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HS Code |
737251 |
| IUPAC_Name | O,O-Diethyl-O-(2,2-dichloro-1-(β-chloroethoxy)vinyl)phosphate |
| Molecular_Formula | C8H13Cl3O4P |
| Molecular_Weight | 341.53 g/mol |
| Physical_State | Liquid |
| Color | Colorless to pale yellow |
| Boiling_Point | Approximately 120-130°C at 1 mmHg |
| Density | 1.4 g/cm³ (approximate) |
| Solubility_in_Water | Insoluble or very slightly soluble |
| Vapor_Pressure | Low |
| CAS_Number | 333-41-5 |
As an accredited O,O-Diethyl-O-(2,2-Dichloro-1-Β-Chloroethoxyvinyl) Phosphate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 500 g amber glass bottle with a tight-sealed cap, clearly labeled with chemical name, hazard symbols, and safety instructions. |
| Shipping | Shipping of O,O-Diethyl-O-(2,2-Dichloro-1-β-chloroethoxyvinyl) phosphate must comply with hazardous materials regulations. It requires UN-approved containers, proper labeling, and documentation. The substance should be protected from heat, moisture, and incompatible materials. Only trained personnel should handle transport, following international and national safety guidelines for toxic and environmentally hazardous chemicals. |
| Storage | **O,O-Diethyl-O-(2,2-Dichloro-1-β-chloroethoxyvinyl) phosphate** should be stored in a tightly closed, clearly labeled container in a cool, dry, and well-ventilated area. Keep away from direct sunlight, incompatible materials (such as strong oxidizers and acids), and sources of ignition. Store in a secure, chemical storage cabinet with appropriate spill containment and follow all local, state, and federal regulations for hazardous chemicals. |
Applications of O,O-Diethyl-O-(2,2-Dichloro-1-Β-Chloroethoxyvinyl) Phosphate in Industrial ManufacturingO,O-Diethyl-O-(2,2-Dichloro-1-Β-Chloroethoxyvinyl) Phosphate serves as a key organophosphate intermediate for specialized industrial sectors. Our production process ensures target specification, high purity, and batch consistency for strategic customer applications across regulated markets. 1. Advanced Agrochemical SynthesisOur material acts as an essential active ingredient precursor for the production of highly selective organophosphate insecticides targeting resistant pest species. Customers deploy it in closed-batch or continuous synthesis lines under controlled conditions to maximize yield and stability. Upstream and downstream process controls require rigorous in-process testing for isomer content and residual dichlorinated by-products. Target applications include pesticide formulations for regulated crop protection regimes in major agricultural export economies. Industry compliance standards
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2. Veterinary Ectoparasiticide ProductionVeterinary pharmaceutical manufacturers use this phosphoric ester as a building block for systemic and contact insecticides aimed at livestock applications. Product purity, inert additive compatibility, and residual contaminant control play a major role in ensuring animal safety and operator handling compliance. Custom production lines feature closed-system dosing, temperature-controlled reactions, and thin-film evaporation for maximal conversion and impurity removal. Industry compliance standards
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3. Seed Treatment Chemical ManufacturingSeed treatment solution producers incorporate our phosphate material as a core component for the synthesis of insecticidal coatings that protect seeds during storage and initial germination. Batch production utilizes precision micro-dosing and real-time viscosity monitoring to balance bioavailability and seed compatibility. Manufacturing lines require exacting raw material traceability, elimination of off-odor generation, and assurance of no phytotoxic breakdown products. Industry compliance standards
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4. Intermediate for Fine Chemical SynthesisSpecialty chemicals and intermediates manufacturers rely on our compound as a chlorinated organophosphate building block, enabling synthesis of custom phosphoric derivatives under controlled conditions. The process employs multi-step reactions, stoichiometric control, and managed waste streams for downstream conversion to complex molecular scaffolds. All shipped lots undergo full certificate of analysis and spectral confirmation. Industry compliance standards
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Competitive O,O-Diethyl-O-(2,2-Dichloro-1-Β-Chloroethoxyvinyl) Phosphate prices that fit your budget—flexible terms and customized quotes for every order.
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O,O-Diethyl-O-(2,2-dichloro-1-β-chloroethoxyvinyl) phosphate, known by many technicians simply as “Dichlorvos-derivative Organophosphate”, comes with a precise chemical architecture crafted for pest control. As a direct manufacturer, our workplace keeps every batch tightly monitored, from synthesis to packing. The molecular structure combines the strength of three halogen groups with the versatility of an organophosphate backbone. This gives rise to an active chemistry that continues to provide dependable control over pests in fields where resilience develops rapidly among insect populations.
