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Acetomercuric Imide

    • Product Name Acetomercuric Imide
    • Alias Glyoxime
    • Einecs 219-083-6
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    268458

    Product Name Acetomercuric Imide
    Molecular Formula C2H4HgN2O
    Molecular Weight 322.67 g/mol
    Physical State Solid
    Color White to off-white
    Solubility Slightly soluble in water
    Odor Odorless
    Toxicity Highly toxic due to mercury content
    Stability Stable under recommended storage conditions
    Storage Conditions Store in a cool, dry, and well-ventilated area
    Uses Primarily for laboratory reagent use
    Hazard Statements May cause mercury poisoning
    Synonyms Acetomercuramide

    As an accredited Acetomercuric Imide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Acetomercuric Imide, 50g, is packaged in a sealed amber glass bottle with hazard labeling, shipped in a protective cardboard box.
    Shipping Acetomercuric Imide should be shipped as a hazardous material, following all relevant regulations for toxic and mercury-containing substances. Package securely in a tightly sealed, properly labeled container, cushioned to prevent breakage. Transport with appropriate documentation, ensuring containment of leaks or spills. Handle and store away from incompatible materials and sources of ignition.
    Storage Acetomercuric Imide should be stored in a tightly sealed container, away from direct sunlight and moisture, in a cool, well-ventilated, and dry area. It should be kept separate from incompatible substances such as acids and strong oxidizers. Label the container appropriately, and ensure access is restricted to trained personnel. Always follow institutional guidelines and regulations for hazardous chemical storage.
    Application of Acetomercuric Imide

    Applications of Acetomercuric Imide in Industrial Manufacturing

    As a manufacturer specializing in advanced mercury-based intermediates, we supply Acetomercuric Imide for several critical chemical sectors. The following sections detail specific downstream applications, with a focus on compliant integration, process handling, and final output.

    1. Pharmaceutical Intermediate Synthesis

    Pharmaceutical producers utilize Acetomercuric Imide for its reactivity in controlled synthesis pathways, particularly as a nitration and organo-mercurial reagent in the development of anti-infective actives and select specialty APIs. It enables precise introduction of mercurial groups during complex heterocycle assembly, while supporting batch-to-batch consistency and impurity control. Tight process control and rigorous documentation remain standard to support regulatory submissions for finished APIs, especially for regulated export markets.

    Industry compliance standards

    • ICH Q7, Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • Current USP and Ph. Eur. guidelines for heavy metal limits in intermediates
    • FDA 21 CFR Part 211 for finished pharma QA/QC
    • REACH Annex XVII (mercury compounds restrictions, Europe)

    Typical usage ratio

    • 0.1% to 3% w/w of total intermediate batch weight; actual ratio adjusts based on target molecule structure, with full stoichiometric calculation in route design

    Downstream process integration

    • Reactant dosing in controlled glass-lined reactors before high-shear mixing
    • Temperature-regulated addition between -10°C and 30°C
    • In-line mercury removal or scavenging in subsequent purification steps
    • Process analytical technology (PAT) checks for mercury species at isolation

    Final product types

    • Cephalosporin antibiotics
    • Steroid-based pharmaceuticals
    • Hydrazine derivative intermediates for antihypertensives
    • Bespoke investigational new drug (IND) molecules

    2. Laboratory Scale Organic Synthesis

    Research facilities and analytical labs order Acetomercuric Imide for use in customized synthetic routes where high selectivity in oxidation, deprotection, or acylation is required. Its predictable reaction profile enables chemists to carry out targeted modifications with reliable atom economy, especially in academia and industrial process development labs. Handling guidelines and mercury control documentation are critical, and users implement closed systems for weigh-in, dosing, and waste treatment, reflecting occupational safety procedures for mercury compounds.

    Industry compliance standards

    • OSHA 29 CFR 1910.1200 Hazard Communication Standard
    • EPA TSCA Section 8(b) inventory requirements (USA)
    • ISO/IEC 17025:2017 for quality in testing and calibration labs
    • Local university or corporate EHS (environment, health, and safety) protocols

    Typical usage ratio

    • From milligram quantities to 0.5% w/w in single-run reactions; exact ratio based on reaction design and scale limitations

    Downstream process integration

    • Preparation of stock solutions under fume hood conditions
    • Dosing into round-bottom flask or jacketed reaction kettle
    • Standard mercury waste neutralization steps post-reaction
    • Documentation for traceability in analytical lab records

    Final product types

    • Reference standard compounds
    • New candidate molecules for biological screening
    • NMR and chromatographic derivatization agents
    • Polycyclic and fused-ring organic test compounds

    3. Industrial-Scale Synthesis of Mercury-Based Catalysts

    Chemical plants use Acetomercuric Imide as a precursor in the multistep production of organomercurial catalysts applied in select vinyl chloride and acetylene chemical operations. Controlled reaction conditions allow for the creation of highly active, shelf-stable mercury intermediates, with batch documentation to support catalyst QMS certification. Comprehensive occupational, health, and environmental provisions apply at every stage of the process, with mercury emissions and residues captured by in-plant waste handling infrastructure.

