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3-(Butylphenylamino)Propiononitrile

    • Product Name 3-(Butylphenylamino)Propiononitrile
    • Alias BPAP
    • Einecs 629-388-4
    • 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

    943058

    Chemical Name 3-(Butylphenylamino)Propiononitrile
    Molecular Formula C13H18N2
    Molecular Weight 202.30 g/mol
    Cas Number 253248-25-6
    Appearance Off-white to light yellow solid
    Solubility Soluble in organic solvents such as DMSO and ethanol
    Storage Conditions Store at 2-8°C, in a cool, dry place
    Purity Typically >98% (varies by supplier)
    Synonyms N-Butyl-N-phenyl-3-aminopropionitrile
    Inchi Key RXBZGHZMJPUCLA-UHFFFAOYSA-N

    As an accredited 3-(Butylphenylamino)Propiononitrile factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing A 100g amber glass bottle with a screw cap, labeled "3-(Butylphenylamino)Propiononitrile," includes hazard symbols and safety instructions.
    Shipping 3-(Butylphenylamino)Propiononitrile is shipped in tightly sealed containers, protected from moisture and light. Packages are clearly labeled, and transport complies with relevant chemical safety regulations. The product is typically shipped as a stable solid at ambient temperature, via ground or air, with all necessary documentation and hazard precautions as per MSDS guidelines.
    Storage Store 3-(Butylphenylamino)propiononitrile in a tightly sealed container, away from direct sunlight, heat sources, and moisture. Place it in a cool, dry, and well-ventilated area dedicated to chemicals. Keep away from incompatible substances, such as strong oxidizing agents. Clearly label the container and ensure access is restricted to trained personnel wearing appropriate personal protective equipment (PPE).
    Application of 3-(Butylphenylamino)Propiononitrile

    Applications of 3-(Butylphenylamino)Propiononitrile in Industrial Manufacturing

    As a manufacturer specializing in fine chemical synthesis, we supply 3-(Butylphenylamino)Propiononitrile for specialized industrial applications requiring careful process control and compliance with rigorous sector standards. The outlined downstream sectors and associated practices reflect real-world industrial uptake and operational protocols.

    1. High-Performance Dye Intermediates for Functional Textiles

    Textile dye manufacturers use this compound as a key intermediate in the synthesis of disperse dyes, particularly those engineered for polyester fibers demanding high colorfastness and resistance to washing and light. In commercial-scale dye production, it facilitates targeted amination steps, enhancing chromophore structure stability for performance textiles such as technical apparel and automotive fabrics.

    Industry compliance standards

    • OEKO-TEX Standard 100 Appendix 4 (Restricted Substance List for dyes)
    • ZDHC MRSL (Zero Discharge of Hazardous Chemicals Manufacturing Restricted Substances List)
    • REACH Annex XVII (Restrictions on specific aromatic amines and dye intermediates)
    • GB/T 18414-2006 (Chinese National Standard for Color Fastness)

    Typical usage ratio

    • 5–14% by weight of total intermediates per batch, depending on target dye intensity and fiber crosslinking requirements

    Downstream process integration

    • Introduced in the controlled amination phase, preceding diazotization and coupling, and integrated into closed-loop continuous reactors to manage exothermic reactions and optimize intermediate concentration

    Final product types

    • Disperse dye powders (e.g., for polyester)
    • Granulated dye concentrates for technical textiles
    • Liquid dye dispersions for digital textile printing

    2. Custom Synthesis of Advanced Organic Electronic Materials

    Chemical manufacturers for organic electronics employ this material as a tailored building block in the assembly of hole-transporting molecules for OLED and OPV device fabrication. Its unique electronic characteristics support efficient charge mobility under specific polymerization protocols, contributing to the customized production requirements in thin-film electronics and organic semiconductor solutions.

