|
HS Code |
902499 |
| IUPAC_Name | 1,1-Dichloro-2-ethoxyethane |
| Common_Name | 2,2-Dichloroethyl ether |
| Molecular_Formula | C4H8Cl2O |
| Molar_Mass | 143.02 g/mol |
| CAS_Number | 111-44-4 |
| Appearance | Colorless liquid |
| Boiling_Point | 136°C |
| Density | 1.165 g/cm³ |
| Solubility_in_Water | Slightly soluble |
| Flash_Point | 36°C |
| Odor | Ether-like |
| Vapor_Pressure | 16 mmHg (20°C) |
As an accredited 2,2-Dichloroethyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 500 mL amber glass bottle with a tightly sealed cap, labeled "2,2-Dichloroethyl Ether," includes hazard and safety warnings. |
| Shipping | 2,2-Dichloroethyl Ether is shipped as a hazardous material, typically in sealed, corrosion-resistant containers (such as steel or glass), clearly labeled with proper hazard warnings. Transport adheres to regulations for toxic and flammable substances, ensuring containers are upright, secure, and protected from heat, sparks, and incompatible materials during transit. |
| Storage | 2,2-Dichloroethyl ether should be stored in tightly closed containers, in a cool, dry, and well-ventilated area, away from direct sunlight and sources of ignition. Store separately from acids, oxidizers, and strong bases. Use containers made of compatible materials, and ensure proper labeling. Spill containment and fire protection measures should be in place, as the chemical is both flammable and potentially hazardous. |
Applications of 2,2-Dichloroethyl Ether in Industrial Manufacturing2,2-Dichloroethyl ether plays a specialized role in various chemical industries, serving as a key intermediate and processing agent. We supply this material directly to manufacturers for their precise process needs, supporting diverse downstream applications where its chemical properties deliver measurable advantages. Below we detail the primary industrial scenarios for this raw material, discussing compliance, usage ratios, process stage, and the resulting finished goods. 1. Pharmaceutical Intermediate Synthesis2,2-Dichloroethyl ether is a recognized intermediate in synthesizing specific active pharmaceutical ingredients (APIs), especially as an alkylation reagent in heterocyclic compound production. Pharmaceutical plants use this raw material under carefully controlled reaction conditions for the stepwise construction of substituted morpholines and piperazines. Accurate dosing and process validation are required to meet the pharmacopoeial requirements of regulated APIs. Industry compliance standards
Typical usage ratio
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2. Agrochemical Active Ingredient ManufacturingMany agrochemical plants use 2,2-dichloroethyl ether as a chlorinated alkylating agent in synthesizing specific herbicides and fungicides containing ether linkages. Its controlled reactivity permits precise modification of aromatic and heterocyclic compounds under high-shear, temperature-regulated conditions in large-scale reactors, supporting volume production of downstream pesticides. Industry compliance standards
Typical usage ratio
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3. Custom Synthesis of Specialty Fine ChemicalsManufacturers specializing in fine chemicals frequently rely on 2,2-dichloroethyl ether for constructing complex ether and acetal motifs in specialty monomers, crosslinkers, and chemical building blocks. Its dual chloro groups facilitate regioselective transformations when used as an intermediate in multi-step syntheses for electronics chemicals, resin modifiers, and high-purity research reagents. Industry compliance standards
Typical usage ratio
Downstream process integration
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4. Chemical Process Solvent and Extraction AgentsCertain industrial extraction and purification schemes employ 2,2-dichloroethyl ether as a process solvent, especially in chlorinated system separations where selective solvency is required for halogenated organics. Refineries and specialty chemical processors apply this ether in liquid-liquid extraction units or as a carrier in controlled stripping steps, targeting high recovery and low cross-contamination. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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In our daily work manufacturing specialized chemicals, 2,2-Dichloroethyl Ether continues to stand out for its utility, purity, and consistency in applications that demand rigorous chemical performance. Drawing from decades of hands-on experience in the synthesis and purification of chlorinated ethers, we have structured our facilities, workflows, and quality checkpoints around delivering a product that professionals trust batch after batch.
The chemistry behind 2,2-Dichloroethyl Ether isn’t new, but getting it right at scale calls for more than raw materials and textbooks. Across our reactors, we follow a strict temperature and pressure regimen, ensuring product integrity doesn’t shift from run to run. Only experienced personnel handle these processes, reflecting a company-wide investment in training, and years of troubleshooting and fine-tuning. 2,2-Dichloroethyl Ether with this kind of oversight turns out truly reliable.
Our 2,2-Dichloroethyl Ether, clarified by technical grade models with assured minimum purity over 98%, answers the needs of specialist synthesis work—particularly in agrochemicals, advanced resins, specialty coatings, and select polymer intermediates. Producers in these fields seek a compound that resists breakdown, remains consistent after long-term storage, and carries minimal by-product contamination.
