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Diethyl Iminodiacetate

    • Product Name Diethyl Iminodiacetate
    • Alias Diethyliminodiacetate
    • Einecs 246-383-2
    • 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

    494297

    Product Name Diethyl Iminodiacetate
    Cas Number 693-13-0
    Molecular Formula C8H15NO4
    Molecular Weight 189.21
    Appearance Colorless to pale yellow liquid
    Boiling Point 133 °C at 13 mmHg
    Density 1.105 g/cm3
    Flash Point 123.5 °C
    Solubility In Water Slightly soluble
    Refractive Index 1.443-1.445
    Purity Typically ≥98%
    Storage Temperature 2-8 °C
    Smiles CCOC(=O)CN(CC(=O)OCC)C

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

    Packing & Storage
    Packing Diethyl Iminodiacetate is packaged in a 500g amber glass bottle with a secure screw cap and detailed labeling for safety.
    Shipping Diethyl Iminodiacetate is shipped in tightly sealed containers, protected from moisture and incompatible substances. It should be handled according to standard chemical safety guidelines. Transport typically occurs at ambient temperature under dry conditions, with clear labeling and relevant documentation as per local and international regulations for non-hazardous chemicals.
    Storage Diethyl Iminodiacetate should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from sources of heat, ignition, and incompatible materials such as strong oxidizing agents. Protect from moisture and direct sunlight. Properly label storage containers and ensure access is restricted to trained personnel. Always follow local regulations and safety guidelines.
    Application of Diethyl Iminodiacetate

    Applications of Diethyl Iminodiacetate in Industrial Manufacturing

    Diethyl iminodiacetate serves as a critical intermediate across multiple fine chemical and specialty sectors. Its reactivity profile and chelating functionality support high-value synthesis routes in pharmaceuticals, agrochemicals, and advanced materials. Below we provide detailed industrial application insights, including compliance, formulating ratios, production integration, and key end products.

    1. Active Pharmaceutical Ingredient (API) Synthesis

    In pharmaceutical production, diethyl iminodiacetate is widely employed as a chelating building block in the synthesis of various APIs. Manufacturers utilize its bifunctional structure for step-growth and cyclization reactions, notably during the preparation of complex drug intermediates where precise amino acid or ligand frameworks are essential. It allows consistent control of purity and yields, ensuring repeatability across scale-up batches.

    Industry compliance standards

    • U.S. Pharmacopeia (USP) Chapters — Targeted for synthetic intermediates compliance
    • ICH Q7 GMP for Active Pharmaceutical Ingredients
    • European Pharmacopoeia (Ph. Eur.) monographs for amino acid derivatives where applicable
    • FDA 21 CFR Part 211 – Current Good Manufacturing Practice for Finished Pharmaceuticals

    Typical usage ratio

    • 15–30% molar ratio relative to the total reactant mass; adjusted based on the targeted API scaffold and cross-coupling efficiency

    Downstream process integration

    • Reaction steps: Introduced at the amidation or alkylation stage during API intermediate buildup
    • Works as a primary reactant or a ligand precursor in transition metal-catalyzed synthesis
    • Pilot and commercial scale synthesis adopt closed-system charging to minimize contamination risk

    Final product types

    • Non-proteinogenic amino acid-based APIs
    • Iron chelating drugs such as deferoxamine analogues
    • Imidazole- and pyridine-based therapeutic intermediates
    • Pharmaceutical-grade ligands for diagnostic radiopharmaceuticals

    2. Chelating Agent Production for Water Treatment Chemicals

    Manufacturers utilize diethyl iminodiacetate as a precursor in the synthesis of high-performance chelating agents, especially ethylenediamine-N,N'-disuccinic acid (EDDS), used extensively in ecological water treatment formulations. Its double ester groups allow efficient scaling in continuous reactors, ensuring consistent chelation stability and minimized by-product generation, critical for municipal and industrial water purification applications.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Systems
    • EN 15039: Chemicals Used for Treatment of Water Intended for Human Consumption
    • REACH compliance for environmental and human safety registration in the EU
    • Guidelines from the World Health Organization for water additive safety

    Typical usage ratio

    • 25–40% by total mass of chelating agent batch; selection varies by targeted sequestration capacity and reaction yield profiles

    Downstream process integration

    • Enters reactor during alkylation and saponification stages
    • Enables in-situ formation of chelator frameworks, controlling side-reaction suppression for high-purity output
    • Supports integration with downstream drying and granulation units for finished chelating salt formats

    Final product types

    • Biodegradable chelating agents (e.g., EDDS powder or liquid formulations)
    • Heavy metal sequestrants for municipal waterworks
    • Industrial effluent treatment polymer blends
    • Scale and deposit control agents

    3. Crop Protection Intermediate Manufacturing

    Within agrochemical synthesis, diethyl iminodiacetate acts as a core intermediate for selective herbicide or pesticide active ingredients. Its spatial arrangement and chelating properties facilitate ligand construction critical to certain systemic agents. Large-scale producers depend on its purity to guarantee downstream crop protection product consistency, efficiency, and regulatory acceptability.

