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N-Boc-Nortropinone

    • Product Name N-Boc-Nortropinone
    • Alias Boc-8-azabicyclo[3.2.1]octan-3-one
    • Einecs 1304657-94-6
    • 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

    569326

    Chemical Name N-Boc-Nortropinone
    Molecular Formula C12H19NO3
    Molecular Weight 225.28
    Cas Number 162537-11-1
    Appearance White to off-white solid
    Melting Point 80-84°C
    Purity Typically ≥98%
    Storage Conditions Store at 2-8°C, protected from light and moisture
    Solubility Soluble in organic solvents such as dichloromethane and methanol
    Smiles CC(C)(C)OC(=O)N1CC2CCC1C(=O)C2
    Inchi InChI=1S/C12H19NO3/c1-12(2,3)16-11(15)13-7-8-4-5-9(13)10(14)6-8/h8-9H,4-7H2,1-3H3
    Synonyms tert-Butyl 8-azabicyclo[3.2.1]octan-3-one-8-carboxylate

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

    Packing & Storage
    Packing N-Boc-Nortropinone is provided in a 5-gram amber glass bottle, tightly sealed with a screw cap, and labeled with safety information.
    Shipping N-Boc-Nortropinone is shipped in tightly sealed, chemical-resistant containers to prevent contamination and degradation. Packages are labeled according to regulatory guidelines and handled by trained personnel. Transport occurs under ambient conditions, avoiding excessive heat and moisture. Shipping complies with all applicable chemical safety and hazardous material regulations for safe delivery.
    Storage N-Boc-Nortropinone should be stored in a tightly sealed container, protected from light and moisture. Keep it in a cool, dry place, ideally at 2–8°C (refrigerator), and away from incompatible substances such as strong acids or bases. Ensure proper labeling, and store in a well-ventilated chemical storage cabinet designated for organic compounds to prevent contamination or degradation.
    Application of N-Boc-Nortropinone

    Applications of N-Boc-Nortropinone in Industrial Manufacturing

    N-Boc-Nortropinone is a key intermediate for advanced chemical synthesis, especially within the pharmaceutical and fine chemicals sectors. As a direct manufacturer, our material meets stringent quality control specifications to ensure reliable integration into high-value production processes. Below, we outline the primary industrial application scenarios where our product demonstrates measurable value, focusing on real-world downstream environments, compliance requirements, formulation protocols, production processes, and the specific classes of end products achieved.

    1. Active Pharmaceutical Ingredient (API) Synthesis for CNS Agents

    Pharmaceutical manufacturers incorporate this compound as a critical intermediate in the synthesis of central nervous system (CNS) drug candidates, particularly in the preparation of tropane alkaloid derivatives. The material undergoes key transformations to yield pharmaceutical actives used in research and commercial medication targeting neurological disorders. As a result, thorough documentation and traceability are essential from upstream procurement through downstream production.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • 21 CFR Part 210 & 211 (US FDA cGMP Regulations)
    • EU GMP, EudraLex Volume 4 Part II
    • USP, EP, JP pharmacopoeial references for related substances

    Typical usage ratio

    • 0.8–1.1 molar equivalents relative to final alkaloid yield, adjusted based on downstream reactivity and impurity profile management in multi-step synthesis

    Downstream process integration

    • Introduced during the protected ketone condensation phase for tropane scaffolds
    • Integrated in anhydrous conditions to minimize Boc group cleavage prior to subsequent amide/amine manipulations
    • Followed by purification, deprotection (acidolysis), and subsequent derivatization steps

    Final product types

    • Labeled and unlabeled cocaine analogues (for research and reference)
    • Anticholinergic CNS drug precursors (e.g., for Parkinson’s medications)
    • Diagnostic imaging radiotracers employing tropane core
    • Emerging psychoactive substance research tools

