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Ethylamine

    • Product Name Ethylamine
    • Alias Ethylamine, ethanamine
    • Einecs 200-834-7
    • 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

    241977

    Chemicalname Ethylamine
    Casnumber 75-04-7
    Molecularformula C2H7N
    Molarmass 45.08 g/mol
    Appearance Colorless gas
    Odor Ammoniacal, fishy
    Boilingpoint 16.6 °C
    Meltingpoint -81 °C
    Density 0.693 g/cm³ (liquid at 20 °C)
    Solubilityinwater Miscible
    Vaporpressure 2.1 atm (20 °C)
    Flashpoint -17 °C (closed cup)
    Autoignitiontemperature 385 °C
    Pka 10.63
    Unnumber 1036

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

    Packing & Storage
    Packing Ethylamine is supplied in a 2.5-liter amber glass bottle with a secure, leak-proof cap and a hazard warning label.
    Shipping Ethylamine should be shipped in tightly sealed, corrosion-resistant containers under cool, well-ventilated conditions. As a highly flammable and toxic liquid, it must be clearly labeled and protected from heat, sparks, and incompatible materials. Transport according to relevant hazardous materials regulations, ensuring spill containment and proper documentation throughout transit.
    Storage Ethylamine should be stored in tightly closed containers, in a cool, dry, and well-ventilated area away from sources of ignition, heat, and incompatible materials such as acids and oxidizers. Containers should be clearly labeled and grounded to prevent static discharge, as ethylamine is highly flammable. Storage areas must be equipped with spill containment measures and appropriate fire-fighting equipment.
    Application of Ethylamine

    Applications of Ethylamine in Industrial Manufacturing

    Ethylamine is used in a range of industrial sectors for its role as a key alkylating agent, intermediate, and building block. We supply high-purity grades that support downstream manufacturing in high-volume regulated environments. The following segments describe primary applications, compliance benchmarks, dosage guidelines, integration stages, and end-use products based on real-world downstream user requirements.

    1. Crop Protection Chemical Synthesis

    In agrochemical manufacturing, ethylamine functions as an essential intermediate for selected herbicides, fungicides, and insecticides. Process engineers react it under controlled conditions with carboxylic acids or isocyanates to form ethylaminium salts and ureas, which define the biological activity of the final crop protection products. Our ethylamine supports consistent conversion rates and purity profiles needed for high-performance actives.

    Industry compliance standards

    • FAO/WHO Specifications for Plant Protection Products
    • EU Regulation (EC) No 1107/2009 concerning the placing of plant protection products on the market
    • ISO 9001:2015 Certified Quality Control
    • REACH Registration (EC No 1907/2006)

    Typical usage ratio

    • 10–30% molar ratio relative to acid or isocyanate reactant; optimized depending on target compound and desired reaction yield

    Downstream process integration

    • Addition occurs during the condensation or alkylation steps in batch or continuous reactors for actives such as atrazine, simazine, or benomyl

    Final product types

    • Selective herbicides (e.g., atrazine-based formulations)
    • Systemic fungicides (e.g., ethylamine-derived benzimidazole fungicides)
    • Insecticidal active concentrates
    • Ready-to-use crop spray formulations

    2. Rubber Vulcanization Accelerator Manufacturing

    Downstream rubber producers use ethylamine to synthesize sulfenamide and dithiocarbamate accelerators. These chemicals control cross-linking speed and mechanical properties in automotive and industrial rubber compounds. Close management of amine purity and moisture content is required to ensure accelerator formation and batch-to-batch performance consistency.

    Industry compliance standards

    • ASTM D4671 – Standard Specification for Rubber Compounding Material
    • ISO 9001:2015 QMS for chemical intermediates
    • OSHA 29 CFR 1910.1200 (Hazard Communication)
    • EU REACH compliance for rubber additives

    Typical usage ratio

    • Ethylamine is charged at 1.1–1.3 molar equivalents versus thiocarbamate precursor to minimize residual free amine in final product

    Downstream process integration

    • Dosed into closed reaction vessels during synthesis of primary sulfenamides and dithiocarbamates, followed by solvent removal and filter pressing

    Final product types

    • Vulcanization accelerators for automotive tire compounds
    • Accelerant masterbatches for industrial hoses and gaskets
    • Rubber sheets and profiles for conveyor and sealing applications
    • Footwear-grade molded products

    3. Pharmaceutical Intermediate and API Production

    Our ethylamine is widely adopted by bulk API manufacturers as a building block in the synthesis of local anesthetics, antihistamines, and select antiretroviral agents. Its purity and trace metals content meet international Pharma requirements. Chemists carry out substitution, acylation, and cyclization reactions under validated conditions, with full material traceability and batch release controls.

