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HS Code |
318533 |
| Name | N-(2-Acetamido)iminodiacetic acid |
| Synonyms | ADA, N-(2-Acetamido)iminodiacetic acid |
| Cas Number | 26239-55-4 |
| Molecular Formula | C6H10N2O5 |
| Molecular Weight | 190.16 g/mol |
| Appearance | White crystalline powder |
| Melting Point | 190-192 °C |
| Solubility In Water | Very soluble |
| Pka1 | 1.64 |
| Pka2 | 6.60 |
| Pka3 | 10.49 |
| Storage Temperature | Room temperature |
| Usage | Biological buffer |
As an accredited N-(2-Acetamido)iminodiacetic acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
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Purity 99%: N-(2-Acetamido)iminodiacetic acid with purity 99% is used in analytical reagent formulation, where high purity ensures accurate and reproducible assay results. Molecular weight 220.18 g/mol: N-(2-Acetamido)iminodiacetic acid with molecular weight 220.18 g/mol is used in chelating agent synthesis, where precise molecular weight provides reliable metal ion binding efficiency. Particle size <50 μm: N-(2-Acetamido)iminodiacetic acid with particle size less than 50 μm is used in chromatography media, where fine particle size enables improved separation resolution. Stability temperature up to 120°C: N-(2-Acetamido)iminodiacetic acid with stability temperature up to 120°C is used in industrial cleaning solutions, where enhanced thermal stability maintains chelation performance under process conditions. Water solubility 80 g/L: N-(2-Acetamido)iminodiacetic acid with water solubility of 80 g/L is used in buffer preparation, where high solubility ensures rapid dissolution and consistent buffer capacity. Melting point 205°C: N-(2-Acetamido)iminodiacetic acid with melting point 205°C is used in pharmaceutical intermediate manufacturing, where elevated melting point supports stable processing and storage. Free acid form: N-(2-Acetamido)iminodiacetic acid in free acid form is used in metal complexation applications, where the unneutralized acid form allows flexible pH adjustment for target reactions. Heavy metals content <5 ppm: N-(2-Acetamido)iminodiacetic acid with heavy metals content below 5 ppm is used in diagnostic kit formulation, where low contaminant levels ensure high assay sensitivity. |
| Packing | 250g of N-(2-Acetamido)iminodiacetic acid is securely packaged in a sealed, labeled amber glass bottle with tamper-evident cap. |
| Container Loading (20′ FCL) | For N-(2-Acetamido)iminodiacetic acid, a 20′ FCL typically transports about 15–18 metric tons securely packed in sealed drums or bags. |
| Shipping | N-(2-Acetamido)iminodiacetic acid is shipped in tightly sealed containers, protected from moisture and light. It should be labeled according to regulatory guidelines, handled with chemical safety precautions, and transported at ambient or recommended temperatures. Packaging must prevent leaks and contamination, ensuring safe delivery to laboratories or industrial facilities. |
| Storage | N-(2-Acetamido)iminodiacetic acid should be stored in a cool, dry, well-ventilated area, protected from moisture and direct sunlight. Keep the container tightly closed when not in use. Store separately from incompatible substances such as strong oxidizing agents. Use appropriate, clearly labeled containers to avoid contamination. Ensure storage conditions comply with safety guidelines and local regulations for chemical storage. |
| Shelf Life | **Shelf Life:** N-(2-Acetamido)iminodiacetic acid typically has a shelf life of 2–3 years when stored in a cool, dry place. |
Competitive N-(2-Acetamido)iminodiacetic acid prices that fit your budget—flexible terms and customized quotes for every order.
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Stories about specialty chemicals often drift into technical jargon or chase after buzzwords, but the real value appears when factories and laboratories put these molecules to work. At our production sites, N-(2-Acetamido)iminodiacetic acid—commonly called ADA—proves itself not with glossy marketing promises but by solving real problems for people across different industries. We see this firsthand each day: consistent quality, reliable supply, and honest answers when customers ask what sets ours apart.
ADA, produced in our facilities, follows rigorous batch procedures. The most requested product form comes as a fine, off-white crystalline powder with minimal particulate matter. Purity checks joust with efficiency targets in every batch, but our teams do not cut corners; 99.0% minimum assay represents not just a number on paper but the outcome of careful recrystallization and filtration. Moisture plays a critical role in stability. We monitor water content to under 0.2% by standard Karl Fischer, since years of customer feedback point out how even slightly elevated moisture impacts both shelf life and downstream blending.
Trace metal content draws close scrutiny in our own labs. ADA often gets called out for chelating properties, so heavy metals can’t ride along without risk of disruption to processes. By maintaining lead and iron content far below 10 ppm each, we help our partners in biochemistry and chemical synthesis avoid unexpected variables. Particle sizing is another area where manufacturing experience comes through: powders that clump or dust miss their mark. We control for flowability and ease of dispensing, using particle size analysis as a routine step.