    2. Fine Chemical Building Block for Chiral Ligand Production

    In the fine chemicals sector, synthetic chemists rely on this intermediate to build chiral ligands that serve as enantioselective catalysts and auxiliaries in organometallic applications. These chiral ligands demand precise stereocontrol, and quality assurance begins with rigorous raw material handling and documentation. Dosage and process control depend on both reaction scalability and downstream purity specifications for catalytic grade products.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Systems
    • REACH Regulation (EC) No 1907/2006 for registration and safe handling of intermediates
    • Responsible Care Global Charter: Handling high purity organics

    Typical usage ratio

    • Stoichiometric or slight excess (1.05–1.2 equivalents) in ligand assembly routes—optimization based on desired enantiopurity and minimization of downstream purification loss

    Downstream process integration

    • Early-stage protected ketone supplied prior to nucleophilic addition or asymmetric reduction
    • Employed in multi-step ligand synthesis, with Boc removal and functionalization timed to minimize racemization
    • Subjected to chromatography and crystallization for high-purity ligand standards

    Final product types

    • Chiral ligands for organometallic catalysis
    • Enantioselective auxiliary reagents
    • Fine chemicals for stereoselective manufacturing

    3. Controlled Substance Reference Material Production

    Analytical laboratories and regulatory compliance manufacturers use N-Boc-nortropinone as a starting scaffold in synthesizing and characterizing reference standards required for controlled substance identification and forensic investigations. Exact formulation and record-keeping are dictated by government and industry restrictions on precursor tracking, and quality protocols mandate traceable, contaminant-free material at each stage.

    Industry compliance standards

    • ISO/IEC 17025 Laboratory Accreditation Requirements
    • DEA List I & Precursor Chemical Regulations (US); EU Regulation (EC) No 273/2004 on drug precursors
    • Good Laboratory Practice (GLP) OECD Guidelines

    Typical usage ratio

    • Batch-specific: calculated for exact conversion to target reference substance, typically 1.0 equivalent to minimize residual precursor content and ensure authentic reference profiles

    Downstream process integration

    • Integrated as a single-use intermediate for the preparation of certified reference materials (CRMs)
    • Subject to rigorous identity and purity confirmation (NMR, GC-MS, HPLC) following each chemical transformation
    • Processed in secure, GMP-compliant reference material synthesis suites

    Final product types

    • Certified Reference Standards for legal and forensic laboratories
    • Calibration standards for mass spectrometry and chromatographic systems
    • Regulatory compliance reference kits for controlled substance detection

    4. Pharmaceutical Discovery Analytical Probes Supply

    Contract research organizations (CROs) and life science platforms incorporate this raw material in the preparation of analytical probe molecules designed for biological target validation and pharmacological screening campaigns. Production protocols prioritize ultra-high purity and consistent impurity profiles to avoid false positives and enable detailed pharmacokinetic analysis. Usage ratios and introduction points depend on the specific synthetic routes for target probe design.

    Industry compliance standards

    • OECD Principles of Good Laboratory Practices (GLP)
    • ISO 13485 for medical device-related chemical standard production
    • National Institute for Standards and Technology (NIST) reference guidelines

    Typical usage ratio

    • 0.9–1.2 molar equivalents based on probe molecule design complexity and required yield optimization, adjusted as needed for isotopic labeling or derivatization efficiency

    Downstream process integration

    • Supplied during early probe scaffold construction, prior to bioconjugation or fluorescent labeling
    • Batch-tested for trace impurities to support clean downstream analytical data
    • Processed under inert atmosphere to preserve scaffold selectivity

    Final product types

    • Biological target engagement probes
    • Fluorescently labeled analytical tools
    • Specialty tool compounds for pharmacological assays
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    Certification & Compliance
    More Introduction

    N-Boc-Nortropinone: Building Value Through Experience in Specialized Chemical Manufacturing

    Understanding N-Boc-Nortropinone from a Manufacturer’s Perspective

    As a company that has spent years developing and producing fine chemicals, we’ve seen firsthand how critical molecules like N-Boc-Nortropinone shape the future of research and synthesis. We don’t handle this compound out of academic curiosity. We produce it because chemists and pharmaceutical developers rely on it to unlock advanced transformations in their pipelines. There are hundreds of specialty intermediates in the world, but from where we stand, few manage to combine versatility, reactivity, and safety profile the way N-Boc-Nortropinone does.

