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2-Aminoethyldiisopropylamine

    • Product Name 2-Aminoethyldiisopropylamine
    • Alias N,N-Diisopropylaminoethylamine
    • Einecs 219-265-8
    • 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

    324621

    Chemicalname 2-Aminoethyldiisopropylamine
    Casnumber 121-05-1
    Molecularformula C8H20N2
    Molarmass 144.26 g/mol
    Appearance Colorless to pale yellow liquid
    Boilingpoint 174-176 °C
    Density 0.818 g/mL at 25°C
    Flashpoint 63 °C
    Solubilityinwater Miscible
    Refractiveindex 1.428 - 1.430

    As an accredited 2-Aminoethyldiisopropylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 2-Aminoethyldiisopropylamine is supplied in a 500 mL amber glass bottle with a leak-proof cap, featuring hazard and identification labels.
    Shipping 2-Aminoethyldiisopropylamine should be shipped in tightly sealed, properly labeled containers, following all relevant hazardous materials regulations. Protect from heat, moisture, and incompatible substances. Use appropriate cushioning and secondary containment. Ensure compliance with DOT, IATA, and IMDG guidelines for amines. Include safety data sheets with all shipments for safe handling and emergency information.
    Storage 2-Aminoethyldiisopropylamine should be stored in a cool, dry, well-ventilated area away from heat sources, ignition sources, and incompatible materials such as acids and oxidizers. The container must be tightly closed and clearly labeled. Store in a chemical-resistant secondary container to prevent leaks. Access should be restricted to trained personnel wearing appropriate personal protective equipment (PPE).
    Application of 2-Aminoethyldiisopropylamine

    Applications of 2-Aminoethyldiisopropylamine in Industrial Manufacturing

    As an established chemical raw material producer, we provide 2-Aminoethyldiisopropylamine for select, high-volume industrial sectors. Below, we outline direct application scenarios, quality benchmarks, formulation ratios, process stages, and genuine downstream products for top users of this amine compound. Each segment reflects the current regulatory, technical, and market landscape.

    1. Epoxy Curing Agents for Industrial Coatings

    Epoxy system manufacturers use 2-Aminoethyldiisopropylamine as a co-curing or accelerator component in room temperature and rapid-cure floor coatings, corrosion protection paints, and marine primers. The compound’s bifunctional amine structure controls pot life, thickness tolerance, and humidity resistance for high-durability surfaces. Formulators adjust dosing based on resin reactivity, targeted cure speed, and final coating properties, ensuring compliance with regional chemical and safety regulations.

    Industry compliance standards

    • REACH Annex XVII (EU chemicals legislation)
    • ASTM D16 (Terminology for Paint, Related Coatings, Materials, and Applications)
    • ISO 12944 (Paints and varnishes – Corrosion protection of steel structures by protective paint systems)
    • OSHA 29 CFR 1910.1200 (Hazard Communication Standard)

    Typical usage ratio

    • 3% – 8% by total amine curing component, adjusted for resin crosslink density and working time

    Downstream process integration

    • Added during amine blend preparation step, fully homogeneized before resin mixing
    • Dosage calibrated through QC gel testing, viscosity checks, and field application trials

    Final product types

    • Solvent-free epoxy floor coatings
    • Marine and offshore protective paints
    • Tank and pipeline linings
    • Industrial concrete sealers

    2. Waterborne Polyurethane Catalyst Systems

    In water-based polyurethane adhesive and coating manufacture, formulators incorporate 2-Aminoethyldiisopropylamine to catalyze isocyanate-polyol reactions at ambient or low temperature. The controlled catalytic activity expedites curing without excessive exotherm or uneven crosslinking, promoting safer handling and consistent film formation. The amine’s compatibility with hydrophilic monomers makes it suitable for high-performance, low-VOC urethane dispersions intended for automotive, footwear, and general industrial markets facing increasing regulatory pressure.

