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HS Code |
287811 |
| Chemical Name | Tert-Butyl Ethyl Ether |
| Cas Number | 637-92-3 |
| Molecular Formula | C6H14O |
| Molecular Weight | 102.17 g/mol |
| Appearance | Colorless liquid |
| Boiling Point | 93-94 °C |
| Melting Point | -115 °C |
| Density | 0.74 g/cm³ at 20 °C |
| Solubility In Water | 15 g/L (20 °C) |
| Flash Point | -23 °C (closed cup) |
| Vapor Pressure | 150 hPa (20 °C) |
| Refractive Index | 1.373 (20 °C) |
As an accredited Tert-Butyl Ethyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Tert-Butyl Ethyl Ether is packaged in a clear, 500 mL amber glass bottle with a secure, leak-proof plastic cap and hazard labeling. |
| Shipping | **Tert-Butyl Ethyl Ether** should be shipped in tightly sealed containers, protected from heat, sparks, and open flames. Handle as a flammable liquid, complying with hazardous materials regulations (UN3295, Class 3). Use appropriate labels and ensure ventilation during transport. Store upright and prevent leaks or spills. Avoid contact with oxidizers. |
| Storage | Tert-Butyl Ethyl Ether should be stored in a tightly closed, clearly labeled container in a cool, dry, well-ventilated area away from heat, sparks, open flames, and incompatible substances like strong oxidizers and acids. Protect from direct sunlight and moisture. Use explosion-proof equipment and take precautions to avoid static discharge. Regularly check containers for leaks or deterioration. |
Applications of Tert-Butyl Ethyl Ether in Industrial ManufacturingTert-Butyl Ethyl Ether (ETBE) serves as a specialized intermediate and fuel additive in several advanced industrial manufacturing contexts. As an original producer, we deliver ETBE conforming to stringent sectoral standards, and our experience collaborating with direct end-users ensures every application reflects verified practice within the appropriate downstream environment. 1. Reformulated Gasoline Blending in Fuel RefiningMajor petroleum refineries integrate ETBE to increase the octane number, reduce engine knocking, and meet international low-emission fuel specifications. The additive acts mainly as an oxygenate, supporting compliance in markets shifting away from methyl tert-butyl ether (MTBE), especially where aromatic reduction and bio-component mandates apply. ETBE's physical and chemical characteristics enhance blend stability through critical storage and distribution phases. Industry compliance standards
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2. High-Purity Extraction Media for Industrial LaboratoriesChemical processing plants and contract analytical laboratories use ETBE as a high-boiling, low-toxicity organic extraction solvent. Its selective solubility profile facilitates efficient isolation of polar and non-polar compounds from aqueous or mixed-phase samples, particularly in calibration-standard preparation and sample cleanup prior to chromatography or mass spectrometry characterizations. End users value ETBE's reduced water miscibility compared to classic ethers. Industry compliance standards
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3. Intermediate for API Synthesis in Pharmaceutical ManufacturingPharmaceutical synthesis facilities adopt ETBE as a reaction medium or dehydration agent for selective organic transformations, including alkylation, deprotection, or extraction of intermediates within active pharmaceutical ingredient (API) manufacturing. Its preferential azeotropic behavior and moderate polarity support specific batch and continuous reaction protocols with minimal degradation under controlled conditions. Industry compliance standards
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4. Specialty Resin and Polymer Modification in Plastics ManufacturingProducers of high-transparency plastics and technical resins employ ETBE as a modifier to adjust glass transition temperature and improve processability in select copolymerization sequences. The ether participates transiently to create more flexible or chemically resistant structures, especially for cast sheet, extrusion, or precision molding feedstocks. Continuous process lines appreciate its rapid volatilization and low carryover into finished products. Industry compliance standards
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After years producing a range of oxygenated solvents, we recognize the growing value of Tert-Butyl Ethyl Ether (TBEE) in fields where performance and environmental responsibility intersect. Decision-makers in refiners, blenders, and specialty chemical operations see ether derivatives as central to streamlined processes, meeting cleaner air demands, and unlocking efficiency gains that legacy products struggle to support. Our TBEE emerges as a modern answer, helping keep pace with emission targets, while upholding the critical properties demanded by large-scale industrial chemistry.
We manufacture TBEE with a clear 99.5% minimum assay, a water-clear appearance, and peroxide levels well within established limits. This careful attention to purity comes from regular feedback and years spent optimizing modern distillation columns. The end result for our partners is a reliable, uncontaminated product that behaves predictably day after day. Every tank that leaves our facility has been checked against internal standards that beat universal norms – not just because regulations say so, but because in our experience, product reliability smooths every part of our clients’ operations.
In processes demanding oxygen-enrichment and volatility control, TBEE stands out. The molecular engineering baked into TBEE (C6H14O) increases its octane-boosting capabilities, outperforming decades-old additives and opening new possibilities in custom blending. For gasoline blending, TBEE can raise research and motor octane, bringing the finished fuel into line with anti-knock specifications and maximizing energy distribution through the fuel rail. In paints, cleaning formulations, adhesives, and specialty extraction lines, TBEE carries solvation strength that pairs with lower moisture absorption; it resists the tendency to soak up water compared to methyl tert-butyl ether (MTBE) or ethyl tert-butyl ether (ETBE).
