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HS Code |
636156 |
| Cas Number | 623-55-2 |
| Molecular Formula | C6H14O3 |
| Molecular Weight | 134.17 g/mol |
| Iupac Name | 2,2-diethoxyethanol |
| Appearance | Colorless liquid |
| Boiling Point | 167-169°C |
| Density | 0.918 g/cm3 at 20°C |
| Melting Point | -64°C |
| Solubility In Water | Miscible |
| Flash Point | 60°C (closed cup) |
| Refractive Index | 1.4092 at 20°C |
As an accredited 2,2-Diethoxyethanol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 2,2-Diethoxyethanol is supplied in a 500 mL amber glass bottle, sealed with a screw cap, and labeled with hazard symbols. |
| Shipping | 2,2-Diethoxyethanol should be shipped in tightly sealed containers, protected from moisture and incompatible substances. Transport under cool, dry conditions with proper labeling, and follow all relevant regulations for handling organic chemicals. Ensure packaging prevents leaks and complies with local and international chemical transport guidelines to guarantee safety and integrity during transit. |
| Storage | 2,2-Diethoxyethanol should be stored in a cool, dry, well-ventilated area away from sources of ignition, heat, and incompatible materials such as strong oxidizers and acids. Keep the container tightly closed and properly labeled. Use chemical-resistant containers and avoid exposure to moisture. Store at ambient temperature and avoid direct sunlight to maintain chemical stability and prevent decomposition. |
Applications of 2,2-Diethoxyethanol in Industrial ManufacturingAs a manufacturer dedicated to supply-chain consistency and technical transparency, we focus on enabling downstream customers to achieve targeted production outcomes with 2,2-diethoxyethanol. This raw material supports industrial applications demanding controlled evaporation, solvency, and compatibility with advanced manufacturing processes. Please refer to the scenarios below for in-depth industry integration details. 1. Printing Ink Solvent SystemsPrinting ink formulators leverage 2,2-diethoxyethanol for its balanced evaporation rate and solvency, especially in flexographic and gravure systems. Its unique polarity enables controlled dilution and viscosity adjustments, delivering optimized pigment dispersion, drying time, and substrate adhesion, particularly on films and foils. Manufacturers select this co-solvent to reduce phenomena such as ink-setoff, blocking, and rewetting failures, as demanded by high-speed printing operations. Industry compliance standards
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2. Coatings for Electronics and Electrical ComponentsProducers of conformal coatings, varnishes, and encapsulants for printed circuit boards and electronic assemblies use this raw material to regulate film formation, wetting, and adhesion. The chemical assists with defect-free deposition of insulating layers on complex geometries, critical for reducing microvoids and pinholes that trigger electrical malfunctions. Engineers value the ability to fine-tune flow characteristics and application window during both dip and spray processes, reducing rework rates in automated production lines. Industry compliance standards
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3. Industrial Cleaning and Surface Preparation AgentsManufacturers of metal and glass surface preparation fluids choose this glycol ether for its strong solvency towards greases, oils, and resinous contaminants. Its miscibility profile supports formulating neutral-pH cleaners meeting workplace safety restrictions while ensuring effective residue removal ahead of painting, coating, or adhesive bonding steps. This enables controlled surface activation without streaking or corrosion risks – essential in automotive, appliance, and machinery assembly lines. Industry compliance standards
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4. Synthesis of Fine Chemicals and IntermediatesChemical manufacturers apply 2,2-diethoxyethanol as a specialty reagent and protected glycol intermediate, valued for its stability under acidic or basic catalytic conditions. It functions as a building block in producing acetal-protected molecules, pharmaceutical starting materials, or as an intermediate for solubilizers, plasticizers, and stabilized additives. The distinct ethoxy functionality allows chemists to control hydrolysis and esterification steps via temperature and pH, resulting in high-yield, low-byproduct reactions under validated batch or continuous processing protocols. Industry compliance standards
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5. Brake Fluid and Hydraulic Fluid FormulationProducers of DOT-class brake and hydraulic fluids select this ingredient as a secondary glycol ether to achieve low-temperature flow properties and water tolerance. It enhances the volatility profile and miscibility of brake fluid concentrates, contributing to longevity, anti-corrosion properties, and compatibility across rubber and metal system components. Formulators control the concentration based on additive packages and viscosity adjustment, prioritizing performance per ISO and SAE fluid specifications. Industry compliance standards
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Competitive 2,2-Diethoxyethanol prices that fit your budget—flexible terms and customized quotes for every order.
