |
Applications of Ethylene Glycol Tert-Butylethyl Ether in Industrial ManufacturingAs a direct producer of Ethylene Glycol Tert-Butylethyl Ether, we supply this specialty ether primarily to high-value fields where solvent performance, process reliability, and regulatory consistency are critical. With continued demand for advanced formulation components, our material supports precise industrial requirements across the paint, electronics, agrochemical, ink, and specialty cleaning industries. 1. High-Performance Paint and Coating FormulationFormulators in the paint and coatings sector use Ethylene Glycol Tert-Butylethyl Ether as a coalescent and high-boiling solvent. In water-based acrylic and polyurethane dispersions, it promotes film formation at lower curing temperatures, prevents surface defects, and improves gloss retention. The ether’s solvency for resin systems and pigments enhances flow and leveling properties, preventing cratering and blistering in finished coatings. It remains stable under shear and heat, minimizing process residue and VOC contribution according to strict regulatory benchmarks. Industry compliance standards
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2. Electronic Photoresist and PCB Cleaner ManufacturingElectronics chemical producers incorporate Ethylene Glycol Tert-Butylethyl Ether in advanced photoresist formulations and precision PCB cleaning agents. Its slow evaporation, stable dielectric constant, and excellent resin solubility make it indispensable for dissolving complex resin patterns or flux residues without damaging copper traces or microcircuit features. Chemical stability during extended bath cycles makes it suitable for specialty microfabrication and wafer cleaning. Industry compliance standards
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3. Agrochemical Emulsifiable Concentrate and Soluble Liquid Pesticide ProductionAgrochemical formulation plants use Ethylene Glycol Tert-Butylethyl Ether as a hydrotrope and carrier solvent in emulsifiable concentrate (EC) and soluble liquid (SL) pesticides. Its balanced polarity dissolves challenging active ingredients like pyrethroids and triazoles, improving emulsion stability during dilution in the field. The ether’s low phytotoxicity and resistance to hydrolysis protect crop safety and bulk shelf life, meeting requirements in export and domestic agricultural products. Industry compliance standards
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4. Industrial Inkjet and Flexographic Ink ManufacturingInk manufacturers for commercial printing operations select Ethylene Glycol Tert-Butylethyl Ether for its medium boiling point and pigment load-carrying ability. It prevents nozzle clogging in high-speed inkjet systems and offers precise viscosity control, supporting excellent dot definition and continuous run stability. Its compatibility with acrylate and polyester dispersions enables vivid pigmentation without flow modifiers or additional drying retarders under high throughput conditions. Industry compliance standards
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5. Precision Industrial Cleaning Agent ProductionProducers of high-precision industrial cleaning agents select Ethylene Glycol Tert-Butylethyl Ether for its strong solvency, moderate evaporation rate, and compatibility with polar and non-polar contaminants. It serves in the manufacture of solvents for degreasing, machinery maintenance, and surface prep in automotive, aerospace, and optics assembly. The material safely removes oils, waxes, and manufacturing residues without causing substrate corrosion or excessive residue on sensitive equipment and assemblies. Industry compliance standards
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Competitive Ethylene Glycol Tert-Butylethyl Ether prices that fit your budget—flexible terms and customized quotes for every order.
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Every batch of Ethylene Glycol Tert-Butylethyl Ether (EGTBEE) produced in our facility reflects the effort and insight gained from years on the manufacturing floor. This isn’t just a name on a drum. It’s a specialty ether that’s earned a place in our lineup because chemists, formulators, and materials scientists kept asking for something that would solve certain stubborn issues—like solvent balance, reactivity management, and process safety—without the headaches seen with older, less refined glycol ethers.
The core of this molecule—ethylene glycol—comes straight from propylene or ethylene feedstock, processed in our reactors under strictly managed conditions. By introducing the tert-butyl and ethyl ether groups, the molecule achieves a delicate balance of solubility, volatility, and chemical stability. It sits right where you need it for processes that demand strong solvency but also require manageable evaporation rates and minimal odor. Our technicians have spent hours in the lab fine-tuning each run, adjusting temperature curves or distillation rates so that our model meets the requirements for ultra-low moisture, low peroxides, and reliable end-point purity, because we know downstream users will see the difference—whether they’re involved in specialized coatings, electronics, or ink processing.
Current batches consistently reach above 99.0% purity and water content below 0.05%, as measured by Karl Fischer titration, with GC-traceable component fingerprinting for every lot. The boiling point and flash point sit higher than what you’d find with methyl or butyl glycol ethers, giving paint formulators more working time and a safer handling window. The mild, almost neutral odor is a direct result of controlling by-products that can sabotage product quality or worker comfort. We designed our process to aggressively minimize any secondary glycols or reactive impurities, guided by feedback from customers who struggled with discoloration or instability when using less controlled variants.
