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4'-Aminobutyrophenone

    • Product Name 4'-Aminobutyrophenone
    • Alias 4-Phenylaminobutan-2-one
    • Einecs 210-603-1
    • 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

    651481

    Chemical Name 4'-Aminobutyrophenone
    Cas Number 1603-40-3
    Molecular Formula C10H13NO
    Molecular Weight 163.22
    Appearance Off-white to yellow solid
    Melting Point 75-77°C
    Boiling Point 336.2°C at 760 mmHg
    Solubility Slightly soluble in water, soluble in organic solvents
    Density 1.118 g/cm3
    Purity Typically ≥98%
    Smiles CC(=O)C1=CC=C(C=C1)N
    Inchi InChI=1S/C10H11NO/c1-8(12)9-4-6-10(11)7-5-9/h4-7H,11H2,1-3H3

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

    Packing & Storage
    Packing A 25g amber glass bottle with a secure screw cap, labeled "4'-Aminobutyrophenone", includes hazard symbols and handling instructions.
    Shipping 4'-Aminobutyrophenone is shipped in tightly sealed containers to prevent moisture and contamination. The package is clearly labeled according to regulatory requirements, with safety data included. It is transported in compliance with local and international chemical shipping regulations, typically under ambient temperature, and kept away from incompatible substances during transit.
    Storage 4'-Aminobutyrophenone should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from sources of moisture and incompatible substances such as strong oxidizers. Avoid exposure to direct sunlight. Proper labeling and placement within a chemical storage cabinet or designated chemical storage area are recommended for safety and stability.
    Application of 4'-Aminobutyrophenone

    Applications of 4'-Aminobutyrophenone in Industrial Manufacturing

    We supply 4'-Aminobutyrophenone exclusively for defined industrial applications, supporting downstream manufacturers in tightly regulated sectors. The following sections address proven, market-established uses, detailing compliance, formulation ratios, operational integration, and the range of finished goods produced through our clients’ processes.

    1. Pharmaceutical Intermediate for Anticonvulsant APIs

    In the pharmaceutical sector, 4'-Aminobutyrophenone functions as a critical building block during the multi-step synthesis of certain anticonvulsant active pharmaceutical ingredients (APIs). During the route for manufacturing intermediates, process engineers utilize the material to introduce specific phenyl structures required for pharmacological activity while ensuring reproducibility as specified in regulatory filings. Production teams track batch records and carry out in-process checks to guarantee chemical identity and purity from incoming goods through the condensation and subsequent cyclization steps to the final intermediate isolation.

    Industry compliance standards

    • ICH Q7 (Good Manufacturing Practice for Active Pharmaceutical Ingredients)
    • US FDA 21 CFR Parts 210/211
    • EU GMP EudraLex Volume 4
    • Relevant pharmacopeias: USP, EP monographs for target API

    Typical usage ratio

    • 0.85–1.10 molar equivalents, calculated per targeted intermediate step
    • Formulation adjusted by supplier COA assay and yield optimization trials

    Downstream process integration

    • Added to reactor at the aromatic functionalization or amide introduction step
    • Monitored via HPLC during crude intermediate formation and isolation
    • Fully consumed before downstream cyclization or reduction

    Final product types

    • Anticonvulsant pharmaceutical intermediates
    • Final APIs for epilepsy and neuropathic pain medications

    2. Agrochemical Synthesis: Precursor for Pyrazole Derivatives

    In the crop protection industry, 4'-Aminobutyrophenone serves as a precursor for pyrazole-based herbicides and insecticides. Agrochemical formulators leverage its para-amino function for condensation with diketones, producing substituted pyrazolyl compounds exhibiting strong pesticidal properties. Synthetic chemists need to control input purity through QC protocols, reacting the compound in batch or continuous flow processes downstream before formulation into technical concentrates.