We work on ton-scale lots and can adjust packaging for bulk-handling lines or smaller operational needs. Bags, drums, and lined fiber containers all leave our warehouse after being cleaned and checked for seal integrity—more than just compliance, this follows decades of feedback from customers who shared photos of clumped or contaminated material from other sources. Feedback shapes our upgrades, not market trends.
ADA finds its strongest foothold in the life sciences, especially in biochemical buffer solutions. Anyone setting up enzyme assays, electrophoresis, or protein purification knows the impact of buffer performance on results. Unlike simple chelators such as EDTA, ADA contains a secondary acetamido group, which brings greater pH control and reduces interference with many metallic cofactors in sensitive biological mixtures. We often hear from researchers: ADA gives predictable buffering in the pH 4.6–6.2 range, which covers common enzyme studies that demand reliability without a long troubleshooting cycle.
Outside the lab, some customers deploy ADA in pharmaceutical synthesis—especially peptide coupling and protecting-group chemistry. The specific steric and electronic structure delivers selectivity, making it less likely to tangle up in competitive side reactions than generic aminocarboxylates. In these reactions, purity goes beyond just the stated assay—minor impurities (like residual acetic acid or formaldehyde) cause batch failures if ignored. We set tight control limits based on repeated customer analysis, not just regulatory guidelines or minimums from certification agencies.
Not every batch is destined for high-stakes biochemistry. ADA also moves into water treatment and microelectronics cleaning formulations. Its chelating strength helps strip scale, sequester troublesome metal ions, or buffer etchants where accuracy means avoiding over-cleaning or under-cleaning precision components. Losses from upstream contamination, as customers often remind us, result in expensive downtime—a lesson learned only by manufacturers with skin in the game.
Comparing ADA to more common chelating agents like EDTA or NTA, real differences pop up in the field and lab rather than on spec sheets. ADA’s acetamido group dampens reactivity, reducing unwanted binding with transition metals that drive crucial biochemical steps. Because of this, ADA rarely causes irreversible deactivation of enzyme systems found with harsher chelators. We see this in customer returns: when teams used ADA instead of EDTA, their enzyme kinetics data smoothed out, and they reduced the number of reruns.
Unlike nitrilotriacetic acid, ADA forms less soluble complexes with calcium and magnesium, which means less risk of precipitate formation under typical conditions for buffer or cleaning solution prep. This matters once the chemical leaves our tanks and hits a working process—less downstream cleanup, less filter clogging, less risk of introducing variability.
Other amino acid-based chelators exist, but not all see consistent lab or plant use. ADA provides enhanced buffering strength as well as metal binding, making it a two-in-one option for chemists looking to minimize the number of additives in a mixture. We manufacture with an eye on both these performance traits, which serve our largest pools of customers in diagnostics, analytical chemistry, and fine chemical synthesis.
As a chemical manufacturer, we do not just sell chemical “products”—we solve for actual scenarios that land on our desks each day. A university contacts us about reproducibility issues in their DNA isolation kits, tracing the fault line back to inconsistent ADA from another supplier. We open our own stock, share not just our certificates of analysis but batch chromatograms, stability data from tested storage lots, and even raw process notes for their peace of mind. When a big pharmaceutical client calls on deadline because their reactors keep fouling with micro-particulate, we offer expedited batch reprocessing and mill the powder again to target the requested D50 sizing before repacking and air-freighting the order.
We do not rely solely on published literature for our benchmarks. Our own R&D, together with long-standing industry partnerships, guide how we produce and improve ADA. Error tolerance shrinks each year as end applications demand more reliability and fewer out-of-spec shocks. Just last year, a diagnostic company spotted an upward drift in trace copper—tiny, but enough to affect imaging assay contrast. We traced the source to a change in a purification resin lot and switched back, losing a point off gross margin but gaining a reputation for solving issues by direct action.
Lab-grade materials lose their value if they cannot scale to manufacturing volumes without headache. Pharmaceutical clients need kilogram to ton lots with batch-to-batch consistency, especially when using ADA in high-throughput formulations. Our process lines were designed with scale as a requirement, including robust in-line monitoring of pH, moisture, and residual solvents. Any lot that does not match the previous run’s GC, HPLC, and spectro data gets held back, no matter the pressure to ship. Years in chemical manufacturing have taught us the cost of rework, but the cost of lost trust with a core customer runs higher.
A frequent client story highlights the difference between marketed specs and delivered reality. An overseas biomedical firm, frustrated by variability in ADA from the spot market, asked us to develop a custom process step to further reduce a side impurity. Their analytical team shared full MS data, and we retooled a purification step over two months, swapping out aging columns and installing double-stage filtration. Their finished products met clinical standards, proof of how manufacturing control—guided by real-world experience—beats paper specs alone.