    Production Expertise and Commitment to Purity

    N-Boc-Nortropinone production requires careful attention to process discipline, not only at the purification stage but throughout synthesis. Consistency in structure—specifically in achieving a pure, single isomer without degradation—determines how well the molecule fits demanding applications in the lab and on the plant floor. No analyst, no technical sales team, will fully appreciate what this means until they stand alongside our operators tracking each batch through reaction, work-up, and isolation.

    Every specification sheet or certificate tells only part of the story. While we publish NMR, HPLC, melting range, and other details, it’s the unseen steps—those we’ve refined over time—that keep our output uniform and contamination-free. Undetected formyl impurities or incomplete Boc-protection don’t just affect the product’s shelf life. They can throw off reaction profiles in crucial synthetic routes, as any medicinal chemistry group optimizing new drug candidates quickly realizes.

    Structural Features that Set N-Boc-Nortropinone Apart

    N-Boc-Nortropinone, structurally, represents a bicyclic ketone backbone protected with a tert-butoxycarbonyl (Boc) group at the nitrogen. The Boc protection is more than a convenience; it shields the nitrogen center from unwanted reactivity without blocking access to transformation at strategic positions on the ring system. This makes the compound a reliable cornerstone for those aiming to build complex alkaloid analogues or modify core skeletons in targeted syntheses.

    Many research groups, particularly those focusing on the tropane or nortropane family of compounds, value this structure for its balance—stabilized yet highly functionalizable. The Boc group handles acidic and some neutral conditions, letting chemists introduce further modifications without constant fear of deprotection or rearrangement. Compared to unprotected nortropinones or other N-protected analogues, the Boc variant holds up well in multi-step workups, often helping to streamline synthesis paths and reduce repetitive protection/deprotection cycles.

    Beyond a Building Block: Enabling Advanced Synthesis

    Plenty of starting materials exist for nitrogen-bridge bicyclic scaffolds. Still, not many are as receptive to downstream chemistry as N-Boc-Nortropinone. Those working on developing CNS-active agents, anticholinergics, or new chiral auxiliaries come back to this compound time and again because they see clean conversions, reliable yields, and simpler analytical profiles. For many, this means less troubleshooting, fewer side products, and cleaner scale-up—advantages that only become obvious as they transition from milligram to multi-gram and, eventually, pilot scale.

    From our process development team’s viewpoint, optimizing the balance between reaction efficiency and downstream purification matters. Each kilo coming off our line is the result of iterative adjustments—solvent selection, temperature profile, and batch-to-batch reproducibility checks. We’ve seen customers switch from alternative N-protecting groups or less stable ketone variants after difficulties in scale-up or crystallization issues. This is not just theory; it’s the reality of process chemistry, where every hour lost on purification erodes value.

    Key Applications: Research, Discovery, and Industrial Use

    N-Boc-Nortropinone is not a household name, yet for medicinal chemists developing new small molecules, it serves as a reliable chassis. The compound’s layout lends itself to building analogues of natural and synthetic alkaloids with fine-tuned bioactivity. Because the tropinone core sits at the intersection of many medicinal programs—targeting everything from neurotransmitter receptors to enzyme inhibition—having a protected, pure intermediate like this creates options for rapid iteration.

    Our experience with academic collaborations and pharma customers tells us that each group adapts N-Boc-Nortropinone to their unique route. Some deprotect and alkylate, searching for new leads in the tropane family; others exploit the rigidity of the bicyclic core for asymmetric transformations. In industrial settings, those advancing proprietary synthetic plans often prefer this protected ketone over the free base to avoid logistical headaches with shipping, storage, and stability.

