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Ascent Petrochem Holdings Co., Limited

Anhui Lixing Diethylene Glycol Dimethyl Ether

    • Product Name: Anhui Lixing Diethylene Glycol Dimethyl Ether
    • Chemical Name (IUPAC): 2-methoxyethyl 2-methoxyethyl ether
    • CAS No.: 111-96-6
    • Chemical Formula: C6H14O3
    • Form/Physical State: Liquid
    • Factroy Site: Lingwu, Yinchuan, Ningxia, China
    • Price Inquiry: sales2@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
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    Specifications
    HS Code 308138
    Product Name Diethylene Glycol Dimethyl Ether
    Synonyms Diglyme
    Chemical Formula C6H14O3
    Molecular Weight 134.17 g/mol
    Cas Number 111-96-6
    Appearance Colorless, transparent liquid
    Odor Mild, ether-like
    Boiling Point 162 °C
    Melting Point -64 °C
    Density 0.944 g/cm3 (20°C)
    Solubility In Water Miscible
    Flash Point 57 °C
    Refractive Index 1.404 (20°C)
    Vapor Pressure 2.67 mmHg (25°C)
    Purity ≥99%

    As an accredited Anhui Lixing Diethylene Glycol Dimethyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Anhui Lixing Diethylene Glycol Dimethyl Ether is packaged in 200 kg blue steel drums, featuring safety labels and secure, sealed lids.
    Container Loading (20′ FCL) Container loading for Anhui Lixing Diethylene Glycol Dimethyl Ether (20′ FCL): 160 drums × 200 kg, total 32,000 kg per container.
    Shipping Anhui Lixing Diethylene Glycol Dimethyl Ether is securely packaged in sealed drums or containers, compliant with international shipping regulations for chemicals. The product is labeled with hazard information and handled as a flammable liquid. Shipping includes safety documentation (SDS), with recommended storage in cool, ventilated areas away from ignition sources.
    Storage Anhui Lixing Diethylene Glycol Dimethyl 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 container tightly closed when not in use. Use only with proper grounding and avoid static discharge. Follow all local, state, and federal storage regulations for chemicals and solvents.
    Shelf Life Anhui Lixing Diethylene Glycol Dimethyl Ether typically has a shelf life of 12 months when stored in a cool, dry, sealed container.
    Application of Anhui Lixing Diethylene Glycol Dimethyl Ether

    Applications of Anhui Lixing Diethylene Glycol Dimethyl Ether in Industrial Manufacturing

    As a chemical raw material manufacturer, Anhui Lixing delivers Diethylene Glycol Dimethyl Ether (DEGDME) to downstream industries requiring consistency, reliability, and regulatory alignment in their formulated products. The following sectors reflect real, well-established use-cases of our DEGDME, each with distinct compliance, formulation, processing, and end-product characteristics.

    1. Lithium Battery Electrolyte Formulation

    DEGDME is widely incorporated as a co-solvent in the preparation of lithium battery electrolytes for high-performance secondary batteries utilized in automotive, consumer electronics, and energy storage. Its performance in enhancing ion transport and optimizing viscosity directly impacts the energy density and charge-discharge stability of lithium-ion battery cells, meeting the advanced technical requirements of battery manufacturers and ensuring global market access through stringent product conformity.

    Industry compliance standards

    • GB/T 31486-2015 (Performance requirements and test methods for traction battery in electric vehicles)
    • IEC 62660-2 (Secondary lithium-ion cells for the propulsion of electric road vehicles - Safety requirements)
    • REACH (European chemical registration for battery chemicals)
    • RoHS Directive (2011/65/EU - Restriction of Hazardous Substances)

    Typical usage ratio

    • 5–20% by weight of total electrolyte solution, depending on required conductivity and viscosity for the specific lithium salt and temperature range; manufacturers calibrate the ratio according to cell type and end-use environment.

    Downstream process integration

    • DEGDME is added during the electrolyte blending phase after the dissolution of the lithium salt (e.g., LiPF6, LiBF4) in carbonates. The solvent mixture is filtered at controlled temperature and then filled into hermetically sealed pouch, prismatic, or cylindrical batteries under dry-air or inert atmosphere.

