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No Pollution Cleaning Agent Diglyme CAS 111-96-6 Diethylene Glycol Dimethyl Ether
- Product Name: No Pollution Cleaning Agent Diglyme CAS 111-96-6 Diethylene Glycol Dimethyl Ether
- Chemical Name (IUPAC): 2-methoxyethyl methyl 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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- No Pollution Cleaning Agent Diglyme CAS 111-96-6 Diethylene Glycol Dimethyl Ether is an aprotic ether solvent in liquid form, commonly used in electronic and pharmaceutical manufacturing, where high solvency and low reactivity are required.
| HS Code | 692870 |
| Product Name | No Pollution Cleaning Agent Diglyme |
| Chemical Name | Diethylene Glycol Dimethyl Ether |
| Cas Number | 111-96-6 |
| Molecular Formula | C6H14O3 |
| Molecular Weight | 134.17 g/mol |
| Appearance | Colorless liquid |
| Boiling Point | 162–164°C |
| Melting Point | -64°C |
| Density | 0.944 g/cm3 (at 20°C) |
| Solubility In Water | Miscible |
| Flash Point | 53°C (closed cup) |
| Odor | Ether-like |
| Purity | Typically ≥99% |
| Refractive Index | 1.404–1.406 (at 20°C) |
| Application | Cleaning agent and solvent |
As an accredited No Pollution Cleaning Agent Diglyme CAS 111-96-6 Diethylene Glycol Dimethyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Packaged in 200-liter blue HDPE drums, securely sealed and labeled with chemical name, CAS number, and safety information. |
| Container Loading (20′ FCL) | 20′ FCL loaded with tightly sealed drums of No Pollution Cleaning Agent Diglyme, CAS 111-96-6, ensuring safe, contamination-free transport. |
| Shipping | The No Pollution Cleaning Agent Diglyme (CAS 111-96-6, Diethylene Glycol Dimethyl Ether) is securely packaged in sealed containers and shipped as a hazardous chemical according to international transport regulations. It must be stored upright, protected from sunlight, and handled by trained personnel using suitable protective equipment to ensure safety during transit. |
| Storage | Store **Diglyme (CAS 111-96-6, Diethylene Glycol Dimethyl Ether)** in a cool, dry, well-ventilated area away from heat sources, ignition, and incompatible materials such as strong oxidizers and acids. Keep container tightly closed and sealed when not in use. Use only in areas equipped with proper ventilation. Ground and bond all containers during transfer to prevent static discharge. |
| Shelf Life | Shelf life: Store No Pollution Cleaning Agent Diglyme in a cool, dry, sealed container; typically stable for 2 years under proper conditions. |
Applications of No Pollution Cleaning Agent Diglyme CAS 111-96-6 Diethylene Glycol Dimethyl Ether in Industrial Manufacturing
As a primary manufacturer of Diethylene Glycol Dimethyl Ether (Diglyme), we supply high-purity material supporting multiple technical industries. Below, we detail distinct application scenarios addressing specific requirements in electronics cleaning, lithium battery electrolytes, pharmaceutical synthesis, and specialty polymer processing, outlining critical standards and appropriate operational practices.
1. Precision Electronics Component Cleaning
Electronics manufacturers rely on Diglyme-based cleaning agents to remove flux residues, oils, and particulate matter from sensitive microelectronic assemblies such as printed circuit boards, microchips, and connectors. Its high solvency and low residue characteristics support rigorous component integrity requirements. Specialized cleaning systems operate within controlled environments to prevent contamination and ensure component performance. Manufacturers must ensure safe handling for personnel and equipment by adhering to established safety processes.
Industry compliance standards
- IPC-CH-65B Guidelines for Cleaning of Printed Boards
- IEC 61340-5-1 standards for ESD protective handling
- ANSI/ESD S20.20 for static control in electronics protection
- RoHS Directive 2011/65/EU compliance (residue-free requirements)
Typical usage ratio
- Application concentration ranges from 3% to 10% Diglyme by volume in mixed solvent baths; adjustment depends on contamination level, part complexity, and rinse/safety protocols
Downstream process integration
- Injection into ultrasonic or spray wash systems after assembly soldering
- Followed by deionized water rinse and forced hot air drying
- Monitored by surface ionic cleanliness testing (such as resistivity measurements)
- Periodic validation of residue levels using ion chromatography
Final product types
- Surface-mount PCB assemblies
- Micro-electromechanical sensor devices (MEMS)
- Integrated circuit wafers
- High-reliability aerospace avionics modules
2. Electrolyte Solvent Manufacturing for Lithium-Ion Batteries
Diglyme functions as a co-solvent or primary solvent in the formulation of lithium battery electrolytes due to its high dielectric constant and electrochemical stability. Major cell manufacturers formulate non-aqueous electrolyte blends integrating diglyme to enhance ion mobility and cycling performance, especially for batteries designed with lithium metal or high-voltage cathode chemistries. The supply chain focuses on ultra-high purity criteria to minimize trace water and inhibit ionic contamination.
