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1-Aminopyrrolidine

    • Product Name 1-Aminopyrrolidine
    • Alias 1-Pyrrolidinamine
    • Einecs 218-549-0
    • 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

    331797

    Chemical Name 1-Aminopyrrolidine
    Molecular Formula C4H10N2
    Molecular Weight 86.14 g/mol
    Cas Number 2835-81-6
    Appearance Colorless to pale yellow liquid
    Boiling Point 156-158 °C
    Melting Point -14 °C
    Density 0.973 g/cm3 at 20 °C
    Solubility In Water Miscible
    Refractive Index 1.4680 at 20 °C
    Flash Point 62 °C (closed cup)
    Pubchem Cid 147096

    As an accredited 1-Aminopyrrolidine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 1-Aminopyrrolidine is packaged in a 500 mL amber glass bottle, featuring a secure screw cap and detailed hazard labeling.
    Shipping 1-Aminopyrrolidine is shipped in tightly sealed containers to prevent moisture and air exposure. Packaging complies with chemical safety regulations, using materials compatible with amines. It is labeled as a hazardous material and transported by qualified carriers, ensuring secure handling, adequate ventilation, and documentation as required for chemical substances.
    Storage 1-Aminopyrrolidine should be stored in a tightly closed container, in a cool, dry, well-ventilated area, away from incompatible substances such as oxidizers and acids. Protect from moisture and direct sunlight. Keep away from sources of ignition, heat, and open flames. Use appropriate chemical storage cabinets if available and ensure proper labeling for safety and regulatory compliance.
    Application of 1-Aminopyrrolidine

    Applications of 1-Aminopyrrolidine in Industrial Manufacturing

    1-Aminopyrrolidine serves as a strategic building block in several specialized industrial manufacturing sectors. As an upstream chemical substance, it drives synthesis efficiencies and ensures compliance with stringent regulatory and quality standards across distinct downstream fields. Below are key segmentation scenarios reflecting authentic, high-value applications.

    1. Pharmaceutical API Synthesis: Piperazine-Class Drug Intermediates

    Our production clients incorporate this material primarily in the synthesis of piperazine-related pharmaceutical intermediates. It enables targeted functionalization during early-stage heterocyclic synthesis, improving batch yield and selectivity for drugs treating CNS disorders and infectious diseases. Stringent in-process monitoring and traceability are required throughout these stages to meet global regulatory requirements for active pharmaceutical ingredient (API) manufacturing.

    Industry compliance standards

    • ICH Q7: Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • USP and EP monographs on intermediate purity
    • US FDA 21 CFR Part 210/211 for finished pharmaceuticals
    • EU EudraLex Volume 4 Annex 8: API intermediates handling

    Typical usage ratio

    • Intermediate loading of 0.1–0.3 mol per mol of target piperazine core
    • Adjusted as required for step-yield and purity during multi-stage synthesis

    Downstream process integration

    • Charged after primary cyclization for subsequent N-substitution
    • Directly participates in reductive amination or acylation cascades in reactor trains

    Final product types

    • Anthelmintic drug intermediates (e.g., piperazine derivatives)
    • Central nervous system (CNS) active pharmaceutical ingredients
    • Atypical antipsychotic intermediate compounds
    • API-grade active moieties requiring pyrrolidine scaffolds

    2. Crop Protection Agent Manufacturing: Herbicides and Fungicides

    Chemical plants leverage this molecule in the assembly of complex agrochemical actives. It helps form bioactive nitrogen heterocycles, enhancing efficacy for broadleaf weed control and systemic fungicide formulations. Regulatory authorities mandate strict traceability for solvent and precursor residues, and batch records must be maintained for all regulated crop protection agents utilizing this compound.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Systems
    • FAO/WHO Specifications for Pesticide Products
    • EU Regulation (EC) No 1107/2009 concerning plant protection products
    • US EPA pesticide registration requirements (40 CFR)

    Typical usage ratio

    • Typical input of 2–6% by weight in the key condensation or cyclization step
    • Adjusted for target compound loading and side-product minimization

    Downstream process integration

    • Introduced during the ring-closure step for nitrogen-heterocycle agrochemicals
    • Used in amination reactions pre-formulation

    Final product types

    • Pyrrolidine-derived herbicide actives
    • Systemic fungicide intermediates
    • Selective crop protection compounds
    • Ready-to-apply agricultural pesticides

    3. Fine Chemical Synthesis: Chiral Ligand and Catalyst Precursor

    Chemicals manufacturers employ 1-Aminopyrrolidine to generate chiral ligands and organometallic catalyst compounds. Chirality and reactivity enable it to serve as a precursor for asymmetric hydrogenation agents, crucial for high-purity specialty chemicals and fine organic materials. Strict documentation of raw material sources and synthetic route validation are mandatory for clients operating under ISO and REACH compliance.