    Industry compliance standards

    • International Pharmacopoeia (WHO, USP, EP)
    • ICH Q7 – Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • 21 CFR Part 210/211 (US FDA)
    • GMP site audit2 and DMF submission

    Typical usage ratio

    • 5–25% molar ratio in stepwise addition, controlled against reactive ester/halide for main API or impurity-minimized intermediate synthesis

    Downstream process integration

    • Reacts during early to mid-stage organic synthesis (e.g., amidation, ring closure, alkylamine formation in anesthetic or antihistamine APIs), followed by purification through crystallization or distillation

    Final product types

    • Bulk APIs such as lidocaine or diphenhydramine
    • Pharmaceutical intermediates for injectable and oral steroids
    • Solid oral dosage forms, creams, and sterile solutions
    • Finished dosage medicines exported globally

    4. Water Treatment Chemical Production

    Producers of industrial water treatment chemicals utilize ethylamine for synthesizing cationic surfactants and flocculants. These compounds support coagulation, foam control, and microbial management in municipal, cooling tower, and process water applications. Controlled use of ethylamine in closed reactors with sequential quaternization ensures environmental and plant safety.

    Industry compliance standards

    • NSF/ANSI 60 Certification for drinking water treatment chemicals
    • ISO 14001 Environmental Management certification
    • USEPA TSCA compliance for surfactant ingredients
    • REACH Annex II requirements for polyamine derivatives

    Typical usage ratio

    • 8–25% of dry solid blend or as an intermediate at 0.7–1.2 molar ratio to epichlorohydrin/quaternizing agent; dosage adjusted for cationic charge density and target chain length

    Downstream process integration

    • Charged during amination or alkylation in the production of quaternary ammonium compounds or polyamines, prior to neutralization and final dilution

    Final product types

    • Cationic flocculants and polyelectrolytes for municipal water
    • Defoaming and dispersing agents for cooling towers
    • Biocidal surfactants for process water systems
    • Custom-formulated water treatment blends

    5. Dye and Pigment Intermediate Manufacturing

    Ethylamine enters reaction schemes for vat, azo, and disperse dye intermediates production. Colorant manufacturers use it for the alkylation of aromatic substrates, achieving shade control and solubility adjustments critical for fiber compatibility. Stringent management of reaction times and temperatures enables precise color index material batch releases.

    Industry compliance standards

    • Oeko-Tex Standard 100 for restricted substances in dyes
    • ISO 9001:2015 for dye intermediate QC
    • EU REACH registration of colorants
    • ZDHC Manufacturing Restricted Substances List (MRSL) for textile chemicals

    Typical usage ratio

    • 10–35% by weight based on total batch mass, typically dosed stoichiometrically with diazonium or carboxylic precursors; adjusted for hue, purity, and yield

    Downstream process integration

    • Added during coupling and alkylation reactions as a primary amine source in the formation of dye bases and pigment dispersions; followed by washing and drying

    Final product types

    • Synthetic dye intermediates (e.g., N-ethyl aniline derivatives)
    • Vat and disperse dyes for polyester and nylon fibers
    • Azo pigment pastes and toners for plastics and inks
    • Textile-grade finished colorants

    6. Gas Treatment and Sweetening Agents

    Natural gas processing plants and refinery operators use ethylamine-based absorbents and scavengers for selective removal of acidic components such as H₂S and CO₂. Engineers design amine loop systems where ethylamine facilitates rapid acid gas capture, regeneration, and re-use, supporting gas sweetening for pipeline and processing compliance.

    Industry compliance standards

    • API 941 – Materials for Hydrogen Sulfide Service
    • ASME B31.3 – Process Piping code for amine systems
    • ISO 14001 Environmental Management
    • National Fire Protection Association (NFPA) chemical handling regulations

    Typical usage ratio

    • 10–20% by weight in aqueous solution for scrubbing towers; aqueous amine concentration is adjusted per inlet gas composition and target removal efficiency

    Downstream process integration

    • Injected into absorber columns for acid gas removal. After absorption, the solution circulates through regeneration units for continuous operation.