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Producing specialty chemicals involves more than mixing raw materials in a reactor. Success comes from understanding both the chemistry and the reality of customer needs. 2,2-Diethoxyethanol, known by its CAS number 112-36-7, occupies a well-defined niche among glycol ethers. As a manufacturer, we recognize its significance in formulations demanding high solvency and controlled reactivity, as well as those where minimal water content and stable ether functionalities matter. Our production lines deliver 2,2-Diethoxyethanol under the trade model DEE-422. The typical batch features purity above 99%, moisture at trace levels (often less than 0.1%), and low acid content. Packing under inert gas in either steel drums or bulk containers, we minimize the risk of hydrolysis and degradation during transport and storage.
Quality in specialty glycol ethers always extends beyond the purity assay on a certificate of analysis. Trace contamination—organic acids, aldehydes, water—can influence a downstream polymerization or coating system more than the solvent content itself. In polyvinyl resins or cellulose derivatives, a few tenths of a percent of excess water may affect film formation or shelf life, leading to unpredictable performance and higher reject rates. In our production facility, we combine fractional distillation techniques and analytical controls (GC, KF, titrations) so each container has a consistent water content profile and minimal by-products. Any deviation gets flagged by our QC team. Over years of production, we have found that even subtle changes in purity levels can lead to significant cost implications for users: more off-spec batches, increased process downtime, or unexpected product returns.
Scaling up 2,2-Diethoxyethanol production differs from making lower alcohol ethers or bulk glycols. Raw material selection for ethanol, acetaldehyde, and catalyst grades has to align both with regulatory standards and downstream user requirements. During the acetalization reaction, maintaining strict moisture controls reduces diol side-product formation. Purification then becomes the heart of the process. Vacuum distillation at carefully monitored temperatures prevents color-forming impurities and hydrolysis. Our long-term operators know, from direct experience, the consequences when temperature drift or pressure loss occurs: rapid impurity buildup and increased rework. This technical history—rooted in hands-on troubleshooting, not textbook theory—builds confidence among customers aiming for consistency.
Over the past decade, customers have taken 2,2-Diethoxyethanol far beyond basic solvent applications. Our main supply flows into industries formulating specialty lacquers and resins, where the slow evaporation and solvent strength help produce smooth, high-gloss finishes. The glycol acetal structure offers stability that pure alcohols or glycols do not provide, so manufacturers working with sensitive polymers value its low reactivity under normal processing conditions. Formulators in the electronics sector buy our product for its proven performance in photoresist stripping and cleaning solutions, where polar and non-polar residue removal both matter. Paint removal systems, specialty adhesives, and agricultural formulations have all used this molecule as a key processing aid.
Experience informs us not all buyers use 2,2-Diethoxyethanol as a simple glycol substitute. Its volatility, miscibility with both organic and some aqueous systems, and resistance to oxidative breakdown give unique process flexibility. End-users who tried switching to lower-cost alternatives—a common temptation in commodity chemicals—often report back about compromised product quality or extra formulation headaches. It is not enough to offer a technical data sheet; each application requires open feedback from customers and real-world adjustments on the manufacturing side.
Within our lineup of glycol ethers, 2,2-Diethoxyethanol stands apart from common products like ethylene glycol ethers or simple diols. Traditional 2-ethoxyethanol or monopropylene glycol work well where their polarity or hydroxy groups can participate in hydrogen bonding or blend naturally into water-based solutions. In contrast, the acetal structure of 2,2-Diethoxyethanol brings both hydrophobic and hydrophilic properties. This often gets reflected in the way our customers tackle highly specialized tasks—those requiring delayed evaporation, soft solvency, and low reactivity with acids or bases. Unlike other ethylene glycol derivatives, it resists breakdown in alkaline detergents or acidic formulations, minimizing degradation in storage or application.
Over years, we observed the molecule’s dual nature matters when customers deal with both regulatory and performance concerns. VOC reduction targets for coatings or ink production continue to grow stricter. The lower acute toxicity of 2,2-Diethoxyethanol compared to older glycol ethers, along with its stable handling profile, regularly gets cited by plant EHS managers as an advantage in both compliance and site safety. Supply contracts for high-end resin manufacturers often specify precisely this glycol acetal to avoid the transient emissions and rapid drying that disrupt product surface quality.