    Final product types

    • Lithium-ion battery packs (for EV, power tools, and grid storage)
    • Lithium polymer batteries
    • Rechargeable battery modules for portable electronics

    2. Pharmaceutical Process Solvent

    DEGDME acts as a specialty process solvent in the synthesis and purification of pharmaceutical intermediates, offering excellent solvency for polar and some semi-polar active pharmaceutical ingredient (API) precursors. Its high boiling point and selective miscibility aid in improving yields and reducing side reactions, while manufacturers maintain compliance with rigorous pharmacopeia solvent quality standards to ensure that solvent residues in APIs remain below regulatory thresholds.

    Industry compliance standards

    • ICH Q3C (Guidelines for Residual Solvents in Pharmaceuticals)
    • Chinese Pharmacopoeia (2020 Edition, Part IV - General requirements for pharmaceutical excipients)
    • US FDA cGMP 21 CFR Parts 210/211 (current Good Manufacturing Practice for Finished Pharmaceuticals)
    • EU GMP EudraLex - Volume 4 (Good Manufacturing Practice for Medicinal Products)

    Typical usage ratio

    • 10–30% of total solvent system for reaction or purification steps, adjusted based on reaction kinetic optimization and target purification selectivity; minimized where possible for downstream removal efficiency.

    Downstream process integration

    • Introduced during synthesis or crystallization stages as a co-solvent to improve reactant solubility and intermediate stability. Later, the system removes DEGDME via vacuum distillation, rotary evaporation, or class-specific extraction, ensuring compliance with ICH and regional solvent residue limits.

    Final product types

    • Pharmaceutical intermediates (active core structures, protected acids, alcohols, or amines)
    • Bulk API (intermediate grades for further synthesis)
    • Semi-purified finished substances (for reprocessing or formulation)

    3. High-Purity Electronic Cleaning Agent

    Downstream electronic component manufacturers utilize DEGDME as a high-efficiency cleaning agent for printed circuit boards (PCBs), semiconductors, and microelectronic substrates. It effectively removes organic residues, solder flux, and ionic contaminants while minimizing surface damage or ionic build-up, supporting trace-level purity required in next-generation chip fabrication lines and electronic module assembly.

    Industry compliance standards

    • IPC-CH-65B (Guidelines for Cleaning of Printed Boards and Assemblies)
    • IEC 61340-5-1 (Electrostatic discharge – control program standards)
    • JEDEC JESD625B (Requirements for Handling Electrostatic-Discharge-Sensitive Devices)
    • ISO 14644-1 (Cleanroom standards for contamination control)

    Typical usage ratio

    • 50–100% solvent solution, typically used undiluted or in blends with other glycol ethers or alcohols depending on contamination type and process flow; proportion is strictly controlled in automated cleaning baths or ultrasonic units.

    Downstream process integration

    • DEGDME enters the production line at the post-assembly or pre-packaging cleaning stages. PCB and wafer manufacturers direct articles through immersion baths or vapor phase cleaning units, followed by thorough DI water rinsing and hot-air drying to eliminate solvent traces and ensure zero ionic residue on finished surfaces.

    Final product types

    • High-density PCBs for computers and routers
    • Integrated circuit wafers and microchips
    • Precision optical and MEMS components

    4. Polymerization Azeotropic Carrier in Specialty Resins

    DEGDME is essential in certain specialty resin syntheses as an azeotropic dehydrating agent, particularly for high-performance polyesters, polyethers, and related block copolymers. It drives the polymerization forward by selectively removing water generated in condensation reactions, preventing molecular weight loss and gel formation, while ensuring product quality aligns with global polymer and environmental requirements.

    Industry compliance standards

    • EU REACH Regulation (Registration, Evaluation, and Authorization of Chemicals)
    • ISO 9001:2015 (Quality management systems for polymer manufacturing)
    • GB/T 32610-2016 (Resin for Industrial Applications)
    • 2014/34/EU ATEX Directive (explosive atmospheres, process safety for solvent use in resin production)

    Typical usage ratio

    • 5–15% of total reaction mixture; process engineers adjust according to targeted molecular weight, resin type, and acceptable residual solvent level in the final polymer.

    Downstream process integration

    • DEGDME is charged at the start of the polymerization vessel with monomer and catalyst. During azeotropic distillation, the solvent removes water continuously under vacuum or inert gas sweep, and engineers recover and recycle used solvent after condensation and phase separation, minimizing waste and production costs.

