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4-(Diethylamino)Butylamine

    • Product Name 4-(Diethylamino)Butylamine
    • Alias N,N-Diethyl-1,4-butanediamine
    • Einecs 205-564-9
    • 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

    299947

    Chemical Name 4-(Diethylamino)butylamine
    Molecular Formula C8H20N2
    Molar Mass 144.26 g/mol
    Appearance Colorless to pale yellow liquid
    Density 0.85 g/mL at 25°C
    Boiling Point 195-198°C
    Melting Point -55°C
    Solubility In Water Miscible
    Cas Number 23422-88-4
    Purity Typically >98%
    Flash Point 78°C
    Refractive Index 1.440-1.443 (20°C)

    As an accredited 4-(Diethylamino)Butylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Amber glass bottle labeled "4-(Diethylamino)butylamine, 100 mL, CAS: 29698-80-4". Features hazard symbols, lot number, and supplier details.
    Shipping 4-(Diethylamino)butylamine is shipped in tightly sealed containers, typically made of HDPE or glass, to prevent leakage and moisture ingress. Packages are clearly labeled per hazardous materials regulations. It is transported under ambient conditions, away from strong oxidizers and incompatible chemicals, and handled by trained personnel with appropriate protective equipment.
    Storage 4-(Diethylamino)butylamine should be stored in a cool, dry, well-ventilated area, away from heat, sparks, and open flames. Keep the container tightly closed and protected from light and moisture. Store separately from strong oxidizing agents, acids, and materials incompatible with amines. Use containers made of materials compatible with amines, and ensure proper labeling to prevent accidental misuse or exposure.
    Application of 4-(Diethylamino)Butylamine

    Applications of 4-(Diethylamino)Butylamine in Industrial Manufacturing

    4-(Diethylamino)Butylamine serves as a vital multifunctional intermediate and building block in several specialized industrial sectors. As a dedicated manufacturer, we supply this amine for diverse applications across pharmaceutical synthesis, specialty surfactant production, water treatment additive formulation, and polymer modification processes. Each end-use requires specific compliance, dosing, process integration, and results in distinct final products.

    1. Active Pharmaceutical Ingredient (API) Intermediate

    Pharmaceutical manufacturers use this compound as a core intermediate in the production of antihistamines and certain chemotherapeutic agents. Synthesis routes often involve direct reductive amination or amide coupling reactions, where the molecule’s amine group extends, modifies, or creates key pharmacophores within the API’s molecular structure. Quality control, documentation for traceability, and trace-level impurity monitoring are mandatory throughout the series of reactions and purifications that lead to the drug substance.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice (GMP) for APIs
    • US FDA 21 CFR Part 210/211
    • European Pharmacopoeia (Ph. Eur.) monographs
    • Hazardous Chemicals Registration (REACH, CLP, SDS)

    Typical usage ratio

    • 0.7 – 1.3 molar equivalent relative to precursor substrate
    • Adjusted by synthetic pathway and yield optimization

    Downstream process integration

    • Charged in main reactor during key amination or condensation stage
    • Introduced after initial purification of upstream intermediates

    Final product types

    • Antihistamine active pharmaceutical ingredients (e.g., certain piperazine derivatives)
    • Oncology drug intermediates
    • CNS active agents precursors

    2. Surfactant and Corrosion Inhibitor Synthesis

    Producers of specialty surfactants as well as corrosion inhibitors employ 4-(Diethylamino)Butylamine in the functionalization and quaternization steps. The tertiary amine allows for the design of cationic surfactants, used in metalworking fluids and oilfield chemicals, that demonstrate enduring adsorption and surface modification properties. The selection of quaternization agent and alkyl chain length may shift ratios, while in multi-step reactions this intermediate must meet specification for purity and volatility to avoid side reactions.

    Industry compliance standards

    • OECD Guidelines for Testing of Chemicals
    • REACH Registration, Evaluation, Authorisation, and Restriction of Chemicals
    • ASTM D665 (Standard Test Method for Rust-Preventing Characteristics)
    • ISO 9001:2015 Quality Management System

    Typical usage ratio

    • 5 – 15% by weight in surfactant formulation batch
    • Adjusted according to targeted surface activity and fluid compatibility

    Downstream process integration

    • Added during amination or quaternization stage in surfactant reactor
    • Mixed with alkyl halides for on-site quaternary ammonium salt generation

    Final product types

    • Cationic surfactants for textile finishing and softener blends
    • Oilfield corrosion inhibitors
    • Metal cleaning and treating agents
    • Industrial emulsifier additives

    3. Water Treatment Chemicals Manufacturing

    Water treatment formulators utilize this intermediate to develop scale inhibitors and chelating agents. Its linear structure and electron-rich amine functionality enable selective binding with hardness ions and facilitate the derivatization of polyamines. As these treatment agents must consistently meet potable water standards and avoid ecological toxicity, precise reactant charge and impurity control remain essential during polycondensation and final blending.

