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HS Code |
934223 |
| Chemical Name | 2,6-Dichlorobenzyl Alcohol |
| Molecular Formula | C7H6Cl2O |
| Molecular Weight | 177.03 g/mol |
| Cas Number | 1777-82-8 |
| Appearance | White crystalline solid |
| Melting Point | 41-43 °C |
| Boiling Point | 282 °C |
| Solubility In Water | Slightly soluble |
| Density | 1.36 g/cm3 |
| Odor | Characteristic aromatic odor |
| Flash Point | 156 °C |
| Synonyms | 2,6-DCBA; Diclosan |
| Uses | Antiseptic and preservative |
As an accredited 2,6-Dichlorobenzyl Alcohol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, 100g, sealed with a screw cap, chemical label displaying "2,6-Dichlorobenzyl Alcohol," hazard symbols, and lot number. |
| Shipping | 2,6-Dichlorobenzyl Alcohol should be shipped in tightly sealed chemical containers, protected from light and moisture. It must be clearly labeled and cushioned to prevent breakage. Comply with all relevant transport regulations, using appropriate hazard labels if applicable. Store and transport at ambient temperature, away from incompatible substances and ignition sources. |
| Storage | 2,6-Dichlorobenzyl Alcohol should be stored in a tightly sealed container in a cool, dry, and well-ventilated area away from direct sunlight and incompatible substances such as strong oxidizers. Keep the storage area free from ignition sources and moisture. Proper labeling is essential, and access should be restricted to trained personnel. Follow all relevant safety and regulatory guidelines. |
Applications of 2,6-Dichlorobenzyl Alcohol in Industrial Manufacturing2,6-Dichlorobenzyl Alcohol finds industrial uptake in several advanced chemical and specialty manufacturing chains, specifically where controlled antimicrobial action, stability, or specific molecular reactivity is required by regulated end-product sectors. Below we outline verified downstream applications with detailed parameters for formulation, compliance, production process, and typical finished goods. 1. Pharmaceutical Lozenge and Oral Care ProductionOral health product manufacturers use this material chiefly as an active antimicrobial agent in medicated lozenges, where it targets gram-positive bacteria responsible for throat and mouth discomfort. Due to its established track record, producers standardize inclusion rates according to patient safety and efficacy data, aligning with local pharmacopoeia and finished product regulations. The raw material typically enters at the syrup blending stage before final mixing and tabletting or molding. Finished lozenges and oral antiseptic solutions require validated in-line and end-of-line QC testing for compliance. Industry compliance standards
Typical usage ratio
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2. Preservation Systems in Cosmetic and Personal Care FormulationsThe compound functions as a preservative component in personal care emulsions and suspensions, where formulators utilize its bacteriostatic effects within tight regulatory thresholds. It is employed mainly in European and APAC markets under cosmetic regulations restricting preservative types and dosages. Cosmetic manufacturers add this input at the formulation tank, often paired with other preservatives or mild antimicrobials to achieve required shelf-life and challenge test outcomes. Rigorous batch record and QC systems confirm compliance before bulk or retail packaging. Industry compliance standards
Typical usage ratio
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3. Antimicrobial Additive in Veterinary PreparationVeterinary pharmaceutical manufacturers depend on this input for oral and topical animal care solutions, benefiting from its targeted activity and low toxicity profile for companion and farm animals. Regulatory guidance prescribes allowable concentrations for active substances in over-the-counter veterinary medicines. Raw material addition usually occurs at the premix tank for accurate dosing, heat management, and uniform dispersion. Process lines undergo residue and batch integrity checks to support traceability and pharmacovigilance data collection. Industry compliance standards
Typical usage ratio
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4. Intermediate for Biocide SynthesisChemical plants and specialty biocide producers adopt this compound as a key intermediate for the synthesis of targeted antimicrobial agents and preservative actives. Its reactivity and chlorinated aromatic structure enable its use in finely controlled reactions including etherification, esterification, and direct halogenation. Reactors apply tight process windows for temperature, inert atmosphere, and controlled addition to maximize conversion and intermediate yield, followed by purification and crystallization. Final output undergoes isomer and purity testing before downstream blending or direct sale to specialty formulators. Industry compliance standards
Typical usage ratio
Downstream process integration
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Navigating the tight tolerances of the specialty chemicals sector leaves little room for compromise, especially on compounds like 2,6-Dichlorobenzyl Alcohol. From the first batch to the latest shipment, our experience has shown that true reliability doesn't come from following a formula; it grows from years of practical challenges and direct feedback from formulation chemists and process engineers. This compound stands as one of those materials that always sparks a lot of interest during plant visits, with good reason. So let's lay out what sets 2,6-Dichlorobenzyl Alcohol apart based on real production, not just sales talk.