Industry compliance standards
- UL 2580 safety standards for stationary and motive battery applications
- GB/T 31486-2015 for electric vehicle lithium-ion cell safety
- IEC 62660-2:2018 for automotive traction batteries (performance and abuse testing)
- ISO 9001:2015 for quality management in electrolyte blending facilities
Typical usage ratio
- Used at 10%–40% by volume in solvent matrix, depending on target anion/cation compatibility and cycle life design; ratio balanced with carbonates or other glymes to optimize viscosity and conductivity
Downstream process integration
- Blended with lithium hexafluorophosphate (LiPF6) and/or other salts under dry-room protocols
- Introduced into battery cells via vacuum filling in controlled dry environments
- Residual solvent testing and purity confirmation by GC-MS or Karl Fischer titration
- Integration into cathode/anode alignment lines for both pouch and cylindrical cells
Final product types
- Lithium-metal secondary rechargeable batteries
- Next-generation solid-state battery packs
- High-capacity energy storage modules for grid use
- Consumer electronics and EV lithium-ion battery cells
3. API and Pharmaceutical Intermediate Synthesis
Pharmaceutical process chemists select Diglyme for use as a reaction medium or phase-transfer catalyst due to its strong solvating properties for both organic and inorganic reactants. Formulation advantages include facilitating homogeneous catalysis, supporting high-yield alkylation, and maintaining reaction consistency across batches. Material handling standards and impurity profiles must conform to GMP and global regulatory requirements, especially for usage in API synthesis and excipient levels in intermediates.
Industry compliance standards
- ICH Q7A Good Manufacturing Practice for Active Pharmaceutical Ingredients
- EU Regulation 1907/2006 (REACH) as it pertains to solvent safety and environmental control
- USP <467> for residual solvents in pharmaceuticals
- FDA 21 CFR Part 211 for drug product quality systems
Typical usage ratio
- Solvent employment at 20%–60% of total reaction mass, with volumes set by solubility demands and impurity control; typically removed post-synthesis by rotary vacuum evaporation
Downstream process integration
- Added to multi-step batch reactors for nucleophilic substitution or alkylation reactions
- Serves as the primary solvent base for alkali metal-catalyzed processes
- Followed by work-up purification and solvent recovery via distillation
- Residual solvent content monitored and validated for each lot
Final product types
- Active pharmaceutical ingredients for cardiovascular drugs
- Pharmaceutical intermediates for small-molecule syntheses
- Bulk drug substance intermediates for veterinary APIs
- Steroid and hormone manufacturing process intermediates
4. Solvent for High-Performance Specialty Polymer Synthesis
Polymer manufacturers apply Diglyme during the synthesis and modification of specialty polyethers, polyesters, and engineering resins where traditional glycol ethers show inadequate solvency or excess toxicity. Controlling chain extension and branching reactions often requires stable, inert, and high-boiling solvents to maintain homogeneity and molecular weight targets. Batch or continuous reactor operations incorporate controlled dosing protocols and solvent recovery systems for sustainability and regulatory adherence.
Industry compliance standards
- ISO 9001:2015 for quality management of chemical production
- REACH Annex XVII restrictions on hazardous solvents
- OECD guidelines for polymer risk assessment and chemical safety
- FDA 21 CFR Part 177.1590 for indirect food contact (where applicable for polymer grades)
Typical usage ratio
- Solvent inclusion at 15%–30% by mass for solution polymerization; precise loading determined by target viscosity, dissolution kinetics, and thermal envelope of the polymerization process
Downstream process integration
- Charged during monomer feed in jacketed polymerization reactors
- Enables controlled dissolution of oligomers throughout temperature ramping and polymer chain propagation steps
- Subsequently removed by devolatilization or stripping following polymerization
- Residual solvent measured by headspace GC during QA/QC release
Final product types
- High-performance block copolymers (e.g., polyether ketones)
- Engineering resins for electronics encapsulation
- Specialized membrane materials for filtration applications
- Heat- and chemical-resistant thermoset intermediates
Competitive No Pollution Cleaning Agent Diglyme CAS 111-96-6 Diethylene Glycol Dimethyl Ether prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615380400285 or mail to sales2@ascent-chem.com.
