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HS Code |
891923 |
| Iupac Name | 2,6-Dichlorobenzyl acetonitrile |
| Molecular Formula | C9H7Cl2N |
| Molecular Weight | 200.07 g/mol |
| Cas Number | 1125-77-7 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 292°C |
| Density | 1.28 g/cm³ |
| Refractive Index | 1.564 |
| Solubility In Water | Insoluble |
| Flash Point | 128°C |
| Purity | Typically ≥98% |
As an accredited 2,6-Dichlorobenzyl Acetonitrile factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, tightly sealed cap, hazard labels, 100 grams, manufacturer information, chemical name, purity, and safety instructions included. |
| Shipping | 2,6-Dichlorobenzyl Acetonitrile should be shipped in tightly sealed containers, protected from moisture, heat, and direct sunlight. It must comply with local, national, and international hazardous material transport regulations. Proper labeling, documentation, and use of appropriate secondary containment are essential to ensure safe transit and prevent leakage or accidental exposure. |
| Storage | 2,6-Dichlorobenzyl Acetonitrile should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from sources of ignition, heat, and direct sunlight. Avoid storing with oxidizers, acids, or bases. Ensure the storage area is equipped for chemical spills, with appropriate labels and safety signage, and restrict access to trained personnel only. |
Applications of 2,6-Dichlorobenzyl Acetonitrile in Industrial Manufacturing2,6-Dichlorobenzyl acetonitrile finds targeted roles as a key intermediate across established fine chemical segments. Our manufacturing expertise supports production at multi-ton scale, with strict adherence to industrial and regulatory demands across every downstream channel below. 1. Pharmaceutical Active Ingredient SynthesisThis compound serves as a strategic starting material in the synthesis of several pharmaceutical APIs, notably in heterocyclic product lines and selective anti-infective drug families such as anti-tuberculars. Our product consistently delivers high assay and low impurity profiles, supporting reliable coupling and substitution processes in GMP-compliant plants. Formulation scientists select this intermediate for its reproducible chemical reactivity in controlled batch and continuous-flow reactors, meeting the scale-up needs of commercial drug manufacturing. Industry compliance standards
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2. Agrochemical Intermediate in Herbicide DevelopmentLeading agrochemical processors incorporate this raw material in the synthesis of herbicidal and fungicidal actives, especially those deploying dichlorinated aromatics for resilience in field applications. Factories optimize the material input within multi-step chlorination, amination, or hydrolysis routines, especially in processes requiring high selectivity and conversion. Industrial QC teams rely on our consistent batch-to-batch purity and particle control to minimize impurity carryover risk in crop protection synthesis lines. Industry compliance standards
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3. Specialty Dye and Pigment IntermediateDye and pigment companies utilize this intermediate for producing dichloroaromatic-based colorants in the textile, plastics, and leather sectors. Within plant operations, formulators introduce it during key Friedel-Crafts alkylation or nitrile transformation steps, achieving high yields of target chromophores and improved resistance to UV and chemical exposure. We control batch purity to support the strict demands of color fastness and consistency required by global fabric and coating specifications. Industry compliance standards
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4. Fine Chemical Synthesis for Electronic IndustryManufacturers in the electronic chemicals sector adopt this material as an essential building block in the construction of halogenated specialty compounds, which ultimately serve in photoresist, liquid crystal, and display technologies. Chemical engineers introduce it during the formation of complex aromatic structures where halogen substitution governs electronic performance in the finished device. Our product ensures low trace metal and halide by-product content, critical factors in high-purity electronics chemical synthesis workflows. Industry compliance standards
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5. Custom Synthesis in Analytical Chemistry ReagentsProducers specializing in analytical reagents employ this intermediate for controlled preparation of halogenated reference standards and derivatization agents. Production chemists in custom synthesis workshops value the consistent impurity profiles and ease of integration with diverse reaction sequences, including those requiring high-purity outputs for GC and HPLC applications. By controlling process contaminants and ensuring full batch documentation, we support direct use in the certification of analytical methodologies deployed by accredited testing labs. Industry compliance standards
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Every time we scale up production of 2,6-Dichlorobenzyl Acetonitrile, we bring decades of chemical synthesis knowledge directly onto the factory floor. As the manufacturer, hands-on attention to detail starts from our sourcing of dichlorinated raw materials. Over the years, we’ve found that consistent particle size and purity at the early stage mean less risk of by-products later on. Our chemists inspect every step, from initial acylation to final nitrile formation, not just for theoretical compliance, but because subtle differences in temperature or agitation change the way product crystallizes. The space smells distinct when each reactor run finishes—those who’ve spent years in this business recognize by scent and color when this material comes out right. It’s the small observations like these, learned over hundreds of batches, that separate strong product from poor.
