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Dimethyl Iminodiacetate Hydrochloride

    • Product Name Dimethyl Iminodiacetate Hydrochloride
    • Alias Dimethyl Iminodiacetate Hydrochloride
    • Einecs 253-403-9
    • 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

    780033

    Product Name Dimethyl Iminodiacetate Hydrochloride
    Chemical Formula C6H12ClNO4
    Molecular Weight 197.62 g/mol
    Cas Number 1429-50-1
    Appearance White to off-white crystalline powder
    Purity Typically ≥98%
    Solubility Soluble in water
    Melting Point 145-148°C (dec.)
    Storage Conditions Store at room temperature, protected from moisture
    Ph 5 Soln 20 C 4.0 - 6.0
    Odor Odorless
    Synonyms N,N-Bis(carboxymethyl) methylamine dimethyl ester hydrochloride

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

    Packing & Storage
    Packing White, high-density polyethylene bottle containing 250 grams of Dimethyl Iminodiacetate Hydrochloride, securely sealed with a tamper-evident screw cap.
    Shipping Dimethyl Iminodiacetate Hydrochloride is shipped in tightly sealed, chemically resistant containers to prevent moisture and contamination. It should be transported under dry, cool conditions and protected from direct sunlight. Appropriate labeling and documentation are required, following standard chemical shipping regulations for safe handling and compliance with local and international guidelines.
    Storage Dimethyl Iminodiacetate Hydrochloride should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight and moisture. Keep it away from incompatible substances such as strong oxidizing agents. Store at room temperature and handle with proper protective equipment to avoid inhalation or contact with skin and eyes.
    Application of Dimethyl Iminodiacetate Hydrochloride

    Applications of Dimethyl Iminodiacetate Hydrochloride in Industrial Manufacturing

    Dimethyl Iminodiacetate Hydrochloride is an essential chemical intermediate actively used by manufacturers in select high-value industries. Its specific chemical structure and reactivity support critical synthesis, purification, and chelation processes, contributing decisively to industrial-scale production lines. The following application scenarios reflect direct downstream manufacturing adoption in compliance with globally recognized standards and industry practices.

    1. Pharmaceutical API Intermediate Synthesis

    Dimethyl Iminodiacetate Hydrochloride plays a key role as a chelating agent and building block in pharmaceutical intermediate manufacturing, especially in the synthesis of contrast agents, certain cephalosporin derivatives, and as a precursor for various API complexants. Downstream manufacturers rely on its controlled reactivity during multi-step syntheses to achieve precise molecular modifications, consistently adhering to stringent traceability and impurity specifications. Formulators adjust addition rates based on the complexity of the desired API structure, controlling both purity and reaction selectivity at scale.

    Industry compliance standards

    • USP, EP monographs for APIs and intermediates
    • ICH Q7 GMP for Active Pharmaceutical Ingredients
    • Chinese Pharmacopoeia (ChP) production requirements
    • FDA 21 CFR 210/211 for finished pharmaceutical products

    Typical usage ratio

    • Adjusted between 0.5%–2.5% (wt/wt or mol/mol relative to main substrate), optimized by stepwise reaction conversion and impurity control requirements

    Downstream process integration

    • Stepwise addition during core structure assembly and chelation process in the synthesis line, often post-condensation/pre-purification, under controlled temperature and pH conditions

    Final product types

    • Contrast agent raw materials (e.g., gadolinium chelates)
    • Antibiotic intermediates (e.g., cephalosporin complexes)
    • Specialty active pharmaceutical ingredient intermediates

    2. Agrochemical Formulation Synthesis

    Dimethyl Iminodiacetate Hydrochloride is commonly incorporated by agrochemical manufacturers as a versatile ligand precursor during the synthesis of metal-complexed fertilizers, micronutrient formulations, and select pesticide intermediates. Its chelating properties ensure stable micronutrient delivery and controlled release in finished products, while its compatibility with other synthetic agents influences the final stability and bioavailability of agricultural chemicals.