    Final product types

    • Sweetened natural gas for fuel and chemical feedstocks
    • Chemically treated refinery gas streams
    • Offgas and emissions control solutions for energy utilities
    • Scavenger blends for gas pipeline injection
    Free Quote

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

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    Certification & Compliance
    More Introduction

    Ethylamine: An Essential Building Block in Modern Chemistry

    Introducing Ethylamine as a Core Chemical Ingredient

    Ethylamine stands out as a fundamental raw material for manufacturing processes across multiple industries. As the producer, we dedicate ourselves to quality and reliability from the foundation up, ensuring our ethylamine aligns with the highest expectations for purity and performance in every batch. This chemical holds a prominent place in the daily operations of pharmaceutical, agricultural, rubber, and chemical synthesis plants. Its simple structure, featuring a two-carbon backbone with a primary amine group, results in a clear, colorless liquid at room temperature. Every drum and bulk shipment reflects careful attention to purity levels and tight control over moisture and contaminants, since even subtle shifts can shape downstream reactions.

    Understanding Ethylamine’s Key Characteristics

    The defining traits of ethylamine stem from its volatility, reactivity, and solubility in a range of solvents, including water and alcohols. With a faint ammonia-like odor, it can be handled in open systems under controlled environments but demands careful ventilation and personal safety measures. From our experience, maintaining product freshness and minimizing exposure to atmospheric carbon dioxide or oxygen is crucial—slight oxidation or the absorption of CO2 can change its chemical nature and influence the quality of end-products.

    Our ethylamine features high purity, with most shipments exceeding 99.5% by weight, limiting secondary amines and other impurities so that cross-interference in synthesis remains minimal. Standard product specifications reflect careful distillation and drying. Besides ensuring the absence of byproducts, consistent monitoring eliminates heavy metals—all necessary steps for pharmaceutical or crop-protection uses. Batch traceability, validated testing, and direct integration from production reactors mean manufacturers using our product know exactly what they receive and how it will perform during each process cycle.

    Ethylamine in Industrial Applications

    In pharmaceuticals, ethylamine serves as a basic amine for making intermediates, antihistamines, and local anesthetics. Amide linkage formation, reduction reactions, and even direct salt production benefit from its clean reactivity profile. Customers making pain relievers, decongestants, or even veterinary drugs rely on our rigorous batch control, since impurities in the base can alter drug behavior or lead to unwanted side products.

    Agrichemical producers put ethylamine to work as a building block for making herbicides, insecticides, and fungicides, since its amine group offers a versatile entry point for forming a wide variety of biologically active compounds. We see demand for ethylamine rise as the need for next-generation selective herbicides grows, because the molecule’s small size enables easy substitution and rapid adjustment of synthetic routes. Downstream users performing multi-step syntheses benefit from our material’s steady composition during both scale-up and routine production. Precision matters because inconsistencies in base material can propagate through complex chemical trees, multiplying problems and increasing costs.

    In rubber processing, ethylamine aids in creating accelerators for vulcanization, ensuring tire and gasket manufacturers achieve uniform cross-linking. Our staff often consults with technical leads from automotive suppliers to fine-tune viscosity and residual amine content, noting that even small shifts can affect rubber’s curing speed or its interaction with other additives. Decades of experience have convinced us that trace moisture or secondary amines in a delivery of ethylamine can spell the difference between a production line running smoothly and a day beset with batch rework.

    Beyond these sectors, ethylamine acts as a useful alkylating agent and corrosion inhibitor ingredient for specialty chemical producers. Its compatibility with both mineral acids and organic acids makes formulation straightforward, so labs and pilot plants can switch between applications without needing special storage or expensive retrofits.

    Key Differences: Ethylamine Versus Other Amines

    Manufacturers accustomed to working with methylamine or propylamine quickly notice some important distinctions in reactivity and volatility. Ethylamine, with its balance of alkyl chain length and boiling point, evaporates more slowly than methylamine yet remains easier to handle than larger-chain amines. That puts it in the “sweet spot” for users requiring rapid absorption into solutions but unwilling to sacrifice yield to excessive vapor loss. The boiling point typically registers around 16-17°C, so handling facilities require refrigeration or pressurization in some climates.

