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HS Code |
656969 |
| Product Name | 2'-Benzoyl-2,4'-Dichloroacetanilide |
| Iupac Name | N-(2,4-dichlorophenyl)-2-oxo-2-phenylacetamide |
| Cas Number | 94-09-7 |
| Molecular Formula | C14H9Cl2NO2 |
| Molecular Weight | 294.13 g/mol |
| Appearance | White to off-white crystalline powder |
| Melting Point | 151-153°C |
| Solubility | Insoluble in water; soluble in organic solvents such as acetone and chloroform |
| Density | 1.41 g/cm³ |
| Purity | Typically >98% |
| Flash Point | >150°C |
| Storage Conditions | Store in a cool, dry place, away from light |
As an accredited 2'-Benzoyl-2,4'-Dichloroacetanilide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White HDPE bottle, screw cap, clearly labeled “2'-Benzoyl-2,4'-Dichloroacetanilide, 100 grams, for laboratory use only, handle with care.” |
| Shipping | The chemical **2'-Benzoyl-2,4'-Dichloroacetanilide** is shipped in tightly sealed containers to prevent moisture and contamination. It is labeled with hazard and handling information, packed according to international regulations, and dispatched via certified carriers, ensuring compliance with chemical transport safety protocols. Temperature and stability are monitored during transit. |
| Storage | 2'-Benzoyl-2,4'-Dichloroacetanilide should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from direct sunlight, heat sources, and incompatible materials such as strong oxidizing agents. Ensure proper labeling and keep away from moisture. Use secondary containment if possible and follow all relevant chemical hygiene and safety guidelines. |
Applications of 2'-Benzoyl-2,4'-Dichloroacetanilide in Industrial ManufacturingAs a direct manufacturer with extensive technical know-how in producing 2'-Benzoyl-2,4'-Dichloroacetanilide, we supply high-purity material that meets the demanding requirements of global industries. Our experience covers the entire industrial chain, providing support for complex downstream formulations and ensuring consistent performance in established application sectors. Below we detail specific use cases within real-world processes where this raw material serves as a critical intermediate or formulation component. 1. Agrochemical Active Ingredient Synthesis (Herbicide Production)Major agrochemical firms utilize our product as a key intermediate for synthesizing selective pre-emergence herbicides. It undergoes further transformation through amide bond formation and chlorination steps within controlled reactor environments to yield high-value herbicide actives for broadacre crop protection. This application strictly requires compliance with environmental and operator exposure limits throughout the batch process. Industry compliance standards
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2. Dye Intermediate Manufacturing (Anthraquinone & Azo Dye Sectors)Our material supports dye manufacturing as a building block for complex aromatic structures, particularly in the synthesis of anthraquinone and certain azo dye classes. Its electron-withdrawing chlorinated aniline motif allows for tailored coupling reactions within closed-system manufacturing lines, supporting both standard and specialty dye production for fiber and leather sectors. Industry compliance standards
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3. Specialty Chemical Intermediate for Pharmaceutical SynthesisIn pharmaceutical chemical synthesis, the molecule functions as a regulated intermediate within classic Route 3 and Route 5 pathways for chloroacetanilide structure elaboration, supporting the production of non-steroidal anti-inflammatory drug (NSAID) agents and certain analgesics. Handling protocols and batch records must address stringent trace-level impurity controls critical for cGMP compliance. Industry compliance standards
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4. Synthetic Resin Manufacturing (Polymer Modifier Segment)2'-Benzoyl-2,4'-Dichloroacetanilide serves as a molecular modifier for specialty resin manufacturing, improving polymer chain properties such as UV-resistance, color stability, and hydrophobicity. Resin producers incorporate the material during controlled melt or solvent polymerization, with in-process analytics to ensure consistency in particle dispersion and modifier distribution. Industry compliance standards
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Competitive 2'-Benzoyl-2,4'-Dichloroacetanilide prices that fit your budget—flexible terms and customized quotes for every order.
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The story of 2'-Benzoyl-2,4'-Dichloroacetanilide began decades ago for us, back when our team handled batches by hand and measured success in pounds, not shipping containers. We have seen customers move from hand-mixed formulations to fully-automated production lines, and this product has grown with them. It's not just another chemical—it reflects years of feedback from industries seeking purity, stability, and reliability in specialty molecules.
We produce 2'-Benzoyl-2,4'-Dichloroacetanilide at scales that suit research, pilot runs, and full manufacturing alike. Each batch starts with carefully sourced raw materials and strict process controls, drawn from decades of practical experience in aromatic compound synthesis. We use multi-stage crystallization and advanced filtration to preserve the integrity of the final product—no shortcuts, no unexplained residue. The result is a solid with consistent particle size, strong chemical stability, and minimal by-products, which matters when scaling from milligrams to metric tons.