    Industry compliance standards

    • FAO/WHO Technical Specifications for Pesticides
    • ISO 9001:2015 quality management systems
    • REACH Regulation (EC) No 1907/2006 (Europe)
    • EPA Pesticide Registration Requirements (40 CFR Part 158, US)

    Typical usage ratio

    • 1.0–1.2 molar equivalents relative to diketone co-reactant
    • Adjusted according to desired pyrazole substitution pattern and process scale

    Downstream process integration

    • Introduced at the pyrazole ring-forming condensation
    • Followed by in situ cyclization, then crude purification
    • Material traceability through batch records and technical analysis certificates

    Final product types

    • Pyrazole herbicide technical concentrates
    • Pyrazole insecticide formulation intermediates

    3. Fine Chemical Synthesis for Analytical Standards

    Manufacturers of certified analytical reference materials and specialty reagents use 4'-Aminobutyrophenone as a targeted intermediate for custom organic syntheses. Laboratory-scale and pilot plant operators require consistent performance to ensure high-purity compounds for quantitative analytical testing in pharmaceutical, clinical, and environmental applications. Throughout the process, chemists monitor transformation stages, often incorporating the material as a coupling or derivatizing agent, and executing thorough post-reaction purifications under ISO-accredited protocols.

    Industry compliance standards

    • ISO 17034:2016 (Reference Material Producers)
    • ISO/IEC 17025:2017 (Testing and Calibration Laboratories)
    • Good Laboratory Practice (GLP) principles (OECD)

    Typical usage ratio

    • 0.95–1.05 molar equivalents per synthetic transformation
    • Ratio adapted to method validation requirements and compound purity targets

    Downstream process integration

    • Added as starting material or coupling partner in small-molecule derivatization
    • Processed using solution-phase and solid-phase synthesis
    • Subjected to multistep purification: chromatography, recrystallization

    Final product types

    • Certified analytical standards for pharmaceutical/clinical labs
    • Custom chemical reference reagents

    4. Synthesis of Specialty Dyes and Imaging Agents

    Advanced materials companies and specialty dye manufacturers incorporate 4'-Aminobutyrophenone into syntheses where the para-amino function is exploited for diazotization and subsequent coupling to aromatic or heteroaromatic structures. This enables the creation of novel chromophores and intermediates for fluorescent, colorimetric, or photoreactive imaging agents. Quality control teams monitor reactant traceability and diazo coupling efficiency according to the end-use purity requirements needed for high-performance dye or imaging product lines.

    Industry compliance standards

    • OEKO-TEX® Standard 100 (for textile dyes and auxiliaries)
    • ISO 9001:2015 (Quality Management)
    • REACH Regulation (for European market usage)
    • Specific vendor-specified QC protocols for dyes/imaging agents

    Typical usage ratio

    • 1.0–1.2 molar equivalents, dependent on aromatic coupling partner structure
    • Process chemist may adjust load to control dye tonality and yield

    Downstream process integration

    • Charged as key diazo precursor to aqueous or solvent-based coupling reactors
    • Monitored by TLC/HPLC for reaction progress
    • Finished intermediates isolated by filtration and pH adjustment

    Final product types

    • Special effect dyes for polymers and textiles
    • Fluorescent imaging agent intermediates
    • Colorimetric sensor compounds
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    Certification & Compliance
    More Introduction

    4'-Aminobutyrophenone: Practical Chemistry Rooted in Experience

    Everyday Lessons from Real Manufacturing Floors

    4'-Aminobutyrophenone has an unmistakable place on our production lines. We’ve watched this compound move from a laboratory curiosity to becoming an indispensable building block for several chemical syntheses. Our crew, from R&D chemists to plant operators, knows the substance inside out—not just by code, but by the results it delivers in real-world application.