    Industry compliance standards

    • FAO/WHO specifications for agrochemical actives
    • GB/T 23349 fertilizer and micronutrient additive standards (China)
    • REACH registration for chemical safety (EU)
    • ISO 8157 for fertilizer terminology and purity

    Typical usage ratio

    • Ranges from 0.2%–1.0% by weight in chelate-based micronutrient premixes, with dosage tuned to metal ion concentration and field release profile targets

    Downstream process integration

    • Mixed in the synthesis reactor during chelation or after pH neutralization steps, prior to downstream granulation or spray-drying operations

    Final product types

    • Fe, Mn, Zn, Cu chelated micronutrient fertilizers
    • Metal-complexed slow-release foliar sprays
    • Pesticide active intermediates for further derivatization

    3. Water Treatment Chelating Agent Production

    Within industrial water treatment manufacturing, Dimethyl Iminodiacetate Hydrochloride acts as a controlled chelator in the synthesis of advanced EDTA-related derivatives used for sequestration of calcium, magnesium, and transition metals. Manufacturers value its predictable reactivity and its role in minimizing scale formation and heavy metal interference in process water systems. Dosing ratios respond to the water composition and the degree of chelation needed in high-throughput blending environments.

    Industry compliance standards

    • NSF/ANSI 60 for drinking water system additives
    • EN 1976 for water treatment chelating agent grades
    • ISO 9001-certified production management
    • State Environmental Protection Agency (EPA) approvals (region-specific)

    Typical usage ratio

    • 0.1%–0.7% by weight in concentrated chelating formulations, depending on targeted metal ion ppm in treated water

    Downstream process integration

    • Incorporated during the core chelation synthesis in liquid blending tanks, followed by filtration and final concentration adjustments, prior to drum or IBC filling

    Final product types

    • EDTA-type water treatment agents for scale and deposit control
    • Industrial and municipal water conditioning compounds
    • Metal ion sequestrants for RO membrane protection

    4. Electroplating Bath Additive Manufacturing

    Manufacturers supplying electroplating facilities utilize Dimethyl Iminodiacetate Hydrochloride as a selective brightener and bath life extender in the formulation of nickel, copper, and precious metal electroplating additives. Its chelation behavior supports controlled metal ion activity, refining crystalline deposition and minimizing unwanted side reactions during plating cycles, delivering consistent surface finish quality under varied operational currents.

    Industry compliance standards

    • ASTM B571 for electrodeposit coatings test methods
    • RoHS Directive for restricted substances in electroplating
    • ISO 9001:2015 for additive blending and QC
    • Industry-specific plating bath formulation guidelines

    Typical usage ratio

    • 0.05%–0.2% (wt/vol) in plating bath concentrates, optimized for desired deposit structure and plating cycle duration

    Downstream process integration

    • Added to stock solutions during electroplating bath make-up or periodic maintenance dosing, with precise metering through automated dose-control systems

    Final product types

    • Electroplating bath additives for nickel, copper, gold, and silver baths
    • Metal finishing brightener blends
    • Plated metal components for electronics, automotive, and decorative uses

    5. Fine Chemical Synthesis for Heterocyclic and Macrocyclic Ligands

    Producers of specialty ligands employ Dimethyl Iminodiacetate Hydrochloride during the assembly of macrocyclic and heterocyclic compounds, especially in metal complexation applications such as analytic standards and catalyst scaffolds. Its functional group reactivity allows route flexibility and high selectivity, supporting final product consistency through precise stoichiometry in batch and continuous processes.