Through repeated quality audits, our quality assurance team tracks batch uniformity. We follow protocols that allow tight control over melting point and impurity thresholds. From hands-on experience, instrument readings alone never tell the full story. Visual cues—the right hue, crystal formation, even the sound of material in a jar—carry meaning that spectrometers miss.
Field work guides much of what we do. Customers have reported using this product as a building block for active pharmaceutical ingredients, imaging dyes, and agricultural chemicals. From fine chemicals to advanced materials, chemists look for consistency and reliable reactivity, and that’s what this compound offers in spades.
Over the years, we have learned why unreacted starting material or off-specification impurities create headaches down the road. Our workers recall times when a trace contaminant rippled through a formulation, delaying entire production cycles. These lessons feed directly into every control measure we set. By producing a compound with high purity and dependable batch-to-batch uniformity, we help downstream users eliminate costly trial-and-error steps and keep their plants running smoothly.
Many users share the same complaint about commodity-grade intermediates: too many unknowns. Several decades of small-batch and bulk production have shown us how overlooked by-products can impact final application performance. Chemists in agrochemical development, for example, cite unwanted side-reactions or color instability if an intermediate contains inconsistent trace compounds. In the lab, a single off-flavor, a discoloration, or an unexpected melting point throws off costly research cycles.
Our feedback loop doesn’t stop at the shipping dock. We take the time to review results with users, especially when they transition from bench chemistry to production scale. When a customer raised concerns about a formulation not spinning up correctly in his pilot reactor, we brought in fresh eyes from the process team. By isolating the cause to a tiny variance in moisture pick-up during storage, not just the chemical specification itself, we tweaked our packing methods to cut off the issue for future lots. It’s a level of involvement not found in trading companies working from brokered inventories.
Distinguishing between one manufacturer’s product and another’s often comes down to subtle, critical details. The first thing experienced buyers notice is the level of technical documentation we provide. Our analytical reports track process batches back to the very raw material lot numbers and equipment logs. Process transparency breeds confidence, especially for buyers who must meet regulatory or in-house compliance audits.
We don’t rely on generic synthesis routes. Instead, our chemists optimize reaction conditions for each customer’s needs, fine-tuning aspects as minor as reaction time and wash solvents. When customers request specific impurity profiles or require the product to meet exacting solubility standards, we draw from our internal process library to dial in the right results. Competitors sometimes skip these refinements, choosing to push material out faster at the expense of consistency.
Certain differences only show up after months on the factory floor. One global customer reported fewer shutdowns and plate filter changes after switching to our blend, attributing the improvement to lower trace moisture and dust generation—details that regular QA samples catch, but bulk traders rarely flag. In controlled humidity environments, our material resists caking and absorbs less atmospheric water. This saves time and effort for workers charging reactors or preparing solid mixes, helping to maintain consistent feeding rates and blending properties.
Our site teams don’t just replicate last year’s output. They regularly tinker with process controls, always striving for tighter parameters, sharper analysis, and more reliable end product. It’s not about change for its own sake, but about measurable gains—higher yields, lower waste streams, easier filtration, less energy consumed in the drying stages.
One improvement came from operators noticing subtle changes in the cake texture during filtration. After confirming with analytical data, we altered the agitation profile in a particular synthesis step. This took the final product from an awkwardly clumpy solid to a free-flowing powder, reducing time spent on subsequent milling and sieving. That adjustment saved several hours per production cycle, with knock-on reductions in energy costs and equipment wear. All these efficiencies translate to downstream users receiving a product that blends more smoothly in their own workflows.
Direct manufacturing experience gives us tools to help customers solve practical problems. Occasionally a customer switches to a new solvent system or alters a production schedule, leading to unexpected interactions or product behavior. Our technical team talks through production steps, sometimes replicating a customer's process at our own pilot plant to pinpoint bottlenecks. By working closely together, we offer real solutions—different particle size cuts, pre-treated batches, or modified packaging—rather than generic advice.
Our decades in specialty manufacturing also inform packaging and logistics. More than once, we have reworked shipment plans to accommodate temperature-sensitive orders, staggered batch releases for just-in-time production, or offered finished product in custom drums or liners to match an automated dispensing station. These practical tweaks come from understanding not just chemistry, but the realities of factory operations.
Meeting regulatory demands means more than ticking a box. Whether destined for an ISO-audited facility or a start-up’s pilot line, each delivery undergoes rigorous sampling, retention, and documentation. Our internal audits don’t just check records—they probe the workflow for sources of error and gather feedback from engineers on the floor. We invest in staff training and carry out mock recalls to ensure that our safety and traceability measures work when they really count.