We manufacture various ethers, including MTBE and ETBE, and have studied their comparative effects on performance, blending economics, and regulatory positions. In practice, TBEE’s lower water solubility translates to less risk when contact with ground or process water is unavoidable, cutting off a major contamination vector associated with MTBE. Refineries prefer this property, especially in aging plants and logistical networks with at-risk storage tanks. TBEE also has a higher boiling point than MTBE, limiting evaporative emissions under typical blending plant conditions and making handling somewhat safer for operators and adjacent communities.
Liquids with cleaner burning profiles also shape operating margins for our customers. Adding TBEE to gasoline supports both Euro-6 and US EPA emissions limits by tipping the blend toward higher oxygen content — directly reducing carbon monoxide and certain unburned hydrocarbon releases in engine exhaust. MTBE and ETBE provide similar chemistry but miss the mark when residual water content or strict volatility ranges must be guaranteed. This helps explain why manufacturers like us have shifted tank space and logistics support to keep TBEE supply consistent, ensuring both scheduled supply contracts and spot orders for customers piloting new fuel recipes.
Through long partnerships with downstream refiners, we have seen blending teams prefer TBEE when they require adaptability in octane enhancement strategies. Blenders running smaller batches frequently pivot between feedstocks, particularly as regulations and regional standards keep changing. TBEE allows for high-level adjustability without bringing in the excessive water scavenging or volatility of other ethers, providing a buffer zone for engineers balancing multiple inputs. In our own laboratory trials, introducing TBEE produced less phase separation and emulsion formation than direct competitors, especially under cycling temperature profiles typical in bulk plants.
For specialty and fine chemical manufacturers, purity and stability are not optional. TBEE formulated to our quality standards allows syntheses involving oxygen-sensitive compounds to proceed with fewer off-color impurities. Saponification, oxidation, and carbonylation reactions using TBEE show smoother kinetic profiles, consistent yields, and more controlled pressure events than MTBE-managed approaches. Engineers running scale-up trials trust TBEE’s consistency, which has emerged from close dialogue between our process technologists and customer quality teams, refining repeatability across batches big and small.
Early on, MTBE won support in North America and Europe as a clean-fuel oxygenate. Still, as environmental authorities tracked increasing traces in drinking water and groundwater, limits tightened. TBEE, with lower water solubility and higher partition coefficients, entered the scene offering a sharper environmental profile. Today, regional standards tolerate TBEE where MTBE would trigger compliance headaches or require expensive remediation planning. Many fuel marketers who previously scheduled multiple EHS reviews for each incoming tank of oxygenate now simplify oversight using TBEE, reducing insurance costs and freeing resources for real work in blending or distribution.
Cleaner-burning credentials carry influence in public policy and market image. TBEE fits the bill, helping end users score higher on renewable or cleaner fuel indices while limiting the logistical and remediation spend tied to groundwater releases. Over time, our operations teams have watched how TBEE reduced total VOC loss from field tanks and shipment vessels compared to the lighter, more volatile MTBE. The less frequent need for tank reconditioning and vapor management translates into tangible cost drops, especially for those running distributed depot networks.
We continually gather and close the loop between our plant teams and downstream users. These front-line reports reveal where operational reliability is either supported by or lost due to product consistency. TBEE’s more predictable volatility window streamlines the calibration of blending operations, especially when weather conditions change quickly or storage tanks see cycle temperatures that can range widely over the course of weeks. Losses due to flash vaporization shrink with TBEE, and employees responsible for inventory tracking can reconcile tank readings faster, with fewer corrections.
Anyone who has spent time running continuous blending trains knows the headache of cleaning valve seats and transfer lines fouled by ethers pulling in too much water. By maintaining a drier profile, TBEE saves time in system purges, extends the life of seals and packing, and reduces downtime for troubleshooting. Customers running modern, high-speed bottling lines and drum-filling assets receive the added benefit of TBEE’s minimal residue formation, which helps keep operational flows steady and reduces periodic cleaning cycles.
TBEE does not operate as a solo act; most plants consider its place within larger formulation strategies. Fuel engineers, cleaner manufacturers, and chemical producers use TBEE both as a primary oxygenated compound and as a co-solvent, working to tailor blends for specific end-uses. In our own work developing custom blends, we have used TBEE with various alcohols and ethers, tracking cloud point and separation tendencies along the way. TBEE’s moderate polarity and limited water affinity help keep multi-component blends stable, a key consideration for those shipping concentrates or pre-blends to regions with different ambient conditions and distribution lead times.
The compatibility of TBEE with API Group II and Group III base stocks enables lube blenders to create new high-performance fluids that resist varnish and sludge formation. Surfactant and polymer dispersion blends using TBEE see improved solvency — critical for operations where pigment or resin loading must be high but filtration and pump blockages must be kept to a minimum. Plant chemists have told us this property enables expanded formulation latitude, opening possibilities for products not feasible under the constraints of legacy additive packages.