Over decades in chemical production, we've seen trends come and go. 2,6-Dichlorobenzyl Alcohol (DCBA), produced under rigorous controls, stands out because of its particular combination of stability, purity, and targeted reactivity. Long used as an antimicrobial agent, its unique structure — two chlorine atoms at the 2 and 6 positions on the benzyl ring — gives it antibacterial and antifungal punch that finds use in oral care and throat lozenge products. Not every chlorobenzyl alcohol delivers the same performance, and the difference traces back to details in molecular arrangement and process consistency.
The two chlorine atoms not only help with antimicrobial activity, they also bump up resistance to degradation during handling and storage. While other benzyl alcohol derivatives may break down or darken, especially if exposed to sunlight or variable temperature, DCBA holds its clarity. You keep your ingredients shelf-stable and your finished formulation visually clean.
Years on the floor have shown us how trace contaminants in fine chemicals can throw off entire production runs downstream. We sweat the details so our DCBA performs batch after batch. Our facilities use high-precision distillation and dedicated glass-lined reactors to avoid cross-contamination common in multi-product plants. Analytical labs test raw material purity, check in-process samples for off-target byproducts, and confirm finished goods below target impurity thresholds. It only takes a whiff of chloroaromatic byproduct in reagents and the whole campaign can lose value. We trace our products from lot to lot, document chain of custody for all inputs, and make sure GC and HPLC results match what we promise.
Over the years, we've found that DCBA with purity above 99% simplifies downstream R&D and reduces troubleshooting. We avoid cutting corners on drying or filtration steps, since even a little excess moisture or fine particulate can cause headaches. Direct observations from our customers have convinced us that investing in cleanliness at the early stages pays off in fewer customer rejections and less waste down the line. The end users who formulate oral hygiene products or throat lozenges rely on this attention to detail to meet both their regulatory and market-driven quality challenges.
We understand commercial formulators’ priorities because we’ve supplied them long enough to experience their day-to-day needs. 2,6-Dichlorobenzyl Alcohol comes out of our lines as a crystalline, white powder with a mild aromatic odor. It shows a melting range around 62–64°C and exhibits low volatility, which removes headaches during heating or mixing at moderate process temperatures. Moisture levels hover below 0.2% as standard, and we keep ash and other residuals well below 0.1%. If customers reach out about tighter specs due to their equipment sensitivities, we routinely dial in bespoke lots — not just lab samples but scale production with the paperwork to back it up.
We don't offer overly broad spec sheets that hide process variability. Our chemists routinely walk through GC profiles, reviewing each batch for minor but critical peaks. Over time, these rigorous checks have curbed the sort of drift that earlier generation manufacturing tolerated. Rather than counting on post-manufacture cleanup, we build purification and filtration steps into the heart of our standard protocol. This attention to raw input and final output assures smoother scale-up, whether our compound joins as an active agent in a high-speed tablet press or disperses evenly in confectionery plants.
Folks new to the specialty chemicals market sometimes confuse 2,6-Dichlorobenzyl Alcohol with its structural cousins. It helps to be specific. Other chlorobenzyl alcohols — such as 4-chlorobenzyl alcohol or 2,4-dichlorobenzyl alcohol — do exist, but their physical properties and reactivities diverge. We’ve tested these analogs side-by-side and have noticed notable changes in melting points, solubility, and stability.
