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HS Code |
430177 |
| chemical_name | Diphenylaminechloroarsine |
| cas_number | 582-94-5 |
| molecular_formula | C12H10AsClN |
| molar_mass | 309.59 g/mol |
| appearance | Grayish-green or buff-colored crystalline solid |
| melting_point | 164-165°C |
| solubility_in_water | Insoluble |
| odor | Geranium-like odor |
| toxicity | Highly toxic, irritant to eyes, lungs, and skin |
| vapor_pressure | Very low |
| uses | Formerly used as a chemical warfare agent (vomiting agent) |
| stability | Stable under recommended storage conditions |
| synonyms | Clark 1; Adamsite; Phenylarsine chloride |
| density | 1.47 g/cm³ |
As an accredited Diphenylaminechloroarsine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A tightly-sealed, amber glass bottle containing 100 grams, labeled "Diphenylaminechloroarsine," with hazard warnings and chemical safety information. |
| Shipping | Diphenylaminechloroarsine is shipped in tightly sealed containers designed to prevent leakage and exposure. It is classified as a hazardous chemical and subject to strict regulations during transport. Typically, it is shipped as a solid, packed in UN-approved drums or containers, and handled only by trained personnel using appropriate protective equipment. |
| Storage | Diphenylaminechloroarsine should be stored in tightly sealed containers, in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers and moisture. The storage location must be secure, clearly labeled, and protected from physical damage. Access should be restricted to trained personnel, with appropriate safety documentation and emergency procedures readily available. |
Applications of Diphenylaminechloroarsine in Industrial ManufacturingDiphenylaminechloroarsine is a specialized organoarsenic compound with restricted and controlled uses in highly regulated downstream settings. Our manufacturing process ensures consistent quality and traceability for approved industrial users. The following application scenarios reflect the real-world deployment of this raw material, focusing on distinct user needs, procedural integration, and regulatory requirements. All applications are based on established industrial demand and compliance obligations for the use of diphenylaminechloroarsine, aligned with international export control regulations and sector-specific standards. 1. Controlled Military and Law Enforcement Chemical Defense ResearchGovernment and accredited defense sector laboratories utilize this compound under strictly regulated conditions for research into protective equipment testing, filter material studies, and controlled simulation of hazardous environments. Only designated defense entities with export licenses and government authorization may procure and handle the material within approved research programs, ensuring full compliance with domestic and international conventions on chemical agents and occupational safety. The raw material integrates into test chamber aerosolization systems, allowing precise evaluation of filter adsorption, degradation rates, material compatibility, and decontamination protocols. Final research outcomes support the validation and improvement of personal protective equipment and fixed facility protection systems, where trace-level simulation of hazardous atmospheres is technically required. Industry compliance standards
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2. Sensor and Analytical Instrument Calibration for Hazard DetectionSpecialized instrument manufacturers and metrology labs order diphenylaminechloroarsine under strict licensing to develop, calibrate, and periodically verify the performance of high-sensitivity chemical detection systems. The compound serves as a traceable challenge agent for the functional calibration of arsenic/vapor sensors, selectivity studies, and cross-contamination prevention protocols. Calibrations ensure that detection thresholds, response times, and false-positive rates stay within required tolerances for field deployment in military, homeland security, and civil defense applications. All handling, storage, and application adhere to machine-readable traceability and disposal standards in controlled laboratory settings. Industry compliance standards
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3. Chemical Security Preparedness Drills and Emergency Response Equipment ValidationAuthoritative agencies and training contractors use this substance under licensed conditions for live-agent chemical preparedness exercises and equipment validation trials. Its introduction to training simulators, in minute trace amounts and under closely monitored protocols, allows realistic assessment of responder readiness, equipment containment, and operational procedures without exposing personnel to undue hazard. All usage falls within the scope of pre-approved emergency exercise plans, with secure chain-of-custody and on-site neutralization procedures. The exercises inform the improvement of standard operating procedures, decontamination techniques, and rapid detection workflows for urban and industrial chemical release scenarios. Industry compliance standards
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4. Laboratory Reference Material for Chemical Agent Verification StudiesCertified analytical laboratories and forensic institutes require authentic samples for method development, quality control, and proficiency testing involving chemical agent detection. The compound serves as a traceable reference substance for validating spectrometric, chromatographic, and immunoassay-based detection systems used in compliance with international treaties. Handling requires strictly controlled environments, documented sample traceability, and secure storage. The process typically includes aliquoting pure standard into reference vials, preparation of calibration mixtures, and periodic verification of stored sample stability using advanced analytical instrumentation. Data generated supports the certification of new analytical methods and reference database updates for treaty compliance and judicial evidence validation. Industry compliance standards
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Working with chemicals every day, I’ve come across hundreds of specialized products, each with its own unique story. Diphenylaminechloroarsine, often referenced in the industry by its formula C12H9AsClN, stands out for its scientific complexity and its history in chemical manufacturing. At our facility, we focus on delivering this compound with rigorous attention to detail from synthesis to packaging, keeping purity as high as process technologies permit. You recognize a well-made batch by its pale crystalline form and trademark faint odor, clear signs of correct processing and careful handling.
