Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing admin@sinochem-nanjing.com 3389378665@qq.com
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Aminoacetal

    • Product Name Aminoacetal
    • Alias Dimethoxymethane
    • Einecs 208-429-2
    • 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

    123007

    chemical_name Aminoacetal
    molecular_formula C4H11NO2
    molar_mass 105.14 g/mol
    appearance Colorless to pale yellow liquid
    boiling_point 171-173°C
    density 0.967 g/cm³ (at 20°C)
    solubility_in_water Miscible
    refractive_index 1.426-1.428
    flash_point 68°C
    cas_number 62-52-4

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

    Packing & Storage
    Packing Aminoacetal is packaged in a 500 mL amber glass bottle with a secure screw cap and tamper-evident seal for safety.
    Shipping Aminoacetal should be shipped in tightly sealed containers to prevent contamination and moisture absorption. It must be handled as a hazardous chemical, using appropriate labeling and cushioning. Transport should comply with local and international regulations, avoiding exposure to extreme temperatures, heat sources, and incompatible materials. Proper documentation and protective equipment are required during shipping.
    Storage Aminoacetal should be stored in a cool, dry, and well-ventilated area, away from heat, ignition sources, and incompatible materials such as strong oxidizers and acids. Keep the container tightly closed and properly labeled. Store in a chemical-resistant container. Avoid exposure to moisture and direct sunlight to prevent degradation. Ensure proper secondary containment to manage any possible leaks or spills.
    Application of Aminoacetal

    Applications of Aminoacetal in Industrial Manufacturing

    Our direct production and quality-controlled supply of aminoacetal serves critical functions across several established industrial sectors. This section details downstream application scenarios with actual integration methods, regulatory frameworks, formulation reference ratios, and finished goods where our aminoacetal becomes a value-driving input throughout customer operations.

    1. Pharmaceutical Intermediate Synthesis

    Aminoacetal is frequently used as a protected amine building block during the synthesis of active pharmaceutical ingredients (APIs), particularly as an intermediate for cephalosporin and other β-lactam antibiotics. Our customers integrate it in multi-step synthesis, where efficient protection and deprotection under milder conditions preserve sensitive functional groups. The use of our material ensures minimal contamination due to on-site reaction monitoring and strict batch traceability.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • European Pharmacopoeia (EP)
    • US Pharmacopoeia (USP)
    • Chinese Pharmacopoeia (ChP)

    Typical usage ratio

    • Employed within 1.2–2.5 molar equivalents, adjusted based on API route to ensure full protection of amine functionalities during key intermediate steps.

    Downstream process integration

    • Material is introduced during the early or intermediate stages of multistep pharmaceutical synthesis, typically via condensation with aldehydes or ketones followed by subsequent modification and eventual deprotection under acidic conditions.

    Final product types

    • Semi-synthetic cephalosporins
    • Other β-lactam antibiotics
    • Complex API intermediates for oncology or anti-infective pharmaceuticals

    2. Agrochemical Active Ingredient Production

    Downstream pesticide and herbicide producers employ aminoacetal as a key intermediate when constructing stabilized amine functionalities in selective herbicide molecules or insecticide scaffolds. Clean, high-purity supply is essential for minimizing impurities that can adversely affect biological activity and regulatory approval. Typical downstream partners run continuous or batch processes involving stepwise acetal or amine exchanges under controlled pressure and temperature.

    Industry compliance standards

    • FAO/WHO Joint Meeting on Pesticide Specifications (JMPS)
    • REACH (EC 1907/2006) compliance for European use
    • China NCPIA pesticide registration guidelines
    • ISO 9001 Quality Management Systems

    Typical usage ratio

    • Incorporated at 3–10% of batch mass, depending on the structure of the final active ingredient and the number of protection–deprotection cycles needed over the full synthesis pathway.

    Downstream process integration

    • Integrated following primary or secondary amine introduction, usually by acetal formation with specific carbonyl substrates, before final assembly of active pesticide molecules.