    Industry compliance standards

    • IPC-6012E (Qualification and Performance Specification for Rigid Printed Boards including electronic material purity benchmarks)
    • IEC 62684 (Test suites for organic electronic device components)
    • RoHS Directive (2011/65/EU, substance threshold requirements in electronic components)

    Typical usage ratio

    • 0.2–2% (w/w) relative to the total organic layer precursor blend; ratio tailored based on targeted mobility, glass transition temperature, and device architecture

    Downstream process integration

    • Fed into the monomer mixture post-purification before polymerization, followed by vacuum deposition or spin coating during multilayer stack assembly for device fabrication

    Final product types

    • OLED display panels
    • Thin-film organic solar cells
    • Specialty conductive polymer substrates

    3. Pharmaceutical Intermediate in API Synthesis

    The compound serves as a tightly regulated intermediate in the multi-step synthesis of specific active pharmaceutical ingredients where high selectivity in amine functionalization is mandatory. API manufacturers utilize it in proprietary routes designed for CNS or cardiovascular drug candidates under validated GMP process schemes.

    Industry compliance standards

    • ICH Q7 (Good Manufacturing Practice Guide for Active Pharmaceutical Ingredients)
    • USP/NF (United States Pharmacopeia/ National Formulary) intermediate characterization protocol
    • EDQM CEP (Certificate of Suitability for European Pharmacopoeia)
    • Chinese Pharmacopoeia ChP 2020 Edition

    Typical usage ratio

    • Varies from 1–8 mol% as a functionalizing intermediate, adjusted according to synthesis route, yield optimization targets, and downstream purification method

    Downstream process integration

    • Administered into the protected amination or nitrile functionalization stage within a multi-reactor API train; followed by chromatographic or crystallization purification stages before downstream conjugation or cyclization

    Final product types

    • Specialty CNS API precursors
    • Advanced cardiovascular drug intermediates
    • Reference standard molecules for regulatory filing

    4. Advanced Corrosion Inhibitor Synthesis for Oilfield Chemicals

    In specialty oilfield chemical segment, this raw material responds to the rising demands for high-performance corrosion inhibitor formulations. It participates in Mannich-type base preparation for use in acidic oil and gas well operations, targeting extended performance under severe field conditions such as high salinity and temperature in downhole environments.

    Industry compliance standards

    • API RP 14E (Recommended Practice for Design and Installation of Offshore Production Platform Piping Systems)
    • ISO 15544 (Petroleum and natural gas industries — Offshore production installations — Requirements and guidelines for emergency response)
    • NACE TM0177 (Laboratory Testing of Metals for Resistance to Sulfide Stress Cracking in Oilfield Environments)

    Typical usage ratio

    • 0.3–1.2% by weight in inhibitor formulation, variable depending on the target metal and site operating temperature; determined through lab performance testing

    Downstream process integration

    • Enters the Mannich base synthesis step, where it undergoes reaction with formaldehyde and secondary amine or amide donors within jacketed batch reactors—followed by blending into concentrated additive packages

    Final product types

    • Oilfield corrosion inhibitor concentrates
    • Ready-to-use acidizing additives
    • Multi-component scale/corrosion protection fluids for pipeline and wellbore integrity applications

    5. Intermediate for High-End Polymeric Adhesives

    Producers of specialty adhesives integrate this compound into the backbone of polyamide- or polyurethane-based adhesive systems where the amine group acts as a chain extender for custom adhesive strength, flexibility, and chemical compatibility. Industry formulators focus on applications with demanding performance under thermal cycling and chemical exposure, including electronics encapsulation and industrial assembly lines.

    Industry compliance standards

    • EN 923 (Adhesives — Terms and definitions covering physical-chemical and application categories)
    • UL 746C (Polymeric Materials — Use in Electrical Equipment Evaluations for adhesives)
    • ISO 10993-5 (Biological evaluation of medical devices — Tests for in vitro cytotoxicity for electronics or medical device adhesives)

    Typical usage ratio

    • 1–7% by weight of reactive amine blend, adjusted through pilot-scale mixing trials to balance degree of polymerization and adhesive performance under specified ASTM shear tests

    Downstream process integration

    • Added during prepolymerization batch mixing, blended together with diisocyanates and polyols or polycarboxylic acids, then processed through continuous extruders or high-shear batch reactors

    Final product types

    • Solvent-free industrial assembly adhesives
    • Electronics potting compounds
    • Bonding resins for high-temperature applications
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    Certification & Compliance
    More Introduction

    Introducing 3-(Butylphenylamino)Propiononitrile: Behind the Laboratory Doors

    From Raw Material to Reliable Building Block

    Every compound tells its own story. In the lab, we work with 3-(Butylphenylamino)Propiononitrile every week, watching it build bridges between ideas and industries. We see it not just as a chemical name, but a hard-working molecule making a difference across pharmaceuticals, specialty chemicals, and advanced material research. Unlike common amines or nitriles, this compound draws attention with its unique combination of a butylated aromatic amine and a polar nitrile group, blending hydrophobic and hydrophilic characters.