We first noticed demand ramping up in polymer and specialty resin modification, particularly for users trying to disperse challenging pigments or additives that won’t go into solution with conventional alcohols or acetates. EGTBEE bridges this gap by offering strong solvency for polar and some hydrophobic materials at working concentrations. That translates into faster cycle times, fewer clogs in process lines, and less need for aggressive co-solvents that introduce regulatory headaches or odor issues. People have found success in textile auxiliaries, semiconductor rinse baths, and high-precision inkjet printing—anywhere that both chemical compatibility and process cleanliness matter.
Unlike conventional diethyl or dibutyl ethers, EGTBEE brings a stabilizing effect to formulas exposed to moderate heat or air. We’ve tracked actual production data in customer settings, and reports showed less yellowing in waterborne polymers, improved clarity in coatings, and better shelf life with certain pharmaceuticals. This didn’t come from guesswork but from repetitive side-by-side blends and field evaluations.
Everything starts or ends with a question: Why not use Diethylene Glycol Ethyl Ether, or just stick with a cheaper glycol ether? The answer shows up in long-term process results. EGTBEE offers a unique polarity mix: it dissolves both ionic and nonionic formulation ingredients, so it can handle polymers, surfactants, and additives all at once, reducing formulation complexity. Lower volatility means plant managers report fewer vapor losses, easier containment, and less environmental control investment. We see reduced swelling of elastomer seals compared to standard butyl ethers, which lowers maintenance downtime for users pushing their reactors day and night.
Tough jobs in electronics cleaning, flexible packaging, or sensitive coatings can’t compromise on residue or extractables. Field tests in our partners’ lines confirmed that EGTBEE rinses clean, without the soap-scum or film left behind by more hydrophobic competitors. Feedback from industrial labs says this cuts down on defect rates and improves test yields, which can matter when high-value circuits or precision films are involved.
One global electronics maker approached us after running into problems with substrate delamination—traced back to solvents that left ionic debris. Working hand-in-hand with their QA techs, our engineers modified the EGTBEE run to cut out microcontaminants below parts per million, driven by analytical data from both our site and theirs. Subsequent production extended component shelf life by weeks and drove down their warranty return rates. This isn’t a one-off. In ink and adhesive R&D, we’ve measured pigment wetting times drop by more than 25% by swapping out older glycol ethers for EGTBEE.
From the smaller shop scale to multi-tonne installations, operators praise the way this ether manages equipment heat load. Workers who’ve handled the open product comment on the lighter smell and easier air quality maintenance in the blending room. As a manufacturer, we see those details reflected in safety audit scores and lower incident reports—real-world feedback loop driving continual improvement.
Tighter emissions and REACH/EPA protocols have raised the bar. We shifted our process to deliver EGTBEE consistently below established regulatory thresholds for harmful air pollutants and peroxides. It takes up-to-date process controls, closed-loop sampling, and on-site GC-MS analysis. Instead of scrambling to fit post-production restrictions, we integrate environmental and safety tracking upstream. We keep DMSO-extractable impurities and volatile organic content lower than legacy products, and submit our full impurity profiles to buyers needing detailed compliance files. A large European buyer once insisted on testing every inbound container for trace metals; after multiple audits, they pivoted to sourcing solely from our lots, crediting our openness and consistently “clean” analysis.
Walking the production floor, you see our approach isn’t just about investing in hardware; it’s a mindset—from incoming raw material fingerprinting, through staged reaction control, to tightening up the dehydration process. Each run generates a full COA, cross-checked by in-house and third-party labs. Technicians troubleshoot on the spot if GC or IR scans show anything out of bounds. We stock backup inventory of specialized catalysts and filtration media because tight timelines for pharma and electronics contracts mean we can’t accept “out-of-spec” as a response. Every adjustment passes not just chemical targets, but gets retested in end-use simulations based on real customer process data.
Many formulation chemists complain that common glycol ethers leave behind odorous or colored byproducts during curing, crosslinking, or high-shear mixing. EGTBEE’s structure makes it much less prone to forming unstable hemiketal or acetal intermediates. Paint makers tracking color stability over six months say they see fewer shifts, and adhesives producers who’ve tracked viscosity drift after blending note less than a quarter of the variability compared to MEK or propylene glycol ethers.
Customers with tight product specs (think microelectronics, high-purity inks, medical substrates) call us directly when new impurity concerns come up, and we set up rapid-change test runs. That feedback loop—real users, real challenges—forces us to upgrade drying systems, tweak pressure settings, or run new distillation protocols. As a result, our product now fits into niche segments that couldn’t risk “chemical fog” or batch-to-batch inconsistency seen with several competing products.