    Industry compliance standards

    • ANSI/NSF Standard 60 (Drinking Water Treatment Chemicals)
    • National Sanitation Foundation (NSF) registration
    • ISO 14001 Environmental Management System
    • REACH compliance (for EU markets)

    Typical usage ratio

    • 2 – 8% by weight as a functional polyamine precursor
    • Varies by molecular architecture and application type

    Downstream process integration

    • Blended in aqueous phase with co-monomers during polyamination
    • Charges in batch reactors equipped for nitrogenous intermediates

    Final product types

    • Polyamine-based scale inhibitors
    • Specialty chelants for industrial boilers
    • Heavy metal complexing agents

    4. Polymer Modification and Antistatic Agent Preparation

    Manufacturers of specialty polymers and fiber additives introduce this raw material into modification stages for the preparation of antistatic agents and polymer-bound amine functionalities. It reacts with epoxides or acrylates, granting electrostatic dissipation properties to finished plastics, coatings, and composite materials used in electronics and packaging applications. Formulation requires accurate metering based on molecular weight distribution and functional group targets, with in-process QC for amine content and residuals.

    Industry compliance standards

    • RoHS Directive (2011/65/EU)
    • EN 71-3:2019 (Safety of Toys—Migration of Certain Elements)
    • UL 94 Flame Retardancy Testing (for certain polymers)
    • GMP for Plastic Materials Intended for Food Contact (EU 2023/2006)

    Typical usage ratio

    • 0.5 – 4.0% by weight based on total monomer or resin batch
    • Ratio set to achieve target resistivity and amine index

    Downstream process integration

    • Incorporated in melt blending or solution polymerization stage
    • Applied during resin modification or post-functionalization step

    Final product types

    • Antistatic masterbatches for polyolefins
    • Functional polymer additives
    • Conductive coatings and films
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    Certification & Compliance
    More Introduction

    Introducing 4-(Diethylamino)Butylamine: A Reliable Building Block for Synthesis

    Working With 4-(Diethylamino)Butylamine on the Production Floor

    Every drum that rolls off our plant’s line marks another example of how chemical manufacturing can directly support innovation. Take 4-(Diethylamino)butylamine—often shortened to DEAB—as a case in point. For over a decade, our team has refined methods for synthesizing and packaging this compound to meet real-world needs on laboratory benches and pilot plant reactors around the globe.

    The physical properties stand out right away: at room temperature, DEAB is a transparent to pale yellow liquid. Handling the product day-to-day in our facility, lab staff have found its low viscosity useful for accurate pouring and clean transfer. With a molecular structure that includes a diethylamino group at the four-position of a butylamine chain, the molecule brings both flexibility and reactivity to the table.

    We’ve learned through experience how the purity of DEAB directly affects downstream reactions. While some producers stop at 97% purity, in our operations, additional purification steps consistently push past that, resulting in far fewer batch failures when customers scale up for demanding pharmaceutical or agrochemical syntheses. Sometimes, other grades float around the market, but our customers frequently remark that extraneous isomers or residual water content can cause unpredictable lab behavior. The results of those minor flaws become readily apparent only after an expensive run, a fact overlooked by those who have not stood in front of a pilot reactor scrambling to save a batch.

    Where 4-(Diethylamino)Butylamine Finds Its Value

    Our company’s synthesis chemists first started using 4-(Diethylamino)butylamine working on intermediates for specialty pharmaceuticals. Its structure enables the versatile attachment of additional moieties because the terminal amine group reacts readily in acylation, alkylation, and reductive amination steps. The diethylamino substituent also improves solubility in both organic and aqueous media, which speeds up workups and shortens isolation times compared to traditional butylamines.

    Over time, our technical customers have found more areas where DEAB delivers superior performance. In agricultural chemistry, it serves as a key intermediate for plant-protection agents, allowing more straightforward downstream modification than simpler amines. We speak with process chemists who point out that subtle changes in backbone structure can make or break regulatory approval, so working with a predictable, well-documented intermediate like DEAB lowers long-term compliance risk.