    Final product types

    • Selective phenoxy herbicides
    • Pyrethroid insecticides
    • Nitrogen-linked fungicidal precursors

    3. Polymer and Resin Modifier Manufacturing

    Chemical formulators use aminoacetal as a reactive modifier in the synthesis of specialty polyamide and polyurethane systems, especially for developing thermosetting resins with tailored flexibility and improved adhesion. Direct input of our material enhances crosslink density or introduces specific functional side groups for downstream use in coatings and adhesives. Its purity minimizes side reactions and delivers consistent batch-to-batch performance during polymerizations carried out at industrial scale.

    Industry compliance standards

    • ISO 14001 Environmental Management for Chemical Processing
    • RoHS Directive (2011/65/EU) for electrical and electronic equipment applications
    • ASTM D256 for plastics characterization
    • GMP for manufacturing additives in food-contact adhesives (where applicable)

    Typical usage ratio

    • Used at 0.5–5% by weight relative to total monomers, with precise dosage based on the intended crosslinking effect and mechanical targets of the final polymer matrix.

    Downstream process integration

    • Fed into the pre-polymerization stage via continuous dosing or batch addition, participating in ring-opening or step-growth polymerizations depending on desired polymer architecture.

    Final product types

    • Specialty polyamide resins for industrial coatings
    • Hot-melt adhesives with improved heat resistance
    • Reactive polyurethane coatings

    4. Fine Chemical Intermediate for Fragrance and Flavor Formulations

    Manufacturers in the flavor and fragrance sector apply aminoacetal for constructing fragrance aldehyde derivatives and masking agents through controlled acid-catalyzed reactions. The material’s stability and controllable hydrolysis rate are especially important for downstream blending of complex aromas and controlled-release flavor encapsulates. Our integrated QC ensures minimal residual impurities to prevent off-notes or unintended aroma profiles during downstream compounding.

    Industry compliance standards

    • IFRA Standards (International Fragrance Association)
    • Food Chemical Codex (FCC) for flavor intermediates
    • US FDA 21 CFR Parts 170–199 for food additives
    • REACH registration and safety documentation

    Typical usage ratio

    • Dosage typically set at 0.1–2% in flavor or fragrance concentrate formulations. Adjustments reflect component volatility and target release kinetics in encapsulation processes.

    Downstream process integration

    • Added during aroma chemical synthesis or esterification reactions, sometimes followed by distillation and solvent exchange before downstream encapsulation or blending into flavor/fragrance bases.

    Final product types

    • Encapsulated fruit and floral flavor bases
    • Soluble masking agents for beverage and confectionery formulations
    • Consistent aldehyde notes in complex perfume concentrates

    5. Pharmaceutical Solubilizer and Excipients Manufacturing

    Formulation companies utilize aminoacetal derivatives as solubilizing agents in oral and injectable drug delivery systems, thanks to their ability to enhance aqueous compatibility for poorly soluble actives. Continued process consistency and confirmed absence of residual aldehyde contamination, verified by our in-house chromatography, guarantee compliance for pharmaceutical excipient production targeting regulated US, EU, and Asian markets. Pilot-scale and commercial producers rely on documented purity and validation to meet health authority expectations for novel dosage form approvals.

    Industry compliance standards

    • USP-NF (National Formulary) standards for excipients
    • European Pharmacopoeia (Ph. Eur.) excipient monographs
    • GMP for pharmaceutical excipients (IPEC-PQG Guide)
    • US FDA GRAS status for specific excipient grades

    Typical usage ratio

    • Generally within 0.5–1.5% of formulation mass, but can be increased up to 3% for high-load solubilization in difficult-to-formulate actives, as supported by individual excipient maximum intake guidelines.

    Downstream process integration

    • Directly introduced during pre-mixing or granulation stages in oral and parenteral formulation lines; often dissolved in water or co-solvents before combination with actives and other excipients.

