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(1R,2R)-(-)-2-Benzyloxycyclohexylamine

    • Product Name (1R,2R)-(-)-2-Benzyloxycyclohexylamine
    • Alias (1R,2R)-(-)-Oxycyclamine
    • Einecs 673-925-5
    • 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
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    Specifications

    HS Code

    565736

    Iupac Name (1R,2R)-2-Benzyloxycyclohexan-1-amine
    Cas Number 119246-22-1
    Molecular Formula C13H19NO
    Molecular Weight 205.30
    Appearance Colorless to pale yellow oil
    Purity Typically >98%
    Boiling Point Unknown, decomposes
    Density Approx. 1.06 g/cm³
    Optical Rotation [α]D20 -38° (c=1, CHCl3)
    Solubility Soluble in organic solvents (e.g., dichloromethane, ethanol)
    Chirality Chiral compound, (1R,2R) configuration
    Smiles N[C@@H]1CCCC[C@H]1OCC2=CC=CC=C2
    Inchi InChI=1S/C13H19NO/c14-12-8-4-3-7-11(12)15-10-13-6-2-1-5-9-13/h1-2,5-6,9,11-12H,3-4,7-8,10,14H2/t11-,12-/m1/s1
    Storage Conditions Store at 2-8°C, keep tightly closed

    As an accredited (1R,2R)-(-)-2-Benzyloxycyclohexylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing White plastic bottle labeled "(1R,2R)-(-)-2-Benzyloxycyclohexylamine, 5g", includes hazard symbols, CAS number, lot number, and supplier logo.
    Shipping (1R,2R)-(-)-2-Benzyloxycyclohexylamine is shipped in specialized, leak-proof containers to ensure safety and chemical stability. The packaging complies with international transport regulations and includes clear hazard labeling. All shipments are accompanied by appropriate documentation, including a Safety Data Sheet (SDS), and are handled by certified chemical carriers.
    Storage (1R,2R)-(-)-2-Benzyloxycyclohexylamine should be stored in a tightly sealed container, protected from light and moisture. Keep it in a cool, dry, and well-ventilated area, ideally at 2–8°C (refrigerated). Avoid exposure to incompatible substances such as strong oxidizing agents. Label the container clearly and handle under appropriate conditions to prevent contamination and degradation.
    Application of (1R,2R)-(-)-2-Benzyloxycyclohexylamine

    Applications of (1R,2R)-(-)-2-Benzyloxycyclohexylamine in Industrial Manufacturing

    As a specialized manufacturer of (1R,2R)-(-)-2-Benzyloxycyclohexylamine, we supply this advanced chiral amine to companies engaging in complex fine chemical synthesis. Below, we outline real downstream industrial applications, each illustrating practical formulation, quality assurance benchmarks, precise incorporation stages, and the resulting finished goods derived from large-scale or specialty production.

    1. Chiral Intermediate for Pharmaceutical Active Ingredient Synthesis

    Many pharmaceutical firms employ this chiral amine as a building block for synthesizing optically pure active pharmaceutical ingredients (APIs) in CNS drug development pipelines. It ensures precise stereochemistry control in key amination and reductive amination stages during multi-step API synthesis, where enantiomeric purity impacts finished drug safety and efficacy. Our product undergoes rigorous chiral HPLC validation and metal residue testing to support high-purity requirements demanded by international pharma customers.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice (GMP) for Active Pharmaceutical Ingredients
    • US FDA 21 CFR Part 210/211
    • European Pharmacopoeia (EP) 11.0 monograph requirements for intermediate quality
    • USP Residual Solvent and Chiral Purity Specifications

    Typical usage ratio

    • 0.15–0.7 molar equivalents versus target substrate in stepwise chiral amination reactions. Actual range depends on the desired yield and the complexity of the API synthetic route as predetermined by process R&D.

    Downstream process integration

    • Introduced during initial or penultimate amination steps; typically after protection/deprotection sequence control. Reactors operate between -10°C to +40°C, under strictly monitored inert atmosphere, before passing on for crystallization and purification.

    Final product types

    • Chiral API intermediates (e.g., for antipsychotic or antidepressant drugs)
    • Advanced pharmaceutical intermediates used in CNS or analgesic compounds
    • High-purity research compounds for clinical candidate evaluation
    • Regulatory-submitted API lots

    2. Fine Chemical Synthesis for Agrochemical Actives

    Major agrochemical manufacturers utilize this chiral amine for constructing advanced intermediates critical in the synthesis of certain pyridine-based or phenyl-ether-type actives. The stereochemical specificity supports increased biological selectivity and performance in final crop protection products. Agrochem plants integrate this amine using continuous-flow or batchwise approaches, rigorously validating each batch for isomeric consistency to deliver reliable field outcomes.

    Industry compliance standards

    • ISO 9001:2015 Quality Management for specialty chemical synthesis
    • FAO/WHO specifications for active ingredient precursors
    • OECD GLP regulations for process analytics and documentation
    • REACH (EC 1907/2006) registration for agrochemical supply

    Typical usage ratio

    • 1–3% by weight based on the total intermediate formulation, usually optimized via process chemist trials to balance yield with downstream purification requirements.

    Downstream process integration

    • Added at the nucleophilic substitution or acylation stage, preceding cyclization or alkylation steps for final ring formation. Plants maintain automated feeding and close temperature control from 5°C to 65°C to minimize racemization.