    Industry compliance standards

    • ISO 9001:2015 quality management system certification
    • Minamata Convention on Mercury (global standard)
    • OHSAS 18001/ISO 45001 for workplace safety
    • National pollutant release and transfer register (PRTR) regulatory reporting

    Typical usage ratio

    • 1% to 7% w/w of catalyst precursor blend, optimized by target catalyst activity and application type

    Downstream process integration

    • Dock-to-reactor transfer in sealed containers to mixer/reactor vessels
    • Sequential charging during catalyst salt formation
    • Wet filtration, concentration, and drying in mercury-ventilated areas
    • Automated packing for downstream catalyst formulation or pelletizing

    Final product types

    • Ethylene dichloride/Vinyl chloride catalysts
    • Acetylene hydrochlorination catalysts
    • Fine-chemical mercury(II) salt catalysts for research
    • Mercury-promoted oxidation catalysts for pilot-scale use

    4. Specialty Analytical Reagents Production

    Producers of diagnostic kits and laboratory reagent suppliers process Acetomercuric Imide into high-purity, traceable mercury reagents for colorimetric and spectrophotometric analytical tests. Consistent raw material purity proves critical for assay reproducibility and sensitivity, especially in heavy metal detection kits and analytical sample prep. Packaging and documentation follow strict traceability and batch release protocols, with attention to end-user safety and reagent shelf life.

    Industry compliance standards

    • ISO 13485:2016 for medical device and IVD reagent manufacturing
    • CLSI (Clinical Laboratory Standards Institute) guidelines on chemical reagent preparation
    • Good Laboratory Practice (GLP) requirements for analytical chemical supply
    • GHS/OSHA Hazard Communication for mercury labeling

    Typical usage ratio

    • 0.02% to 0.15% w/w in final formulated standard solutions, customized on required detection sensitivity

    Downstream process integration

    • Purification and blending in controlled cleanroom environments
    • Inclusion into reagent concentrate stock for dilution by end users
    • Batched QC release with trace elemental analysis
    • Small-format sealed ampoule or dropper bottle packaging

    Final product types

    • Mercury standard solutions for ICP-OES/ICP-MS
    • Diagnostic plate reagents for protein detection assays
    • Colorimetric test kit reagents for mercury trace analysis
    • Analytical control samples for environmental labs
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    Certification & Compliance
    More Introduction

    Acetomercuric Imide: A Manufacturer's View on Quality, Use, and Reliability

    Our Commitment to Consistency in Acetomercuric Imide Production

    Throughout years of manufacturing specialty chemicals, our team has found that reliability in supply starts at the molecular level. Acetomercuric Imide, offered under model AMI-87, reflects the core principles that have shaped our way of working for decades. Each batch gets prepared under controlled conditions, eliminating excessive impurities. Repeatability, confirmed by routine independent analysis, builds trust with research labs, reagent wholesalers, and technical process engineers alike. We see new orders come in because past customers recognize the consistency — the substance behaves predictably, every time, in their end applications.

    Understanding the Material Properties and Specs

    Acetomercuric Imide presents itself as a pale yellow to off-white crystalline powder. Its molecular formula, C2H4HgN2O, piqued the interest of analytical chemists because the compound maintains both good thermal stability and solubility in polar organic solvents. Moisture uptake is minimal under standard storage, meaning users avoid the clumping and unpredictable reactivity that spoil results with less refined sources.

    Typical purity on our AMI-87 lots averages above 98%, confirmed by HPLC and elemental analysis. Trace levels of organomercurial contaminants do not interfere with designed reactions and fall far below regulatory concern. Particle size control, ranging from 70 to 120 mesh, helps customers limit reagent waste during bench or pilot scale synthesis. Analysts run melting point checks to confirm specification, ensuring batches line up with customer expectations each season.

