|
HS Code |
708724 |
| Chemical Name | 2,6-Dichlorophenol |
| Molecular Formula | C6H4Cl2O |
| Molecular Weight | 163.00 g/mol |
| Appearance | White to off-white crystalline solid |
| Melting Point | 68-69°C |
| Boiling Point | 218°C |
| Solubility In Water | Slightly soluble |
| Density | 1.40 g/cm³ |
| Cas Number | 87-65-0 |
| Odor | Phenolic |
| Pubchem Cid | 6789 |
| Flash Point | 99°C (210°F) |
As an accredited Dichloro-2,6Phenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Dichloro-2,6Phenol is supplied in a 500 g amber glass bottle with tamper-evident cap and hazard warning labels. |
| Shipping | **Shipping Description:** Dichloro-2,6-Phenol should be shipped in tightly sealed, corrosion-resistant containers, clearly labeled as a hazardous chemical. It must be transported according to relevant local, national, and international regulations for hazardous materials, with appropriate placards. Protect from moisture and extreme temperatures. Ensure documentation specifies handling, storage, and emergency procedures. |
| Storage | Dichloro-2,6-phenol should be stored in a tightly sealed container, protected from light and moisture, in a cool, dry, and well-ventilated area. Keep the chemical away from incompatible substances such as strong oxidizers and bases. Properly label the storage container and ensure it is placed in a secure area designed for hazardous chemicals to prevent spills or accidental contact. |
Competitive Dichloro-2,6Phenol prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615380400285 or mail to sales2@liwei-chem.com.
We will respond to you as soon as possible.
Tel: +8615380400285
Email: sales2@liwei-chem.com
Flexible payment, competitive price, premium service - Inquire now!
In the world of specialty chemicals, Dichloro-2,6-Phenol occupies an essential place for those who demand purity, reliability, and chemical stability in their formulations. Manufacturing this compound year after year, we've seen repeatedly how its properties deliver not just a solution, but real value to industries that need dependable input materials. The product doesn’t simply fill a space in a warehouse or a page in a catalog; its effectiveness shows up every day in production floors, labs, and development pipelines, especially where patterns of repeatability and predictable reaction profiles mean everything.
Every batch of Dichloro-2,6-Phenol we offer matches a consistent specification that comes from years of engineering, process control, and raw material sourcing. The chemical structure—two chlorine atoms attached at the 2 and 6 positions of the phenol ring—provides a unique reactivity that separates it from monosubstituted phenols or similar derivatives. Our manufacturing process ensures high assay, minimal trace impurities, and low moisture content, all checked batch by batch using gas chromatography and HPLC. Lab inspectors consistently monitor color, melting point, and residue on ignition, so customers do not need to wonder about what’s inside.
High purity plays the most critical role within applications ranging from biocides to intermediates in pharmaceutical synthesis. Purity levels routinely exceed 99%. The melting point remains consistently tight because process controls catch even subtle drifts. Any deviation outside specification flags the batch—no customer will ever get “close enough,” only what has passed internal standards gets labeled for use.
Where manufacturers process resins, disinfectants, or complex organic molecules, Dichloro-2,6-Phenol fits in thanks to a distinctive balance of phenolic activity and halogen power. Customers making antiseptics rely on this combination, using it in core disinfectant blends where broad-spectrum action sets the product apart. In our plant, we have worked with formulation teams aiming to deliver not just an active ingredient, but a functionality that stands up to real-world conditions—humidity swings, storage challenges, and batch-to-batch repeatability.
Large-scale resin manufacturers discovered the advantage of this compound in situations demanding both thermal stability and chemical resistance. By leveraging the two chlorine groups, the resulting phenol resins outperform those built from other precursors, especially under mechanical or weathering stress. As direct suppliers to adhesives producers, we see firsthand how this translates to stronger bonds, longer-lasting performance, and fewer field failures.
Researchers often hunt for starting materials that offer selective reactivity. Dichloro-2,6-Phenol provides a gateway for substitution reactions that yield high-value specialty products. Unlike less reactive phenol derivatives, the chlorines at 2 and 6 open up pathways for unique ring substitutions, letting chemists construct more sophisticated molecules while avoiding side reactions that can clog up downstream processes. Our team has collaborated with university spin-offs and industrial chemists alike, sharing insights into tuning conditions so customers get the yields and purities needed to drive their next patent or market launch.
