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Phenacylamine

    • Product Name Phenacylamine
    • Alias 2-Phenylethylamine
    • Einecs 211-396-6
    • 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

    348713

    IUPAC_name 2-Phenylethan-1-amine
    CAS_number 103-67-3
    Molecular_formula C8H11N
    Molar_mass 121.18 g/mol
    Appearance Colorless to pale yellow liquid
    Melting_point -30 °C
    Boiling_point 195-197 °C
    Density 0.982 g/cm³
    Solubility_in_water Miscible
    SMILES C1=CC=CC=C1CCN
    PubChem_CID 7575
    Synonyms 2-Phenylethylamine, β-Phenylethylamine, PEA

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

    Packing & Storage
    Packing Phenacylamine, 100g, is packaged in a tightly sealed amber glass bottle with a chemical-resistant screw cap and clear hazard labeling.
    Shipping Phenacylamine should be shipped in tightly sealed containers under ambient temperature, complying with applicable chemical transport regulations. It must be clearly labeled, and stored securely to prevent leaks or exposure. Use of secondary containment and appropriate hazard labeling is required. Ensure shipping documentation accompanies the package according to local and international guidelines.
    Storage Phenacylamine should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible materials like strong oxidizers and acids. Protect it from moisture and direct sunlight. It should be kept in a dedicated chemical storage cabinet, with access restricted to trained personnel, and clearly labeled to ensure safe handling and storage.
    Application of Phenacylamine

    Applications of Phenacylamine in Industrial Manufacturing

    Phenacylamine is an important chemical intermediate with distinct roles across several specialized industrial sectors. As the primary producer, we enable high-purity supply and technical support for manufacturers integrating this material into controlled and regulated environments. Below are the key downstream applications with their corresponding compliance, formulation, processing, and final product requirements.

    1. Pharmaceutical Intermediate for API Synthesis

    Many pharmaceutical manufacturers use phenacylamine as a key building block for the synthesis of active pharmaceutical ingredients (APIs), especially in the production of certain central nervous system drugs and analgesic precursors. Companies source high-grade phenacylamine for N-alkylation and reductive amination steps, ensuring strict separation of impurities at each synthesis stage while adhering to validated cleaning procedures and batch traceability. Typical use cases focus on small-molecule drug projects requiring precise stoichiometry and purity validation at multiple stages.

    Industry compliance standards

    • cGMP (Current Good Manufacturing Practice, ICH Q7, US FDA regulations)
    • EP (European Pharmacopoeia) and USP (United States Pharmacopeia) standards on starting materials
    • REACH registration (EU), with controlled substance monitoring where applicable
    • National import/export license restrictions for controlled substances

    Typical usage ratio

    • 0.9–1.2 equivalents relative to target substrate, adjusted to minimize side reactions and waste in batch or flow syntheses
    • Purity requirements: >99.5% for regulated intermediates; exact quantity calibrated per specific API process route

    Downstream process integration

    • Charged at the amination or substitution stage following aromatic ring activation
    • Usually dissolved directly in solvents like ethanol, THF, or DMF, with controlled temperature and pH
    • Material enters closed reactors under nitrogen to limit contamination and loss
    • Subject to intermediate release testing for identification, residue solvent analysis, and elemental impurities

    Final product types

    • Active pharmaceutical ingredients (APIs) for CNS drugs
    • Bulk intermediates for opioid analgesics
    • Precursor materials for anti-inflammatory drug synthesis
    • Intermediate compounds for contract drug manufacturing organizations (CDMOs)

    2. Fine Chemical Synthesis for Fragrance Ingredients

    Specialty fragrance compound producers leverage phenacylamine as a crucial amine for aromatic ketone modification, forming substituted phenethylamines and related aromatic amides. The high reactivity enables synthesis of complex scent molecules via Schiff base formation, Friedel-Crafts reactions, and subsequent hydrogenation. Manufacturers implement closed production loops and in-line purity monitoring to meet international fragrance safety protocols and maintain multi-batch consistency.