Practical experience often provides the strongest evidence for product choice. Several large paint manufacturers, struggling with unpredictable weathering in outdoor coatings, shifted from standard ethylene glycol ethers to our DEE-422 grade. Lab results only partially forecasted the improvement; real-world field trials highlighted the deeper gloss and film flexibility, especially after prolonged sun and rain exposure. These same users described fewer issues with sediment, less haze, and less yellowing over time.
In another example, an adhesive maker attempted to substitute a lower-priced mixed ether for 2,2-Diethoxyethanol in a high-performance solvent weld application. The trial batches failed: end adhesives exhibited slower curing, stickiness, and poorer bond strength. The lesson was direct; the unique combination of ether and acetal groups allows 2,2-Diethoxyethanol to dissolve and then slowly release key tackifiers, giving the desired open time and final strength. Lessons like these drive our technical lab to work side-by-side with users on formulation tweaks, rather than across an impersonal supplier-customer divide.
The chemical industry faces ongoing pressure for environmentally responsible production and supply. We support these goals while keeping sight of quality and consistency. Our ethanol feedstock sources transition steadily to those with improved CO2 and waste profiles. By optimizing energy usage during fractional distillation and reaction stages, we reduce greenhouse emissions and lower the carbon footprint per metric ton produced. These efforts meet both customer expectations and internal sustainability targets. Many end-users in Europe and North America care as much about consistently meeting REACH or TSCA standards as they do about reducing environmental liability. Prioritizing both leaves less room for greenwashing and delivers true supply chain transparency. Audit teams regularly review our process and benchmark emissions and waste streams so users can document compliance and make informed purchasing decisions.
Continuous investment in process improvements also reduces the percentage of off-spec product and waste generation. Process water from our facilities is carefully analyzed and pre-treated before re-entry into municipal systems. Over the past five years, we cut process water consumption by nearly a third, substantially decreasing the environmental load. By-product streams from our acetalization reactions go through valorization studies to recover solvents or secondary products wherever chemistry allows. We welcome customer feedback on procurement and traceability measures, knowing each suggestion sharpens both our quality program and environmental stewardship.
Every specialty chemical buyer values a reliable, predictable product supply. Yet, the world does not operate in textbook environments. Shipping delays, regional policy changes, and unforeseen process hiccups all introduce risk to continuous supply. As a manufacturer, our role involves more than filling orders. We communicate proactively with buyers when changes to feedstock availability, packaging norms, or regulatory classifications arise. During recent global transportation disruptions, we worked in close coordination with key clients, adjusting shipping schedules and offering alternative stocking options to avoid plant stoppages. This “boots on the ground” approach enables problem-solving at the operational level—long before a small bottleneck becomes a supply emergency.
Customers in specialty coatings and electronics production sometimes require customized approaches to packing or batch sizing. For large-volume users, we can offer tank truck deliveries with nitrogen blanketing to guarantee moisture control. Small-scale or R&D buyers may need half-drum quantities with shorter shelf life guarantees, and we adjust our lot management accordingly. Such flexibility results from years of learning customer routines, not from basic catalog listings.
Protecting 2,2-Diethoxyethanol’s technical value relies on correct handling at every stage from reactor to end-application. Detailed batch records follow each shipment, capturing all critical process data—starting raw materials, distillation temperature profiles, storage histories, and analytic trends—which helps us respond quickly to any client question or audit. Decades in the business show that most issues trace back to breaks in this chain of custody rather than chemistry itself. Employees at all levels, from plant operators to logistics managers, receive regular training on chemical handling, spill response, and cross-contamination prevention to reduce risk at handoff points.
Mislabeling or cross-storing with incompatible chemicals can degrade quality, cause product withdrawals, or expose users to safety incidents. Our facilities take the approach that accountability, not paperwork, is what protects both safety and product integrity. We field technical support staff as the first responders to client concerns, able to troubleshoot both chemical and supply matters drawing on actual production floor experience—not just theoretical training or script reading.