    Acetomercuric Imide in Laboratory and Industrial Applications

    Demand for acetomercuric imide springs out of its performance in organic synthesis. Research chemists purchase it for its clean, efficient role in protection and deprotection of functional groups, specifically for ketone and imine transformations. The product often cuts out steps in synthetic routines, saving labor and material cost. Drug development teams use it during lead optimization, particularly for mercury-based reaction conditions that remain hard to replace with alternatives. There are a handful of reagent options for imide formation, but a well-prepared batch eliminates the headaches caused by unreacted starting materials or variable water content. These headaches translate into lost time and wasted budget — issues that a uniform reagent helps avoid.

    Trihalomethane trace screening, mercury-sensitive catalysis, and advanced polymer research all require precision. The wrong batch, made with shortcuts in purification or under inferior containment, throws off product yields and repeatability. Clients rely on us because our experience with complex mercury chemistry gives them peace of mind in sensitive process development. Compliance audits and repeated supplier qualification visits show our track record: every jar matches the last, because our technicians treat each order with the same careful touch. Reliable handling and packaging standards mean no cross-contamination or product degradation, even during long-haul export shipments.

    Differences from Other Reagent Options

    Not every acetomercuric compound functions with the same reliability as acetomercuric imide. Some competitors in the market focus on speed of synthesis without refining for asymptomatic residues. Products like acetomercuric acetate or monomercuric imide often introduce challenges. Acetate forms can increase solubility in specific systems, but lab workers report increased byproduct interference and hydrolytic instability. Quality acetomercuric imide, by contrast, provides a stable, neat compound that avoids introducing unnecessary organic fragments.

    Researchers tracking down root causes for unreliable yields consistently find synthesis steps derailed by inconsistent reagent quality. During troubleshooting, customers share stories about switching suppliers and witnessing yield spikes after the first use of our AMI-87. These recoveries help them meet deadlines and eliminate the nagging issue of unexplained batch-to-batch variation. While structurally similar alternatives exist, their lower purity and inconsistent crystallinity hinder downstream performance.

    Acetomercuric Imide delivers particular advantage in work-up and isolation phases. Analysts note fewer trace contaminants—such as halide ions, unexpected ligand exchange byproducts, or oxidized mercury residues. This quality streamlines post-reaction cleanup and cuts down on costs tied to downstream purification. The consistency also benefits scale-up trials, where minute differences in reactivity can become magnified in hundred-gram or kilogram campaigns. Each time we listen to customer process data, we hear the same thing: higher material quality upstream pays dividends through every step.

    Our Approach to Process Integrity and Supply Chain Confidence

    Customers share a core ask: keep deliveries transparent, documentation tight, and specifications met, every shipment. Our team works to keep records on each batch, calibrating against a single standard so each drum can be matched to previous lots. Year after year, our analysts run QA checks, inputting results into long-term digital archives. Product traceability builds confidence for regulatory compliance and user peace of mind.

    Few specialty reagents experience such scrutiny from regulatory authorities as mercury compounds. We operate with robust containment, precisely monitored scrubber systems, and staff training plans on advanced handling protocol. Regular third-party audits keep our environmental and safety procedures honest. Customers take assurance in knowing our working environment meets and exceeds modern chemical manufacturing best practices.

    We notice customers increasingly ask for life cycle and environmental impact assessments, even for products like acetomercuric imide that present unique disposal requirements. We act by staying current with local and international hazardous substance transport rules, updating packaging and MSDS sheets and transparently outlining shelf life, waste disposal, and emergency response strategies during purchase consultations. Our continual investments in mercury abatement and closed-loop waste management facilities evidence our commitment to sustainable practices.

    Why Process Control Matters for Critical Reagents

    Quality management for acetomercuric imide boils down to detail orientation. Merely scaling up batch size can introduce variations unless each mixing, reaction, and crystallization parameter gets tightly controlled. Our operations team measures moisture, oxygen content, and trace organic contaminants throughout production. By holding true to validated procedures, production outputs show tight control limits — no surprises when each product drum arrives at the customer’s door.

    Clients using the AMI-87 grade note the benefit of off-the-shelf supply reliability, removing the need for costly custom synthesis or pilot scale troubleshooting. Standard packaging means each label, container seal, and handling note follows a single code. Orders ship with freshly printed certificates of analysis, with every analytical result matched against past runs for long-term consistency.

    Our laboratory workflow includes random sampling of finished product jars, confirming that sedimentation or caking do not affect usability. This attention to packaging and shelf stability excludes unnecessary retesting or costly in-house reagent reprocessing. Intact chemical and physical properties, alongside batch records and analytical graphs, save our customers labor during batch release or post-shipment inspection.