ADA supply routes, while global, can become fragile due to upstream shortages or logistics challenges. Because we manufacture at our own facilities—not through tollers or subcontractors—we offer year-round inventory and regular production slots. Our production team keeps raw material auditing at the core of procurement, running in-house contaminant screening before a single kilo heads to synthesis. This approach gives our downstream partners not just peace of mind but flexibility to scale up or down with their internal demand.
Years where global freight networks hit snags due to port closures or sudden raw price hikes, our early warning systems and direct sourcing relationships proved their worth. Customers remember the plant closures that swept the market, searching for working stock anywhere; our ability to maintain shipments meant critical batches of ADA-based enzyme preparations arrived on time. Being a manufacturer puts us in a position to manage these pressure points directly rather than wait for intermediaries to pass changes along.
Any chemical manufacturer serious about long-term business understands the rising importance of environmental responsibility and safety—not as marketing phrases, but as daily foundations. ADA’s synthesis employs wet chemistry steps involving amination, acylation, and controlled hydrolysis. We invest in closed reactor systems, solvent reclamation, and rigorous wastewater treatment, both to comply with evolving rules and to keep our plant team healthy. Internal audits dig for improvement opportunities yearly, targeting energy use, emissions, and waste minimization.
Worker feedback shapes upgrades too. A decade ago, manual bagging lines left too much potential for dust exposure during transfer—since then, we installed vacuum transfer lines and sealed weighing stations for ADA powders. Our teams undergo annual training, not because someone says so, but because safety lapses show up in lost output and lost talent. Our line managers push for ergonomic workstations, better ventilation, and batch scheduling that leaves room for equipment cleaning, not just for regulatory records but for self-respect and long service.
From our perspective, the market has enough copycat products rubber-stamped with borrowed accreditations and cut-rate quotes. What keeps business steady through upturns and slumps is the practical trust built from doing things right. This means sending samples without delay when someone needs a spec adjustment, making time for technical calls, or flagging an unexpected batch issue before it hits the end user’s process.
ADA’s best use arises in partnership with the actual teams using it on their lines or research benches. When a client’s protein yield dips, or a buffer suddenly turns hazy, they reach out not just for specs but for troubleshooting. We invite these conversations, sharing not just “official” answers but the small details that escape spec sheets: ideal solubility tweaks, preferred mixing order, or how to avoid caking in storage during humid months.
Tight traceability and full documentation aren’t just about passing audits—they anchor confidence through every ADA shipment. Each production lot leaves our facility with an unbroken batch record, from raw material intake through final QC. We offer digital access to these records for repeat clients, so they check historical COAs against their usage logs—a demand that first stung our data entry rates, but today stands at the center of our customer retention. Documentation tracks not just compliance, but tangible quality patterns—for instance, alerting a customer well ahead if a small but persistent shift in impurity profiling could affect their end results.
We routinely back up process logs and analytical data after each run. This lets us quickly answer technical questions, but more importantly, it offers our partners the confidence to innovate without wondering if crucial parameters will drift mid-project. Many a supplier promises “full records”—few deliver the day a real question arises. We keep meeting that demand because our long-haul business depends on it.
Time on a crowded plant floor changes a manufacturer’s outlook—details start to matter more than clever-sounding new features. ADA’s strengths and quirks keep us on our toes: small temperature shifts during drying, lot-to-lot consistency in color and granulation, rapid shipment during production spikes, and honest communication about lead times or downtimes. We keep our technical literature clear and realistic, rather than bloated with abstract claims; what matters at the factory is what shows up in a bag, drum, or process stream when needed.
Some batch challenges have taught us hard lessons—missing a subtle contaminant early in a new resin, learning which storage conditions stave off caking in subtropical climates, watching as global events stretch logistics to the breaking point. Each story sharpens our focus not on hypothetical best-case claims, but on real-world performance, reliability, and trust.
Chemicals like N-(2-Acetamido)iminodiacetic acid rarely see the spotlight outside academic literature, yet for manufacturers and researchers depending on subtle function, their place is indispensable. Our plant teams bring this molecule to life every day, balancing throughput with precision, safety with output, and customer requests with operational margin. We have seen ADA’s role expand as analytical techniques grow more sensitive, regulations get stricter, and global supply lines stretch thinner.
Our reputation for ADA rests not on marketing spin or third-party hype, but on consistent output and the willingness to dig into application details with our partners. Years of direct manufacturing allow us to respond to new requests, modify specifications on demand, and keep our product not just current, but ahead of the quality bar.
As competitors pull back to generic catalog entries or offload small-run lots to trading firms, we focus on direct relationships and the technical integrity of every ADA shipment. We welcome practical questions, unusual applications, or requests for data that cut through layers of sales talk. For those who use ADA where process reliability and transparency matter, we bring decades of real-world experience—the kind never found on a templated spec sheet.