    Handling, Safety, Logistics, and Sustainability

    Every chemical carries its own logistics and safety burdens, something manufacturers take seriously each production cycle. N-Boc-Nortropinone requires dry, cool storage away from strong acids and bases that may cleave the Boc group. More critically for us, packaging integrity means using vessels that limit atmospheric moisture and prevent cross-contamination, especially with other nitrogenous compounds that might interfere with downstream applications for our customers.

    Responsible manufacturing means more than minimizing batch rejections and meeting shelf-life guarantees. From our vantage point, maintaining robust quality control at every stage, deploying environmentally conscious waste disposal methods, and keeping the occupational safety of our operators central to operations builds trust—not just with regulators, but with our partners who rely on predictable performance lot after lot.

    Efforts to move toward greener solvents, energy-efficient purification steps, and reduced hazardous waste have accelerated in the past few years. Customers increasingly want to trace their materials’ lifecycle to ensure compliance and minimize environmental risk. As producers, we take pride in responding to these demands without inflating lead-times or sacrificing batch consistency.

    Comparisons to Other N-Protected Tropinone Derivatives

    Placing N-Boc-Nortropinone against other protected forms—say, N-methyl, N-benzyl, or even sulfonamide-protected variants—reveals some clear differences. Boc protection offers a stable platform under neutral to mildly basic or acidic conditions; it comes off cleanly with strong acid, such as TFA or HCl. This flexibility grants researchers more choices in their reaction design compared to, for example, sulfonamide groups, which often demand harsher or less selective conditions for deprotection.

    From our production standpoint, the Boc group also bestows advantages in handling and storage. Free base nortropinones and certain other N-protected forms can succumb to slow decomposition or even develop color over time. The Boc-protected intermediate holds its color and analytical purity for extended periods—provided care in packaging and atmosphere control occurs at every shipping node. We see less batch-to-batch deviation in melting range and spectral conformity compared to N-benzylated analogues, which can introduce minor aromatic impurities or require more elaborate purification.

    Manufacturing experience has shown us that research chemists prefer predictable deprotection, low toxicity, and manageable side-steam chemistry. In this respect, Boc stands out for its universality and clean removal profiles, directly reflected in cleaner final products and fewer surprises during scale-up. Customers running longer syntheses or developing chiral intermediates count on this reliability.

    Scale, Sourcing, and Delivery: Practical Challenges

    Procurement is only one piece; consistent, reliable delivery and scale-up ability matter just as much. Producers, not intermediaries, handle the raw material vetting, process controls, and supply chain checks that underpin batch consistency. Each kilo leaves our facility with a documented lineage, tying back to verified sources and in-house analytical documentation. Chemists interested in reordering expect the same chromatographic and spectroscopic fingerprint each time; for them, recipe tweaks—however minor—translate to hours or days lost in troubleshooting.

    Bulk demand for N-Boc-Nortropinone continues to shift, driven by both the ebb and flow of research priorities and by real advances in downstream drug development. Our batch sizes have grown with our customers’ needs; early on, we produced mostly on a gram-to-hundred-gram scale for academic projects. Over time, we’ve invested in reactors and downstream capability for kilo-scale batches, with energy recovery and waste stream management embedded in the process design. Every transition—lab, pilot, or production—brings new lessons. Not every alternative supplier appreciates how scale alone can unearth process bottlenecks, affecting yield and long-term reproducibility.

    Over the years, we’ve learned the importance of rapid, direct communication between our technical teams and researchers at client sites. When projects shift unexpectedly or new routes are published, response time matters. The flexibility to adjust lot sizes, packaging, or even the purity profile helps keep those projects moving forward. The most valuable feedback we receive relates not to exotic applications, but to the reliability of our supply—being able to count on the same molecular structure, spectral signature, and impurity profile every order.

    Quality Control—Beyond Certificates and Data Sheets

    From a manufacturing standpoint, quality lives or dies by how well upstream and downstream processes communicate. Real batch quality starts with source materials—Boc anhydride and the starting bicyclic amine. Our technical teams vet every drum for trace impurities, residual solvents, and even minor differences in particle sizing, all factors that, over extended synthesis runs, influence isolation, drying, and final packaging.