No chemical supplies itself or fits every requirement out of the box. We invest in laboratory and pilot-scale testing, working directly with customers on new process challenges, product launches, and troubleshooting support. Our technical teams regularly receive feedback from users—ranging from batch inconsistencies to unexpected residue or performance changes. This dialogue shapes our internal R&D, guiding projects on improved purification, quality monitoring upgrades, or minor specification adjustments driven by real-user problems, not catalog ideals. Our application lab hosts customers for joint problem-solving, offering test runs, process simulation, and analytical review sessions where confidential product designs can move forward securely.
By focusing on shared learning instead of transactional supply, we deepen our grasp of how 2,2-Diethoxyethanol shapes everything from small prototype runs to global-scale formulations. Feedback loops with major customers in Europe, the United States, and East Asia have led us to refine our product offerings: new packaging logistics, specialized purity grades, or tighter analytical release standards when customer needs evolve. A proven history of technical resolution builds trust over time in the often-volatile chemical raw material market.
Chemical manufacturers face an evolving patchwork of local and international regulations. Our product stewardship team closely monitors regulatory shifts impacting glycol ethers—from permitted product registrations to worker and consumer exposure rules. We maintain up-to-date registration dossiers and provide customers with technical data, safety information, and regulatory affirmations required for their own audit trails. Supply into sensitive markets, including electronics manufacturing or fine chemicals, depends on stability and predictability—any regulatory breakdown can halt downstream production for weeks.
We stay ahead by maintaining dialogue not only with regulatory agencies but also with customer compliance officers and industrial hygienists, ensuring our product information reflects latest risks and responsibilities. Users trust us to inform them of significant regulatory or classification shifts ahead of enforcement deadlines, often supporting their transition measures to compliant alternatives or updated processes. Our own compliance infrastructure—monitoring air emissions, tracking batch traceability, and conducting periodic safety training—supports these demands with real transparency and accountability.
No operation is immune from setbacks. We have learned much more from the few failures than from thousands of routine batches. Missed process adjustments, small packaging leaks leading to hydrolyzed product, or delayed shipments have impacted both users and our own teams. Each incident led us to tighten controls, improve feedback systems, and strengthen cross-functional teams responding to customer complaints. Direct engagement with clients—whether troubleshooting a failed batch run at their site or conducting joint investigations—makes it possible to solve root causes, not just treat symptoms with paperwork or discounts.
Repeat business shows customers value honesty and fast, technically grounded support as much as consistent supply. Large resin or adhesive manufacturers sometimes benchmark against suppliers’ process safety and incident histories before awarding contracts. Our track record reflects a policy that does not hide mistakes behind jargon, but delivers improvement based on lived production and technical support experience.
Market demand for 2,2-Diethoxyethanol may fluctuate, but the underlying drivers—performance in coatings, reliability in manufacturing, and regulatory fit—remain steady. Over the past few years, we have responded to price volatility in feedstocks by building more robust relationships with upstream suppliers and investing in forward contracts. We stay close to market and technology shifts, regularly reviewing coatings technology, environmental standards, and consumer safety reports to anticipate where demand will grow or change. Whether new VOC legislation, alternative resin binders, or advances in electronics cleaning processes emerge, we communicate early with both our supply partners and users so that strategic planning does not lag behind.
Our network of supply logistics, technical support, and production analytics aims to stay nimble even during industry disruptions. This helps build long-term partnerships with users who face similar market headwinds and need a supplier focused on both resilience and cooperation rather than quick sales. Industry recognition does not come from mass marketing or lowest cost, but from decades of stable quality, honest feedback, and technical acumen proven in the field.
Every batch of 2,2-Diethoxyethanol that leaves our facility carries with it the accumulation of technical skills, practical know-how, and direct user feedback across years. Manufacturing this glycol acetal is less about hitting abstract quality marks and more about integrative problem-solving that links chemistry, process safety, and real supply chain experience. Engaging with customers openly—recognizing challenges as opportunities to learn—shapes how we continue to improve the product and its delivery.
As process requirements, product formulations, and market regulations evolve, the ability to adapt without sacrificing safety or quality becomes more important than ever. We continue to invest in our people, plant upgrades, and technical partnerships, knowing that the next set of customer expectations or regulatory standards will demand both agility and a deep-rooted foundation in chemical manufacturing. Through practical experience—not theoretical marketing—we help customers achieve their best products with a reliable supply of 2,2-Diethoxyethanol, tailored by a manufacturer who meets the world’s needs shift by shift, batch by batch.