We oversee moisture content closely, since even small traces of water introduce instability or promote side reactions in later steps. Our process brings this threshold down to below 0.1%. You may find comparable products on the market with higher tolerance for water content or broader specification windows; over years of feedback and cooperation with some of the world’s most demanding formulators, keeping a narrow margin for these parameters won longstanding trust.
During quality control, our team doesn't just rely on automated testing. Chemists review product spectra, and we keep thorough historical documentation for every lot, making sure deviations can be traced and corrective actions implemented quickly. Chemists in the field often remark that this gives them the confidence to run larger batches, with less need for rework or risk to downstream yield.
Working as a direct manufacturer, our team sees the real changes that minor adjustments in production make. We calibrate dosing, stirrers, and feed rates for every batch—as someone who has worked on the plant floor can confirm, these might sound trivial, but they draw a clear line between subpar and premium product. Our team found, through trial and error, how quickly a fraction of excess acid or a trace contamination in starting material turns into unwanted byproducts.
This also shaped our stance on packaging. We bottle and ship 2,2-Dichloroethyl Ether under nitrogen and in high-density polyethylene drums, reducing risks of oxidation and moisture pickup. People in purchasing and logistics teams have voiced appreciation, not just for appearance but for the measurable stability and shelf life this approach brings.
For chemists using 2,2-Dichloroethyl Ether as a solvent, alkylation agent, or intermediate, reliable evaporation profiles matter greatly. Our feedback loops with client labs flagged volatility issues that sometimes appear in imported or improperly stored stock. Learning from these comments, we've established protocols around sealing and storage, and offered on-site training and best-practices discussions. Our aim is practical: minimizing risk to workers, preserving lab resources, and keeping reaction quality consistent, regardless of climate or global logistics.
For more specialized applications, like use in certain resin cross-linking or synthesizing specialty monomers, product stability and clarity are just the beginning. The subtle absence of unwanted side products enables sharper analytical profiles, making regulatory submissions and audits more straightforward. We've seen customers return with new application demands, encouraged by performance data and batch-to-batch repeatability.
Many in the industry compare 2,2-Dichloroethyl Ether to ethers like 1,4-dioxane, diethyl ether, or mono-chloroethyl ethers. Differences often come down to reactivity, volatility, and selectivity in target reactions. In our manufacturing lineup, 2,2-Dichloroethyl Ether takes a niche for its moderate volatility and unique substitution pattern, which make it useful for certain alkylation pathways not efficiently served by common ethers.
Unlike diethyl ether—highly flammable and more prone to peroxide formation—2,2-Dichloroethyl Ether offers a greater margin of handling safety under controlled industrial settings. In solvent extraction or as a process intermediate, this factor reduces risk. Its dichloroethyl backbone also imparts a reactivity that is distinctly useful for specific reaction engineering tasks, including as a precursor in halogenated syntheses or chain-termination steps, where mono-chloro analogs have fallen short.
Alternative ethers rarely match the balance of stability and functional group compatibility provided by our product. Some manufacturers sacrifice purity to hit volume requirements, letting trace impurities slip through. Our house philosophy runs counter to this. Every batch that leaves our floor meets the threshold for purity and performance, or it gets redirected for rework or responsible destruction. This principle supports both safety and predictable chemical behavior in critical synthesis steps.
Those of us manufacturing 2,2-Dichloroethyl Ether have lived through regulatory cycles, from stricter waste protocols to the rise of REACH and ongoing changes in local chemical control environments. We integrate checks for regulated by-products and persistent pollutants in every lot review. For those compiling compliance dossiers, accurate, detailed certificates of analysis and up-to-date safety information become more valuable than ever. Our technical support teams train regularly, both internally and with external regulatory experts, to ensure our data and declarations reflect not only legal requirements but best industry judgment.
It takes more than ticking boxes to align production with safety and regulatory standards. Back-end investments in closed-system handling, waste capture, and operator personal protective equipment have grown as standards have evolved. From our viewpoint, proactive upgrades pay off—less lost time, fewer audit findings, and improved working conditions for staff who handle these materials directly.
Long-term relationships with end-users yield lessons that no internal test plan can fully capture. Field engineers and lab chemists handle the product in settings neither pristine nor controlled—a warehouse overheats, a line operator learns a shortcut, or a valve malfunctions. We prioritize these real-world reports, reconfiguring packaging, providing fresh safety bulletins, and even redesigning component fitings when a better alternative emerges.
For instance, a customer flagged pitting corrosion in certain metal transfer lines related to high concentrations of chlorinated ethers. We reviewed and sourced compatible transfer components and included this information in technical communications. Addressing practical engineering problems this way, and not relying solely on textbook descriptions, reduces unplanned downtime and waste in downstream operations.
Environmental stewardship starts at the source. Over the years, we have reworked our production lines to minimize emissions, capture waste streams, and implement closed-loop cooling and solvent recovery. This protects not only community health around plant sites, but also sustains business through regulatory cycles and changing customer priorities. Responsible sourcing of precursors echoes this commitment—buying from reputable suppliers, visiting partner sites, and conducting thorough incoming quality checks.