The two chlorine atoms at the ortho positions (2 and 6) bring steric and electronic effects that shape the performance profile. Compared to the 4-chloro variant, 2,6-DCBA is less prone to discolor under forced aging and maintains better integrity under UV exposure. In mouthwashes and lozenges, this translates to longer shelf life and fewer surprises in sensory testing. The odor profile remains mild, avoiding sharp notes that can make certain derivatives unpalatable. While non-chlorinated benzyl alcohols bring utility in inks or plasticizers, their lack of inherent antimicrobial strength makes them poor substitutes in most health-related uses where DCBA shines.
We’ve worked with food regulatory teams and quality assurance chemists who deal firsthand with the consequences of picking the “wrong” analog — usually prompted by supply chain hiccups or off-spec lots. Downtime trying to reformulate or fix stability runs often outweighs any short-lived savings from substituting on paper. There’s no real shortcut here: exact position of substituents and tight process controls matter just as much as buying the right CAS number.
Our history with the product stretches back to its inclusion in medicated confectionery, especially lozenges and pastilles. Process engineers in these factories praise DCBA for dispersing easily into aqueous and sugar bases. Our own technical teams periodically visit customer sites during plant trials, helping fine-tune melting and dosing techniques. Any residue or clumping can pose a threat to production rates, so we keep a close watch on sieve test readings and bulk density metrics.
Beyond candy lines, pharmaceutical labs rely on DCBA not just for its biological activity but for its predictable crystallinity. Batch-to-batch reproducibility means stability chambers fill with fewer surprise outliers. It holds up in accelerated aging protocols, a must for products that might sit in global warehouses for months. In cosmetics, our clients leverage its mild but effective antimicrobial touch for products that claim “free of traditional parabens” yet still demand multi-month shelf lives. Again, the choice of accurate isomer brings both regulatory relief and consumer assurance.
Our investment in production lines makes a difference during supply booms and squeezes alike. We've scaled our reactors to accommodate not just baseline demand, but planned spikes during cold and flu season, when makers of throat lozenges and sprays often require expedited deliveries. Our location near key feedstock terminals helps us secure precursor chemicals even when global shipments face disruptions. Tracking logistics in real-time, we agree on flexible delivery schedules with clients who operate just-in-time warehousing, and can pre-position inventory at distribution nodes when needed.
Critical to uninterrupted supply, we hold backup raw material reserves and cultivate relationships with vetted secondary suppliers for our chlorine and benzylic precursors. These are not shortcuts; they reflect long experience with how quickly single-source bottlenecks can upend a production calendar. As the sector moves to more transparent procurement and digital batch tracking, we already provide data on origin, process dates, and every transfer point, as expected by both multinational and regional buyers.
Years of working directly with regulatory auditors have taught us that compliance demands cooperation, not shortcuts. Our plants undergo periodic GMP reviews, provide exposure controls for line operators, and guarantee that finished material meets or beats residue guidelines set by local and global authorities. Finished product never leaves our plant without documentation, CoAs, and in-depth trace data reflecting both process and packaging steps.
Safety on the shop floor shapes our batch protocols. Closed transfer, careful venting, and personal protective equipment have kept our team safe through thousands of hours in production. Though DCBA itself resists rapid vaporization, chlorine handling and chlorination reactions create risks best managed by long-practiced professionals. Over the years, sharing what we’ve learned with downstream processors — including clear guidance about optimal temperatures and compatible materials — has built trust with our client base.
No industrial-grade chemical remains entirely trouble-free. Let’s face down a few application headaches that real users cite — not the ones found in textbooks, but through feedback after months and years of real-world usage.
Moisture pick-up during shipping, especially in humid climates, shifts flow characteristics and can drag down process efficiency. So, we’ve overhauled our packaging line to include high-barrier liners and triple-sealed bags within fiber drums. Warehouse managers who struggled with caking and slow dispersal now report cleaner handling and reduced waste.