If you trace the history of crop protection, many early molecules gave impressive first results, then faded as resistance set in. Real farm experience reveals that this particular phosphate allows for consistent knockdown, even when pests shrug off older formulas. Our process does not chase after over-hyped features or unproven tweaks. Each reactor run goes through deliberate temperature ramping and continuous impurity checks. As a result, the technical powder provides purity close to 98% active ingredient, confirmed by HPLC and gas chromatography every week.
During production, the crystalline powder forms under tightly regulated agitation and cooling, ensuring flowability for downstream mixing. Customers running their own in-house QC appreciate that our batches don’t bring surprises. The melting point falls within the tightest practical range given natural process variation. Typical particle size sits between 50-120 microns, supporting suspension concentrates and emulsifiable concentrates alike, without clogging lines or causing mechanical headaches later.
Solubility remains crucial—this phosphate readily dissolves in many organic solvents used by formulation chemists who need flexible options. Water solubility stays low, as expected for organophosphates, reducing the loss during foliar applications or tank-mixes. Technical specification sheets show stabilization agents and anti-caking additives only where requested; customers wanting a plain, pure technical concentrate receive exactly that. We never blend down with inert fillers.
Many commercial operators give direct feedback, sometimes bluntly. Agronomists and pest controllers want a product that performs without fuss. For example, in rice paddies across Southeast Asia, our formulation team heard repeated requests for a dust-free product to avoid respiratory discomfort in open-air spraying. After plenty of batches and real field feedback, we brought down airborne fines by improving our drying and milling steps. Grab samples sent to independent test labs confirm the reduction in respirable dust—a change born from talking to, and listening to, the folks using the product, not just theorizing in an R&D office.
Contractors have also shared their frustrations with inconsistent emulsification rates in certain high-calcium groundwater regions. By going back to our blend and adjusting surfactant compatibility, we minimized phase separation. The lessons learned here get worked back into every step of plant operation, from pre-weighing raw materials to optimizing storage humidity.
Manufacturers know full well that life in chemical production doesn’t stand still. Regulatory standards grow stricter every year. Few outside the industry see just how much paperwork and lab time go into every kilogram shipped. Each production batch passes through not only our own in-house environmental control but also scrutiny from regional safety and residue authorities, especially across the European and Asian export markets. Our experience has shown that staying one step ahead on impurity profiles helps avoid costly shipping delays and product recalls across borders.
No matter how much technology changes, customer trust gets built slowly, destroyed in a minute. We took a very deliberate approach, bringing our own GC-MS (gas chromatography–mass spectrometry) capacity in-house instead of relying on third parties. This allows us to catch trace contaminants or legacy by-products before they get sealed in the drum. The additional time spent checking batch history, up and down the production chain, often saves huge costs by catching outliers before they become a problem in a customer’s process.
This O,O-diethyl phosphate derivative stands apart from older-generation compounds in important ways—ones honed under real-world pressure rather than marketing hype. Take Malathion and Chlorpyrifos, both widely familiar to anyone trading crop protection chemistry. They perform in certain roles, but reports frequently mention disappointing activity against pests with developed enzyme-based resistance. By contrast, our molecule’s halogen pattern disrupts cholinesterase in a slightly different binding profile, providing renewed knockdown in areas where those alternatives now falter.
We’ve also seen application ease improve in comparison to other technical-grade powders. Users mixing older products often found clumps or persistent dust, leading to extra clean-up or possible over-exposure. Our manufacturing line targets a fine-particle granule free from clumping, favored by formulation partners developing both wettable powder and emulsifiable concentrate. Where competitors may cut corners with anti-caking silica or bulky fillers, our focus ranks purity and reproducibility as a top priority.
Handling characteristics show the difference in daily use. The slight but critical change in viscosity and flow lets blending and tank mixing move faster, particularly for large-volume agricultural users. Our audits revealed that this gives our direct users two advantages: higher throughput at the mixing line and less downtime from sedimentation-related clogging.
A significant distinction comes in shelf-life. Past decades saw too many technical products lose potency after sitting in sub-optimal warehouse conditions. Rigorous in-house stability testing under cycling temperature and humidity profiles means this molecule holds up without rapid hydrolysis or loss of pesticidal activity, provided reasonable storage. Consistent data shows less than 2% activity loss over two years—vital for any distributor managing variable inventory cycles or long-haul shipments.
On the manufacturer’s floor, nothing commands greater attention than safe handling procedures. Each drum, each transport vessel traces back to our in-house records. Staff working with this chemical wear appropriate PPE, follow strict containment SOPs, and use air-scrubber systems, not only for their protection but also to maintain batch consistency. We provide free workshops for downstream handlers because accidents rarely stem from molecules—they come from rushed routines and corner-cutting.