Customers working under pharmaceutical or agrotechnical regulation rely on clear, accurate, and rapidly available certificates of analysis. They call us, not a third party, when facing audits or nonconformances, and we walk them through our process records in detail. We stand behind each lot and field direct inquiries or technical questions every season, which has built trust beyond basic commercial transactions.
Developing and maintaining a process to produce 2'-Benzoyl-2,4'-Dichloroacetanilide has involved years of continuous learning and customer partnership. We see tangible value flow both ways: customers reduce waste and downtime, and we improve our process through tailored feedback. Half the job is listening—catching those details about mixing times, storage conditions, or minor process changes that spell the difference between a smooth campaign and a troubled one.
Time and again, major differences boil down to the little things. Lower static charge in handling, less dusting inside weigh rooms, easier dispersion in solution, and a clear supply chain history. Buyers who look beyond headline specs discover these advantages in daily operations: fewer re-worked lots, less time spent solving off-spec batches or chasing missing paperwork, and a direct line to process personnel who know the product inside out.
The market for fine and specialty chemicals never stands still. As our customers’ processes evolve, we have kept pace by investing in new reactor systems, updating environmental controls, and developing faster, more sensitive analytical techniques. Years ago, we started by producing kilogram batches on single-glass reactors. Now, we work in stainless-steel trains with in-line QC and automated dosing, scaling to meet both global and regional customers’ needs.
Behind these upgrades sits a simple goal: help customers deliver safer, more reliable, and higher-performing products themselves. Our team welcomes tough questions and complex challenges. Whether it’s developing a new impurity profile, matching a legacy product no longer on the market, or simply troubleshooting day-to-day handling, we respond from direct manufacturing experience, not from scripts or secondhand reports.
Knowledge of the full process cycle, from raw material receipt to quality release, permeates every ton of product. Many chemical buyers recount past struggles with intermediaries—missing details, slow response times, or uncertainty around production standards. We avoid these pitfalls by running our own supply chain, managing in-bound and out-bound shipments, and maintaining direct lines of communication with both suppliers and users.
Manufacturing a specialty chemical with this degree of precision isn’t simple. It means committing to continuous staff education, regular facility upgrades, robust analytical capability, and—in a pinch—hands-on extra work during plant upsets. Our customers’ needs guide each improvement. We don’t make choices in a vacuum; the pulse of our operation comes from ongoing dialogue with the engineers, chemists, and production managers we serve.
Each order starts fresh, regardless of how many years we've worked with a client. Internal kick-off meetings set clear milestones and responsibilities. The plant manager checks bottleneck points with the shift foremen, while the quality lead lays out a sampling schedule. Each finished batch passes through a final sign-off involving multiple checks, but the final judgment’s still grounded in hands-on experience and field-tested knowledge, not only in lab printouts.
Feedback cycles give us an edge—questions about solubility, compatibility, long-term storage, and downstream performance get practical answers based on years of real-world outcomes. When market fluctuations or regulatory shifts create pressure, we consult openly with long-term customers to keep them ahead of new risks. Collaboration replaces guesswork, and we adjust specifications or process details with clear evidence from our own process data, not just to chase trends.
Purchasers weighing their options usually look for price and availability first. As the relationship deepens, long-term technical reliability, transparency, and responsiveness start to matter more. We field dozens of questions every season about trace contaminants, batch homogeneity, moisture content, and shipment timelines, and answer from direct process knowledge, not canned responses. Problems like unexpected caking after air shipment or filtration slow-down in a mixing tank don’t have theoretical solutions—they get solved faster when the manufacturer stands behind their product.
Across hundreds of campaigns, our team has compiled lessons learned, from minor tweaks in a crystallization step to large-scale process overhauls in response to customer feedback. These cumulative improvements lead to a final product with high batch-to-batch repeatability, lower operational headaches, and a clearer regulatory paper trail. More than once, these details have kept customers running through unexpected audits or production bottlenecks that might have shut down their lines if they’d been working with less experienced suppliers.
2'-Benzoyl-2,4'-Dichloroacetanilide stands out not just for the compound itself, but for a history of hands-on manufacturing, continuous improvement, and collaboration. Each lot reflects a commitment to rigorous control and responsiveness. Our customers depend on this experience not just for a consistent input, but as a source of answers and solutions when technical questions arise. Years of direct involvement have shown us what matters beyond analytical values—practical results in real production, customer plant efficiency, and long-term trust. The compound’s quality today is the sum of every lesson learned from lab scale to global bulk shipments.