Some users in oral care run into clumping when dispersing DCBA at low temperatures. Drawing from our own formulation labs, we recommend gradual temperature ramps and using light agitation during addition. We’ve minimized the dust fraction in our product, so airborne particles stay low, lessening clean-up and operator exposure.
Regulatory teams occasionally raise concerns about residual solvents. Audits on our process streams keep solvent use efficient, and we routinely push post-purification down to levels exceeding both pharmacopeial and food grade requirements. Ongoing dialogue with safety officers has led to joint batch reviews, updated safety data sheets, and periodic recalibration of our detection labs.
Questions sometimes arise concerning allergen or contaminant cross-contact from shared facilities. Our proactive stance involves dedicated lines for allergen-sensitive products and robust wash-out protocols between campaigns. Plant tours and open-book audits with select customers have strengthened understanding, prevented miscommunications, and led to direct improvements in both our and their procedures.
Growing calls for greener chemistry influence every stage, from raw material sourcing to waste disposal. We’ve invested in recovery units that recycle process water, and we neutralize chlorinated byproducts before any effluent exits our plant. Close relationships with specialized waste handlers ensure that every drum of byproduct receives the right treatment — no shortcuts to landfill, no “dilution” downstream.
For years, we’ve pressed bulk chemical suppliers to provide data on the energy footprints and transport miles tied to our raw materials. Not every vendor comes prepared, but persistent questioning nudges the sector to more transparency. Our long-term goal: reduce both direct and indirect emissions per metric ton of finished DCBA and share these numbers openly with our largest partners. Asset managers and procurement leads at end-user companies increasingly cite these statistics in long-term sourcing decisions.
Customer pressure for less plastic and lower net waste has prompted us to pilot reusable and recyclable secondary containers. We're working with logistics firms on returns protocols, and trialing new bulk tote systems to cut down on packaging trash. Regional buyers in pharma and food industries have responded positively, requesting pilot lots in greener containers for their new launches. This sort of feedback loop drives steady, incremental change in an industry rarely known for overnight reinvention.
For our R&D clients, traceable, high-purity lots of DCBA enable confident data collection and scale-up. Providing clear technical support shortens the time spent troubleshooting or repeating early stability runs. We've walked in the labs of legacy pharma houses and new food innovation centers alike, listening to their gripes about inconsistent lots from less focused suppliers. Our method? Deliver robust, referencable batches, so technical teams can focus on novel delivery systems or clinical testing, not ingredient second-guessing.
On the production line side, reliability governs everything from mixing time to output yield. We’ve worked with teams introducing new automated dosing, and our granular consistency — no surprise lumps, no dense “rocks” — keeps line speed high, lowering unplanned downtime. Real process chemistry teaches that one off-kilter drum can snarl a batch record; a five percent error rate means twelve hours of cleanup and scrap, not just a written warning.
By engaging directly with both small-scale researchers and multinational factory buyers, our team has learned where the true pain points lie. Open feedback, whether critical or congratulatory, shapes our continuous improvement cycle. DCBA users can expect both standardization and agility: what works best for them, improves our products for the next client.
Reading market reports or catalog blurbs rarely prepares anyone for the realities of industrial chemical supply. Our approach comes from batches gone right — and the handful that taught us tough lessons. We know what it means to lose product to an unexpected lab test and to retrain production technicians after process drift. These experiences have taught us to respect every detail, from the nuts-and-bolts of chlorination to the nuances of long-term storage.
We don’t disparage distributors or resellers, but as the company with skin in the game, we carry both the responsibility and pride in seeing 2,6-Dichlorobenzyl Alcohol improve end-user formulations around the globe. Each order placed reflects trust in the safety, reproducibility, and cost-efficiency that can only come from grounded experience and a stubborn refusal to cut corners.
Market cycles shift, technologies evolve, and regulatory pressures intensify, but our production philosophy stays grounded: get the basic chemistry right, keep the process robust, and hold the line on transparency. Whether you’re launching a new throat lozenge or scaling up a disinfectant, DCBA supplies from an engaged manufacturer provide both confidence and clarity for the products that shape daily life.