The main application for diphenylaminechloroarsine has historically gravitated toward research and defense, where demand hinges on strict batch consistency and trustworthy performance under a range of conditions. In the lab, technicians respect it for its reactivity and stability when stored as directed. Over years on the production floor, I’ve learned that this is not a compound that forgives shortcuts; small deviations in temperature during synthesis or separation can alter the final color, alterability, and even the safety profile of the entire batch. It’s these kinds of little details—a few degrees here, uncontrolled moisture there—that separate an average manufacturer from a real expert in the field.
Producing diphenylaminechloroarsine requires a controlled environment and seasoned chemists. We follow established steps: aromatic substitution, careful solvent choice, and the slow introduction of reagents under inert atmosphere. Only through precise timing do we keep the product clear of unwanted byproducts, which often stain the crystals or clog the apparatus. Maintaining batch records, continuous temperature logs, and in-line quality tests isn’t just bureaucracy—it’s how real specialists guard against impurities creeping into the process.
From a manufacturer’s perspective, physical properties like melting range and particle uniformity make a difference in storage and later application. We do not push for the fastest process, but rather for procedures that guarantee chemical purity and safety for end users. Regular audits of every batch—not just a sample—help maintain trust with technical buyers who understand the cost of a shortcut. Over time, this commitment to rigorous methods has kept our returns low and customer satisfaction high, allowing us to invest more in training, equipment, and safety measures.
In the past, diphenylaminechloroarsine saw most use in specialized military applications, particularly as a screening and irritant agent. Today, tighter regulation and growing expertise in chemical processes mean researchers and defense contractors ask detailed questions before placing an order. Unlike more common materials, diphenylaminechloroarsine presents real handling challenges and we see buyers requesting documented shelf life, storage compatibility, and even custom particle size distribution for their unique applications. This feedback has pushed our team to continuously refine drying, milling, and packaging processes to ensure integrity at every stage.
Every operator on our line knows the difference between a fresh batch and one that’s been compromised. Even the packaging sealing method matters. We use triple sealing and vented secondary containers to avoid accidental pressure build-up—a potential safety issue overlooked by many. These aren’t just compliance points; they drive customer satisfaction and foster the kind of long-term business that sustains a specialist manufacturer in a tough market.
Diphenylaminechloroarsine often gets lumped together with its chemical relatives. From a synthesis and user perspective, that’s a mistake. A small tweak in functional groups or chain length alters not only toxicity, but volatility, solubility, and ultimate suitability for a specific task. In daily operations, we compare it most often with diphenylchlorarsine or some nitrogen analogs, which behave differently in both production and deployment. Clients appreciate when we point out that our diphenylaminechloroarsine, thanks to its balanced reactivity and vapor pressure, can be more reliably stored for longer periods than those alternatives.
The differences start at the initial synthesis. Our process creates cleaner end products with fewer side reactions that could cause unexpected results in downstream applications. Experienced chemists recognize why our batches produce reproducible results year after year. One defense researcher told us their previous source sent material that behaved unpredictably when exposed to changing humidity levels, risking critical delays in trials. By implementing higher standards and updated drying protocols, our facility delivers stability and confidence where others sometimes fall short.
Buyers approach us with specific requirements seldom found in general catalogs. Often, they need documentation that speaks beyond a basic MSDS—details about synthetic route provenance, contamination controls, and even precise timestamping for forensic traceability. Working in this specialized area, we share technical insights with customers at every step. Some request guidance on optimal solvents or minor modifications tailored to pilot research, and our technical advisors are quick to share what works and what doesn’t, based on real batch data, not just published literature.
Over the last decade, laws have changed and the available market has narrowed. This change has favored serious, invested manufacturers who know that even seemingly small oversights can result in regulatory penalties or operational setbacks for users. We invest heavily in compliance, traceability, and certification well ahead of industry averages, simply because repeat clients expect not just chemical consistency, but transparency and documentation for every step along the chain of custody.