    Final product types

    • High-purity specialty polyesters for coatings or binder films
    • Engineering resins for automotive and electronics
    • Processable polymer intermediates for adhesives and sealants

    5. Industrial Solvent for Fine Chemical Synthesis

    Manufacturers in the agrochemical, colorant, and fine chemical sectors deploy DEGDME as a selective solvent in complex organic syntheses, especially for reactions that require polar, high-boiling, and chemically stable media. It allows precise temperature control in high-yield batch or continuous production, supports catalytic phases, and achieves compliance with international safety and product quality mandates across agro-intermediate, specialty dye, and flavor and fragrance sectors.

    Industry compliance standards

    • ISO 14001:2015 (Environmental management for chemical production)
    • OECD Guidelines for the Testing of Chemicals
    • Chinese National Standard GB/T 20784-2020 (Solvents for organic synthesis)
    • 30 CFR §1910.1200 (Occupational exposure and hazard communication for chemicals)

    Typical usage ratio

    • 5–25% of the total solvent for target chemical reactions; fine chemical operators determine the exact concentration according to the desired reaction pathway, product solubility, and desired isolation efficiency.

    Downstream process integration

    • Applied at the reactor charging phase alongside raw substrates, DEGDME influences dispersion quality and reaction rate; following synthesis, the downstream operations remove or recover the solvent through distillation or crystal filtration, considering regulatory residuals for non-pharmaceutical outputs.

    Final product types

    • Agrochemical intermediates (pesticide and herbicide production)
    • Specialty dyes and pigments for plastics and inks
    • Fragrance base chemicals and fine aroma compounds
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    Certification & Compliance
    More Introduction

    Anhui Lixing Diethylene Glycol Dimethyl Ether: A Closer Look at Real-World Applications and Quality Differences

    Drawing from Practical Experience in Manufacturing Diethylene Glycol Dimethyl Ether

    Chemical production often looks simple from the outside, but it’s the day-to-day details—raw material quality, handling, reaction control, final purification—that really draw the line between adequate and trustworthy. With years spent refining the process behind Diethylene Glycol Dimethyl Ether (known in some labs as Diglyme), we have learned that consistency doesn’t appear by accident. Working in a facility where safety, precision, and transparency guide every shift, I see firsthand the daily impact of small changes—water content variations in pressure reactors, ambient temperature swings, even the way solvent storage barrels are cleaned and dried.

    Customers often call from their pilot lines or full-scale synthesis labs to ask about the latest batch of Anhui Lixing Diethylene Glycol Dimethyl Ether—sometimes just to confirm the GC purity, sometimes because their previous supplier delivered a drum that clouded up before use. They remember when a project schedule slipped because a single impurity brought outcolor, or retention times missed their benchmark. These calls don’t surprise us. The reality is that in chemical manufacturing, one missed detail in the early stages leads to a domino effect on end-use quality.

    Model and Specifications: Built from Experience, Not Guesswork

    At our site, Anhui Lixing anchors its Diglyme line with the model code LXD-99, signifying a consistent minimum assay of 99 percent by gas chromatography. Less is not tolerated because it muddies downstream reliability. Color and odor control also come into play—anyone who’s opened a poorly refined barrel knows what I mean. Instead, our team stores Diglyme in inert, dry conditions, checks water content daily, and runs batch analytics not only for residual solvents but for trace aldehyde levels as well.

    Chemists from battery labs, pharmaceuticals, and specialty coatings tell us that the real test comes on their floor, not in our meter readings. They look for colorless, mobile, low-viscosity ether that dissolves both salts and organics seamlessly, keeps the current steady in electrochemical testing, forms clear phases for Grignard reagent preparations, and handles with minimal byproduct formation. They want consistent evaporation rates during thin-film casting. This level of expectation forced us to upgrade the entire rectification section two years ago: narrower columns, automated leak detection, more frequent pull-sample checks. The outcome: LXD-99 finds a home in demanding segments where the cost of cleaning up after unwanted side reactions or blocked lines far outweighs modest price differences.

    How Anhui Lixing Diglyme Supports Real Work in the Field

    In my career, I’ve seen Diglyme used as the backbone solvent in advanced lithium battery electrolytes. Research teams aiming for higher energy densities rely on it for its dielectric strength and broad liquid range. Any extra moisture or peroxides spell trouble—loss of capacity, flawed cycle results, unnecessary waste. We handle these risks with molecular sieves in line, regular Karl Fischer checks, and feedback loops from partner labs who actually run functional tests instead of stopping at purity certificates.