We never treat 2,6-Dichlorobenzyl Acetonitrile as just another commodity. The market expects reliability, especially from the source. Customers draw direct lines between their end-product performance and our consistency. Any irregularity, even one unnoticed by a casual observer, can trigger significant issues downstream. We take full responsibility for delivering on-spec material every single time. By emphasizing practical know-how in solvent selection, cleaning protocols, and control of moisture, our teams avoid contamination and cross-reaction concerns before they start.
Our focus isn’t on flooding the catalog with endless variants, but on crafting the most requested grade: high-purity, industrial-scale 2,6-Dichlorobenzyl Acetonitrile for advanced organic synthesis. Typical batches maintain chemical purity above 99%. What sets our process apart involves more than the final assay. Residual solvents, trace chlorinated impurities, and heavy metal contamination can ruin sensitive downstream processes; so our analytical teams, working under highly trained supervision, tighten controls at every stage. HPLC, GC-MS, and NMR data back each shipment.
Typical physical observations speak louder than charts. We produce a crystalline, pale solid that resists clumping and holds up well in sealed drums. The melting point matches reference standards with negligible deviation, a marker of batch-to-batch stability. No amount of spreadsheet documentation compensates for material that goes off-specific gravity or clumps on standing; that’s why our staff prefers to inspect every lot visually before it leaves our doors, no matter how robust the automation.
2,6-Dichlorobenzyl Acetonitrile remains a workhorse intermediate for both pharmaceutical and specialty chemical applications. Most customers draw on it as a building block for further transformations—amidations, reductions, and coupling procedures. These downstream operations require not just a certain level of purity, but a consistent impurity profile, as even minor unknowns might react unexpectedly under sensitive catalytic or temperature conditions.
Customers in the pharma sector value low residual moisture and absence of extraneous halogens; agchem users place stronger emphasis on traceability and compatibility with their own in-plant processes. Over years of direct feedback, we’ve adjusted not just the reaction control but also the downstream washing and drying regimens to cut down on hydrolysis and discoloration. Tight management of these parameters supports customer processes, reduces waste, and makes for safer scale-up at both pilot and full manufacturing scales.
Each shipment supports a range of chemistry operations, from hydrogenation and cross-coupling to full-scale active ingredient synthesis. Observing how different clients describe their use-cases helps inform our ongoing improvements. Some seek maximum solubility in polar solvents; others demand specifics on volatility for use in continuous-flow systems. We collect and use this information directly, driving process tweaks that allow operators in European plants and labs as well as Asian continuous operations to trust our material in their environment. Their feedback—especially comments on how our product saves troubleshooting in kettle reactions—shapes adjustments in our protocol more than any textbook reference.
Not all chemical intermediates are created by the same route, and nothing illustrates this better than the market range for 2,6-Dichlorobenzyl Acetonitrile. We’ve sampled competitor products—most appear adequate on a surface assay, but our trials show variable impurity levels, residual solvent traces, and inconsistent melting points. We see these differences highlighted most clearly when clients report clumping on storage or trouble dissolving the product in standard solvents. In these cases, animated lab notes circulate among our team, marking up where offending batches failed in customer trials, and we dig through every aspect of our own method to ensure we never follow the same path. This sort of competitive analysis isn’t academic; it drives root-cause review on our side for even trace deviations.