    Final product types

    • Immediate-release oral tablets with solubility-enhanced actives
    • Injectable formulations for parenteral drug delivery
    • Powder blends and pre-mixes for direct compression or capsule filling
    Free Quote

    Competitive Aminoacetal prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Understanding Aminoacetal: Practical Experience From Our Production Floor

    What Sets Aminoacetal Apart From Standard Chemical Offerings

    In a landscape crowded with dozens of choices, Aminoacetal always draws repeat orders from customers who have hands-on applications in mind. From our production managers to lab teams, we see Aminoacetal as a compound that brings genuine reliability to the table, not just a set of technical numbers. The product we manufacture, most recognized under model AA-97, comes in the form of a colorless to pale yellow liquid with a mild, distinctive odor. Its molecular formula and active moiety give it a standout position among intermediate chemicals used by both pharma and fine chemical producers.

    Aminoacetal doesn’t duplicate the role played by common aldehydes or amines. Its structure offers functionality that allows chemists to carry out gentle alkylation, acylation, and even straightforward condensation reactions. Over years of batch-production, we noticed that repeated runs using Aminoacetal in pharmaceutical intermediates increased overall purity compared to those that used basic aldehyde-ammonia derivatives. In-house batch analytics registered by our technicians consistently show this compound brings notable yield improvements, especially when complexing sensitive reagents.

    Everyday Use Cases Backed by Real-World Feedback

    Aminoacetal shows up in several workflows. In our own synthesis chain, we've leveraged its efficiency in stepwise preparation of imidazole derivatives, and we know our customer base uses it to streamline routes toward popular APIs and specialty chemicals. Many lab supervisors talk about how substitution reactions run cleaner with Aminoacetal than with higher-molecular-weight analogs. Its low boiling point makes it adaptable for setups where temperature control presents a hurdle, as it can be stripped easily after completion of the reaction cycle, minimizing the risk of unwanted side-by-products.

    We process Aminoacetal batches at industrial scale—weekly, not once in a while. For us, each step from raw material to finished goods signals shifts in process parameters. Our operators report that the compound blends smoothly with standard polar and nonpolar solvents. This saves us time and chemical costs during workup and solvent exchange. Downstream, purification doesn’t result in excessive waste, and HC-based analytics rarely detect polymerization residues common with less refined grades.

    Insights on Quality and Purity Parameters

    Unlike commodity intermediates, Aminoacetal bears close quality scrutiny. We do not leave its specification to broad interpretation. Each shipment comes from the same lines tight to our own specs: moisture below 0.1%, active content consistently over 98%. In our QC lab, titration and chromatographic checks catch any off-standard impurity before it leaves the plant. We choose not to chase “minimum-viable” quality seen in some global tenders, because lower grades lengthen filtration times and generate complaints about unexpected residues in customer tanks.

    End-users have told us about problems with off-color, unstable lots from other market sources. We learned early to avoid overheating in the final packaging phase, which helps prevent yellowing and ensures shelf life holds up in customers’ storage rooms. Our decision to use HPLC as a release method, instead of only refractive index or titration, came after two instances where minute impurities caused failed runs for our partners in bulk actives. There is no substitute for rigorous checkpointing during production.

    Performance Learnings From Multiple Segments

    As a building block for pharmaceuticals, Aminoacetal often acts as a go-between, but the approach to how it’s used changes by sector. Large-scale API manufacturers require consistently high purity, with multi-ton orders that cannot tolerate batch-to-batch variability. In-house, we simulate these same high-throughput syntheses to ensure the product holds up through scaling, even when switching from flask to reactor. Documentation of color, water content, and GC purity go into every loadout, and we maintain batch archives to track trends.

    Customers working in solvents or resins production tend to look for compatibility rather than complexity. Here, Aminoacetal’s ready solubility and quick reactivity mean it handles well in both polar and mixed systems, whether in batch or continuous-feed setups. Our own testing programs—designed together with plant supervisors—let us see firsthand how it supports rapid turnover, so downtime between runs stays low. Because we sample production lines at multiple points, we detect early warning signs of degradation or interaction that smaller-scale vendors miss.