    Industry compliance standards

    • EU Regulation (EC) No 1272/2008 (CLP)
    • US EPA SNAP (Significant New Alternatives Policy) for low-VOC formulations
    • GB/T 23973 (Chinese standards for polyurethane coatings)
    • ISO 9001:2015 (Quality management for process consistency)

    Typical usage ratio

    • 0.5% – 2% by weight of total formulation, precise dosage based on catalyst screening and gel time requirements

    Downstream process integration

    • Metered into catalyst premix tank before dispersion with main polyol and stabilizer blend
    • Final product QC: FTIR for residual isocyanate, mechanical property tests

    Final product types

    • Automotive OEM and refinishing coatings (waterborne PU)
    • Flexible PU adhesives for textile lamination
    • PU leather finishing systems
    • Low-VOC wood varnishes

    3. Gas Sweetening and Amine Solvent Blends

    Gas treatment facilities add 2-Aminoethyldiisopropylamine as a secondary amine component in selective amine solvent blends for H2S and CO2 removal from refinery, natural gas, and syngas streams. The compound’s molecular size and basicity adjust amine selectivity, regeneration efficiency, and resistance to thermal degradation. Operators integrate the material after pilot evaluation for amine loss, corrosion inhibition, and compatibility with operational constraints, while adhering to industry-specific emission control rules.

    Industry compliance standards

    • API Recommended Practice 521 (Pressure-relieving and Depressuring Systems)
    • ISO 9001:2015 for process traceability
    • US EPA Clean Air Act, Section 112 (HAPs emission control)
    • GB 2894-2008 (China gas plant health and safety)

    Typical usage ratio

    • 5% – 25% of total amine, fine-tuned for treating load, gas composition, and downstream emission allowances

    Downstream process integration

    • Mixed with primary and tertiary amines in the absorber loop makeup tank
    • Subjected to thermal-cycling, anti-foaming, and reclamation procedures

    Final product types

    • Sweetened natural gas
    • Hydrogen production feedstock
    • Ultra-low-sulphur liquefied petroleum gas
    • Refinery process gases for ammonia/urea plants

    4. Polyamide Resin Manufacture for Printing Inks

    Hot-melt ink and flexible packaging resin producers employ 2-Aminoethyldiisopropylamine as a reactant in synthesizing polyamide resins. The amine’s asymmetric structure introduces controlled branching and flexibility, impacting melting point, adhesion properties, and compatibility with various pigments and solvents. Quality control verifies degree of polymerization and color consistency to meet strict international standards for indirect food contact and high-speed flexographic printing.

    Industry compliance standards

    • FDA 21 CFR 175.105 (Adhesives for indirect food contact)
    • BS EN 1230-2:2009 (Packaging – Odour and taste transfer test)
    • ISO 2834-1:2020 (Printing ink – Laboratory test methods)
    • REACH SVHC compliance (Europe)

    Typical usage ratio

    • 8% – 16% based on total dicarboxylic acid component, value determined by targeted melting range and viscosity

    Downstream process integration

    • Charged at controlled rates into reaction kettle containing preheated dimer acid
    • Monomer addition and temperature ramp monitored with inline GPC and colorimetric measurement

    Final product types

    • Solvent-borne polyamide ink resins
    • Resin systems for food pouch printing
    • Hot-melt adhesives for packaging
    • Specialty overprint varnish binders

    5. Oilfield Cementing Chemical Additives

    Oil and gas cementing additive formulators utilize 2-Aminoethyldiisopropylamine as a functional group source for the synthesis of retarder and dispersant polymers. Its chemical properties influence hydration retardation, rheology control, and shrinkage mitigation in high-pressure, high-temperature wells. Product stewardship covers performance documentation, field trial validation, and well-specific dosage adjustment, driven by project regulatory demands and technical requirements.