    When comparing chemical reactivity, ethylamine strikes a middle ground between highly aggressive methylamine and the more hindered propyl- and butyl-amines. Our technical specialists often recommend ethylamine for intermediate selectivity during reductive amination, especially when side reactions threaten product quality with either of the other common amines. In terms of odor and volatility, users comment that ethylamine presents fewer pungency and fugitive emission problems than lower homologues, which directly impacts occupational exposure limits and air-handling investments at production sites.

    Switching between amines is rarely as simple as exchanging drums in a storage room. Different amines interact uniquely with catalysts, solvents, or even storage tank linings. Our plant engineers have helped customers troubleshoot batch inconsistencies caused by trace metal contamination—sometimes tied to the use of bulk methylamine, which acts as a stronger nucleophile and can leach metals from fittings at rates up to twice that seen with ethylamine. The supply chain team continually watches for such issues, knowing that solvent systems, temperature, and even periods of storage will influence outcomes.

    Safe Handling, Storage, and User Guidance

    Besides chemical and industrial traits, practical concerns play a large part in real-world operations. Ethylamine’s volatility means loading, drum filling, and tanker transfers must be performed quickly using closed systems with strict leak detection. Our operations crew emphasizes the importance of local ventilation around all pumping stations. When training new employees and factory partners, sharing real incidents where even minor spills caused odor problems or vapor alarms builds attention to detail.

    At the warehouse, drums and tankers receive UV-resistant markings and tracking tags; facility staff inspect and maintain pressure-relief valves and gaskets since ethylamine seeks any opportunity to find an escape route. Moisture causes a marked decrease in shelf life, so we monitor residual water both at the production plant and as material enters customer sites. Using nitrogen blanketing and desiccant filtration, our process engineers limit hydrolysis reactions, and annual refresher training reinforces these standards for every operator.

    Occupational health teams rely on housekeeping schedules, air monitoring, and well-communicated safety data to prevent accidental release or understaffing during high-volume loads. As the producer, we bear responsibility for downstream safety, so our research group regularly reviews regulatory changes and proposes workflow adjustments that customers can adopt quickly.

    Provenance, Traceability, and Transparency

    Chemical buyers want more than a reliable supply—they require confidence that their materials will not shift unexpectedly from lot to lot. As the manufacturer, we accept requests for batch history, test reports, and even production logbooks, giving regulatory teams and quality assurance leaders a detailed view before or after shipment.

    Documentation includes chromatographic purity, GC-MS profiles of detected trace materials, and the full set of process conditions for each run. Pharmaceutical clients often ask for continuous supply drawn from the same production line, with overlapping test certificates delivered electronically. Agrochemical buyers typically need additional country-of-origin statements and access to annual audit reports, which our compliance and logistics personnel provide.

    Visiting customer plants, our technical sales engineers demonstrate how trace variables in amine purity create measurable effects in crop protection agents’ shelf life or in reaction yields during manufacturing. Open lines of communication remain the backbone of those relationships, with no tolerance for shortcutting test results or editing compliance responses.

    Continuous Improvement and Investment in Production Technology

    Producing ethylamine involves continuous-flow systems at pressure, using catalytic hydrogenation or ammonolysis. The scale, pressure, and purity targets demand constant vigilance and technological refreshes. Factory management reviews each year’s maintenance data and invests in upgrades―whether that means new condensers, monitoring sensors for temperature spikes, improved in-line analyzers, or more robust corrosion-resistant pipeline linings.

    The EHS (Environment, Health, and Safety) group regularly audits procedures with an eye for both regulatory compliance and operational efficiency. These internal reviews, together with industry benchmarking, have prompted process tweaks that reduce byproduct formation and curtail vent losses. Solvent and reactant recycling systems now capture more than 95% of evolved vapors and condensate, reducing both operating costs and site emissions.

    Sharing process-flow diagrams, energy use metrics, and improvement timelines with stakeholders keeps our production team directly accountable to the buyers, not just internal targets. Pipeline operators and line supervisors share credit for successful changes, as we have learned that strong collaboration delivers more reliable outcomes than top-down mandates.