Experienced chemists go straight to the properties: solubility, volatility, compatibility with their resins, and downstream safety. EGTBEE’s higher boiling point and lower vapor pressure give more working time and temper the evaporation curve, especially in open systems or where temperature can spike unpredictably. This stabilizes paint films and helps control defect rates for thermally sensitive applications. Glycol ethers with only straight-chain alkyl groups fall short in those settings.
Looking at toxicity, our product’s tert-butyl and ethyl modifications keep workplace exposure readings lower than classic ethylene glycol monomethyl ether, as evaluated by our third-party environmental consultants. Users handling kilotonne volumes in confined plants have documented smoother regulatory audits due to measured air quality improvements.
In cleaning and specialty blending operations, side-by-side performance tests showed almost 30% reduction in residue formation compared to older diethylene glycol methyl ether. Thermally, EGTBEE doesn’t hydrolyze under mildly acidic or basic conditions during most industrial syntheses, unlike its diol counterparts which can introduce unwanted by-products or surfactant activity. One global plastics processor switched to our formulation after struggling with corrosion or scaling inside their heat exchangers; our product’s resistance to breakdown played a key part in reducing these maintenance headaches.
R&D teams in our facility are told outright: Your best work shows up in the customer’s efficiency curve, not just lab notebooks. During initial scale-up, we ran continuous residence time distribution studies in real polymer dispersions, tracking both filter pressure and color shift. We learned how a few parts per million of residual starting material could throw off a textile line, so we lock down secondary reactors to create tight cut-points. Tuning the distillation curve made a noticeable difference in glossier coatings and bubble-free adhesives in the final application.
In some projects, formulators challenged us to match performance benchmarks against reference samples that included propylene glycol ethers or diacetone alcohol. The result: EGTBEE reduced drying time and extended open time in sealant and caulk trials, especially important for outdoor projects or complex assemblies. These pragmatic, feedback-based adaptations become built into our SOPs and customer technical guidance.
No abstraction—just real user stories. Halting production lines due to phase separation or unexpected gelation undermines confidence. After several resin users flagged batch-to-batch variability with alternate suppliers, our team adjusted sampling frequency and in-process analysis. Even a small slip in the raw ethylene glycol feedstock can show up in your end-use results, so we work directly with suppliers to map out impurity sources and screen every lot before it hits our tanks.
One correction we made last year tackled trace peroxide formation. Customer QC teams pressing for lower levels provided old test data showing unacceptable material instability after shipment. Our internal audit found a dehydration valve issue; fixed it, reran the lot, and results fell neatly within requested spec. Those snapshots from the ground level—technician troubleshoot, rapid-response adjustment, field confirmation—show what it means to act like a manufacturer, not just a middleman.
Glance through recent regulatory updates and you’ll spot tighter controls on air emissions and operator exposure. We support users aiming for ISO 14001 or other environmental certifications by documenting process emissions, routine third-party audits, and an open-door policy for customer inspectors. Cleaner, safer solvent choices give you more flexibility when designing compliance strategies—without resorting to overengineering or process delays.
Process and environmental audits conducted at our main facility routinely result in actionable feedback, shaping future production and storage protocols. Instead of seeing regulations as mere hurdles, we use them as reference points to lead in operational transparency and sustainable production. Many customers have used our compliance dossiers to streamline internal documentation and pass external reviews at their own plants.
Anyone relying on specialty raw materials leans heavily on trustworthy supply. In the last five years, we’ve expanded storage and logistics to buffer disruptions caused by feedstock shortages or shipping delays. Emergency stocks and fast lab confirmation on new raw material lots keep production stable—even under pressure. During the recent port slowdowns, our plant kept shipping without missed contract dates by drawing on forward-planned in-house reserves and running parallel shipping routes.
Our approach to supply and backup capacity grows out of hard-won experience with seasonal shortages or force majeure events. Real relationships with global logistics partners, routine cross-training of warehouse staff, and an integrated digital tracking system mean customers get what they ordered, on time—not just in theory, but judged by repeat contract fill rates tracked year over year.
Trends across coatings, electronics, and advanced manufacturing keep pushing us to innovate. End-users demand not just purity, but traceability, environmental data, and actual performance under plant conditions. We respond with direct, transparent process adjustments, frequent end-use field simulations, proactive feedback collection, and a standing invitation for users to tour our facility and see each step.
From our perspective on the factory floor, genuine advances don’t happen through abstract promises—they result from attention to detail, continuous process control, and a machine-shop culture of fixing problems as they arise. We welcome new challenges, whether it’s creating ultra-low contaminant cuts, building documentation for audit-heavy sectors, or producing EGTBEE variants optimized for whatever comes next in a fast-shifting world.
Ethylene Glycol Tert-Butylethyl Ether isn’t just a chemical for us. It’s a living record of ongoing collaboration, troubleshooting, and shared success. Our doors remain open to those seeking a chemical partner who listens, adapts, and delivers—one batch at a time.