Every change we make flows from a mix of customer requirements, regulatory realities, and common sense built from years in this field. The push for greener chemistry, tighter waste rules, and product stewardship rises each year. Refusing shortcuts, investing in advanced neutralization and recovery, and maintaining open lines with local regulatory agencies and inspectors ensures continuous improvement.
Manufacturers know their own products in a way intermediaries never can. Our involvement starts with raw materials, winding through each reaction vessel, quality lab, safety check, package, and logistics handoff. This tight control not only avoids costly surprises; it ensures that technical support stems from a genuine understanding of the chemistry and the plant.
Common questions from buyers—about long-term storage conditions, material compatibility, and downstream process issues—can only be answered by professionals with on-the-ground experience. Our engineers, production supervisors, and technical sales staff don’t work off scripts. They draw from a history of scaling up pilot studies, reviewing real-time analytics, intervening during upsets, and identifying root causes when subtle discrepancies appear.
Changing global markets, shifting supply networks, and growing technical sophistication in end uses keep raising the bar. We’ve seen growth in Asia-Pacific and demand for higher-purity, lower-residue product in advanced materials sectors. This has driven us to reinvest in purification columns, solid-phase drying, and automation.
Feedback from downstream users pointed out bottlenecks—dealing with inconsistent feedstock, surging lead times, or transportation hiccups. We responded not by diverting to easier-to-source substitutions, but by reinforcing our inventory, expanding our sourcing base, and holding finished goods stocks at multiple regional hubs. The benefit shows up for users in real time: less production downtime, faster recovery from global or localized disruptions, and genuine troubleshooting support.
Meeting evolving requirements—whether a custom packaging size, lot traceability, or a novel technical use—takes open dialogue and the willingness to adapt processes with minimal red tape. From experience, chemical manufacturing isn’t about off-the-shelf solutions but about continuous learning paired with deep operational discipline.
Proper handling of 2,2-Dichloroethyl Ether means more than following the safety data sheet. Long before a drum leaves our plant, storage conditions, drum liners, and seals are validated for actual use environments. We suggest controlled temperature storage, careful segregation from incompatible materials, and ventilation—our guidance stems from actual storage failures we have witnessed over years, not from generic manuals.
Transport logistics get rigorous attention. We fit shipments with real-time sensors and track conditions crossing climate zones. Lessons come from lost cargo, customs holdups, and incidents traced to mishandled third-party warehousing. Our team stands by to assist with customs documentation, hazardous materials paperwork, and coordination with local emergency responders, reflecting our experience navigating international shipments and local last-mile delivery.
We offer hands-on support if users encounter issues with reactivity, off odors, unexpected color, or batch-specific questions. Rather than generic advice, our chemists and engineers review sample histories and analytical data before suggesting a next step. Collaborative troubleshooting calls with customer teams produce answers that avoid wasted time or product, strengthening ongoing trust.
Supply chain transparency—and its challenges—are part of daily life. In periods of raw material crunch or logistics disruption, we keep customers informed about what’s moving, what’s delayed, and why. Keeping communication open, even during tough stretches when critical input prices surge or weather halts shipments, builds a reliability factor that outlasts volatile years.
Our team tracks regulatory changes not just at the central government level, but wherever downstream users operate. If a formulation change or new product registration requires alternate packaging, revised component disclosures, or new hazard icons, we mobilize internal resources to provide precise, up-to-date support. Safety, compliance, and a willingness to pause a shipment until correct protocols are in place, underpin our entire production and delivery model.
Manufacturing engineers and supervisors voice it clearly—no piece of machinery, no batch protocol, no maintenance software replaces years spent seeing material run through the line. Subtle shifts in temperature profiles, pH swings or odor changes during a run signal issues in real time. Responding quickly to minimize off-spec batches and avoid downstream waste comes from this direct, hands-on knowledge.
We record every learning, encourage field feedback, and build collective memory into future runs. Our operational teams don’t chase quarterly metrics at the expense of long-term reliability. Every person in our plant—from operators to lab techs—carries a practiced eye for deviations, takes pride in correcting them, and understands that every drum carries our reputation. Long-term relationships and the willingness to adjust procedures based on real-world insights keeps our standards moving forward.
The substance bears a simple name, yet carries layers of responsibility, precision, and experience behind each drum. Our approach is clear: blend scientific rigor with a responsiveness tuned by years on the plant and in the field. For users in advanced synthesis, coatings, polymer modifications, or extraction, 2,2-Dichloroethyl Ether from our facility gives not only a chemical tool, but a partnership built on technical honesty and practical support.
As applications shift and global demand evolves, we keep learning and investing in better outcomes. The same drive that built our quality systems—rooted in real operational feedback—drives ongoing progress. By emphasizing clarity, accountability, and care for every chemical leaving our line, we aim to keep raising expectations for what reliable manufacturing looks like, empowering you to build, synthesize, and innovate with confidence.