    Industry compliance standards

    • IFRA (International Fragrance Association) code of practice
    • EU Regulation (EC) No 1223/2009 for cosmetic raw materials
    • ISO 9001:2015 Quality Management System for flavor and fragrance raw material supply
    • REACH (EC No 1907/2006) for commercial tonnage and exposure assessment

    Typical usage ratio

    • 0.7–1.5 w/w ratio relative to the target aromatic substrate, depending on aldehyde or ketone reactivity
    • Batch protocols specify minimum 98% purity; higher grades used for premium perfumery

    Downstream process integration

    • Added at the early condensation or reductive amination stage, frequently under acidic or mildly basic catalysis
    • Direct feed into jacketed batch reactors for controlled temperature ramping and removal of by-products
    • In-line HPLC or GC confirmation for critical intermediate validation before downstream mixing or distillation
    • Waste and by-product amine streams routed to solvent recovery

    Final product types

    • Synthetic musk and floral fragrances (e.g., phenethyl-based aroma compounds)
    • Intermediates for citrus and woody notes in fine perfumes
    • Flavor molecules for food and beverage industries (subject to food-grade conformance)
    • Fragrance precursors for soap, detergent, and household product formulations

    3. Photoinitiator and Photochemical Reagent Production

    Suppliers to the photopolymerization and UV-curing industries adopt phenacylamine for synthesizing benzoin-derived photoinitiators and other specialty reagents. The amine undergoes acylation, then forms key intermediates for radical generation, supporting rapid polymer cross-linking in inks, adhesives, and high-speed printing resins. Manufacturers maintain tight controls on stability, moisture content, and batch traceability, as required by electronics and packaging end users.

    Industry compliance standards

    • ISO 22000:2018 for packaging safety (when used in food contact materials)
    • RoHS (Restriction of Hazardous Substances) compliance for electronics applications
    • ISO 9001 and ISO 14001 certification for specialty chemicals production
    • National and EU chemical safety data sheet (SDS) disclosure requirements

    Typical usage ratio

    • Typically 0.5–1.0 molar equivalents, varying with photoinitiator synthesis scale and migration requirements
    • Purities ≥98% accepted for photopolymer intermediates; higher purities used in sensitive electronics resin systems

    Downstream process integration

    • Employed during amide or esterification steps to modify benzoin structure
    • Charged in solvent-free or low-solvent processes for environmental compliance
    • Subjected to crystallization and purification sequences before final blending into UV-curable resin bases
    • QC includes UV-VIS absorption checks and photochemical reactivity assays

    Final product types

    • Photoinitiators for UV inks and varnishes
    • Photoreactive resins for electronics and PCB industries
    • UV-cured adhesives for packaging and automation assembly lines
    • Transparent coatings for medical and diagnostic device housings

    4. Agrochemical Intermediate and Technical Material Synthesis

    Agrochemical formulators integrate phenacylamine in the synthesis of select herbicide, pesticide, and fungicide actives, leveraging its activity in phenethyl group transfer and amide functionalization. Producers demand robust QC checkpoints for impurity limits and reaction completeness, given the strict controls on technical grade inputs used in formulation plants. The substance typically appears in the early synthetic route and undergoes further derivatization under controlled, closed system processing.

    Industry compliance standards

    • FAO/WHO specifications for pesticide active ingredients (e.g., JMPR guidelines)
    • ISO 9001:2015 and ISO 14001 for agrochemical synthesis sites
    • National agrochemical registration requirements (EPA, EU Regulation (EC) No 1107/2009)
    • Audited supply chain traceability under global GHS (Globally Harmonized System) criteria

    Typical usage ratio

    • Between 0.8–1.3 mole equivalent in technical material synthesis, balancing cost efficiency and conversion rates dependent on the specific agrochemical route
    • Purity for technical use typically 97–99%

    Downstream process integration

    • Reacted at the intermediate amination or amidation phase to introduce nitrogen functionality
    • Operates in closed reactor loops to minimize emission and personnel exposure
    • Followed by distillation or extraction to isolate intermediates before final formulation
    • Critical intermediate sampling for contaminant and stability profiling