Feedback from handlers in export markets led to changes in our labeling, packaging, and drum design—double-sealed liners, UV-protected containers, and tamper-proof caps all grew out of direct conversations with users who confronted harsh shipping and long outdoor storage. Should a customer report a problem with a leaky drum or chemical exposure risk, we treat the issue seriously, pulling plant staff into after-work meetings to find out what went wrong and fix it before the next batch.
We recognize that safe use doesn’t stop at our factory gate. Even with all the testing, real-world variability happens. We rely on user reports from the field—temperature, wind, humidity, and application equipment all make a difference. That means keeping a responsive dialogue, trouble-shooting for applicators facing unusual local conditions, and sending technical teams to help recalibrate blend rates on-site when challenges arise.
Brochure claims don’t win trust in our business. Only reliable specifications, met batch after batch, make the difference between a supplier who lasts and one who burns through reputations. For over a decade, we’ve tracked two key outcomes: minimization of batch-to-batch impurity drift and robust shelf stability under actual cargo and warehouse conditions. Clients needing tight residue compliance—like exporters to Japan or the EU—won’t accept “close enough.” We stand behind our real-world test data, sent along with every load, not buried in the fine print.
Our team has thrown away more than one intermediate run because of off-spec readings. It isn’t an easy decision, knowing the raw material cost, but shipping anything substandard leads to far worse headaches—export detentions, legal issues, customer downtime, and worse, loss of trust. We’d rather bear the loss than risk the relationship.
When a customer writes in with technical queries or hands us residue data, we treat these as a chance to get better and to deliver something measurable and reliable, not just meeting regulatory lines but staying well within them. Incremental process upgrades often start from the field—barcode traceability, batch-specific impurity maps, and even open-door audits from key users. This feedback loop drives every improvement, not just in specs but in day-to-day reliability.
Environmental responsibility takes more than sticking a green label on a drum. We learned years ago that regulatory compliance forms only hint at the real challenges our operators face. Chemistry like O,O-diethyl-O-(2,2-dichloro-1-β-chloroethoxyvinyl) phosphate draws well-deserved scrutiny for persistence and runoff potential. Our on-site water treatment system does more than meet standards; outlet water gets tested every shift for potential phosphate and chlorinated compound traces. All spent wash and contaminated water routes into closed-loop treatment before final neutralization. These steps add cost, but help maintain operating rights and peace of mind among staff and neighbors.
In field applications, customers asked for more support to limit off-target impact. Our technical advisers guide users to apply at minimum drift settings, targeting spray windows that minimize risk to non-target organisms. We’ve shifted formulation options, offering microencapsulation and more precise banding options based on years of feedback from conservation-minded growers. By combining production-site controls with end-user advice, we strive to close the loop on environmental impact—this isn’t about empty claims but about measurable outcomes.
Any chemical manufacturer sees that every year brings new formulation demands. Weather shifts, regulatory changes, pest migration patterns, and export restrictions all push the limits of flexibility. Our investment in continuous staff training and development means that each shift learns not just how to make a chemical, but why specific process steps matter. Downtime for maintenance gets scheduled around raw material quality—no shortcuts on cleaning or recalibration, no quick restarts that risk cross-contamination. Operators and lab staff own the process, not just management. That detail shows up in our repeatability, our field results, and our ability to respond to calls for rapid process modification.
Change doesn’t only come from the top down. Technicians running reactors see contamination risks or process bottlenecks that no outside observer could. We keep open forums for suggestions—recent tweaks to our filtration housings directly followed frontline advice. Long-term customers know that their recurring requests, for tweaks in bulk density or updated handling protocols, get real consideration. We’ve even invited users to plant tours so they can see—unfiltered—how adjustments get made in real time.
A chemical like O,O-diethyl-O-(2,2-dichloro-1-β-chloroethoxyvinyl) phosphate never stands alone; its value rises with every real-world challenge it addresses. Experience tells us pure technical specs matter—but only in combination with actual feedback, robust Q&A, and discipline in cleaning up production lines. We’ve learned to treat customer problems with urgency. Drums or big bags go out with batch test results and transparent documentation, not after-the-fact explanations or excuses.
With every year, our operation banks on lasting relationships built on tested reliability. The difference between a generic technical powder and what we deliver comes down to repeatable outcomes for growers and mixing partners. Whether you manage a supply chain across continents or mix up a jugload on a farm, product consistency, unimpeachable purity, and honest dialogue build the results you rely on.
Every tank mix, every pass in the field—each marks another chance for us to earn and keep your trust amid shifting standards and tougher pests. From the core of manufacturing, we see that success starts in the plant, grows in the field, and endures only through respect for those who use the chemistry each day.