    Industry compliance standards

    • ISO 17025 for chemical synthesis and QC laboratory operations
    • GHS compliance for transport and handling
    • National standard analytical method validation (region-specific)
    • REACH (EC) No. 1907/2006 substance registration (EU)

    Typical usage ratio

    • Application-specific range of 0.3%–1.5% (mol/mol to metal ion), specifically defined by ligand structure and binding stoichiometry

    Downstream process integration

    • Charged to the reactor during condensation or cyclization steps, monitored by in-process HPLC/ICP-MS analytical methods, followed by post-reaction purification workflows

    Final product types

    • High-purity heterocyclic chelators
    • Macrocyclic ligand standards for analytical laboratories
    • Specialty metal-complexed catalysts
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    Certification & Compliance
    More Introduction

    Dimethyl Iminodiacetate Hydrochloride: A Closer Look from the Manufacturer’s Workbench

    Years of factory experience have taught us that every chemical compound comes with its own set of characteristics and quirks. Among the amino acid derivatives we handle, Dimethyl Iminodiacetate Hydrochloride (model: DMIDA-HCl) has built up a solid reputation for its high purity, reliability, and unique position in both synthesis and formulation. Our production process has evolved with global and customer expectations, staying true to our focus on transparent sourcing, precise control, and hands-on accountability at each stage.

    What Sets Dimethyl Iminodiacetate Hydrochloride Apart

    From a chemist’s perspective, Dimethyl Iminodiacetate Hydrochloride holds a distinct chemical identity. Its molecular structure incorporates the hydrochloride salt, bringing significant advantages for solubility and reactivity. Compared to the base or free acid forms, the hydrochloride version handles moisture better and proves simpler to weigh and apply in water-based systems.

    Colleagues in pharmaceutical synthesis appreciate its role as a versatile building block—our batches undergo rigorous checks to achieve consistent content above 99%. These high-purity lots allow for tighter reaction controls during scale-up, reducing side reactions that could stall whole production lines. Chemical researchers often request our technical team to explain subtle purity differences between this salt and other aminodiacetate derivatives. Having spent years on the manufacturing floor, the contrast becomes clear: DMIDA-HCl delivers more predictable behavior under a broader spectrum of pH and temperature conditions, translating to higher success rates during process development.

    Specifications and Physical Profile

    Experience in large-scale production has shown that no batch should leave our site without confirming critical characteristics. Our standard DMIDA-HCl appears as a white to off-white crystalline powder, with a melting range typically above 200°C (dec.). Moisture control stands as a top priority since this compound’s high solubility can complicate logistics for bulk users. We set strict water content standards—less than 0.5% by Karl Fischer titration—so that customers avoid clumping, measurement errors, or unwanted dilution during blending.

    Bulk density and particle size distribution often matter more than lab data sheets suggest. Engineers who handle blending and metering machines rely on our technical reports for guidance. We keep sieve and tap density data on hand, aiming for a free-flowing powder that feeds smoothly without bridging in hoppers or causing downtime on granulation lines.

    Practical Uses and Down-the-Line Benefits

    Technical and scale-up chemists keep requesting Dimethyl Iminodiacetate Hydrochloride for its performance in diverse synthetic pathways. In agrochemical active ingredient manufacturing, it acts as a chelating agent or intermediate that helps complex with metals, or build up more complicated target molecules. In some pharmaceutical APIs, the compound serves as a backbone in constructing more intricate nitrogen-containing structures.

    Downstream users know our DMIDA-HCl offers a “clean slate”—modest impurities reduce risk for unexpected byproducts, saving hours of troubleshooting. Recently, one customer shared that switching to our product helped improve their HPLC yields on a key intermediate by over 5%. We noticed this trend with several partners who moved away from variable-quality imports that came with excess formaldehyde or nitrate residues.

    Beyond large-scale industrial users, specialty labs also find DMIDA-HCl useful for organometallic complexation, buffer formulation, and even as a template molecule for novel synthesis work. We often get asked how it compares against glycine methyl ester derivatives; our answer, based on production data, echoes customer experience—Dimethyl Iminodiacetate Hydrochloride carries higher stability and offers a more predictable pH response, critical in reactions where timing and endpoint control make or break a project.