    Industry compliance standards

    • REACH Registration, Evaluation, Authorisation and Restriction of Chemicals (EU)
    • ISO 14001:2015 Environmental Management Systems
    • ISO 17025:2017 General requirements for laboratory competence
    • Company-specific validated synthetic route documentation

    Typical usage ratio

    • Feed ratios between 0.5–1.2 equivalents relative to central chiral precursor
    • Determined by ligand complexity and downstream metalation requirements

    Downstream process integration

    • Added in the initial condensation for ligand skeleton assembly
    • Engaged during final functionalization or salt formation steps

    Final product types

    • Chiral organometallic ligand libraries
    • Homogeneous catalytic systems
    • Precious metal catalyst intermediates
    • Enantioselective hydrogenation reagents

    4. Polymer Modifier and Chain-Termination Agent Production

    This compound finds targeted use as a polymer end-capper and chain-terminating agent in specialty resin and polyamide synthesis. By controlling molecular weight and capping functional groups, it imparts improved thermal and mechanical properties to advanced polymers. Relevant sectors require process control documentation and compliance with sectoral standards for intermediate use in material manufacturing.

    Industry compliance standards

    • ISO 9001:2015 for quality management in polymer manufacturing
    • ASTM D638 for polymer tensile strength testing
    • EU REACH SVHC (Substance of Very High Concern) declaration
    • Customer-specific Technical Data Sheets and MSDS alignment

    Typical usage ratio

    • Usually 0.8–3.5% by weight per batch, based on desired molecular weight distribution
    • Adjusted in process control to achieve target polymer chain length and performance metrics

    Downstream process integration

    • Blended at the polymerization reactor's final stage for end-group introduction
    • Used for targeted amination in high-performance polymer systems

    Final product types

    • Chain-terminated specialty polyamides
    • Modified epoxy resin pre-polymers
    • Thermoplastic processing aids
    • Heat-resistant engineering plastics

    5. Specialty Corrosion Inhibitor Formulation

    Formulators in oilfield and industrial water treatment sectors use this product for manufacturing nitrogen-rich corrosion inhibitor blends. It functions as a synergist and base for synthesizing imidazoline and quaternary ammonium salts, providing superior film-forming and metal surface protection. Downstream processors must comply with strict documentation and exposure control under RoHS and high-hazard chemical management systems.

    Industry compliance standards

    • RoHS Directive 2011/65/EU for restricted substances
    • OSHA Process Safety Management 29 CFR 1910.119
    • API 682 standards for mechanical seal environments
    • REACH Annex XVII restriction compliance

    Typical usage ratio

    • Typically 1–10% as an active component in corrosion inhibitor concentrate
    • Determined by expected water chemistry and target film persistence

    Downstream process integration

    • Reacted with fatty acids or alkylating agents during concentrate blending
    • Processed as a precursor in the synthesis of organic salt inhibitors

    Final product types

    • Oilfield corrosion inhibitor packages
    • Industrial water system protective blends
    • Imidazoline-type organic inhibitors
    • Surface-active metal passivating compounds
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    Certification & Compliance
    More Introduction

    Unlocking Value with 1-Aminopyrrolidine: A Manufacturer’s Perspective

    Crafting 1-Aminopyrrolidine, One Batch at a Time

    For those of us whose days begin in the plant and end at the drafting table, 1-aminopyrrolidine brings together both hands-on process know-how and a clear-eyed view of what drives value in modern chemical manufacturing. At our facility, we see every batch as a product born not just from reactors and raw materials, but also careful choices about quality management and process safety. Every kilogram signals precise control over hydration, temperature, feedstock purity, and reaction kinetics. Our 1-aminopyrrolidine, labeled in the industry as Model APD-01, stands apart for its chemical purity, controlled moisture content, and low residual solvent levels—qualities that come from years of refining our approach and listening closely to feedback from formulators and process engineers.

    Understanding the Chemistry: How Production Shapes Quality

    1-aminopyrrolidine is a four-membered azacycle with a primary amine group—a versatile backbone for synthesis. In our plant, batch records reflect a collective effort: sourcing the cleanest pyrrolidine, managing amination with strict controls, and relying on in-line analytics rather than post-process guesswork. From direct catalytic amination to alternative hydrazinolysis, every synthesis route brings a different impurity profile. We avoid shortcuts in continuous production runs, favoring batch-based operations that allow tighter tracking of trace byproducts. This approach means superior batch consistency, and lower amine impurities. Most importantly, it means our end users—from pharmaceutical intermediates to specialty polymer teams—aren’t haunted by batch-to-batch drift or unpredictable residue levels.