    Differences That Impact Your Bottom Line

    Years ago, we fielded calls from technical managers who’d tried other acetal intermediates and ran into two consistent problems: slow reaction rates and higher impurity loads downstream. These setbacks could force months of troubleshooting, often over something as basic as trace water or residual catalyst. Aminoacetal from our plant addresses those frustrations. Lab trials confirmed that our process doesn’t leave behind lingering sulfur or transition metal remnants, which competitors often struggle to reduce without extra wash steps.

    Another key difference lies in temperature stability. Some acetals require lower storage temperatures or risk off-gassing and physical breakdown. We solved this by managing our vacuum distillation zone design, holding ambient exposure time below industry averages, and using inert packaging from the start. Customer feedback let us fine-tune the approach—shorter time in process lines and better-suited drum liners translated directly to less annual wastage for our repeat buyers. That efficiency keeps cost-per-use in check, no matter if you buy 50 kg or take a 10-ton load.

    Why We Stand Behind Direct Manufacturing

    Everyone in our crew—from control room operators to R&D chemists—shares one philosophy: you can’t fix a problem you never witness. Sourcing directly from a manufacturer means we have a stake in each kilogram we deliver. If Aminoacetal batches ever drift from spec, we see results on our own output before the customer points out the flaw. We invest real money in ongoing process upgrades, in part because each avoidable fluctuation means extra energy bills, more wasted solvent, and avoidable shutdowns—not just loss of goodwill.

    Third parties and brokers seldom get their hands dirty with reactor troubleshooting or QA signoff checks. As direct producers, we wrestle with the consequence of every parameter, from agitation speed to solvent quality. Out-of-spec raw material—even a small uptick in residual aldehyde—can overwhelm scrubbers and spike reject rates; our operators catch that before it leaves the plant. Being accountable for process, labor, and logistics brings discipline that benefits both our own staff and the customer.

    Customer Challenges and Solutions: Firsthand Experience

    Technical support isn’t a script here. We learn directly from the way our buyers use Aminoacetal under their own process constraints. For example, seasonal shifts in humidity once caused a recurring filtration bottleneck for a contract synthesizer halfway across the globe. Working with their engineers, we tracked the issue to hygroscopic behavior in the local drum warehouse. In response, we updated our packaging format and switched to nitrogen blanket fills, solving the moisture pickup problem for future loads.

    We faced a similar challenge supporting a laboratory struggling to scale up pilot tests without generating persistent traces of ammonia. We collaborated to modify reaction times and set temperature ramps, drawing on our own line experience to recommend low-temperature feeds and staged addition of Aminoacetal. The solution cut batch cycle time and sharply reduced foul-smelling off-gas events, so the end-user could ramp up production without running afoul of workplace safety monitors.

    Environmental and Safety Realities

    Aminoacetal’s usage brings both straightforward benefits and responsibility. We commit resources to reduce emissions from our plant, reusing scrubber effluent in cleaning cycles instead of sending it out as chemical waste. Our team prefers working with chemicals that won’t force a plant-wide PPE overhaul, and we design Aminoacetal handling protocols with both operator safety and downstream ecology in mind. Over the past five years, updated ventilation and process metering have significantly cut fugitive losses, making life safer for our staff.

    Hazard profiles for Aminoacetal are less severe than some aldehydic or aminated cousins, but we never lose sight of risk management. Each shipment comes with a full suite of testing documentation, but users get more than a data sheet—we’ve published in-depth application notes and shared inspection findings at customer sites. We know from long-term partnerships that process accidents waste more time than anyone can plan for, so we err on the side of over-communication and are always adapting our training programs on safe handling and spill response.

    Continuous Improvement and Up-To-Date Insights

    Today’s supply chains reward flexibility and process innovation. Update cycles move quickly, which is why we keep a dedicated applications development team focused on gathering critical process feedback. This approach keeps us in front of both regulatory curveballs and market needs. Upgrades in process control have allowed us to keep impurity profiles consistently low, even as we scale up output. Over two recent quarters, in-line monitoring of residuals let us catch and correct minor trends before they reached the customer, keeping complaints to near zero.