    What We Know About 4'-Aminobutyrophenone

    4'-Aminobutyrophenone appears as a pale solid with consistent purity, every batch crossing our line checked by in-house analytics before shipping. Typical specifications call for a purity above 98%, and the molecular formula stays consistent: C10H13NO. We routinely test melting points, solubility, and refractive indices because we’ve learned how these factors shift performance on customer lines. When variations show up in our data, we trace them back and solve the root problem—we want people who use our material to get predictable, repeatable results.

    Our process doesn’t stop at meeting spec sheets. Everybody on our team knows purity isn’t just a number—it’s the backbone of reproducible results in chemical synthesis. Impurities creep in from mishandling, reagent grade, storage, or even ambient conditions. We tackle these sources early. On our floors, every kilo of 4'-Aminobutyrophenone is made from batches that pass rigorous batch tracking and analysis. We’ve had customers tell us that switching to our material cut down on troubleshooting time and waste in their syntheses, especially where fine organic transformations are involved.

    The Role in Pharmaceutical Intermediates

    Pharmaceutical labs order 4'-Aminobutyrophenone by the drum because it’s more than just a starting point—it’s a key intermediate in synthesizing compounds with central nervous system action. Each gram sets the foundation for active pharmaceutical ingredient synthesis. We have seen the demand grow as research fundamentals put this compound into the middle steps of anticonvulsant and nootropic development. Large pharma and generics alike lean on consistency, and our feedback loop with process chemists keeps our material’s specifications closely tuned to their protocols.

    It’s common for researchers to use 4'-Aminobutyrophenone as the amine-containing core for analogues during lead optimization campaigns. Here, purity isn’t optional. Downstream yields, color, and even the toxicology profile in scale-up batches hinge on the quality delivered at this stage. We listen to partners who watch for traces of byproducts or degradation. Small changes at our end create measurable changes in the final bioassay results. We’ve walked through enough customer validation programs to know no two processes are exactly alike—and that’s why our QC lab stays adaptable instead of rigid.

    Key Differences: Not All Aminobutyrophenones Work the Same

    Our team gets quite a few questions about differences among aminobutyrophenone isomers and derivatives. The 4'-Aminobutyrophenone position, a para-amine relative to the butyrophenone backbone, creates opportunities for selective reactions that researchers can’t get from other positions. This matters for acylation steps, reductive aminations, and highly selective coupling. The way our product is handled and stabilized ensures these functional groups remain accessible and reactive, supporting precise downstream modifications for medicinal chemistry and material science.

    We’ve also seen projects where chemists tried to swap in ortho- or meta-substituted analogues and ran into low conversion or unwelcome side products. Our material lets teams sidestep that frustration. The unique reactivity of the para-amine in our 4'-Aminobutyrophenone simplifies both protective group strategy and final product purification. We built up our documentation library not just from academic citations, but from hands-on collaborations and troubleshooting sessions that made these distinctions clear.

    From the Factory to the Field: Storage and Handling Tips

    Exposure to moisture is a constant battle in chemical manufacturing. We solve this by packaging our 4'-Aminobutyrophenone in sealed, moisture-barrier drums or pails under nitrogen. Even the best-passed product can suffer from caking or slow decomposition if it sits in damp conditions. The days are long gone where we took shipping lightly—temperature fluctuations in transit, months in secondary warehouses, all play a role. We speak with handlers at the receiving end, not just the procurement teams, because chemical quality can take a hit on the warehouse shelf, not just on the line.

    Our experience shows the difference isn’t just what goes in the drum, but how it’s handled every step from our floor to the end user’s bench. Customers who store our product in original, unopened packaging at ambient temperature, free from light and humidity, report months of stable performance. Fielded complaints help us continuously review not only our manufacturing process, but recommended handling through the entire delivery chain.

    Supporting R&D in Universities and Industry

    University researchers call on us to deliver smaller, ultra-pure lots for high-precision analytical work and amateur-scale batch synthesis. We’ve developed sampling procedures that don’t compromise larger stock quality when splitting for academic use. On the industry side, pilot plants require material that scales with consistent particle size and minimal dust. Attention to these handling details pays off—people spend less time cleaning up unpredictability and more time pushing projects forward.