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- No Pollution Cleaning Agent Diglyme CAS 111-96-6 Diethylene Glycol Dimethyl Ether is manufactured under an ISO 9001 quality system and complies with relevant regulatory requirements.
- COA, SDS/MSDS, and related certificates are available upon request. For certificate requests or inquiries, contact: sales2@ascent-chem.com.
No Pollution Cleaning Agent Diglyme CAS 111-96-6: Direct from the Chemical Manufacturer
Understanding Diglyme in Industrial Cleaning
In daily chemical production, certain solvents do more than just dissolve and extract—they help control the process and shape safer working environments. Diglyme, also known as Diethylene Glycol Dimethyl Ether, fits right into the core of new clean production routines. This compound, carrying the CAS number 111-96-6, does so without the headaches that come from heavier pollution or regulatory tangles. From my years standing by the reactors and tinkering with balances, I know manufacturers don’t look for unnecessary complexity. Smooth cleaning and process control keep costs and nerves under control in equal measure.
Direct Manufacturer’s Perspective: From Sourcing to End Use
Handling chemicals inside the factory wall means thinking about continuous supply assurance and the actual work people do on the floor—mixing, pumping, cleaning, and eventually sending the material downstream. Diglyme production relies on a reliable flow of raw material: diethylene glycol, dimethyl sulfate, methyl chloride, sometimes in tandem. Purity checks and moisture removal come before drums ship out. We monitor water content aggressively, since too much water throws off extraction, especially with reactive organics sensitive to hydrolysis.
Why bring up these details? Because once the solvent heads to the customer, performance often comes down to what’s hiding in the margins: rogue water, oddball glycol ether side products, inconsistent pH values. We run our own process lines, so each batch gets tracked for purity. For those who have dealt with wildcards in procurement, this matters. Customers from electronics, pharmaceutical, and specialty coatings have seen batches from resellers show breakdown products that scorch reactors or leave residue that gums up valves. Sampling, titration, full-chain traceability—these routines fend off nasty surprises.
Cleaner Chemistry—Diglyme’s Physical Advantages
Diglyme continues to take share in cleaning and reaction control because it’s a low-pollution choice with dependable physical behavior. At room temps, the liquid flows easily. Its low viscosity and high solvency translate to better penetration into deposits and coatings. It absorbs both polar and modestly nonpolar contaminants. Teams running high-purity electronics cleaning, for example, value the way Diglyme removes flux residue and particulate without leaving active ions that short-circuit boards. Unlike heavier ethers, it evaporates at a moderate pace, which gives technicians enough working window to manage residue removal before the area dries out and traps dirt.
This solvent handles temperature swings gracefully. That matters for batch processes—cooling coats or exothermic reactions can swing several degrees in a matter of minutes. Many traditional ethers would either flash off, drive dangerous vapors, or degrade outright under stress. Diglyme offers more thermal stability, especially at the upper end. Lab teams pushing reaction kinetics with organometallics or specialty syntheses frequently comment on the advantage of lower evaporation losses, fewer operational venting headaches, and safe collection of vapors during recovery.
No Pollution Edge—What That Really Means on a Factory Floor
The label 'no pollution' rarely holds up unless you control both the supply and disposal chain. From what we see, Diglyme carries one of the cleaner footprints among glycol ethers. The synthesis route generates fewer sulfur- or nitrogen-bearing byproducts, which means less downstream treatment load. More importantly, the solvent’s relatively high boiling point lets users operate at steadier pressures and lower vapor emissions in regular manufacturing facilities. Colleagues in waste treatment repeatedly point to how Diglyme effluent demands less caustic or acid neutralization during water plant operations.
For decades, methylene chloride and tetrahydrofuran, among others, dominated cleaning and extraction jobs. Those older solvents evaporate faster but also load air handling systems with high VOCs. Diglyme falls below aggressive regulatory thresholds for VOCs in many regions, easing compliance headaches and cutting down on permits that disrupt production expansion plans. No manufacturer gets a pass on emission reporting, so any edge in pollution reduction trickles down to reduced paperwork, lower insurance scrutiny, and smoother audits by inspectors. That frees up energy for what matters: process improvement, product development, workflow optimization.