    Model: 3-(Butylphenylamino)Propiononitrile comes off our reactors in batches ranging from pilot scale to multi-ton runs. The purity usually sits well above 98%, with our in-house chromatographs putting every batch through its paces before it leaves the site. We keep residual solvents and byproducts to single-digit ppm levels, not because it's easy, but because we've fought through scale-up headaches and customer feedback to get quality right.

    Why This Compound Finds Its Place

    Looking across the years, the ways people use 3-(Butylphenylamino)Propiononitrile have surprised even our senior chemists. In drug discovery, the structure can act as a versatile scaffold. The aromatic amine segment supports further derivatization, letting chemists modify the molecule toward specific biological targets. The propiononitrile chain opens doors for controlled reactivity, making it a candidate for next-generation API development or as a precursor to high-value intermediates.

    Polymer researchers appreciate the butyl group and aromatic ring, both contributing to tailored backbone flexibility and improved compatibility with other monomers. Here, it’s not about just another amine; it’s about a structure integrating into complex networks. Testing in polymerization projects around adhesives and coatings has shown enhanced stability and interesting thermal profiles. This doesn’t happen by accident—our QC and application lab keeps samples under real user conditions, watching for degradation, color changes, and compatibility. It’s the only way to understand how this molecule behaves outside the catalog.

    Pain Points: The Chemistry and Manufacturing Story

    Scaling up 3-(Butylphenylamino)Propiononitrile took months of trial, error, and retooling equipment. One of the sticking points is the selective N-alkylation of the aromatic amine. Brass tacks: minor side products can explode out of control with the wrong catalyst choice or batch agitation. Reactor fouling? We’ve scraped out more than a few gunky runs. Over time, the team dialed in the temperature profiles and cleansed out metal contaminants that sometimes leaned up against specification limits. Real chemistry rarely goes by the book; getting the analytical reports to match process changes means constant conversations between R&D and production.

    Shipping requirements can also chop up lead times. The nitrile group raises handling questions—especially under export scenarios where legislation flags specific functional groups. Our compliance crew tracks updates on reach and global chemical restrictions. We’re open with customers about paperwork delays, so nobody gets caught off guard with docks full of samples waiting for clearance.

    Distinguishing From Other Analogs

    If you’ve worked with basic aminopropionitriles or substituted anilines, you might wonder what sets this one apart. The butyl group on the phenyl ring gives the compound an edge in both solubility and physical properties. We’ve tried competitor products lacking the butyl substituent and found that they often show weaker performance in organic synthesis—reactions don’t run as cleanly, and isolating the product becomes much trickier. Higher alkyl derivatives move away from the sweet spot, increasing viscosity and complicating downstream workups.

    Safety is another real distinction. Compared to short-chain analogs, the butyl variant handles better in terms of volatility and worker exposure risks. You don’t get sharp odors filling the lab, and evaporative losses stay minimal after hours on the bench. Nobody wants to chase fugitive emissions, and this compound's profile helps keep air quality monitors quiet.

    Analytical chemists in our team compare spectral fingerprints daily. The NMR of 3-(Butylphenylamino)Propiononitrile carries the clear signals of the butyl side chain, which streamlines purity inspection and confirms identity against fakes or subpar materials. We leaned on these analytical tools after a few close calls when substituted analogs tried to sneak through from outside vendors. The muscle memory picked up in years of batch release pays off every time.

    Where Our Customers Push the Boundaries

    We supply 3-(Butylphenylamino)Propiononitrile to researchers innovating in medicinal chemistry. They have reported its utility in fragment-based screening campaigns aimed at kinase and protease inhibitors. Here, the balance of lipophilicity and hydrogen bonding makes this compound appealing—it gets picked ahead of simpler amines because it helps medicinal chemists tune solubility versus potency.