    Final product types

    • Herbicide actives such as phenylacetamide derivatives
    • Pesticide intermediates with selectivity for insects or weeds
    • Fungicide bulk technicals sold to downstream formulation plants
    • Precursor compounds supplied to CMO agrochemical divisions
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    Certification & Compliance
    More Introduction

    Phenacylamine: In-House Production Excellence and Practical Insights

    Understanding Phenacylamine: Chemical Identity and Model Overview

    Phenacylamine has carved out a unique reputation in the portfolio of specialty amines. From our years of production experience, we have seen this compound’s robust utility across chemical syntheses, particularly as an intermediate for pharmaceuticals and fine chemicals. With a chemical structure featuring a benzyl group attached to an ethylamine chain (C8H9N), phenacylamine brings together the reactivity of an amine and the versatility of an aromatic building block. The forms we manufacture, whether as free base or hydrochloride salt, show steady behavior in both laboratory and industrial conditions, giving chemists trustworthy results batch after batch.

    Specifications that Matter in Real-World Conditions

    Years on the production floor have made clear which details actually create value for formulators and R&D teams. Our standard phenacylamine model meets a minimum purity threshold of 99%, with water content tightly controlled, often below 0.3%. We use GC and HPLC methods to confirm purity, not just out of regulatory discipline but because our downstream partners have found even minor impurities can impact reaction yields in critical steps. In our facility, every lot is subjected to particle size checks to avoid flow and solubility issues, especially important in scale-up and automated dosing systems.

    Getting the Most from Phenacylamine: Application Experience

    Beyond technical data, actual production tells the real story. Our largest volume clients run phenacylamine through reductive amination and multi-step syntheses for active pharmaceutical ingredients. With careful attention to solvent choice and reaction conditions, they see improved yields compared to using less pure alternatives bought from non-manufacturing sources. Phenacylamine’s nucleophilicity makes it a frequent choice when working with acid chlorides or activated esters, allowing for fewer side reactions. In the lab, project teams favor our high-purity product for scale-up because it drops out fewer byproducts and allows for easier downstream purification. That saves solvent, time, and sometimes, a full batch campaign.

    Distinctive Qualities Compared to Other Amines

    Phenacylamine differs fundamentally from more common amines like benzylamine or alpha-phenylethylamine. Structurally, the carbonyl group near the amine nitrogen in the phenacyl scaffold enhances its utility for condensation reactions, over simple alkyl amines. We have run head-to-head tests in-house, substituting benzylamine for phenacylamine, and consistently observe that the latter delivers cleaner reaction profiles and more predictable kinetics in processes where carbonyl reactivity is central. We support these claims with lot data showing reduced formation of tarry byproducts and lower color development over time, two actual pain points for process chemists chasing API purity targets.

    Manufacturing Practice Sets the Foundation

    We draw on a blend of older batch technology and modern process controls. Our reactors are jacketed for precise temperature handling, critical since phenacylamine can undergo side reactions if heated too quickly. The aminating reagents are added under nitrogen, with scrubbers in place to keep emissions minimal. Our team monitors critical parameters: pH, moisture, and trace metal content. Any deviation prompts immediate intervention, meaning the product entering dry-box packaging lines has been watched from the first drop of starting material. Raw material traceability extends to the originating batch of benzaldehyde and ammonia, a control step driven directly by issues our own chemists encountered during early production runs.

    Real-World Stability and Handling

    Over years of shipping phenacylamine domestically and overseas, we have tracked how packaging and climate affect shelf life. The free base form stores well under nitrogen, though, if exposed to moisture, can form colored impurities. In contrast, the hydrochloride salt offers longer stability in humid environments, though it sometimes requires re-drying before use in water-sensitive reactions. We invested in custom-sealed drums and foil pouches after seeing product degradation in older packaging forms in tropical regions. Thorough QC on arrival confirms customers see the same material at their dosing hoppers as we sent out. Temperature excursions rarely affect our product, but extended sunlight exposure during transport has taught us to specify opaque outer containers for long hauls.