    Key Differences from Other Aminodiacetate Products

    Many first-time buyers ask about the difference between Dimethyl Iminodiacetate Hydrochloride and similar compounds—such as ethylenediaminetetraacetic acid (EDTA), iminodiacetic acid (IDA), or their methyl ester analogs. Working daily with these materials, the distinctions reveal themselves clearly through their behavior on the shop floor and in customer plant trials.

    EDTA salts, with their extra carboxylates, bind metals much more strongly but lack the selective reactivity we see from DMIDA-HCl in narrower applications. For those seeking a milder chelate or a precursor that can undergo tailored modifications, DMIDA-HCl offers a more accessible platform. Its methylation cuts down on hydrogen bonding, which can otherwise lead to stickiness or limited solubility, especially in high-throughput reactors using automated feeding systems.

    Comparing to the free acid form, one batch of aminodiacetic acid may show troublesome agglomeration or hygroscopic pickup, requiring customers to install dryers at extra expense. Our hydrochloride salt does not have this problem. It remains stable, resists caking, and still dissolves rapidly for immediate use during processing. Technical support teams repeatedly mention how customers switching over to our DMIDA-HCl see fewer line stoppages due to material flow or blending inconsistencies.

    Backed by Manufacturing Experience

    Producing specialty amino acid derivatives means looking beyond textbook chemistry and listening closely to process operators and end users. We learned years ago that changes in fine particle size can add up to full truckloads being rejected, so we invested in reliable air classification systems and close monitoring of raw material sourcing.

    Waste minimization is another lesson from the field. The controlled methylation process for DMIDA-HCl cuts back on hazardous byproduct streams. We keep records of solvent use, recycle all feasible washwaters, and share data with technical buyers to help them defend sustainable supply chain decisions.

    Every lot passes through multiple QC checkpoints. Our analysts examine not only elemental content and NMR spectra, but also trace byproducts invisible to most standard tests. One of the most common defects in low-end imports—chlorinated organic residues—does not appear in our spectral scans because we avoid off-pathway chlorination in the final step. We know from customer experience that downstream product purification costs drop when using clean, high-grade DMIDA-HCl upfront.

    Supporting Research, Process, and Commercial Growth

    Universities, contract research organizations, and development labs need reliable access to small volumes so they can move from proof-of-concept to pilot scale. Our technical service staff supports these projects with tailored batch sizes—sometimes just a few kilos—and documentation for grant submissions and publication requirements. Recently we worked with a startup scaling up a biocatalytic transformation, supplying customized particle size and stability data so they could tune their enzyme reactor cycles.

    Scaling up to tonne production, manufacturers in fine chemicals or API intermediates value our lot-to-lot consistency. Multiple customers have commented on how steady the bulk density and purity of DMIDA-HCl helps their own process models stay in-spec, reducing wasted rework and increasing batch throughput. Troubleshooting teams—ours and theirs—collaborate directly to quickly track down the rare outlying result, tapping into decades of cumulative experience with batch records, old pilot logs, and traceability controls.

    Regulatory Considerations from a Factory Standpoint

    Operating a compliant plant means we keep careful records for traceability and ensure all shipments of DMIDA-HCl meet strict environmental and safety guidelines as required in major markets. EU REACH registration, US TSCA notification, and China import clearances shape how we select input materials, document handling, and prepare for audits. Our field experience tells us that batches with full chain-of-custody certification reassure auditors and reduce “red tape” delays for importers.

    Every inspection we host—whether surprise or scheduled—reinforces the value of thorough documentation. We supply full certificates of analysis, batch trace logs, and impurity profiles for each delivery, so customers spend less time qualifying new suppliers and more on expanding production. For multinational customers, we provide harmonized MSDS documents and proactive compliance updates so their regional safety officers handle fewer last-minute surprises from regulatory reviews.

    Best Practices for Handling and Using DMIDA-HCl

    Direct feedback from warehousing staff and plant teams shaped our current packaging and storage recommendations. We offer our DMIDA-HCl in multi-layered bags or barrels to protect from moisture and cross-contamination. Color-coded labeling and lot numbers make for quick scanning and inventory tracking, especially important for companies managing parallel projects in fast-moving sectors like pharmaceuticals or specialty chemicals.