Synthetic method plays a big role. We stick to a process developed for minimal formation of polychlorinated by-products. Unlike resellers or distributors, we maintain control from the first charge to the last drum sealed. This direct oversight means fewer surprises in downstream yields on the client side. One thing that comes up time and again: customers notice when our material lets them push transformations further, leading to higher product yields or cleaner filtrate in their own processing. They cite our controlled impurity profile as a reason for reduced batch re-work, which translates to cost savings and fewer regulatory hiccups.
We steer clear of rough-shod scale-up that can plague quick-turnaround providers. Feedback from the field suggests that suppliers who rely on batch blending or spot purchases from third-party plants deliver material with broader variance. Every time a small trader blends a failed lot to meet a target, unknowns creep in. Our full-lifecycle control—right from raw purchase decisions, through synthesis, to packaging—minimizes this risk. We believe that being the direct source gives customers a level of confidence that can’t come from a paper trail alone.
Handling dichlorinated intermediates brings safety center stage. We build our plant layouts and train our staff to keep personnel exposure and environmental release as close to zero as practicable. Controlled ventilation, monitored discharge and effluent capture, and rigorous maintenance routines stop leaks and emissions before they occur. Day-in, day-out, our staff walk the line between efficiency and caution; in-process alarms or local spills aren’t just logged for compliance, but prompt a full review of procedures. This boots-on-the-ground experience guides our design of both new and retrofit equipment.
As manufacturers, we shoulder the broader environmental burden. Chlorinated chemical manufacture can raise local and regional pollution concerns if waste isn’t managed properly. Our teams run extensive testing of effluent, trace volatilized organic compounds, and solid waste from production. Every year, we invest in upgrading scrubbing and waste treatment capacity. Over time, our process refinements have dropped total organic chlorine output by a significant margin, and we hold ourselves publicly accountable through regular audits. We don’t cut corners or rely on temporary fixes. Factory staff take pride in zero-discrepancy results during spot checks by third-party inspectors.
Transport of finished 2,6-Dichlorobenzyl Acetonitrile deserves mention here too. Packaging materials come selected for durability and chemical compatibility. Shipments leave our dock with robust secondary containment and clear, multilingual warnings. Drivers and warehouse teams receive direct hazard communication, not just stickered packages. Every incident gets followed up with retraining and additional procedural safeguards. We owe it to both our workers and end-users to eliminate avoidable risks at every stage.
The strongest relationships emerge when customers view us not just as a production facility, but as a direct technical partner. Phone calls and emails to our in-house technical staff run the gamut: process development queries, solvent compatibility checks, and batch troubleshooting. Many requests come from chemists running pre-launch trials; they discover an unexpected side reaction and need a deep dive into potential impurity origins. Our experienced process engineers troubleshoot along with them, reviewing old batch logs and correlating minor parameter shifts with new impurity peaks.
Facilitating direct communication lets customers bring up issues many layers of distributors would overlook. Once, a large-tablet manufacturer found that their wet granulation step failed only with material from certain sources. Talking directly, we realized this stemmed from minor residues in their line reacting with trace impurities in competitor supplies—a problem eliminated in our material by virtue of a cleaner wash step. Many successes in client plants trace back not to specification sheets, but to honest, hands-on discussion and joint troubleshooting. In our experience, the closer the dialogue, the fewer surprises downstream.
While we regularly update our web-based documentation, nothing replaces the exchange of physical samples, feedback, and follow-up. Our willingness to take responsibility for both successes and failures earns long-term business. We note every unusual use-case: a custom pharmaceutical client adapting our 2,6-Dichlorobenzyl Acetonitrile for a new coupling protocol reports back on batch solubility and color, while an agricultural developer shares long-term storage data from their own warehouse. Each real-world note informs the direction of our in-house research and development, encouraging incremental improvements.