Comparing Dichloro-2,6-Phenol with other related substances reveals critical practical differences driven by its structure. Unlike plain phenol, which often suffers rapid degradation under high temperatures or exposure to oxidizers, the presence of two strategically placed chlorine atoms alters the electron density on the aromatic ring. This confers resistance to oxidative decay and increases the compound’s shelf stability—a point that bulk chemical handlers notice right after switching or upgrading from less robust options.
In the context of biocidal or antimicrobial applications, this product consistently outperforms mono-chlorinated phenols on spectrum and tenacity. Over the years, formulators working with single chlorine derivatives have dealt with regulatory hurdles in microbial efficacy and environmental persistence, leading them to search for molecules that achieve the microbial kill thresholds without excessive dosing or problematic byproducts.
By using Dichloro-2,6-Phenol, technical teams report improved dosage efficiency, reduced waste stream complications, and more predictable performance under field test conditions. That feedback came directly from partners running real validation trials with water treatment formulations and coatings for medical equipment. We saw these improvements reflected in the downstream waste monitoring—measurable decreases in residual phenolic substances reaching effluent, hitting compliance targets more smoothly.
Comparisons with other chlorinated phenols also come down to processability. Some analogues carry extra substituents or substitutions at less advantageous positions, clogging reactors, fouling catalyst beds, or generating persistent foaming during isolation. Because we have made and re-made Dichloro-2,6-Phenol countless times on the production line, we've fine-tuned operating windows so downstream users don't have to battle material inconsistencies, sticky residues, or off-spec lots that choke their pumps or downstream purifications.
The world of chemicals changes fast—regulations change, scientific priorities shift, and even the basic feedstocks sometimes get harder to secure. Our history of making Dichloro-2,6-Phenol stretches into decades of responding to these realities. We monitor production impacts, evaluate supply chain resilience, and test each modification before committing to scale. Our site engineers, whose families have often worked here for generations, know how failures ripple through partner plants. Delivering consistency isn’t just a marketing phrase for us, it’s a result of day-to-day effort, careful purchasing, and direct feedback from customers who’ve seen what goes wrong when a batch doesn’t measure up.
Some users have come to us dealing with residue contamination from external suppliers. We worked side-by-side to identify sources—often tying back to storage bins or process vessels that did not meet cleanliness standards. Our facility maintains stainless steel handling for all high-purity output, strict separation of inbound and outbound goods, and rapid blending of input streams to avoid cross-contamination. These protocols come from years of investigation into where and why shipped chemicals sometimes miss the mark. Problems don’t get solved by hoping, but by understanding exactly where process breakdown creeps in.
Changes in environmental compliance, especially around halogenated organics, drive constant re-examination of our approaches. Our team keeps up with regional disposal criteria, European REACH updates, and guidelines in both North America and Asia. Rather than guessing what the next regulation may require, we review emissions, product lifecycles, and customer disposal options continually. Our mastery grows from hands-on problem-solving—adapting reactor cleanouts, re-tuning distillation parameters, and qualifying every process change before it affects a customer. Sometimes we carry out dedicated batch runs for clients facing unique regulatory audits, just to meet new impurity thresholds or documentation requirements.
Many downstream users look beyond the raw chemistry toward product stewardship. Our plant management team has been directly involved with on-site risk assessments at customer locations, offering expertise and documentation that let our partners present a clear, responsible story to their communities and regulators. The move toward safer chemical management aligns perfectly with the physical attributes of Dichloro-2,6-Phenol compared to more volatile or less stable phenols—they’re easier to store, handle, and document, which pays off in both peace of mind and audit results.
Experience shows that quality is not just what leaves the tanks, but what arrives at the customer dock. Problems can creep in after the plant with issues during shipping, handling, or inappropriate transfer. To address this, our technical team built robust logistics protocols: insulated containers for temperature-sensitive cargos, tamper-evidence for every drum, and QR code scanning that lets each pallet’s journey stay visible through every checkpoint.
Some long-term customers have shared stories of batches arriving from other suppliers with surface caking, color shifts, or off-odor. During onboarding with us, we always walk through receiving inspections with partner labs, so teams know exactly what a true batch of Dichloro-2,6-Phenol should look, smell, and feel like before it ever gets opened for production. This knowledge transfer prevents hours of lost time and reduces the likelihood of blending errors or line shut-downs because of off-spec material.