    Industry compliance standards

    • API Specification 10A (Cements and Materials for Well Cementing)
    • ISO 10426 series (Oil and gas industry cement standards)
    • Energy Institute guidelines for chemical management (UK/Global)
    • US EPA TSCA reporting for oilfield chemicals

    Typical usage ratio

    • 0.2% – 1.5% in active dispersant/retarder formulation; field-blended based on cement class and formation temperature

    Downstream process integration

    • Introduced in polymerization reactor as modifying monomer for custom additive synthesis
    • QC tested via slurry rheology and compressive strength analysis

    Final product types

    • Oilwell cement retarders
    • Latex dispersants for HPHT cementing
    • Customized oilfield fluid stability additives
    • Remedial cement slurries for zonal isolation
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    Certification & Compliance
    More Introduction

    Understanding 2-Aminoethyldiisopropylamine: Practical Experience from the Plant Floor

    A Close Look at the Product

    Manufacturing chemicals calls for a unique perspective. Every day on the production floor, our people work with molecules that impact everything from plastics to specialty coatings to the electronics behind the screens we touch. Today’s focus is 2-Aminoethyldiisopropylamine (AEDIPA), a material that has steadily earned its place in diverse industrial settings.

    Our hands-on experience with this amine gives us a solid understanding of its actual performance. AEDIPA’s molecular structure, N,N-Diisopropyl-ethane-1,2-diamine, brings together two bulky isopropyl groups threaded onto an ethane backbone. Each molecule holds both a primary amine and two secondary amines, providing a flexible toolkit for formulators and synthesis chemists working in demanding conditions.

    Physical Profile and Handling Insights

    Every production shift tells its own story about stability, flow, and reaction control. Our batches of 2-Aminoethyldiisopropylamine consistently meet the purity levels expected by demanding customers: a clear, mobile liquid with a mild amine odor. Our standard drums present a product with a boiling point around 177-179°C, offering predictable behavior in reactors and mixing tanks. The low viscosity keeps transfer times short, which means less heat generation during pumping and handling. We see fewer maintenance issues in dosing lines compared to more viscous or unstable amines.

    Moisture control matters during transfer and storage. AEDIPA picks up some water on prolonged exposure but resists rapid hydrolysis better than less hindered amines. Our packaging uses vapor-tight drums sealed right after filling, helping customers open their containers to a material within tight water content specs. These little details come from years of customer feedback and a constant drive on our end to improve process consistency.

    Application Experience in Major Industries

    Real-life success stories motivate our operators and chemists. In epoxy curing, AEDIPA’s branched structure gives formulators a way to fine-tune workability and cure speed. Its amine functionality brings controlled reactivity, often giving pot lives that work for larger batch processing as well as hand-applied coatings. We’ve watched field trials on metal surface coatings where our AEDIPA showed a good balance: the cured layer resisted yellowing and cracking, even in outdoor exposure, and process engineers reported fewer mixing issues compared to traditional linear polyamines.

    Our technical teams have also seen AEDIPA play its part in surfactant and textile finishing reactions. The mix of primary and secondary amine groups allow for unique routes to amphoteric surfactants. Some long-time detergent manufacturers use AEDIPA to create fabric softeners that stand up to repeated washing, partly because it builds stronger ionic bonding with anionic sites on fabrics. In the world of chelating agent synthesis, the isopropyl groups offer improved selectivity for certain metal ions, leading to less waste and faster separation downstream.

    Projects in oilfield chemistry use AEDIPA for corrosion inhibitor blends. We notice operators prefer it for fluidity and compatibility with both acidic and basic additives. The resulting blends help curb corrosion in steel pipelines and field storage tanks. Customers who manage pipeline integrity care about amines that play well with anti-foaming and demulsifying agents. AEDIPA’s unique branching brings that compatibility, and the feedback we hear most often relates to greater stability in multi-component, high-temperature applications.

    Differences from Conventional Amines

    Over years of side-by-side evaluations, we learned that AEDIPA brings some clear points of difference to the table. For one, the branching from isopropyl groups means reduced volatility. In practice, this leads to fewer odor issues in production facilities. Some low-molecular-weight amines, such as ethylenediamine and diethylenetriamine, evaporate more easily, sending their odor throughout a plant. AEDIPA stays put, easing regulatory controls over workplace air quality, especially in closed environments.

    The secondary amine sites also adjust how AEDIPA interacts with electrophilic reagents. Chemists see narrower product distributions and more consistent yields in nucleophilic substitution, acylation, and alkylation. Linear amines tend to run faster and can cause runaway reactions, which risks hot spots in temperature-sensitive processes. AEDIPA allows for better temperature control, helping keep process safety up even at larger scale.