    Specifications that Matter in the Field, Not Just on Paper

    On the shop floor, spec sheets only tell part of the story. We’ve learned that GC purity above 99.5% doesn’t matter unless color, odor, and amine titration all trace back to consistent process management. Residual water, usually below 0.15%, makes a marked difference for teams integrating 1-aminopyrrolidine into sensitive reactions such as SNAr nucleophilic substitutions or peptide bond assemblies. Less water means less risk of side reactions. This level of care goes beyond the average off-the-shelf material—because not every downstream process can tolerate the oxidative instability or water content found in broader-market alternatives.

    The Role in Pharmaceutical and Agrochemical Synthesis

    Each year, we see how research teams push further with their targets in pharmaceuticals and crop protection. Many heterocyclic drugs or intermediates demand a nucleophile that won’t introduce excessive reactivity or instability. Compared with alternatives like piperidine or pyrrolidine itself, 1-aminopyrrolidine offers a unique combination: a cyclic structure that provides both rigidity and flexibility in chain extension, and a primary amine moiety for targeted substitution. This makes it a go-to for synthesizing functionalized azacycles, where the nitrogen atom participates readily in further derivatizations. Medicinal chemists often describe the difference in terms of workability: side products go down, final yields go up. We hear this directly during joint development projects—it isn’t abstract optimization but field-ready efficiency.

    Supporting Formulators Beyond the Lab Bench

    We’re not a distant supply source. When a customer calls about scale-up, they are matched with chemists who know the ins and outs of our process and can talk through options for custom water content or special stabilizers. For instance, teams making API precursors may need a version with minimized metallic residues, while agrochemical producers often need certificates on elemental impurities. We run certified lots for both, using targeted adsorbents and proprietary purification steps. Over time, this adaptability keeps our product closer to the needs of the person running the next reaction—not just the specifications we set years ago. Our documentation, from batch analytics to storage advice, comes directly from the plant, not a distant office.

    Investing in Analytical Transparency

    As regulations around impurities grow, staying ahead means more than meeting the letter of the law. Frequent on-site audits push us to invest in upgraded GC-MS, LC-MS, and elemental analyzers. Raw data from these instruments feeds directly into our lot-release process, allowing us to publish detailed impurity maps and residue profiles. The labs in our facility aren’t a formality—they are staffed by analysts who consult directly with scale-up chemists and formulation scientists. If a customer asks about a new residual, or a byproduct shifting from “trace” to “detectable,” we don’t hide behind averages. Actual readings, trend lines, and mitigation steps are provided. Over time, this directness builds a culture of trust extending well beyond standard documentation, and it reassures downstream users at audit time.

    Environmental and Safety Commitments

    Making 1-aminopyrrolidine safely asks for more than chemist know-how. We design our production to close the loop on potentially hazardous intermediates and waste streams at every step. Our scrubbers and neutralization tanks are maintained with as much attention as the main reactor vessels. Nothing leaves the site without confirmed destruction or safe neutralization. This goes beyond internal standards; it responds to what buyers—especially those supplying Europe or North America—expect for traceability and risk reduction. Safety data originates from in-plant loading studies, not a generic MSDS template. Everyone on our floor knows why it matters: one mistake can put a team member at risk, and threaten years of work in building a reliable, consistent product line.

    Differences that Impact the Bottom Line

    Customers often come to us after trying cheaper alternatives and running into problems with solubility, stability, or downstream purification. Many generic 1-aminopyrrolidine lots on the market include higher unreacted starting materials or elevated byproduct content. Our approach minimizes lactam and pyrrolidine residues, especially those hard-to-remove basic byproducts that disrupt crystallization in sensitive intermediates. These impurities matter in real-world synthesis, causing unexpected side reactions and lower yields. In contrast, by starting with higher-purity feeds and operating under tighter process controls, we give our customers an ingredient they can count on—free from surprises that derail a pilot batch or a full production run. Our feedback loop—sample, analyze, refine—comes from daily experience, not theory.

    Customization for Unique Process Demands

    Not all synthesis processes ask for the same grade or package type. Some customers require drum-packed material with inert gas purging; others work best with smaller, sealed HDPE containers to prevent moisture ingress in a humid cleanroom. We run flexible packing lines to help meet these requirements, all while monitoring for cross-contamination risks and enforcing strict cleaning protocols. Special runs of higher-purity 1-aminopyrrolidine, with limits on amide or peroxide content, flow easily into pharma workflows—not something generic warehouses can always offer. This level of responsiveness comes from physically managing production ourselves, testing every shipping unit, and knowing the challenges unique to each application. The result: less downtime, fewer complaints, and a higher success rate in end-product development.