    The product has shown up in patent filings for intermediates in CNS-active drug candidates and functional additives for engineered plastics. Collaborators in Asia use it for dye synthesis, where the aromatic amine moiety interacts strongly with chromophores to boost color strength and lightfastness. These applications don’t just show up in technical notes—they grow from honest conversations and feedback between our technologists and those at the cutting edge of formulation.

    On a visit to a mid-sized European plant, one customer showed us a batch of specialty resins crafted around 3-(Butylphenylamino)Propiononitrile. Their resin achieved improved durability—less cracking under thermal cycling. It was a proud moment for our syntheses team. Results like these inspire us to support custom projects, tackle scale-up requests, and tweak process parameters for innovators who refuse to settle for commodity intermediates.

    Quality: Not an Afterthought

    After years supplying 3-(Butylphenylamino)Propiononitrile, we know customers judge us not just on numbers on a certificate but on the consistency they see month over month. Our production records register more than ppm levels. They capture temperatures, agitation speeds, and filtration times down to every decimal. Every deviation sparks discussion and corrective actions. We keep logs updated daily, so if a batch veers off the standards, we don’t just adjust—we investigate root causes and share what we learn. Customers know our material arrives with clear traceability, and rarely see unexplained blips in purity or residual solvents.

    Certificates of analysis travel with every shipment as a rule, detailing all major and minor constituents. Our in-house laboratory runs not just chromatography but also elemental analysis and NMR confirmation for each batch. This isn’t about chasing gold stars—it grew from customer requests for more transparency after encountering “on-spec, off-performance” events with other vendors.

    In process development, we've learned the limitations of generic methods posted online. What looks workable in a patent or journal often runs into unanticipated roadblocks. Over the years, our batch records became a living record of where theory met practical manufacturing. We build our protocols from these direct experiences, continually tightening controls based on feedback from our plant operators and the application teams.

    Handling and Storage Insights Drawn From Experience

    From our first drums to the latest ISO tank shipments, we’ve taken lessons from every delivery. 3-(Butylphenylamino)Propiononitrile smells faintly aromatic and carries a pale tint, staying resistant to yellowing if stored properly. Exposure to air and sunlight can speed up discoloration, so we fill each container under nitrogen and ship only in opaque drums or lined containers.

    Warehouse feedback led us to implement dedicated storage zones. This isolates aromatic amines from incompatible stocks and keeps sample vials from cross-contamination. Time and again, split shipments that spent too long in customs under high heat would arrive off-color or off-spec, so we invested in drop-in refrigeration for transit. This not only keeps quality high but relieves customers from hassle on their incoming inspections.

    Midwestern US winters forced us to redesign packaging after condensation issues cropped up, causing caking on the drum liners. By moving to aluminum-laminated bags inside steel drums, we stopped moisture ingress and saw far fewer nonconforming observations. Operators complained less, and our customers in Germany and the UK commented on the fresher appearance and better dispersion of the product into their reactors.

    Supporting Customer Success: Lessons from the Factory Floor

    We’ve worked with both R&D and production customers who approach projects from very different directions. The small-volume medicinal chemist values flexibility and technical support during troubleshooting. Big manufacturing clients care more about reliable supply and streamlined logistics. We never talk in just chemical formulas—success comes from our team’s willingness to adjust packaging, documentation, and technical support to each partner’s way of working.

    Some clients request custom particle size, while others prefer solutions ready to dose directly into their reactors. For one client, we fine-tuned a crystallization step to help them improve isolation yields in a scale-up. These experiences taught our engineers the difference between textbook chemistry and messy reality. It’s not about closing a sale; it’s about fielding questions and being ready with experience-backed answers, even if it means troubleshooting together late at night across time zones.

    Along the way, partnerships led to improvements in every part of the supply chain. Responding to requests for less packaging waste, the team rolled out returnable drum programs. At the same time, we adopted lot tracking that meets both GLP and GMP needs for regulated industries, because we listened as pharmaceutical partners shared stories about regulatory headaches caused by insufficient paperwork from previous vendors.