    The transition from lab-scale to production brings complexities that analysts and end-users rarely see. Operating at gram scale may tolerate a degree of solvent variance or analytical drift that becomes unacceptable at the kilo level. With N-Boc-Nortropinone, controlling pH, temperature, and atmosphere at each step proved essential for scaling our output. One season of elevated humidity taught us volumes about deprotection side reactions and packing stability—lessons that still shape our process improvements.

    Lot-specific certificates document purity, melting range, and spectral profiles, but quality is more than numbers. Only through repeated, rigorous reviews of cycle times, losses, and rework rates do we hold standards high enough to supply demanding medicinal chemistry groups. In years past, we responded to customer concerns about trace ethereal or halogen impurities by investing in additional analytical equipment and batch segregation. For us, the true test of quality remains consistent repeatability—not the occasional high-purity batch, but delivering, every time, the same tight compositional range.

    Supporting Researchers with Application Know-How

    Many of those who use our N-Boc-Nortropinone reach out mid-project with technical questions—sometimes relating to side products, others about downstream transformation conditions. As manufacturers who’ve processed thousands of batches, we see these conversations as vital knowledge exchanges. Our experience with troubleshooting in-process material, refining recrystallization yields, and diagnosing spectral anomalies informs our ongoing process refinement as much as it aids users pushing boundaries in their labs.

    For those designing alkaloid analogues or iterating through medicinal libraries, the Boc-protected nortropinone scaffold opens doors to rapid SAR investigations. Fast, clean deprotection cycles help researchers focus on novel structure generation rather than wrestling with purification issues. Our technical support team fields questions that only arise with bulk or scaled routes—solvent compatibility, selective extractions, or even simple matters of bulk density for automated dosing. Having this data at our fingertips, built up over years of production and direct customer feedback, enriches our ongoing product development.

    The Value of Direct Manufacturer Relationships

    From the vantage point of a producer, the value of buying direct extends far beyond price. We don’t simply ship from a warehouse; each lot carries not just a batch number, but the confidence that the material you receive aligns with the molecule you design into your synthesis. Questions of chromatography, melting range irregularities, or crystal habit can often be answered only by those who made the batch—not by those further down the distribution chain.

    Over the years, direct communication with medicinal chemists, process developers, and scale-up engineers has yielded mutual understanding and substantial process improvements. Such contact allows us to tweak particle size, offer custom packaging, or refine drying processes to match end-user requirements. We’ve adopted customer-driven refinements—anti-static packaging for fine powder handling or vacuum-sealed containers for low-moisture storage—because clear lines of communication exist.

    Our work with N-Boc-Nortropinone, from raw material selection to finished lot delivery, weaves together feedback, experience, and a commitment to reproducibility. Each innovation, whether in logistics, storage, or synthesis, draws on both customer expertise and decades of hands-on batch processing.

    Continuous Improvement and Future Prospects

    Our commitment to ongoing process improvement goes hand-in-hand with our customers’ search for more reliable, efficient synthetic pathways. N-Boc-Nortropinone stands as an example of a product developed mainly with constant dialogue—between manufacturing, technical support, and those advancing drug discovery. We’re continually re-evaluating how our processes, environmental controls, and analytical standards can further improve reliability and reduce environmental footprint.

    As new research routes emerge—from late-stage functionalization to enantioselective synthesis—we continue learning alongside those pushing chemical boundaries. Our willingness to iterate, troubleshoot, and innovate ensures that this key intermediate meets ever-evolving demands for purity, scalability, and adaptability. Every batch, every customer project, teaches us something new, strengthening the foundations not only of our own manufacturing operation but of the wider research community that relies on high-quality, dependable chemicals.

    Conclusion

    From process design to final delivery, N-Boc-Nortropinone reflects the lived experience of a specialized chemical producer. Every step, from synthesis optimization to customer support, carries the lessons of thousands of kilos of output and direct engagement with the researchers who use our products. This experience translates into tangible advantages for anyone seeking robust, versatile, and scalable solutions in fine chemicals.