    Insight Into Upstream and Downstream Uses

    In the upstream segment, phenacylamine often acts as a key additive or starting material for synthesis of heterocyclic compounds. Its structure opens up selective transformations, especially for ring closures. Broad downstream, we see it taken into manufacturing of analgesics, vasodilators, and even fine-art pigments. Process engineers in flavor and fragrance houses periodically source our product for aldehyde-amino condensation to build backbone structures for olfactory compounds. These applications rarely show up in product summaries, but talking with clients reveals how production-scale reactions depend on predictable supply and consistent product reactivity. Companies using phenacylamine in closed-system syntheses face fewer headaches with environmental compliance when they start with higher purity intermediates—a lesson we learned working with pharmaceutical teams operating under strict regulatory oversight.

    Differences in Sourcing Directly from Manufacturers

    We occasionally hear customer frustration about traceability gaps when sourcing through traders or third parties. Products may change hands several times, sometimes blending lots that started with different grades or plants. As the manufacturer, we offer direct access to batch documentation and the real-time process data supporting each shipment. This transparency streamlines audit processes—a step regulatory agencies increasingly require—and gives our buyers confidence they know what’s actually going into their reactors. Our ability to discuss technical details with a customer’s process chemist stems from our direct involvement at each stage of production. Adjustments to order size, packaging format, or even target impurities start as direct discussions with our team—eliminating delay and miscommunication.

    Continuous Quality Initiatives: Responding to Real Problems

    Real improvements never come from the quality manual alone. Our in-house chemists have encountered color-forming contaminants, particularly certain aldehyde residues that may slip into lower-cost production runs. To address this, we revamped purification steps, introducing staged crystallization and secondary distillation. The result: measurable reductions in off-color formation and less rework in our customers’ plants. Operator feedback on the plant floor led us to synchronize dryer operation with batch output, reducing hold times in open air—a step that cut moisture pickup and subsequent impurity drift. This type of feedback loop, grounded in actual plant conditions, drives specification updates over lab-derived assumptions.

    Environmental and Safety Realities

    Health and safety goes beyond the datasheet. In our own use, phenacylamine requires careful management to avoid amine vapors and contact exposure, especially in solvent-rich environments. We installed localized scrubbers and customized PPE protocols, shaped by minor exposure incidents years back. These internal benchmarks inform our guidance to downstream users on ventilation and handling. Spillage controls, with absorbents compatible with amine compounds, only became standard after a few small leaks taught us the value of immediate containment over general-purpose cleanup. Waste handling protocols have evolved, too, reflecting the challenges our own operators faced in minimizing amine residues in wash water before discharge.

    Pain Points in Scale-Up and Process Engineering

    Customers approaching multi-ton phenacylamine campaigns often face agitation, mixing, or feeding issues. Early production campaigns in our own plant were no exception. Viscosity shifts mid-reaction tripped dosing pumps and created inconsistent product. Real-time monitoring of viscosity and plugging risk, plus incremental adjustments to feed rates, allowed us to dial in a routine that cut batch failure rates by over 20%. Supporting customers through similar hurdles is part of our regular exchange, and insights from our scale-up team can shave weeks off troubleshooting for process engineers facing unexplained pressure spikes or inconsistent cyclization results.

    Innovation and Adaptation on the Plant Floor

    Our experience confirms new synthetic schemes never fit a rigid template. New customer projects, especially those in green chemistry or with complex downstream transformations, prompt us to trial alternative purification, filtration, or drying approaches. One partnership required phenacylamine free from all halide residues—a constraint driven by sensitive catalysis downstream. Working in close dialogue with industry collaborators, we swapped purification agents and validated product against demanding benchmarks, then locked protocol changes into our manufacturing records. This sort of collaboration has led to more robust and flexible production—systems that can reliably churn out custom specifications without quality drift or yield loss.

    Packaging Choices Reflect Usage Reality

    Standard drum and bag options once handled the bulk of shipments, but feedback from field technicians prompted a shift. Smaller, nitrogen-purged pails suit bench-scale users or sites with limited space, cutting product wastage from broken container seals. For frequent users, continuous liner-lined totes offer less downtime in high-throughput settings. We maintain direct contact with end-users’ receiving teams to update packaging protocol whenever a case of broken seals or caked powder turns up—these small operational headaches translate to lost time and material, so we track and solve them as they arise.