Common Use Cases: What Real Companies Accomplish with Diglyme
Over the years we’ve supplied Diglyme for a cross-section of industrial purposes. In high-performance cleaning fluids, Diglyme shows up in formulations built for microelectronics, optics, and certain defense systems. Customers want zero-residue cleaning, especially where sensitive metal alloys and specialty ceramics encounter trace contaminants. Multinational electronics companies report a measurable reduction in post-cleaning defects when moving from traditional glycol ethers to our Diglyme. The difference becomes clear during final inspection when boards show less discoloration and downstream etching rates dip.
In the pharmaceutical synthesis sector, Diglyme’s chemical inertness in the presence of strong alkalis and organolithium reagents stands out. Laboratories ramp up reactions using sodium, potassium, or rare-earth metals, and these sensitive operations need a solvent that won’t react or decompose, introducing rogue ions or unexpected hydrolysis. Our facility’s process engineers design batch reactions in stainless reactors that use Diglyme specifically because it does not degrade under prolonged reflux or stopmid-step due to unplanned solvent contamination. As a bonus, the solvent washes out more easily during workup, reducing clean-in-place cycle time for pharmaceutical lines.
A growing number of research institutes and energy storage manufacturers select Diglyme as a component for electrolyte systems—especially those seeking better performance in novel lithium-sulfur or sodium-ion battery architectures. These new battery chemistries throw unique challenges at solvents: stability in strong reducing or oxidizing conditions, resistance to decomposition at high temperatures, and safe handling during scale-up. Diglyme has shown surprising durability in pilot runs, and researchers prefer dealing with a supplier who matches lot numbers to batch analysis results for peace of mind.
Specification Differences: Not All Diglyme Is Equal
Factories with their own process controls understand how small differences in solvent purity or moisture content end up reflecting directly in final output. Our Diglyme leaves the production line at a minimum 99.5% purity, with water content held below 0.1%, independently confirmed on each batch through Karl Fischer and gas chromatography. We know a shift of 0.2% in impurity, or one leaky drum cap, might wreck a hundred kilograms of value in downstream organometallic synthesis or coating applications. Tight in-house quality systems block these problems before the product ships.
Competitor samples from secondary sources or gray-market traders often show wider swings in purity or batch variability. Over time, customers face more contamination events, line-down situations, or higher rework costs. Both our bottled and bulk containers carry tamper-evident seals and batch reports, mainly because customers want assurance that the product hitting their dock is still exactly what left our loading dock—no substitutions, no sneaky dilutions, no cross-contamination from previously handled solvents. Inside our own plant, we scrub lines and store only compatible glycols, so each order tracks back to raw material sources and final QC checks, not through chains of repackagers or brokers.
Diglyme vs. Other Solvents—Day-to-Day Differences
Many customers ask how Diglyme compares to old-school options like dimethylformamide, THF, or conventional acetone. On our floor, we look at more than just cost per liter. We look at vapor risk, flammability class, ease of recovery, and whether we’ve ever spent a shift tracking fugitive emissions. Diglyme holds a moderate vapor pressure—a big deal on hot afternoons in plant settings. Unplanned fugitive emissions drop sharply, so we lose less to expensive vent treatment and spend less time running fans or worrying about headaches from high solvent vapor.
Acetone cleans quickly but leaves residues and presents flammability risks with open flames or even static sparks. Dimethylformamide sees broad use in plastics or fiber spinning, but it carries health and reprotox warnings that complicate worker safety plans. Diglyme doesn’t solve every cleaning or extraction job, but it bridges many of the regulatory and practical gaps these common alternatives can’t. One customer recently replaced a methylene chloride-based line because Diglyme helped them hit new VOC caps without changing their washdown and drying stages. The switch brought air test readings down to levels that let their team discontinue personal solvent detection badges—simplifying safety audits and cutting PPE spend.
In pharmaceutical and specialty chemical synthesis, selecting a reaction solvent often hinges on both chemical compatibility and ease of removal during downstream purification. Diglyme’s volatility lets teams distill off the bulk solvent without thermal damage to heat-sensitive intermediates. Offset by a higher boiling point (162°C) than THF or acetone, Diglyme offers more time to work before loss through evaporation. Reactor maintenance teams also praise its ability to flush lines clear without lingering odors or persistent residues, easing turnaround between campaigns.