    Key Specifications Built on Real-World Production Experience

    Every manufacturing run presents its own challenges. From controlling reaction temperature to avoiding side-product formation during distillation, our process engineers have logged thousands of hours troubleshooting purification bottlenecks. These lessons manifest in our delivered product. Standard DEAB from our plant tests at a minimum of 98% GC purity, with water content maintained below 0.2% by Karl Fischer titration. Color and odor receive close scrutiny too, since trace degradation products signal deeper process issues. Even with rising costs in solvent recovery and waste management, we have resisted relaxing these criteria because end users—especially in regulated industries—rely on this consistency.

    Understanding exactly what goes into the final drum has also helped us maintain transparency and traceability. COA data accompanies every lot, reflecting not just numbers from high-end detectors but in-line process checks and historical performance. Our technical teams often support customers troubleshooting issues, and the depth of our batch data speeds up those dialogues. Having run our own internal pilot projects using DEAB, we can quickly rule out issues related to oxidized or degraded material, letting product developers focus on process design and yield optimization.

    Comparing 4-(Diethylamino)Butylamine to Other Amines

    Choosing between related amines often hinges on application-specific tradeoffs—factors that aren’t always apparent from catalog descriptions. In our work, we’ve set up side-by-side runs using DEAB and simpler alternatives like n-butylamine, tert-butylamine, or other di-substituted amines. While most of these choices can function as building blocks for alkylation, the additional diethylamino group in DEAB creates new points for branching in synthetic schemas. This offers extra leverage in custom molecule development, especially where steric effects or solubility matter.

    Compared with shorter-chain analogs, DEAB’s longer chain and bulky side group also reduce volatility, making storage and transport noticeably safer. Lab engineers working with DEAB tend to report fewer issues with air-sensitive reactions or evaporation losses—important details for anyone managing bulk operations across seasons. Lower volatility also translates to improved shelf stability, which keeps waste down in settings with less frequent compound turnover.

    Where some competitors pitch less refined DEAB with broader impurity buckets, we keep seeing customers come back after experiencing inconsistent yield or lab disturbances from unpredictable trace contaminants. Lab teams who have made the switch recount how unreliable raw material quality delayed their timelines, driving home that a higher sticker price on a guaranteed spec is more than compensated by operational peace of mind.

    Product Innovation Based on Hands-On Application

    The value of 4-(Diethylamino)butylamine emerges most clearly in hands-on synthesis. Plant trial runs where operators test custom surfactant molecules or specialty coatings intermediates benefit from the dual reactivity of DEAB, which works well in both aqueous and organic synthetic pathways. As we scale up these efforts, operational feedback fuels incremental process development in-house. Our R&D team relays that reduced by-product formation with DEAB cuts post-reaction purification steps—lessening waste, lowering solvent usage, and trimming hours from the production clock.

    Drawing on direct experience rather than literature estimates, our people point to concrete reasons why certain grades outperform their competitors. Since we produce DEAB ourselves rather than outsourcing or repackaging third-party batches, we control each stage—from reaction setup, through distillation, to automated filling lines. The reduced batch variability leads to fewer headaches for our downstream users. Technical managers who visit our plant frequently comment on how the combination of equipment design and staff know-how helps enforce tight process specifications, ensuring each lot matches user expectations across small pilot runs and semi-bulk loads.

    Supporting Sustainable Operations Through Efficient Manufacturing

    From an operational perspective, managing environmental impact forms a core part of our routine planning meetings. DEAB’s synthesis relies on well-documented raw materials and established reaction pathways, which allows us to minimize process waste and energy usage. We keep a running tally of emissions and solvent consumption for every run, looking for ways to tighten loops and repurpose by-products. Investments in continuous process monitoring and waste stream reduction have paid off—both in direct cost savings and in smoother regulatory audits.

    The lower volatility and manageable hazard class of DEAB have helped reduce both insurance risk and workplace incidents compared to some shorter-chain amines. Regular safety audits and training reinforce safe handling practices, an investment that pays dividends every year with zero lost time injuries on the DEAB line. Feedback from third-party transport specialists confirms that sealed containers and well-labeled drums ship consistently without incident, even when routing through multi-modal logistics chains.

    Customer Collaboration: Solving Problems Together

    Our plant’s work doesn’t end at the loading dock. Over the years, close communication with technical customers has shaped our approach to product consistency. Troubleshooting a challenging reduction step or late-stage functionalization runs faster with access to production chemists who know DEAB inside and out. Often, customers call after a failed run with another source and look to us for process troubleshooting based on both product and process parameters. This hands-on technical support, rare among traders or bulk resellers, lets us forge relationships built on problem-solving, not just transactions.