Formula consistency in downstream manufacturing depends heavily not just on initial purity, but on stability over storage periods. Our process engineers keep track of product stability data over months and years, logging photostability, thermal drift, and container compatibility in real-world warehouse conditions. Customers who used to report unpredictable shelf lives from competitors are now able to plan further ahead, minimizing risk of returned out-of-spec product and keeping factory lines running without expensive shortages.
Decades spent as a direct manufacturer—never trading out or brokering product—change your stance on what a product like Dichloro-2,6-Phenol can deliver. Where traders and commodity brokers focus on price swings or shipment velocities, we see value manifest in reliability, clear traceability, and control over every kilogram that enters or leaves our site. Our partnership model means customers receive not only a product, but access to process expertise, root cause analysis for abnormal results, and batch trace documents that go all the way to the field source of each raw material.
Working closely with development chemists, we help troubleshoot new applications, from shifting solvent systems to revising mixing orders for improved plant throughput. That ability stems directly from making the product ourselves and knowing every nuance of its behavior—solubility in solvents, compatibility with other phenolics, foaming tendency during exothermic additions, and residue profiles after combustion or thermal decomposition. These insights do not appear in data sheets but grow from years of hands-on engagement.
Emerging applications in electronics, agrochemicals, and polymers keep expanding the role of Dichloro-2,6-Phenol. As a building block for complex heterocycles or as a controlled-release scaffold in plant protection products, its chemical fingerprint truly matters. Process impurity profiles may shift a promising compound from compliant to recall-worthy; with our control over raw input, reaction parameters, and final QC, our customers gain critical confidence in every downstream sector relying on this chemistry.
No automated system or remote monitoring station replaces the skills of the operators who run our reactors, clean our lines, and troubleshoot the inevitable surprises that arise with complex chemistry. We invest deeply in training—Operators certify on Dichloro-2,6-Phenol before ever signing off on a batch. The most capable troubleshooters come from multi-year apprenticeships, learning to spot trouble by sight, scent, or the most subtle meter drift. When we onboard new team members, they shadow veterans during live runs, not from the sidelines but elbow-deep in process challenges.
Sharing knowledge outside our plant matters, too. We run yearly exchanges with university labs and technical school partners, sending both product samples and experienced staff to answer questions and gather new perspectives. Some breakthroughs in process safety, raw input substitution, and waste reduction started as brainstorms with a graduate student or a line chemist. This back-and-forth not only improves the way we make Dichloro-2,6-Phenol, it builds the broader ecosystem of safe, smart chemical manufacturing.
Production rarely unfolds without snags. Batches can foam unexpectedly, lines can foul because of trace contaminants, and customer needs can shift with little warning. Open channels and daily communication lines ensure corrections happen before they snowball. By instilling pride in the end product—not just as a line item, but as a measure of personal and corporate integrity—we keep delivering what the specification demands, without compromise.
Feedback loops have driven nearly every meaningful improvement to our Dichloro-2,6-Phenol process. From the original isolation techniques using only basic vacuum distillation, through years of refining crystalline product via solvent washing, to today’s highly automated, real-time QC, each positive change tracked back to conversations with customers facing real plant-floor problems. As new industries bring up new requirements—lower odor thresholds for consumer-facing products, or extra scrutiny on trace heavy metals for pharmaceutical intermediates—we remain present, shifting as needed with both equipment upgrades and technique tweaks.
Building on decades of process experience positions us to offer transparency about what works and what does not. This forthrightness comes from lessons you don't forget: batches held for obscure odorants, trace impurity spikes that confounded even our own experts, or logistic snags that forced quick-thinking reroutes. Each instance hammered home that confidence is not a one-off achievement but the result of long, persistent implementation of both technical and human solutions.
For those who depend on stable, high-performance phenolic chemistry, Dichloro-2,6-Phenol stands out. It has been a cornerstone in biocidal, pharmaceutical, resin, and materials chemistry for a reason—one you only truly appreciate from inside the factory, working with every shipment, test, and partnership. Our ongoing commitment flows from this direct connection, bringing chemicals to market whose reliability stems from every layer of care, from sourcing to shipment, backed with real-world transparency at every step.