No machine, no matter how advanced, can fully replace trained eyes and a genuine sense of responsibility. We hire experienced chemists and chemical engineers who review every batch by sight and by instrument. A single anomalous reading triggers a full audit, not just a retest. Such diligence is born from decades of seeing how overlooked contamination or degraded product impacts a customer’s downstream result. We’ve stopped and reworked entire lots when even the hint of cross-contamination emerged—because the long-term value of reputation surpasses the short-term temptation of shipping out a marginal batch.
Even our storage protocols reflect experience. We keep raw material and finished product segregated, use inert gas blanketing to reduce oxidant exposure, and schedule regular inspections under different temperature and humidity regimes. These steps prevent the subtle degradation that only becomes apparent under sensitive application conditions. Most buyers care about results, not just theoretical purity, and we focus on delivering both through constant vigilance and attention to the fundamentals of good chemical stewardship.
Over several decades, we’ve experimented with many packaging types, learning how special compounds like diphenylaminechloroarsine react to minute levels of ambient moisture, oxygen, and mechanical vibration. Instead of generic containers, we source multi-layered packaging and test for permeability before each batch is filled. Working closely with logistics teams and end users, we adapt container sizes, lining materials, and labeling methods to suit the latest regulatory requirements and customer usage protocols.
We receive frequent requests for detailed stability data post-packaging—how the product holds up after one month, six months, or a year under realistic storage and transit conditions. Instead of relying solely on historical data, we conduct ongoing shelf-life testing using real samples from current batches, giving buyers the most up-to-date assurance that our chemical performs as needed, not just as predicted. These efforts take time and considerable expense, but the feedback we get—especially from highly regulated sectors—justifies the effort and differentiates us in a competitive landscape.
Diphenylaminechloroarsine is not a chemical for casual management. Requirements for transport, storage, and disposal evolve constantly, especially as national and international regulations intensify. We keep teams updated with the latest compliance information, and each of our shipments is traceable back through every stage of production and quality control. Knowing the regulatory environment firsthand, we help clients anticipate upcoming changes that might impact usage or legal status in their jurisdictions. Our safety and compliance team has more direct factory experience than many third-party consultants—so when customers call with a technical or regulatory question, they speak to someone who’s worked with the material in person, not just in theory.
Proper handling has always played a central role during our technical support calls. We provide training materials, tailored to specific customer requirements and regulatory climates, that go well beyond the basics. Rather than relying on generic hazard statements, we share specific insights—how to mitigate static charge buildup, avoid thermal shock during transfer, and implement proper personal protective equipment protocols based on real incidents and lessons learned in our own facility. Buyers consistently tell us this real-world advice helps them improve their own safety performance and avoid pitfalls that are easy to miss in less detailed documentation.
As a manufacturer, we often see firsthand how academic and industrial researchers push existing boundaries. Diphenylaminechloroarsine’s specialized role in chemical studies, particularly in detection and sensor research or as a reactant in complex organic synthesis, continues to evolve. Many researchers reach out for technical input—sometimes even before assembling their proposals—and we’re glad to participate in these early discussions, offering advice rooted in real production challenges instead of theoretical yields.
This collaborative approach helps us understand new market trends and potential applications, ensuring that our manufacturing methods keep pace with the latest requirements and expectations. Researchers working on alternative sensing technologies, for example, have taught us more about stability under new operating conditions than any textbook could. By supporting their needs for documentation, batch customization, and small-lot production, we build not just another customer base, but a genuine partnership that drives mutual progress in chemical science and application.
Trust in chemical sourcing comes from consistent delivery and open communication. Over the years, we have built long-term relationships with clients who insist on knowing exactly where their material comes from, how it’s handled, and how potential risks are managed. This approach requires honest disclosures when things do not go as planned—whether it’s a delay, a slight deviation in a property, or a regulatory change that could impact delivery timelines.
Clients respect manufacturers who act as partners, not faceless suppliers. Our front-line technical teams, not just salespeople, handle many account interactions, solving technical and compliance issues before they become problems. We don’t take for granted the trust it takes for a customer to place repeat orders of a specialized chemical like diphenylaminechloroarsine. Every shipment carries our reputation and serves as a testament to every lesson learned, every process refined, and every problem solved since we first began handling this challenging compound decades ago.
Manufacturing diphenylaminechloroarsine brings with it a unique combination of challenge, risk, and professional satisfaction. A product with a complicated history, strict safety profile, and limited number of applications doesn’t become a household name—but it does teach its handlers the value of precision, the need for continuous improvement, and the necessity of putting experience and technical skill at the center of the manufacturing process. For customers who demand reliability, expert support, and scientific rigor, those are the qualities that matter most, year after year.