    Synthetic organic chemistry leans on Diglyme for its unique ability to stabilize reactive intermediates, especially in alkali metal reductions, organometallic preparations, or as a high-boiling point alternative to THF. Here, purity plays directly into final product yield. One customer pointed out that lower-purity competitors led to persistent column fouling and colored extracts during medicinal chemistry runs. We regularly invite advanced users to witness our sealed system transfer operations, confirming for themselves the absence of acid halide byproducts or oligomeric residues.

    Some customers bring specialty coating or catalyst synthesis projects; they find Diglyme’s solvency power indispensable for dissolving tricky precursors but become wary after experiencing fouled lines or slow curing—often traced back to trace glycols or ethers slipping through less rigorous manufacturing sites. Those running delicate separation or crystallization steps push for a batch-freeze approach, isolating drums from single production cycles to avoid mixing residues. We accommodate by labeling and tracking at the drum level, never blending post-purification. This keeps each barrel as transparent as the last, which saves costly troubleshooting later.

    Differences from Everyday Alternatives—Why Details Matter

    Comparisons come up daily—Diglyme versus common alternatives like diethyl ether, tetrahydrofuran, or lower-grade glymes. What sets Anhui Lixing’s offering apart is the stability under high voltages and in the presence of strong reducing agents. Diethyl ether might boast a lower boiling point and lighter handling, but it brings higher volatility, more flammability, and a tendency to degrade in storage. Our customers who moved from generic dimethoxyethane to LXD-99 report fewer episodes of instability in scale-up and reduced need for process halts mid-run. In some specialized battery projects, prolonged cycling pushed weaker ethers to form interfering oligomers—they now specify Diglyme for steadier results.

    The safety factor also comes under review. Manufacturing sites that don’t actively manage peroxide formation or internal drum conditioning eventually face hazardous buildup—sometimes not until after shipment. On our end, regular peroxide tests at both intermediate and final sampling stages, coupled with oxygen-scavenging additives when customer specs allow, have prevented unplanned shutdowns. The cost of “good enough” solvent quickly dwarfs savings when an entire reaction train grinds to a halt. Our technical support logs show a marked drop in emergency calls since we instituted batch-specific certification with accessible lot histories.

    From another angle, regulatory expectations in China and export markets have grown stricter over the years on trace impurities and safe containment. Anhui Lixing pays close attention to permissible traces of glycol, formaldehyde, and storage residue levels. Shipments receive detailed slip records. Customers in Europe and North America find value in this transparency because it supports their own product registrations and downstream disclosures. We aren’t immune to discovery audits, and our facility layout includes isolation zones and filtered ventilation—sometimes overlooked by competitors focused on low-cost output.

    Solving Issues That Users Actually Face

    Supply issues crop up in chemical distribution, especially when seasonal shutdowns cut ethanolamine or ethylene oxide feedstock. We offset this by maintaining an on-site reserve and dual sourcing, but it’s not all about supply chain—contaminants sneak in during high-pressure blending or if valves sit uncleaned. Having led response teams through both minor and major incidents, my belief is constant testing outpaces any reactive cleanup. Every batch of Diglyme from our plant ships with a transparency-first approach: open batch sheets, rapid reporting when deviations occur, and calibration logs customers request for audits. Those who’ve been burned by “invisible” quality lapses recognize the shift.

    Another stumbling block comes from improper drum handling post-purchase. Some users store solvents near steam lines or under direct sun, leading to unexpected drum weight loss, phase separation, or cloudiness. We share in-the-field storage guidance as a practical measure: always away from heat, tightly sealed after draw-down, and if possible, under inert gas. Those customers following these tips report far fewer issues—consistency remains batch after batch, saving on investigation calls and lost time.

    Some colleagues across the industry argue that minute specification differences make little impact in end uses. Our experience consistently contradicts this. Pharmaceutical intermediates produced with slightly off-spec Diglyme show interpretative NMR spectra, yield penalties, and can even trip company-wide recalls if regulatory authorities uncover unregistered impurities in final lots. By refusing to ship borderline batches, our reputation with contract manufacturers has grown cemented, and we attract requests not just for solvent, but in-process support, troubleshooting failed reactions and sometimes adjusting purification steps to match their upcoming projects.