Environmental and Safety Factors: Real Benchmarks
Many institutions trumpet green chemistry, but implementing true safety and pollution reduction in a running factory takes more than surface-level swaps. Diglyme, while not nontoxic, carries a better profile regarding chronic exposure than many competitors. Our plant’s handling guidelines, shaped by both MSDS recommendations and real-world experience, keep exposures extremely low through closed transfer lines and vapor recovery. We’ve watched how transitioning older cleaning jobs to Diglyme cut reported skin and inhalation incidents by double-digit percentages over the following six quarters.
The waste stream generated from using Diglyme can often be managed with in-house distillation or local licensed recovery, recapturing usable solvent and reducing total environmental discharge. Manufacturers working outside the US and Europe face pressure from both customers and governments to cut hazardous waste and potential birth defect risks. Incorporating our Diglyme lets them keep cleaning efficiency high without importing new waste handling headaches or compliance costs.
Routine plant teams know that container compatibility and storage stability impact everything from inventory bookkeeping to spillage rates. Diglyme stores conveniently in steel or fluoropolymer-lined drums, and the risk of corrosion or surface damage from minor drum leaks drops compared to some chlorinated or aromatic solvents. Our shipping crews handle enough different chemicals to notice which solvents chew through valve seals or age containers in ways that mean costly shutdowns or lost inventory.
Supporting Clean Production Trends
Modern manufacturing policies—both internal and regulatory—push continuous improvement in every corner of the workflow. Factory audits often focus on how secondary solvents impact downstream releases or air quality, not just the “headline” raw material list. Diglyme fits into this routine because it slides under regulatory radar for high-impact VOCs and alarms far less often during spot checks by air quality monitors. For many manufacturers, this lets them sidestep capital investments in aggressive vent abatement or additional scrubber capacity.
Our team invests heavily in training plant workers and engineers on how to integrate low-pollution solvents without losing efficiency or clogging up legacy lines. We run test batches for pilot customers who want to see real numbers on solvent recovery, ionic contamination, and cleaning rates—pulling open the process so both our engineers and line operators see exactly what shifts with a move to Diglyme. Peer reviews and technical presentations drive home that switching to lower-pollution agents rarely means a performance dip—just a learning curve in handling, sometimes a tweak to drying infrastructure, and regular testing of downstream effluent for full compliance.
Support from an Operator’s Perspective
People working with chemicals every day bring up practical hurdles before management ever sees a spreadsheet. Diglyme, by virtue of its chemical stability and moderate evaporation rate, builds confidence among technicians who have struggled with frequent filter blockages or hazardous vapor spikes. From a producer’s viewpoint, investing in steady batch sizes and rigorous lot control means more consistent feedback and fewer customer complaints about off-spec results.
Transitioning to a new cleaning agent always involves risk, especially when it impacts an established assembly line or purification scheme. We prioritize technical support over the phone and in person not just because it reduces missteps—it brings early warning if a batch appears off-balance and needs intervention before shipment. Collaboration matters: application engineers from our team join customers on site if difficult cleaning or extraction splits arise.
Over the years, this hands-on, direct support style cut escalation times by nearly half for line questions about Diglyme. Plant engineers use live titration, vapor analysis, and rapid feedback loops to make sure process changes succeed the first time. Sharing operator notes across industry helps refine wider best practices. Gone are the days of vague "try it and see"; instead, results and challenges feed back into routine operations and benefit not just one facility but others down the chain. Reliable, pollution-reducing cleaning agents like Diglyme transform more than chemical residues—they shift how factories approach every step from order intake to final shipment.
Continuous Improvement: Looking Past Specification Sheets
At the manufacturing level, the difference between a mainstream glycol ether and Diglyme hits operational metrics before the ledger. Resilient supply, pollutant reductions, process stability, and user safety all tell the real story beyond the usual chemical catalog. Regular audits measure the uptick in yields and a downshift in hazardous waste generated. Maintenance logs reflect cleaner lines and fewer solvent-related slowdowns. Experienced plant workers note the shift in air quality, less sting in the nose, and easier reporting for compliance.
Our facility upgrades solvent systems every cycle to reflect the realities faced by operators on the floor. All feedback, from batch engineers to safety officers, shapes how Diglyme integrates into wider cleaning or processing frameworks. Bringing in Diglyme, from our position as a producer, lets us put cleaner chemistry within reach—without giving up process speed, reliability, or safety.
We believe the future of manufacturing will call for tighter control over emissions and deeper transparency across sourcing and application. Diglyme, as managed and supplied straight from our plant, stands up to this scrutiny. What matters most in production is not just the chemical handed off at the loading platform, but the knowledge, support, and continuous improvement that come with every drum.