    Field data show improved compatibility with certain resins and cross-linkers. In fiberglass-reinforced plastics and advanced adhesive systems, the difference becomes obvious as reducing blisters and micro-cracks in the final product. Formulators aiming for high solids content with minimal viscosity increase turn to AEDIPA because it offers high basicity with lower impact on fluid flow, which is not always possible with cycloaliphatic amines or polyamines that thicken rapidly.

    With its unique molecular size and shape, AEDIPA can enhance separation processes and quench reactive species without generating excessive by-product salts. Our customers processing electronics-grade materials have remarked on easier downstream purification. Linear diamines often introduce side reactions that complicate product isolation and waste treatment. Using AEDIPA, plant teams report less downtime and shorter filter replacement cycles, saving real costs over the year.

    Specifications That Matter in Real-World Settings

    We monitor every production lot for consistency. Less variability means fewer surprises downstream. Our QC labs have dialed in the specs based on what works out in real plant conditions: color below 50 APHA, water content under 0.2 percent, and amine value in a tight range centered on theoretical. After years of studying how batches move through our customers’ systems, we keep iron and heavy metals content at trace levels. Customers in electronics and specialty polymer fields have built trust in these numbers, since they translate into higher-quality end products.

    Physical consistency shows up when charging tanks or prepping for polymerization. AEDIPA resists oxidation and discoloration during normal use, partly because the branched groups provide steric protection. We skipped standard handling tips and focused on real-world experience: trucks and drums leave our sites with inert gas overlays; we keep the product from cycling through wide temperature ranges to stop condensation and moisture pickup. These habits grew from years of problem-solving alongside our customers.

    Focus on Technical Development and Process Safety

    We didn’t settle on AEDIPA’s flow rates and reactor conditions by luck. Throughout years of trialing across our own pilot equipment, we’ve seen how small shifts in pressure and agitation impact homogeneous mixing. Less-volatile amines like AEDIPA make it easier to design safer venting and vapor recovery. Plant safety teams appreciate predictable vapor behavior. Over the years, we've worked to help customers retrofit older mixing lines, teaching best practices from our own mistakes, such as avoiding PVC gaskets, which can embrittle on long-term exposure.

    Environmental health teams treat AEDIPA with respect. Our long relationship with downstream users drives improvements that go beyond specs on a sheet. From tanker cleaning protocols to closed-loop transfer setups, we build practical safeguards into every load. Operator training covers skin contact and chemical transfer, and we support routine audits with data logs on raw material traceability. Our customers value these measures, especially when exporting finished goods to regulated markets.

    Supply Chain and Reliability Lessons

    Running a manufacturing line gives you constant reminders: reliability counts more than a perfect catalog. Last winter, supply chains strained under heavy demand. We changed packaging logistics and built buffer inventories internally to keep shipments on time. Customers running continuous lines can’t afford unplanned shutdowns. We’ve invested in backup purification units and chiller capacity, proven essential to avoid off-spec material in hot weather. Simple events like delayed trucking or high ambient temperature can challenge amine stability, but robust packaging, reliable QA procedures, and fast response from our teams kept lines running for our key partners.

    AEDIPA production feeds directly into some of today’s fast-growing materials lines. Electronics, performance plastics, and water treatment plants source from our sites. With upstream raw material volatility, it takes more than just purchasing prowess to keep output high and spec tight. Our in-house labs validate each raw material lot, and direct feedback from major customers helps us fine-tune process adjustments. When customer R&D asks for tighter impurity specs for a breakthrough application, we run collaborative studies and share pilot data. These partnerships have helped push AEDIPA’s performance in applications that were not even considered a few years ago.

    Supporting Innovation Across Applications

    AEDIPA has encouraged innovation outside of its traditional markets. In resins and adhesives, formulators looking for flexibility without loss of mechanical strength have been experimenting with new hybrid systems. Our technical team worked with a group specializing in 3D-printed composites to verify that AEDIPA reduced curing time variability by controlling amine migration rates. This reduced wasted build cycles and helped the group move parts from prototype to production faster.