    Feedback-Driven Improvement: Listening to the End User

    End users shape our priorities. Research chemists tell us where a process fails, whether in scale-up or under regulatory review. Batch notes and observations are not hidden away. Instead, they become our development discussions for the next production run. A recent example saw a major customer in specialty polymers struggling with discolored product after scale-up; by adjusting our purification step, we delivered a cleaner, paler grade, eliminating the issue at the source. The open-door policy ensures that product development doesn’t stall for lack of communication. If an impurity trends up, we act quickly. These iterative improvements only come from handling the chemistry ourselves—never losing sight of the connection between end-user reality and molecule design.

    Protecting Supply Chains in a Volatile Market

    As global supply chains shift and tighten, our in-house team tracks not just bulk material stocks but also specialty raw materials unique to 1-aminopyrrolidine synthesis. Surges in demand for COVID-related pharmaceutical building blocks, for instance, raised risks last year. We responded by expanding vertical integration, including direct oversight of pyrrolidine feedstock and supplier audits. This hands-on approach insulated downstream clients from the worst delays and price swings. While this means higher capital investment, it promotes business continuity, supports our own teams, and lets us stand behind firm lead times—not estimates subject to collapse in a crunch.

    From Plant to Shipping: Managing Risks Others Miss

    Compared to distributors and brokers, we see every shipment from the warehouse as the final leg of a long, carefully managed process. Labeling matches internal tracking, supported by both digital and physical documentation to maintain product integrity. Some upstream supply issues—the kind that result in “off” smells or unstable batches—get caught at our outgoing QC, never making it to customer plants. We’ve seen the cost of returns, customer downtime, and delayed launches; that drives us to double-check every drum closure, safeguard against shipment temperature excursions, and document all corrective actions. The care we put into these stages becomes a silent partner in our customers’ process reliability.

    Advancing Regulatory Compliance with Detail and Diligence

    Regulatory compliance isn’t a paperwork exercise for us. Every certificate of analysis draws on validated, calibrated instrumentation. Audits from pharmaceutical and agrochemical partners come through regularly, so our team maintains up-to-date certifications for all core QC methods and record-keeping. Our strength here isn’t just ticking a box for ISO or cGMP compliance—it’s that we can answer technical questions confidently and clearly. Whether a reviewing inspector comes with a new monograph or a regulatory statute shifts, we act fast, capturing changes in our practice and documenting all corrective actions. This readiness keeps projects moving without costly bureaucratic delays.

    Why 1-Aminopyrrolidine Remains a Cornerstone in Advanced Chemistry

    Some products fade in relevance as alternatives appear, yet 1-aminopyrrolidine holds its own due to its chemical versatility and reliability. Its unique balance—a five-membered ring with an unhindered primary amine—drives functional group modifications not easily achieved with more congested or less stable analogues. For anyone seeking to build custom N-linked compounds, or who needs a nucleophile with both reactivity and selectivity, these properties explain the continued demand. As a result, we see our product deployed not just in classic pharmaceutical API synthesis but increasingly in next-generation functional polymers and advanced materials. Formulators report less process noise and smoother pathway integration compared to more generic pyrrolidine or piperidine derivatives, especially for late-stage modifications where batch reactivity consistency is critical.

    Navigating the Future: Investing in Next-Generation Production

    Innovation in chemical manufacturing means more than optimizing yields or reactor throughput. We constantly reevaluate raw material sourcing, energy management, and waste minimization—from adopting more efficient catalyst systems to investing in solvent recovery and reuse. Our R&D team pilots small-lot runs using greener reagents and safer handling practices, learning directly from each iteration. Some improvements save energy or reduce solvent consumption, while others allow us to push down detectable impurities even further—always with customer feedback playing a part in prioritising upgrades. The lessons feed directly back into plant operations, driving sustainable, reliable production at scale.

    Partnering with Process Teams for Long-Term Success

    For us, manufacturing 1-aminopyrrolidine is a craft as much as a business. Each improvement, each tightened parameter, and each direct customer conversation feed directly into tomorrow’s batches. The result isn’t just a higher yielding or cleaner product, but a partnership between plant and process, end user and producer. By handling every step in-house and relying on real-world insight, we continue to expand what this unique compound can offer in the hands of serious chemists and process innovators worldwide.