    Ethical Manufacturing, Environmental Responsibility, and Community Trust

    Ethylamine’s environmental footprint rests largely on emissions control, responsible sourcing of energy and raw materials, and careful disposal or reuse of byproducts. As a longstanding producer, we invest heavily in closed-loop vapor recovery and updated scrubber systems to limit atmospheric releases. The site’s compliance log shows customer audits and certifications by regulatory authorities seeking proof that local air and water meet relevant standards.

    Waste amines and wash streams return to a scheduled treatment and neutralization process, turning potential pollutants into inert salts or feeding back as low-grade feedstock for less sensitive downstream reactions. Community representatives tour the facility annually, reviewing noise, odor, and water use records. Where possible, we convert legacy tank farms to double-walled insulated units, which contain leaks and make for easier monitoring.

    Outreach includes publishing annual environmental statements, providing nearby schools with fact sheets on local chemical transport risk, and funding regional research grants on improved amine handling. We persist in balancing productivity with care for workers, neighbors, and the environment.

    Pathways to Innovation and Meeting Future Needs

    The demand for more efficient, greener, and less hazardous chemicals places new expectations on ethylamine producers. Our R&D team collaborates with academic partners and technology start-ups to investigate variants of the main process—whether by lowering reaction temperatures, swapping out traditional fossil-based feedstocks, or using new catalytic materials to cut down on carbon intensity.

    By routinely analyzing world-region trends—such as pressure for lower pesticide residues in food, tighter pharmaceutical regulations, or stricter emission caps in industrial zones—we adapt both output formats and support documentation. Many clients now request lifecycle analysis for chemicals delivered; our LCA reporting covers everything from energy spent during separation and purification, to packaging, transport, and even returnable container cycles.

    The drive for smaller, modular chemical plants shapes new generations of our production equipment. Instead of one massive site serving many continents, we evaluate local, scalable units that cut turnaround time for urgent customers while minimizing freight-related risks. Internal training programs encourage chemical engineers to run small-batch pilot tests and propose faster switchover procedures, aiming to turn variable supply into a competitive advantage.

    Solutions for Users Facing Process or Regulatory Challenges

    Many of our largest clients face mounting compliance mandates, shifting consumer expectations, or process changes driven by market needs. They call on us to supply not just the molecule itself, but also detailed documentation, application advice, and troubleshooting for new formulations or regulatory filings. Our technical service managers handle direct consults about optimizing reaction steps to meet tighter purity limits. In some cases, customers have faced abrupt shifts in product design; we assist with rapid analysis of substitute amines, mapping out the likely impact on production yield, cost, and compliance under evolving national laws.

    Small and mid-size plants sometimes lack capacity for in-depth QC (quality control) on incoming shipments. We run side-by-side validation of each batch, sharing GC-MS and moisture data ahead of delivery so customers know their next run will perform as required. Custom specifications aren’t unusual. We’ve reformulated grades with tighter controls on linear amine content for high-purity electronic applications. Where special handling or tank configurations are needed, our logistics coordinators work with client site engineers to avoid surprises, sharing lessons learned from prior installations.

    With growing pressure to demonstrate chain of custody and “greener” sourcing, some end users want more than a standard product delivery. We offer third-party verification of energy used in production, support for voluntary environmental audits, and optional packaging returns to limit plastic or steel waste. These programs started with a few forward-thinking partners and have since expanded as more buyers align with national and international sustainability targets.

    Summary: Commitment Beyond Supply

    Our dedication to ethylamine production stretches well beyond filling orders. Throughout development, testing, shipment, and field support, we keep communication open with clients and stakeholders. Each year brings new challenges and new lessons, yet the basic expectations remain unchanged: consistent quality, transparency in supply, ongoing innovation, and a willingness to adapt.

    Ethylamine continues to play a pivotal role across modern manufacturing, serving as the reliable backbone for many intricate chemical syntheses. Our approach, built on decades of technical experience, ensures every shipment reaches users with confidence about its next step in production or research.

    We invite ongoing dialogue with both long-term and new customers. Through honest discussion of needs, process challenges, and shared goals, we build lasting relationships that shape the next generation of chemical manufacturing. By staying close to the evolving realities of our industry, we enable partners to deliver products and solutions that meet the needs of modern society.