    Industry compliance standards

    • FAO/WHO JMPR (Joint Meeting on Pesticide Residues) specifications
    • ISO 17025: Testing and Calibration Laboratories
    • EU Regulation (EC) No 1107/2009 for plant protection product registration
    • US EPA 40 CFR Part 158 – Data requirements for pesticide registration

    Typical usage ratio

    • 10–28% by weight depending on the target intermediate and subsequent conversion efficiency

    Downstream process integration

    • Charged at initial condensation or amidomethylation step of the synthesis sequence
    • Facilitates chelation-sensitive ring closure reactions
    • Feeds directly into finishing or functionalization reactors before formulation

    Final product types

    • Systemic herbicide precursors (e.g., for glyphosate-related compounds)
    • Advanced pesticide active intermediates
    • Fungicide additive intermediates subjected to chelating activity enhancements
    • Agrochemical additives with trace nutrient chelation capacity

    4. Specialty Polymer Modification and Resin Synthesis

    In specialty polymer and resin industries, diethyl iminodiacetate proves valuable as a functional monomer modifier. Producers employ it to introduce chelating and cross-linking capabilities into polymers aimed at adhesives, coatings, and engineered resin composites. Its incorporation governs both the mechanical integrity and targeted ion affinity of final products, suiting demands for specialty filtration, electroplating, and high-performance coatings.

    Industry compliance standards

    • ISO 14001: Environmental Management Systems for chemical manufacturing
    • ASTM D256 and D638: Mechanical property testing for modified resins
    • EU REACH legislations on polymer additives
    • RoHS Directive 2011/65/EU concerning hazardous substances in electrical and electronic equipment, when applicable

    Typical usage ratio

    • 5–15% by weight in polymer blends; level depending on target cross-link density and chelating requirements

    Downstream process integration

    • Added directly to the reactor with the primary monomer feedstock
    • Initiates controlled copolymerization or functional group grafting steps
    • Supports pre-polymer functionalization and can be dosed via automated feeding for large-volume production

    Final product types

    • Ion-exchange resins for water treatment and chromatography
    • Polymeric adhesives with tailored metal bonding properties
    • Specialty anti-corrosion coatings for industrial machinery
    • Cross-linked polymer membranes for battery and fuel cell applications
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    Certification & Compliance
    More Introduction

    Diethyl Iminodiacetate: A Manufacturer’s Perspective on Quality, Application, and Differentiation

    Genuine Experience with Diethyl Iminodiacetate

    Standing on the production floor, you realize the value of consistency—whether you’re heating, distilling, filtering, or finally packaging the chemical you’ve invested months of labor into. Diethyl Iminodiacetate isn’t just another fine chemical that’s measured, weighed, and sold by the kilogram; it is a critical intermediate, woven into the backbone of chelating agent synthesis and specialty chemical manufacturing. Many manufacturers are a far cry from the genuine hands-on reality: reactors humming with charge, careful loading of raw amines, controlled addition of ethyl bromoacetate, monitoring of pH for the cleanest yield. There are days production keeps us late, double-checking gas evolution, minimizing side reactions, just to guarantee the purity our customers expect.

    Chemical purity is not a throwaway number. Our QC confirms each lot passes above 99% by GC standard—an important line in the sand for anyone using Diethyl Iminodiacetate in downstream pharmaceutical building blocks, agricultural intermediates, or as an agent in electroplating bath formulations. Impurities or residual solvents lower confidence and create problems that ripple through subsequent synthesis, causing incomplete reactions or off-target effects. By controlling both raw input and precise reaction conditions—temperature, agitation, feeding rate—it’s possible to achieve the best color and the lowest byproducts, not just an “acceptable” output.