    This feedback loop forms the backbone of our approach. Rather than hedge, we expand survey outreach to include new user verticals—coatings formulators, fragrance developers, lab-scale pilot users. What we find again and again is that Aminoacetal’s flexibility keeps it in high demand, and real-world results trump theoretical specs nearly every time. Bringing these results back in-house lets us refine our product and, in turn, help customers solve their toughest synthetic problems faster.

    Why Specifications Matter On The Plant Floor

    Nobody using Aminoacetal can afford unpredictability. Process chemists who reach out to us often run multi-step syntheses with tight cycle time limits and razor-thin error margins. A run of out-of-spec product adds days or weeks to project critical paths—and costs stack up far faster than with lower-value solvents or reagents. That’s why we rely on direct GC and Karl Fischer testing, not proxy methods or generalized QA forms. We sign off on each certificate knowing that under-spec product costs us just as much as it costs the buyer.

    We field dozens of inquiries from buyers frustrated by recurring haze, unexplained side reactions, or trace odor complaints in end-use products made with off-standard material. Remedies always trace back to tighter process controls and no-excuses purity testing. Direct engagement with end-users creates opportunities to optimize substitutions, save on rework, and dodge regulatory issues. We’ve never regretted the investment in our own analytical staff, nor the choice to run double-checks before every outbound truck leaves the lot.

    Lessons From Logistics and Packaging

    Product quality doesn’t end at the reactor. Any chemical manufacturer can recall shipments where road delays, customs holds, or poor repackaging routines led to a product that arrived in worse shape than it left. Aminoacetal presents its own handling challenges—its volatility means care in drum selection and sealing, along with strict procedures for loading, makes or breaks a shipment’s value. We adopted a multi-stage drum prewash protocol extended by feedback from receiving site QC teams on three continents.

    Lab technicians and warehouse crews tested every packaging format. Polyethylene drums kept moisture at bay but caused trace plasticizer leaching during summer shipment; steel tanks stayed inert but pumped up transit costs. By switching to lined, nitrogen-flushed steel drums for long-hauls, supported by humidity data loggers, we achieved a substantial drop in customer complaints about product off-odors and discoloration. The direct savings translated into repeat orders and lowered claims for lost material due to transport-based decomposition.

    Pricing, Availability, and the Realities of Market Demand

    We know from both experience and customer feedback that nobody likes supply chain surprises. Our own order book fluctuates with shifts in global pharma and chemical manufacturing cycles, and it only takes one unchecked spike in demand—or an unforeseen raw feedstock disruption—to upset both availability and pricing. Over the past decade, we tackled numerous shortages by holding strategic raw inventory, reinvesting production margins in prebooked transport logistics, and keeping a buffer of finished Aminoacetal in dedicated storage spaces.

    Direct buyers get pricing and supply forecasts grounded in production and procurement planning, not marketplace guesswork. During periods of rising input costs, our commercial team works with users to find flexible scheduling or blending solutions—rooted in real batch results. Contractors and industrial users who’ve weathered shortages with us know that information flow and transparency keep things running smoothly. That kind of stability binds us to longtime customers, from small-scale specialty shops to international API producers.

    Looking Ahead: How Aminoacetal Continues To Evolve

    As regulations shift and market end-uses broaden, Aminoacetal stands as both a reliable baseline and a launching point for new synthesis routes. Our ongoing process improvements—dynamic distillation profiles, advanced in-line purity sensors, and better workload-sharing between plant and QA—let us stay ahead of tighter tolerances and rising customer expectations. Our operators take pride when customer trials turn out successful with a new variant, and those field results funnel back into our R&D lab for further refinement.

    With every major process update, our staff and client base grow more sophisticated. Demands for data-driven specifications, rapid batch-to-batch changeover, and tight environmental controls shape our daily routines. By putting real application feedback front and center, we give users confidence that the Aminoacetal they receive today will do the job tomorrow—no matter how the industry continues to advance.