    Our own technical team keeps the lines open to discuss troubleshooting. If a customer runs a new reaction and something seems off, we work together to get to the bottom of it. Most often, solutions come from practical, experience-driven advice: solvent choices, pH adjustments, and reminders to stick with a proven supplier chain from pilot to production. It’s these little things that reduce the time lost to rework, which matters in fast-moving research or contract manufacturing.

    Environmental and Safety Practices from Experience

    Every batch we make, we think about the people who handle it and the environment around them. Over the years, we’ve learned that simple, clear labeling and robust safety data make a bigger difference than the most elaborate theoretical protocols. Too many incidents in the industry stem from confusion—not from the product itself, but from people not being aware of handling best practices.

    We keep our material hazard communication direct: 4'-Aminobutyrophenone may cause irritation, especially through dust generation. With repeated practical use, we strongly encourage using gloves, protective eyewear, and local exhaust. Our team wears personal protective equipment in all packaging and transfer operations. We publish updated, experience-backed safe handling guides for storage areas and transport teams, based on real incidents we’ve seen reported in the wider chemical industry.

    Waste disposal is an equally practical issue. Most downstream users run reactions that generate residues, and disposal pathways must comply with regional regulations. We actively talk with waste management partners to keep our guides current—because compliance failures are more about changing rules than the chemicals themselves. We want our customers to avoid surprises years after a project wraps up.

    Lessons from Years of Collaboration and Feedback

    We don’t operate in isolation—a big part of our manufacturing philosophy grows from years of feedback with customers. Some of the most useful tweaks in our processes came from direct conversations with the people at the bench. If someone points out a filtration challenge, we dig in and see if a shift in crystal habit, washing solvent, or drying cycle can make a measurable difference. That problem-solving approach shows up in the repeat business and the fewest complaints per kilo shipped.

    We can count several occasions where a seemingly minor change at the manufacturing end solved recurring problems downstream. One example: adjusting agitation rates during recrystallization led to fewer fines, which made separation much easier for customers running continuous equipment. Another: tighter moisture monitoring cut down on subtle degradation that customers had trouble tracing. These fixes save time for everyone and reflect the mindset that good chemical manufacturing stays flexible and responsive, not bureaucratic.

    Comparing with Other Ketone-Based Amines: It’s Not Just the Structure

    Chemists often compare 4'-Aminobutyrophenone with other ketone-based amines, particularly in pharmaceutical and fine chemical research. From our vantage point, structure only tells part of the story. Even small differences in substituent position alter polarity, reactivity, and final yields. Our teams have run controlled reactions that demonstrate how the para-amine configuration adopted by 4'-Aminobutyrophenone yields higher selectivity and fewer by-products under typical conditions. Other isomers often require harsh conditions or more elaborate purification.

    In commercial-scale synthesis, those small differences translate into major cost and time drivers. Raw material waste, conversion rate, and ease of isolation become decisive factors. Many synthetic protocols that look promising on paper stall at the kilo scale because alternate aminobutyrophenones fail to deliver the same reactivity profile. Our ongoing technical liaison with customers helps them pin down these differences before committing to multi-step synthesis campaigns that risk hitting a roadblock. The practical chemistry knowledge we built up over years proves out the value of selecting the right isomer for both reactivity and process efficiency.

    Why Experience, Not Just Data Sheets, Drives Quality

    New customers sometimes ask for data sheets well before they ask about process. While technical details matter, our team sees the biggest gains come from deep experience with how a material behaves line to line. We keep our teams in the loop with real-world feedback, not just analytical numbers. Surface-level purity and assay figures tell part of the story, but field experience matters when minor impurities, variable moisture, or changes to crystal structure creep into results.