    Why Anhui Lixing Remains a Trusted Name Among Knowledgeable Chemical Users

    Modern chemists expect more than a list of bullet points and generic promises. Over years of operating in this space, every modification to our process has come from direct dialogue with the end-user. Once, an electronics manufacturer detected trace sodium in a drum—problematic for their application. Instead of deflecting, the quality department ran a root-cause analysis and documented changes to racking and drum-lining materials, removing the source and updating the certificate of analysis. This attention to detail lays the foundation for repeat orders.

    The typical Diglyme customer operates in a setting where unplanned downtime costs far more than modestly higher unit prices. Hospitals awaiting pharmaceutical syntheses, battery developers racing toward the next patent, and resin innovators working to beat environmental deadlines count on not just purity but reliability. Return business usually follows success in the real world, not on paper. To achieve this, we maintain longstanding relationships with freight companies who understand chemical infrastructure, ensuring drums arrive upright, sealed, and with antistatic protection. Countless times, we have stepped in to reroute shipments based on inclement weather or logistical disruptions, keeping the material in verified storage rather than risking expired or degraded stock.

    A Reputation Built on Show-Not-Tell

    Over time, manufacturing grades evolve according to user feedback rather than arbitrary checkboxes. Our iteration of Diglyme LXD-99 now features improved heat exchange loops for higher throughput and more responsive water stripping, both added after observing recurring customer concerns about water-induced side reactions. Each technical team member participates in routine hazard assessments and customer site visits to build knowledge not just of how solvents should work, but actual field results.

    On occasion, industry competitors have focused on minimizing costs, switching process steps or raw material sources with little warning. Customers have recounted batch-to-batch performance swings and unpredictable reaction times as a result. Our site has weathered raw material price swings by prioritizing end-use stability; material that does not meet agreed thresholds gets rerouted for industrial, non-critical use or additional purification steps, while customer-facing product always stems from full-spec batches.

    From a traceability point of view, every outgoing drum carries a full lineage—timestamped records, analytic logs, and the signatures of the team members who approved release. This direct approach doesn’t just help our own continuous improvement but simplifies the path for customer GMP, ISO, and internal regulatory compliance.

    Long-Term Partnership, Not Simply Transaction

    Over dozens of projects, some buyers have leaned on us not just as a material provider, but as collaborators—sharing their specific requirements for reaction temperatures, downstream distillation, wet chemistry, or tailored packaging solutions. A team of process chemists provides detailed guidance on correct degassing, optimal solvent-to-reactant ratios, or even recommendations for post-use disposal in line with current environmental standards. The reality is, mistakes in chemical purchasing often emerge only after an expensive batch troubleshoots itself into a corner; having a direct link to manufacturers streamlines solutions.

    We have incorporated lessons learned from user stories across continents, refining everything from drum size options to include direct pump-out valves, to adjusting interior liners for sensitive product applications. No design or process improvement ever comes as a one-off; we return to the lessons logged and build them into the next iteration.

    A frequently overlooked value lies in ongoing dialogue. Chemical buyers who call and reach not a call center, but the actual production team, form direct lines of communication that cut through delays. It turns troubleshooting into partnership, with many customers choosing a long-term supply agreement not simply based on lowest cost, but on the tangible experience of minimized surprises, clear feedback, and mutual accountability.

    The Ongoing Commitment to Quality and Practical Solutions

    Chemical manufacturing is not a static business. As regulations shift, as end-user techniques grow more refined, and as sustainability standards evolve, Anhui Lixing adapts by upgrading internal standards ahead of external pressure. We align environmental priorities with those of our partners; recent investments in solvent recovery and waste minimization reflect the real-world trend toward greener chemistry. Our onsite waste treatment now achieves better than 98 percent solvent recovery, reducing load on both local and national systems.

    A subtle yet vital component of our success is staff continuity—operators and chemists who have persevered through both quiet production runs and emergency shutdowns. This hands-on knowledge builds a memory bank of successful batches, troubleshooting, adaptation, and continuous learning—no manual substitutes what years of experience deliver directly to the production floor.

    Looking forward, we see the bar rising on both the quality and application specificity of Diglyme. Collaborative innovation with users will continue to shape how Anhui Lixing Diglyme distinguishes itself from standard commodity suppliers. This will include closer ties with research institutions, deeper transparency around feedstock sources, and even smarter, data-driven control systems for future manufacturing lines. Ultimately, producing a trusted chemical is about more than clean spec sheets. It takes relentless attention to detail, user-informed improvement, and a handshake that stands behind every drum.