Ensuring a steady stream of quality 2,6-Dichlorobenzyl Acetonitrile involves a mix of technical diligence and contingency planning. Process control systems gather data across every batch; our engineers monitor temperature, agitation speed, and reagent flow in real-time. If any tracking value runs outside normal limits, adjustments happen not after the fact, but immediately. Batch review panels meet daily to examine all process data, including operator logbooks—downtime always means root-cause review, looking for both machine and human factors.
Sourcing remains critical, too. Relationships with suppliers of key dichlorinated materials date back decades, and regular on-site audits verify ongoing quality. When global supply tightens, we draw on both inventory and strong contracts so shortages won’t affect the customer downstream. We never switch supplier on short notice without thorough lab testing of incoming lots and a lengthy validation run.
Innovation also has a place in chemical manufacture. Our R&D focuses on alternative synthetic routes that reduce waste, cut hazardous reagent use, and speed up reaction time. Mechanochemistry and flow chemistry approaches have shown potential for future scale-up, and our technical committee tracks advances reported in the literature to decide whether to trial new methods in plant. Small pilot runs often run alongside full-batch production, letting us compare results in real time without disrupting regular supply.
Quality assurance moves far beyond the minimum required audits. For every outgoing drum, staff certify not just assay, but also color, physical state, and documentation of full process history. We maintain complete traceability—should any downstream client flag an anomaly, we backtrack every input and processing step for full investigation. The difference between push-button production and responsible manufacturing shows up over years; consistency stems from hands-on engineering, regular investment, and a strong sense of professional pride among experienced staff.
Direct, in-house manufacture of 2,6-Dichlorobenzyl Acetonitrile creates real advantages that no trader or reseller can honestly match. Understanding every parameter in the synthetic process means catch issues before they affect the client. By keeping the knowledge and accountability under one roof, we create a culture where responsibility connects everyone—from the reactor operator to the quality manager. Problems surfaced in the plant, in logistics, or by the end customer tie back immediately to people who can actually make changes, not to a faceless intermediary.
With public interest in chemical supply chain security rising, more clients ask tough questions about sourcing, documentation, and safety. Answering those questions with confidence comes naturally when operating the process directly. Our transparent approach—open to third-party audits, regular client visits, and sample requests—reflects both industry tradition and a forward-looking responsibility to society. Clients can—and do—visit our plant floor, seeing all production, storage, and QA operations firsthand.
Integrity in chemical manufacture isn’t a remote ideal. Every decision made here—raw material choice, process tweak, lab result review—impacts both the customer’s bottom line and broader safety outcomes. Recognizing that ethical manufacturing and technical excellence go hand in hand, we commit to continuous improvement and direct, honest communication at every step. This hands-on, responsible approach drives strong, lasting trust with customers who depend on 2,6-Dichlorobenzyl Acetonitrile as a key enabler in their operations.
Long-term demand for 2,6-Dichlorobenzyl Acetonitrile grows together with both pharmaceuticals and new specialty chemicals. Our teams stay alert to shifting requirements—stricter impurity limits, ever-tighter environmental regulation, or new synthetic techniques. Close dialogue with global partners keeps us aligned with regulatory changes, both domestic and abroad. Our technical staff participate in industry consortia and share operational experience, helping set best-practice standards that benefit the wider community.
Expanding manufacturing capacity means balancing scale with the close control that retains consistency. Rather than automate away the expertise of our teams, we reinforce hands-on oversight with digital monitoring and quality checkpoints. Our new facilities feature advances in filtration, environmental control, and energy efficiency, but trained human judgment still stands as the foundation for every release.
As chemistry evolves, so too will our approach—driving more sustainable inputs, reducing energy intensity, and targeting zero-waste operation. The lessons learned over years at the bench and on the plant floor shape our optimism for the future, as well as our commitment to the chemists who trust us at every step.