    Understanding Diethyl Iminodiacetate: Model, Specification, and Structure

    Diethyl Iminodiacetate’s chemical structure, as anyone in the lab or plant will confirm, features a simple yet versatile backbone—an iminodiacetate core with two ethyl ester functionalities. The model we routinely manufacture remains constant: free-flowing, pale-yellow to clear liquid, since we avoid plasticizers or cheap fillers. Each metric ton batch retains moisture content below 0.2%, and alcohol residue, critical for sensitive syntheses, is routinely analyzed to avoid system contamination in customers’ vessels.

    Mol weight, C8H15NO4, stands at 189.21. Those who have worked with alternatives such as methyl or benzyl analogs will know—ethyl esters provide a unique trade-off between manageable hydrolysis and reactivity. Our specs hold the acid value steady, checked by titration daily rather than relying on spot-checks or foreign-supplied data. Anyone in the plant knows, if titration shows drift—stop packing, check the batch, start again. Nothing leaves until it meets agreed standards, because rework costs much more than a phone call explaining a delay and builds trust on both sides.

    Where Diethyl Iminodiacetate Delivers

    Practically speaking, the biggest pull in the market comes from customers who rely on strong chelation, yet demand molecules that react on cue. Ethylene diamine tetraacetate (EDTA) wouldn’t exist without Diethyl Iminodiacetate as a key building block. Our product’s stability under ambient conditions lets users store inventory without caking or degradation; that stability is closely linked to water control and byproduct removal on our line. In every shift, our team tracks color via UV-vis assays—no shortcuts, just a drive for the batch-to-batch repeatability our customers learned to expect over years, not months.

    Agrochemical clients have strict cut-offs on residual metals. We switched from traditional enamel reactors to lined systems, because ferrous ions in batches led to market complaints and headaches downstream. It taught us: don’t skimp on equipment upgrades—the customer will notice and move on if contamination persists.

    Manufacturing at Scale: What Shapes Product and Pricing

    Scaling production teaches hard lessons about cost, efficiency, and integrity. Suppliers sometimes push to shave cents by switching to lower-purity bromoacetate; those savings vanish in wasted labor, lost time, and subpar end-products. Our team experienced debottlenecking workstations and additive-free synthesis to squeeze every percentage point from the reaction without relying on proprietary “shortcuts.” Honest labor in the plant, not one-off tricks, sets real chemical makers apart from speculators.

    Complexity arises most in purification. Even as the synthesis chemistry is well documented, the devil lives in the details: if column temperature rises or distillation rate is off by a fraction, the ethyl ester turns, and yield and purity decline. We’ve tinkered with vacuum systems and automated washes for years to lock in a process that doesn’t dump off-target byproducts into final packaging. There is no substitute for investment in people and machines.

    Price wars happen, but every seasoned buyer learns the cheapest offer often carries invisible pains—water content, variable purity, or inconsistent packing. We’ve fielded “try-out” orders where customers tried bulk shipments from other regions for a few hundred dollars less, only to call us months later, upset over unusable material and production standstills. Managing production to avoid waste—not just chasing headline price—proves itself year after year, strengthened by actual field use, QC trends, and open lines between plant and client.

    Practical Uses: Lived Applications, Not Lab Possibilities

    Two-thirds of our output ships to companies making chelating agents—notably EDTA, which is recognized as vital across cleaning, industrial scale water treatment, and even concrete admixtures. Formulators expect Diethyl Iminodiacetate to convert cleanly under amination, acid catalysis, or transesterification; if unwanted byproducts persist, they have to spend on filtration and treatment, losing yield and time. Years of supply-side discussions with R&D staff taught us: Always flag batches that shift in acidity or color. Formulators want chemical certainty, not drama from batch-to-batch variability.

    As a precursor, Diethyl Iminodiacetate sits comfortably at the intersection of high-selectivity synthesis and manageable hydrolysis rates. Chemists prize the ethyl esters for being less volatile and easier to scale than methyl analogs, with enough hydrolytic stability to survive downstream processing but enough accessibility for smooth conversion. Industrial customers in electroplating have commented that lower water and alcohol residuals in our material cut their tank fouling and improved deposition rates—a confirmation for our additional cost on vacuum stripping steps.

    Outside chelation, select pharmaceutical and fine chemical syntheses require Diethyl Iminodiacetate as an intermediate or protective group. Batch-tunable reactivity, in close collaboration with customer formulation teams, helps refine conversion steps and reduce unwanted byproduct formation. Such collaborations led us to modify drying steps and employ ozone scrubbing, which gave pharmaceutical users a lower color index that impacts final product visuals—a real benefit when every impurity counts toward regulatory filings.