    For end users with automated dosing systems, we adjust our bulk packaging according to hopper size and feed rate, ensuring the powder flows evenly right up to the last kilo. Plant operators recommend handling DMIDA-HCl in clean, dry conditions and sealing containers tightly between uses, since the high solubility can otherwise lead to unnecessary handling losses or operator exposure. Our technical specialists remain available for onsite audits to advise on equipment cleaning cycles and best methods to avoid cross-over contamination with strongly acidic or basic materials.

    Supply Chain Realities and Reliability

    Short notice, unexpected volume jumps, or shipping route changes all put pressure on our response times. Over the years, we learned to keep a buffer on both in-process and finished DMIDA-HCl, staged at different points in our production site to cover regular needs and emergency rushes. We share upcoming maintenance schedules and planned output windows with long-term partners, so they gain enough lead time for their own purchasing cycles.

    Transparency about logistics and real production capacity keeps relationships strong. When energy restrictions affect grinding capacity or port closures create container bottlenecks, we flag these risks and provide alternative plans—including nearby warehousing or consolidated shipping with compatible products to minimize costs and keep production flowing.

    Knowledge Sharing and Partnering

    Technological milestones in the DMIDA-HCl sector come from dialogue, not secrecy. Our open-door policy brings R&D teams onsite to observe mixing, reaction, and finishing steps. These collaborations have delivered new application methods, such as rapid-dissolving pre-mixes tailored for immediate batch introduction or co-formulation with oxidizing or reducing systems.

    We dedicate significant resources to helping customers interpret technical challenges. If an HPLC trace reveals an unknown peak, our analysts help identify its source—be it microscopic glass fiber contamination from old packing lines or a process artifact at the methylation step. By pooling expertise, both factory and customer sites cut time lost to trial-and-error.

    Investing in the Future of DMIDA-HCl

    The specialty chemicals world faces ongoing regulatory shifts and demand for cleaner and more predictable intermediates. We respond by investing in safer process engineering and digital traceability tools. Plant data acquisition improves response time during product upsets or parameter drift, protecting the downstream applications that depend on a steady supply.

    Environmental targets play a growing part of our mission. Using greener solvents and optimizing recycling cycles for water and byproduct streams help us cut the carbon footprint of every kilo shipped. We keep pushing to lower waste, document compliance, and share these improvements with global customers who care about responsible sourcing.

    Continuous Feedback and Process Optimization

    Our relationship with end users does not stop at the loading dock. We welcome regular feedback—both positive and critical. The best suggestions for improvement have come from partners who tested our DMIDA-HCl under challenging process or scaleup conditions and pointed out blind spots. Sometimes, it takes a missed delivery or flow interruption to focus resources on technical bottlenecks we can solve with fresh investment or dedicated support teams.

    Listening closely to production engineers, warehouse operators, and process chemists helps us adjust documentation, packaging, and communication channels, so both startup labs and global manufacturers have what they need for smooth, repeatable results using DMIDA-HCl.

    Dimethyl Iminodiacetate Hydrochloride Through the Manufacturer's Eyes

    Producing Dimethyl Iminodiacetate Hydrochloride in large batches year after year, we see the compound not just as a formula or data point, but as a workhorse that helps advance new molecules, therapies, and technologies. The hands-on knowledge that comes from months of reaction monitoring, purity checks, and troubleshooting proves irreplaceable for supporting research and production teams worldwide.

    Echoing feedback from real users, our experience confirms: careful control at the source translates to smoother manufacturing, fewer problems in the field, and stronger trust with each delivery. Dimethyl Iminodiacetate Hydrochloride finds itself at the intersection of technical reliability, process versatility, and continuous manufacturer support—qualities that only emerge after years of hard work in production, and which our team remains committed to delivering.