    We’ve refined our methods, from raw material selection to final drying, with an eye for both robustness and adaptability. Real-life production doesn’t always follow theoretical models, and predictable performance means being ready for raw material variability, changes in environmental conditions, and customer needs that shift over time. We invest in regular retraining and QA review so we don’t get complacent with “good enough”—our goal stays at getting as close to a defect-free supply chain as manufacturing realities allow.

    Continuous Improvement: Listening, Learning, Implementing

    In decades of producing 4'-Aminobutyrophenone, our staff sees continuous improvement as more than a slogan. Each batch report, customer call, or troubleshooting request feeds back into a cycle of review and upgrade. We track not only final product specifications, but also cycle times, yield variability, and patterns in customer comments.

    For example, a customer struggling with a hard-to-handle powder form prompted us to review granulation and drying steps. On review, we found ways to control crystal size, reduce dust, and make the product more manageable for both lab-scale and kilo-scale operations. Another example: we replaced a class of solvents after learning from downstream feedback that residual traces, while within nominal limits, affected sensitive analytical assays. These corrective steps emerged not from a need to meet the lowest regulatory threshold, but from listening and responding directly to practical issues encountered by end users.

    Building Trust Through Transparency and Direct Communication

    Trust, in our experience, grows through honest, direct communication about both what our product can do and where limitations lie. We won’t promise performance in processes we have not validated, and we encourage open dialogue if our 4'-Aminobutyrophenone is new to your workflow. We support trial batches, supply documentation, and keep technical personnel available for direct consultation.

    In many cases, transparency about known points of variability—whether trace moisture, particle distribution, or the rare process impurity—builds stronger partnerships than an idealized image of perfection. Customers have told us our willingness to address questions head-on, without evasion, means more than a brochure or an empty guarantee.

    Future Directions: Meeting Evolving Needs and Regulations

    As regulatory and research environments evolve, we actively monitor shifts in compliance standards, emerging scientific findings, and end-user requests. The same compound, 4'-Aminobutyrophenone, must now meet stricter documentation and audit trails, especially for pharmaceutical developers and global manufacturers. We keep our QA practices nimble and our documentation complete so that our partners meet or exceed compliance at every batch audit or data package submission.

    Environmental stewardship has changed from an optional add-on to an everyday requirement. We focus on reducing waste, recycling solvents, and validating safer handling protocols at every production stage. Our technical development teams invest effort in process optimization not only to improve yields and lower costs, but to drive lower environmental impact and help customers meet emerging regulatory demands.

    Working Together to Solve Real-World Challenges

    No process runs perfectly every time. From lab-scale research to continuous production, obstacles crop up. Perhaps a reaction fails to go to completion, a filter clogs more than usual, or an unexpected color change signals a problem. In each case, our approach stays rooted in cooperation—walking through the workflow, tracing back steps, and drawing on both practical experience and data-driven troubleshooting.

    We invite feedback not as a formality, but as essential to good chemistry. Our plant teams, technical consultants, and front-line operators know the value of time saved in resolving an issue, and we pride ourselves on being both accessible and accountable. Over the years, our accumulated knowledge about 4'-Aminobutyrophenone lets us provide more than a product—we offer informed counsel, rooted in both scientific understanding and daily practice, to help our partners succeed.

    Belief in Long-Term Value

    Making and supplying 4'-Aminobutyrophenone isn’t just about meeting a number or filling a drum. The true value in chemical manufacturing comes from consistency, reliability, and responsiveness built through shared experience. We’ve learned from both the smooth deliveries and the challenges, refining what matters most: predictable outcomes, open communication, and a steady hand in a demanding industry.

    For years, we have supplied this compound not as a commodity, but as a collaborative tool in the hands of skilled researchers and producers worldwide. Each batch leaves our plant informed by the realities of modern synthesis, and every improvement directly reflects the conversations and collaborations with the people whose work depends on our material. Together, we move chemistry forward, grounded in expertise, vigilance, and respect for the process.