Modern production lines must reliably handle raw material quality swings, blending errors, and environmental load changes. Our experience shows that the relatively low corrosivity and non-reactivity of TBEE toward mild steel and most polymer linings grants flexibility in tank and pipeline specification, reducing conversion expenses compared to more aggressive reagents. Operations managers can utilize their existing infrastructure for years with few upgrades, since TBEE supports standard unloading, blending, and packaging equipment without special modifications.
Our own internal distribution runs highlight TBEE’s favorable palletization, transfer, and bulk shipping properties. Loading crews move drums and IBCs efficiently thanks to the absence of sticky residues or problematic high-vapor pressures. Logistics managers eliminate delays tied to excessive permitting or on-site remediation, since TBEE’s regulatory profile sidesteps many of the strictures that closed MTBE movements through sensitive areas. Customer support requests drive further improvements, ensuring that plant-to-distributor and final-use connections stay robust, especially in higher-throughput fuel terminals or chemical parks.
Many market entrants treat ether production as a sidelined specialty. We have made TBEE a core product line, running consistent output rates and repeatable turnover schedules. This approach reduces the risk of cross-contamination — a persistent industry pain — and tightens the bounds for trace metals, scaling agents, or process left-overs. Each lot comes with full tracing back to plant run and laboratory batch, with direct access for auditors or blend formulation chemists. Years of customer audits confirm that our approach has nearly eliminated batch-to-batch off-grade incidents; as a result, processors and packagers enjoy tighter operating windows and less material wastage.
TBEE’s antifouling properties go beyond its molecular backbone and into the real-world maintenance schedules at blending plants. Cleaning intervals shrink for pipelines and reaction vessels, and scheduled downtime for high-pressure cleaning or chemical decontamination reduces, as we hear directly from plant maintenance leads. Many mid-size clients run pilot programs for new oxygenates and then pivot to adopting TBEE plant-wide — not out of contractual obligation, but because continuous improvement and bottom-line health demand simple, reliable solutions.
In the solvents and cleaning segment, TBEE enables new product launches that previously required more hazardous or environmentally problematic agents. Its balanced solvency profile works for heavy-duty degreasers, electronic cleaner substrates, and extraction fluids targeting both polar and non-polar soils. Bulk users report that workplace exposure limits for TBEE are easier to meet with existing ventilation compared to ethers with higher volatility, limiting the need for expensive upgrades in legacy facilities.
Adhesive manufacturers turn to TBEE to help achieve fast drying and strong solvent welding without the instability risks of faster-evaporating ethers. Its delayed evaporation window supports longer open times during assembly, balancing throughput with bond integrity. As the adhesives and packaging industry looks for low-odor, lower-emission alternatives, TBEE becomes increasingly valuable in modern product portfolios. Paint formulators have found TBEE helps disperse difficult pigments, maintains viscosity controls through seasonal swings, and keeps shelf-stable concentrates looking and performing well right to the last drop.
Custom synthesis and contract manufacturing partners seek an oxygenate that performs at pilot scale and transitions smoothly to production. We have supported these teams with analytical guidance, batch-size flexibility, and reserve capacity to address the unpredictable spikes in demand that often mark the rollout of new specialty projects. TBEE’s compositional stability allows chemists to replicate small-scale successes with full plant-scale output, removing the need for recoding process recipes or scrambling for alternative feedstocks mid-project.
Regulatory compliance in TBEE applications does not end at the gate. Our compliance experts track global listings and evolving rules, providing importers and formulation developers with clear, actionable intelligence so that all downstream products avoid regulatory surprises. By investing in both technology and people, we stay at the cutting edge of how TBEE figures into environmental, health, and consumer safety frameworks worldwide. When a new product needs to ship across multiple markets, that consistency supports on-time launches and helps preserve both reputation and margin.
Our role manufacturing TBEE is not only anchored in process know-how, but also in a broader commitment to driving down emissions, waste, and cost for partners navigating increasingly demanding business and regulatory landscapes. Each year, we reinvest in process control upgrades and advanced in-line monitors to further narrow specification windows and reduce out-of-spec risks at every stage. Responsible waste handling – not only for finished product but for every process effluent, vent, and off-gas – stands alongside tight product testing in our daily practice.
Market feedback, site audits, and ongoing collaboration with downstream operations keep us vigilant for new challenges and drive our commitment to helping clients realize the full value of innovative oxygenates. As large-scale blending lines operate ever closer to environmental and economic margins, TBEE gives refiners and chemical manufacturers the flexibility, consistency, and reliability essential for the next generation of cleaner, high-performance products. After decades spent walking the factory floor and collaborating with engineering and process teams worldwide, we see the practical, everyday benefits TBEE delivers. Industry change happens fast, but thoughtful innovation combined with deep-rooted operational expertise ensures that TBEE will continue to play a central role as markets push for lower emissions, greater resource stewardship, and tighter production discipline.