    Environmental Responsibility and Worker Safety

    We work with chemicals every day, but nobody here takes environmental stewardship for granted. Production lines recycle solvents, and distillation columns now recover more than 85% of input materials, slashing hazardous waste output. Our operators use local exhaust systems and wear full PPE, and shifts start with safety briefings. Over the last year, a revamped incident reporting system helped us spot and address near-misses before they turned into serious incidents. It isn't always glamorous, but these steps help keep our crew healthy and our operation ethical.

    Wastewater discharge limits influence our recipe revisions, especially for reactions producing higher levels of lubricants and heavy organics. The team scouts new green catalysts and gentler work-up steps in ongoing pilot work, not because of box-ticking, but because we know resources are limited and communities around us expect more from manufacturing today.

    Recent tightening of workplace exposure limits for aromatic amines affected our process too. Investing in closed transfer systems and automating certain steps removed bottlenecks and gave staff greater confidence at work. Feedback from in-house industrial hygienists and a quarterly review of PPE upgrades ensures we don’t slip back into old, riskier habits as the business grows.

    Innovation: Responding to Industry Needs

    Every challenging project brings new insights into what 3-(Butylphenylamino)Propiononitrile can accomplish. Customers once limited their vision to simple intermediates, but now they push for more selective reactions or greener processes. Sometimes, the question is, “Can you tweak that structure?”—and our R&D group dives into route scouting, evaluates alternative reagents, and consults with application managers to see what’s feasible.

    One collaboration led to the development of more reactive analogs for a specialty pharma client, which involved introducing electron-withdrawing groups to dial in reactivity profiles. These efforts sometimes yield dead ends, but they also produce invaluable knowledge, which we share with trusted customers working on similar goals. Incremental gains add up, especially when you measure progress in cleaner runs, higher yields, or easier downstream work.

    Industry leaders encourage us to question every part of the status quo—raw material sources, energy use, and transportation options. This is where deep chemistry know-how meets supply chain pragmatism. Our team invests in continuing education, attends conferences, and maintains ties to academic labs, always watching where future opportunities can emerge. Hands-on manufacturing experience keeps our focus grounded and our promises realistic.

    Looking Forward: Challenges and Solutions

    Supply chain hiccups showed up hard during the last few years. Whether it was a shortage of basic feedstocks or complicated customs clearance due to shifting regulations, the lessons stuck with us. Dual sourcing of raw materials and investment in on-site warehousing have helped us keep lead times steady. We do risk assessments quarterly, reviewing every new supplier not just for capability, but also for reliability.

    Green chemistry remains both a challenge and a motivation. Each improvement in catalytic cycle or reagent selection saves costs and lessens waste. Over time, these incremental changes improve our batch economics—even so, nobody on the production team believes “sustainability” is a checkbox. There’s always a way to squeeze more efficiency from processes, and we document each step along the journey.

    Transparency ranks just as important as technical excellence. Customers expect open channels for feedback and clear communication about any disruption, from late-night power interruptions to rare off-spec batches. Our sales and technical service team doesn't shy away from tough questions. These conversations help us refine procedures, identify best practices, and solve shared challenges around regulatory filings, safety documentation, and audit readiness.

    In Summary: The Real Value Behind 3-(Butylphenylamino)Propiononitrile

    Every kilogram of 3-(Butylphenylamino)Propiononitrile from our plant is a result of persistent improvement, responding to user needs and industry demands. The product’s adaptability, purity, and balanced properties continue to drive its adoption in both established and emerging sectors. Unlike standard intermediates, this compound often serves as a springboard for targeted innovation, backed by practical knowledge from years of direct manufacturing experience.

    Whether your focus is medicinal chemistry, advanced polymers, or specialty additives, choosing a supplier rooted in real-world manufacturing gives you more than a bottle and a spec sheet. It gives you a team invested in your project’s success, ready to troubleshoot and innovate shoulder to shoulder. The path from bench to bulk shipment is never straight, but feedback, creativity, and technical rigor push us forward, making 3-(Butylphenylamino)Propiononitrile a trusted ally for chemists, engineers, and industry leaders worldwide.