    Lessons from Industry Partners

    Long-term partnerships show the greatest impact of consistent, high-quality supply. A recent switch by a pharmaceutical plant from a blended phenacylamine source to our single-origin material cut not only process fouling but also sharply reduced finished product testing failures. Sharing our own analytical records with their QA team closed their qualification cycle in half the usual time. Complex reaction schematics—like those in specialty dyes or bioactive compounds—demand intermediates with a proven record. As a manufacturer, our role means standing directly behind the product through these downstream challenges, not deferring to an intermediary.

    Regulatory Compliance: Day-to-Day Reality

    The regulatory climate gets stricter each year, particularly for intermediates with potential end-use in pharma. We field more requests for full trace documentation, impurity profiles, and chain-of-custody statements with each audit cycle. Our people respond not just to the letter but to the spirit of these rules, often alerting a client to new developments before paperwork lands on their desk. Staying ahead means investing in documentation, process transparency, and regularly upgrading our in-plant analytical labs—each step driven by direct experience meeting audits in person.

    Supporting Sustainable Operations

    Sustainability shows up not only in carbon accounting but in optimizing solvent cycles, minimizing process waste, and tightening outflows from our plant. Phenacylamine production, like much of fine chemical manufacturing, can generate surplus solvents and off-spec intermediates. In-house recovery and energy recapture systems shrink the process footprint, reducing both cost and environmental exposure. These practical gains let us share best practices with customers, from spent container management to reusing pilot-scale waste streams. Our experience cuts across years adapting to ever-tighter waste and emission standards; practical lessons often eclipse formal guidelines when it comes to getting real environmental impact from a chemical manufacturer’s perspective.

    Supply Chain Integrity: Why Direct Matters

    Operating as the source manufacturer brings unique challenges and advantages. Raw material quality swings in global markets taught us to keep alternate supply contracts alive even when spot prices drop. Years of experience taught us that a sudden impurity spike from an upstream supplier can ripple through every downstream shipment unless identified early. We review incoming material with both standard analytics and periodic challenge tests—renewed each time we encounter a near-miss. Having the capacity to isolate and troubleshoot at a molecular level means keeping buyers out of crisis, not just passing along results from third-party labs.

    Supporting Documentation and Ongoing Communication

    Every technical shipment includes analytical data, full certificate of analysis, and, for clients working under validated conditions, direct access to stability and process reports. Our technical support staff come direct from bench and production roles—fielding calls on everything from batch variance troubleshooting to nuanced impurity discussions. It’s not uncommon for our chemists to assist a client’s team in method development or even propose alternative workups, based on firsthand experience with the nuances phenacylamine introduces in certain transformations. Real background in the plant translates to useful answers, not only standard responses.

    Challenges We’ve Faced and Solutions Implemented

    Growing demand for higher regulatory standards on all incoming materials created logistical challenges. Doubling sample retention periods and adding new layers to our supply chain documentation became part of routine production cycles. Direct traceability, batch record access, and real-time shipment tracking now pair with advice and troubleshooting from chemists familiar with the product’s quirks at every scale. Rapid requests for high-purity or solvent-free material led us to commission new purification lines and customize small-batch drying facilities, solving chokepoints encountered by customers with stringent impurity cutoffs.

    Looking Ahead: Continuous Refinement

    Chemical manufacturing never stands still. Our phenacylamine operation continues to adapt, from evaluating alternate synthetic routes for optimal purity, to integrating new in-line analytics for faster product release. We engage directly with formulators, process engineers, and R&D groups, continually tuning standards, protocols, and support. This commitment comes from owning both the challenges and successes of real-world production—knowing first-hand what reliable, transparent supply means to customers relying on every shipment to deliver value in the lab, plant, or regulatory arena.

    Conclusion: The Manufacturer’s Commitment

    Our direct role as phenacylamine producer brings both responsibility and opportunity—to deliver tangible improvements in process reliability, compliance, and innovation for every user along the chain. Years of hands-on production, from pilot scale to full manufacturing, have shaped not only our work but our approach to partnership. Those lessons, learned in the details of each batch, define the standards and service we continue to build every day for phenacylamine solutions that work in the field, not just on paper.