    Bio-based surfactant and additive researchers find use in the asymmetric structure. AEDIPA helps develop amine oxides and betaine derivatives with improved performance under alkaline wash conditions. Some partners in industrial water treatment have used AEDIPA as a component in antiscalant packages, improving calcium sequestration in tough process streams. These applications rarely show up in a catalog but arise from lab work done hand-in-hand with customers looking for an edge.

    Certain pharmaceutical intermediates benefit from AEDIPA. Not as a direct medical component, but as a building block in specialty synthesis where high basicity and low steric hindrance reduce by-products. Our process control teams have reviewed every batch for trace contaminants, knowing these end-users need batch consistency above all. Years of experience translate into better yields with less effort for chemistry teams downstream.

    What the Plant Floor Tells Us About Real Demands

    Small details in raw material handling carry through to final customer satisfaction. Usually, AEDIPA requires relatively simple in-plant storage protocols. Stainless tanks and lined drums prevent cross-contamination; regular cycling in warehouse stock rotation maintain freshness; quick visual checks during offloading flag any issues before a drop of product enters the process. Our operators document batch origins, check seals, and log every transfer. This diligence reduces lost time and keeps production schedules aligned with customer demand.

    Our teams have learned the hard way that over-specifying doesn’t serve customers any better than cutting corners. Instead, listening to real feedback and tracking actual use conditions in reactors, mixing tanks, and storage containers reveal where improvements can have the most impact. For AEDIPA, consistent physical state, minimal water content, and manageable odor have always topped the feedback list. We built our quality control and logistics around those exact points, and it has paid off in repeat business and solid long-term customer relationships.

    Customers reach out for help with process troubleshooting, like investigating unexpected color changes or off-odors. We dive into their process flow, supply fresh samples, and work through the details on their plant floor or pilot system. Sometimes the fix comes down to reviewing valves or upgrading storage from HDPE to steel. We support these deep dives using direct knowledge from our own shop floor, not theoretical fixes from marketing bros. This direct dialogue anchors strong working relationships.

    Moving Toward Greater Sustainability

    Regulations and sustainability aren’t just buzzwords—they come with tight deadlines and clear compliance cutoffs. On the AEDIPA line, we’ve worked through multiple revisions of our emission controls and solvent recovery units to meet changing regional targets. The by-product reduction work started in our maintenance shop and now spans advanced online monitoring to keep amine losses in check. Some customers before saw increased waste on similar amines, but through shared insights and process tweaks, we’ve closed the loop on most vent emissions.

    Resource stewardship matters at every level. Our engineering teams have minimized energy use in distillation and purification while meeting or exceeding all purity requirements. Routine water and waste audits generate real improvement recommendations—reshuffling lines to make more with less. AEDIPA’s branching makes it more stable through process upsets, leading to fewer batch discards and less plant downtime. Customers benefit through tighter inventory turnover and more predictable performance at scale.

    Real Solutions for Industry Challenges

    Supply is about more than filling orders. As demands rise, especially in high-growth electronics, renewable energy, or advanced coatings, our focus stays on refining the process, not just scaling it. By listening to technical and production staff, both upstream and downstream, we stay ahead of shifts in performance expectations. Modifying storage tanks, tailoring blends, and sometimes rejigging reactor feed protocols come from collective trial and learning.

    A material like 2-Aminoethyldiisopropylamine serves as a trust test in the supply chain. Customers don’t just buy a chemical; they rely on suppliers to offer practical solutions when things don’t run smoothly. Our ongoing investments in operator training, process automation, and technical support help customers move from lab ideas to robust production.

    Final Word from the Manufacturer’s Perspective

    Decades of work with AEDIPA built a manual of best practices that keep process lines efficient and safe. Every tank, drum, and tote leaving our facility reflects every lesson learned: about shelf life, temperature sensitivity, alternative blending techniques, and process troubleshooting. We know that real customers need more than specs—they need reliability, insight, and a partner ready to help when challenges arise. On each shipment, our quality, technical, and logistics teams commit to making AEDIPA not only a dependable material but one that saves time, money, and frustration at each step.