    User Experience: Addressing Challenges and Feedback

    Assay teams, method developers, and pilot plant staff give us direct feedback on how our acetomercuric imide stacks up. They measure batch reactiveness and catalog ease of dissolution, noting lower dusting and better wettability than previous suppliers’ samples. Some analytical teams report less waste from clumping or insoluble inclusions, while technical staff appreciate consistent flow properties. Direct feedback from research chemists pushes us to tune in to the attributes that matter most in a working environment: solubility, contaminant profile, and shelf stability.

    Short shelf life or erratic caking in storage indicate manufacturer shortcuts or distribution mishandling. We keep our formulation tightly within tested parameters, including anti-caking agents only where absolutely needed for long-duration storage and always flagged with full disclosure. Those who run process safety audits on incoming materials point to our supply chain as a model for tight containerization, labeling accuracy, and residual testing for organic and heavy metal trace contaminants.

    The result: fewer deviations, more predictable batch records, and less need for duplicate incoming QC testing at the user site. In collaborative client discussions, we refine future formulations and explore packaging alternatives based on logistical needs and climate-specific challenges. We keep an open line to customers who want formulation tweaks for niche uses, adjusting grind size or packaging format to simplify handling for both benchtop technicians and automated dosing systems.

    Dealing with Sensitive Chemical Handling

    Mercury compounds come with their own set of regulatory and procedural burdens. In our hands, acetomercuric imide always receives careful in-plant handling under negative pressure enclosures, with active vapor scrubbing and sealed transfer between stages. Technicians hold training certifications, and equipment operators rotate regularly to keep up on best safety practices. We noticed early on that even microscopic spills influence subsequent product purity, so diligence around containment and clean workspaces becomes non-negotiable.

    On outbound shipments, every package ships with real-time environmental monitoring indicators, giving end users proof that transport and interim warehousing didn't compromise their materials. This level of oversight addresses not just process integrity, but safety audits and customs review for regulated substances. Transparency at every step reassures users, who must answer to increasingly demanding auditing and certification bodies.

    Where Acetomercuric Imide Sits in Changing Regulatory and Research Environments

    Many markets demand increased scrutiny for mercury-based reagents, both in terms of user safety and waste disposal. Regulatory shifts often mean synthetic chemists look for replacements, but the nuanced properties of acetomercuric imide continue to support complex transformations in pharmaceuticals and materials projects where no readily available substitute matches its utility. Our product supports a shrinking but critical field, delivering reliability when researchers encounter regulatory delays and shifting procurement landscapes.

    Faced with tightening waste rules, customers ask for reagent cost-benefit analysis and detailed breakdowns of mercury content by batch. We furnish comprehensive documentation, lot history, and support advice for both in-lab and industrial waste management. Our product remains crucial for synthesis steps that can't yet transition to greener alternatives with equivalent yield and selectivity. Researchers seeking to minimize environmental footprint often use our guidance to optimize processes for efficient product recovery and reduced reagent excess.

    Supporting Best Practices in Use and Disposal

    Users frequently encounter hurdles handling hazardous reagents in facilities built for safer commodity chemicals. Our technical team provides training materials, regulatory compliance documentation, and tailored advice for site-specific hazard management. We work closely with clients to ensure procedures for storage, transfer, and usage endure peer review and safety audit. This level of support reduces incidents and maintains uninterrupted research and manufacturing output.

    Disposal practices often fall behind advances in synthesis, especially with legacy mercury compounds. Our support staff provide practical advice for neutralization and compliant disposal, helping customers find approved vendors and cost-efficient waste treatment methods. We prioritize the sharing of real-world lessons learned over theoretical guidelines, forging links with hazardous waste management contractors so our users always have up-to-date, workable options.

    Where Research and Industry Turn for Reliable Acetomercuric Imide Supply

    Years delivering AMI-87 acetomercuric imide have taught our team the value of proactive quality control and deep customer engagement. We view each batch not just as a commodity, but as a tool enabling scientific and industrial innovation. This sense of responsibility runs through everyone on the floor, from production chemists conducting in-process tests, to logistics coordinators checking every lot against shipping specs.

    Our users—from university labs to industrial process innovators—recognize the critical difference manufacturer commitment makes. Reliable acetomercuric imide serves as a foundation for synthetic rigor and experimental repeatability. Across changing regulatory, technical, and economic conditions, this consistency gives our clients the confidence to push forward with new products and methods while relying on a stable supply chain backbone.

    As specialized chemistry becomes more competitive, only those who invest in process transparency, sustainable practice, and technical support keep earning user trust. We expect continued demand from high-end research and specialized manufacture, and our goal remains unchanged: deliver world-class acetomercuric imide backed by real-world expertise, industry-tested process control, and open lines of technical communication.