    Based on documented cases, shorter product lead times and responsive troubleshooting support have enabled lab teams to accelerate process scale-up. Site visits, remote diagnostics, and a willingness to dig into raw data have resulted in smoother production scale transitions from bench to pilot to plant scale. As a manufacturer, we recognize that traceability, openness, and a willingness to own up to the messy realities of process chemistry make a stronger foundation for both sides.

    Field Testing and Product Performance in Critical Applications

    Many new customers only realize DEAB’s strengths after a few trial runs. Feedback from process development engineers highlights that the low residual aldehyde content in our DEAB batches has minimized regulatory documentation headaches for drug intermediates. Similarly, teams working in surface coatings have pointed to better gloss levels and matting properties when they use predictable, high-purity DEAB.

    Agrochemical partners frequently stress how important it is to know that the amine intermediate won’t derail a carefully curated development pipeline. One lost season from a batch contaminated with unstable by-products represents not just revenue loss but lost trust with growers. That trust has motivated us to keep transparency at the center of our documentation and quality assurance practices, focusing on small but important technical details that make an ultimate difference several steps down the value chain.

    Reliable Packaging and Logistics: Lessons Learned

    Logistics often sets the stage for a successful project. Years of trial and error have taught us a lot about what actually works for scaling up and shipping liquid amines like DEAB. Early efforts with generic containers led to leaks and inconsistent shelf life, so we invested in customized HDPE drums and tamper-evident seals. This upgrade all but eliminated handling incidents and reduced off-spec returns by over 90%.

    We continue to audit our logistics partners regularly, looking for gaps in winterization, warehousing, or documentation. When a customer contacts us with a shipping or storage problem, our approach is to reconcile their data with our own robust records, which helps quickly trace and address the root cause. Fielding these calls and working the solutions from the ground up distinguishes how manufacturers approach risk management differently than those passing product between middlemen. The result: high-purity amines that arrive exactly as intended, ready for immediate use in critical synthesis steps.

    Meeting Compliance and Building Trust Through Data

    Regulatory compliance never comes down to ticking boxes; it’s a matter of culture in chemical manufacturing. Our staff regularly reviews evolving international requirements and adapts process documentation and training. We work with independent auditors and participate in chemical industry consortia, contributing batch-level data for compliance with both national and international standards. Major customers value having direct access to source documentation, batch histories, and certificates that cover each step from raw material acceptance to final release testing. Direct reflection and adaptation have enabled us to support registrations and regulatory filings for both drug intermediates and specialty chemicals.

    Traceability sits at the foundation of trust. The right chain of custody, rigorous identity confirmation by spectroscopic and chromatographic means, and clear documentation add up to a meaningful advantage for anyone advancing complex projects. Our records sometimes identify areas for improvement before problems reach the customer, reducing both regulatory delays and internal troubleshooting costs. The end result is not just compliance, but smoother market access.

    The Human Element: Lessons From Decades in the Field

    New product launches and capacity upgrades highlight the human side of manufacturing. Teams that sweat through planned shutdowns and late-night process switchover drills know that attention to technical detail only works with strong operational communication. Over time, we’ve anchored product stewardship in on-the-job learning—constantly revisiting small details, whether batch labeling, technician training, or routine maintenance tasks. Workers on the line often spot early signs of off-specification trends simply because of their experience working with DEAB in real conditions.

    Customer visitors coming through our plant see this commitment in action: fielding questions, touring control rooms, checking procedures at the warehouse, and watching hands-on technical training. Our own product managers have collaborated with sourcing and procurement teams at various companies, helping demystify the differences between similar amines and highlighting why DEAB stands out for their targeted applications. These interactions help everyone—from procurement to lab researchers to regulatory staff—understand how a stable supply chain supports their broader goals.

    Charting the Next Steps in DEAB Manufacturing

    Manufacturing better 4-(Diethylamino)butylamine comes down to constant vigilance and adaptation. By drawing direct lines from raw materials to finished product, and factoring in the technical, logistical, and regulatory facts learned in the plant and in the lab, we keep raising the standard. Feedback cycles with customers, field data from actual chemical processes, and routine process optimization anchor our efforts on practical improvement.

    Every batch reflects not just adherence to a specification sheet, but a day-to-day commitment to reliable operations and long-term partnerships. DEAB keeps earning its place as an essential intermediate—not through marketing slogans, but through the quiet confidence of materials that work the way experienced users expect. Our promise, formed through years of detailed work and careful observation, is that every drum marked with our lot number stands behind the needs of chemists, engineers, and production managers all the way down the line.