    Real Differences: Diethyl Iminodiacetate Versus Other Similar Intermediates

    Plenty of intermediates claim similar applications, but over years at the bench and on the plant floor, the nuanced differences make or break process reliability. Methyl iminodiacetate stands as a commercially available alternative. Methyl esters, though easier to hydrolyze, introduce volatility and storage hazards our staff have seen first-hand—drums venting under mild heat, requiring special handling protocols. Methyl versions hydrolyze too quickly in some large-scale processes, threatening yields; Diethyl Iminodiacetate balances hydrolysis so that customers control it at their convenience.

    Monoethyl versions share a similar core but lack the double ester function, reducing flexibility in stepwise synthesis. After guiding chemists through substitution trials, we’ve seen predictable differences in conversion rates, with Diethyl Iminodiacetate delivering smoother, more complete reactions for the classic amination routes into biologically active amines.

    Benzyl and higher alkyl esters find narrower use due to steric hindrance and less manageable hydrolysis conditions. Several development teams approached us to compare “cost-in-use” for these: The ethyl ester combines accessible, predictable performance and industry-accepted safety for storage and transport. Others trail in one aspect or another, and real-world feedback from continuous operations shows where minor spec differences matter.

    A common question is why not buy “premium” branded chemical from the EU or US? Decades of trials, both at our site and those run by multinational customers using our batches, revealed tight parity, plus logistical agility and accessible after-sales support. Consistency and technical accuracy, from real-world producers, hinge on day-in, day-out production and technical dialogue, not on marketing language.

    Challenges We’ve Faced—And Solutions That Work

    Manufacturing Diethyl Iminodiacetate is straightforward as a reaction pathway but incredibly complex in the variables that drive repeatable quality. Moisture control remains our biggest adversary. We’ve had opera tors lose a whole batch due to incipient water from ambient air on humid summer nights; this wrecks hydrolysis rates and plagues packing. The solution didn’t come from a new instrument, but from installing better climate management and running routine training with the team to spot early warning signs. Shared experience—not isolated lab data—gives a production facility backbone.

    Raw material sourcing plays another big role. Whenever a key amine source dropped in purity or delivered batches late, upsets multiplied down the lines. We’ve spent years building trust with suppliers—and backed up with random third-party audits—to avoid the downstream chaos of unplanned substitutions. Every percentage point in raw purity equals valuable finished batch; trading off on quality invariably means lost yield and painstaking batch-by-batch troubleshooting.

    Packing and transportation set the final stage. Several years ago, our warehouse team flagged odor changes and leaching for shipments traveling overseas during monsoon. After three months of complaints, we overhauled our container liners and added humidity indicators; no one on the plant wanted to repeat the experience of dumping containers that cost thousands to ship. It’s a thankless detail, but customer retention comes from the small things.

    Supporting Partner Success: Dialogue and Accountability

    Any long-term operator in chemicals knows supply reliability trumps flash and spin. The best way to grow with customers is to invite, not avoid, tough questions about specs and manufacturing. When a new R&D project comes along and partners need a change—say, a lower residual alcohol or reduced trace metals—we open up our lab books, trial records, and assign process leadership. Giving our clients live data and post-shipment support, including side-by-side troubleshooting for process hiccups, isn’t a “service” we tack onto a bill; it’s routine, mutual respect between professionals.

    Some years we carry added cost to build safety stock, brace for logistics snarls, or absorb regulatory slowdowns. This practice doesn’t make headlines, yet the market quietly remembers who ships on time in tight cycles and who vanishes when volatility strikes. Our warranty on quality is not a legally binding sentence—it is the relationship and track record forged batch by batch, conversation by conversation, over years.

    Conclusion: What Years in Production Have Taught Us

    Diethyl Iminodiacetate has changed hands and formulas in the chemical industry for decades, but genuine confidence comes from seeing production, QA, and customer applications from end to end. It is not the name or the datasheet spec that underpins reliability—it is every hour spent optimizing reaction parameters, realigning supply chains, revising packaging, and responding actively to partner needs.

    Our product model offers purity, stability, and reliable transition into the downstream molecules that customers count on for their core business. By keeping manufacturing honest—tested specs, transparent process records, and a refusal to take shortcuts for paper-thin margins—relationships grow past the transaction. The market doesn’t reward short cuts long-term.

    Diethyl Iminodiacetate, from years of hands-on production, acts as proof of what consistent, mindful manufacturing delivers: trust, repeat business, and products ready for tough, real-world applications.