    Final product types

    • Precursor compounds for insecticide active ingredient synthesis
    • Chiral pyridine intermediates for fungicide formulations
    • Key building blocks used in selective herbicide manufacturing
    • Bulk intermediate stocks for contracted custom synthesis

    3. Optical Isomer Sourcing in Custom API Development

    Contract development and manufacturing organizations (CDMOs) source this chiral amine to meet global biotech and specialty pharma demands for exclusive API development projects. Here, the optically active amine provides a scaffolding for customized molecular frameworks, where supply chain traceability and batch reproducibility remain critical. CDMOs emphasize full documentation and sample retention for de-risked regulatory filing, and validate each lot using in-house and third-party analytics.

    Industry compliance standards

    • US FDA DMF (Drug Master File) requirements Section 11/12
    • European Medicines Agency (EMA) cGMP (EudraLex Volume 4) for investigational intermediates
    • ICH Q11 Development and Manufacture of Drug Substances
    • ISO 17025:2017 for accredited analytical testing

    Typical usage ratio

    • 0.2–0.8 equivalents depending on custom route design; ratio adjusted per pilot-scale design and target impurity thresholds documented in tech transfer files.

    Downstream process integration

    • Incorporated at the second or third molecular scaffold construction step after ring-closing or functional group introduction; typically handled under high-purity and low-moisture conditions in closed-system reactors, feeding directly into post-reaction separation and drying.

    Final product types

    • Clinical trial API lots for multinational pharma
    • Pre-commercial intermediate libraries for medicinal chemistry SAR (Structure-Activity Relationship) studies
    • Final step chiral building blocks for orphan drug development
    • Protected amine derivatives for research and scale-up supply

    4. Building Block for Advanced Polymer Materials (Specialty Polyamides and Functionalized Polymers)

    Polymerization experts in technical materials manufacturing use (1R,2R)-(-)-2-Benzyloxycyclohexylamine as a functionalized monomer during the production of specialty polyamides and custom polyurethanes. Its unique stereochemistry enhances polymer performance characteristics, such as enantioselective response or molecular recognition properties crucial for engineered membranes, enantioselective catalysts, or high-strength specialty films. Process managers focus on maintaining monomer quality throughout continuous or semi-batch addition to meet downstream film extrusion and molding requirements.

    Industry compliance standards

    • ISO 9001:2015 and ISO 14001:2015 for chemical material management and environmental assurance
    • EU Directive 2011/65/EU RoHS for restricted substances in advanced materials
    • REACH Annex XVII for polymer-related precursor chemicals
    • ISO 14607 for polymer medical device raw materials (applicable to medical film applications)

    Typical usage ratio

    • 0.3–2 mole% relative to total monomer feed in copolymerization; optimization depends on performance testing of the final polymer’s mechanical and optical properties in lab and pilot runs.

    Downstream process integration

    • Introduced during primary monomer feed into polycondensation or polyaddition reactors, under nitrogen atmosphere, prior to molecular weight build-up phase; precise control of residence time and batch homogeneity is essential before final extrusion, casting, or pelletization.

    Final product types

    • High-performance specialty polyamides
    • Chiral polymer films for membrane separation
    • Enantioselective catalyst support polymers
    • Functionalized polyurethane intermediates for electronics or precision coatings
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    Certification & Compliance
    More Introduction

    (1R,2R)-(-)-2-Benzyloxycyclohexylamine: Our Approach to Craftsmanship

    Anyone in the business of making pharmaceuticals or specialty building blocks recognizes the challenge a single chiral center can present. Our experience manufacturing (1R,2R)-(-)-2-Benzyloxycyclohexylamine has given us a front-row seat to how precise stereochemistry changes everything—sometimes making the difference between a compound with remarkable activity or none at all. We design our processes around the tight tolerances the market expects, and every batch brings its own lessons.

    The (1R,2R)-(-)-2-Benzyloxycyclohexylamine we supply stands out for its high optical purity. Years of process optimization, from the racemic base chemistry to the later-stage asymmetric synthesis, let us deliver on batch-to-batch consistency. Chiral amines like this one often serve as cornerstones in preparing APIs, neurotransmitter analogs, and building blocks for ligands or catalysts. Researchers choose this molecule when they want precise downstream selectivity that unreliable chiral mixtures can’t guarantee.

    Over time we’ve learned the market—especially those working on CNS-active agents—prefers the (1R,2R)-(-) isomer for structure-activity studies, particularly because of its role as an intermediate. Even within our own factory, our teams discuss the subtle behavioral differences between the (1R,2R)-(-) material and the (1S,2S)-(+)-enantiomer. We hear from R&D labs that swapping these mirror-image versions can bring about measurable shifts in pharmacological profiles. That’s why rigorous enantiopurity has become somewhat non-negotiable for this product line in our facility.

    Model and Specifications Built on Experience

    In our hands, (1R,2R)-(-)-2-Benzyloxycyclohexylamine has developed into more than just a reagent. The model we offer emerged from collaboration between our synthetic team and analytical chemists who recognized early on that impurities—even in trace amounts—could undermine entire projects downstream. We analyze for enantiomeric excess by chiral HPLC before signing off on a batch, and routine NMR checks have caught more than one hiccup before packing. Through regular feedback loops with external users and our own internal development programs, the product’s profile has evolved: we prioritized reduced solvent residues, tight control of residual benzyl ethers, and robust documentation packages that make qualification for regulated environments more straightforward.

    Supplied as a crystalline solid, every lot ships in tightly sealed amber glass, with detailed certificates of analysis and long-term stability data drawn from time-zero, three-month, and twelve-month checkpoints. We established this protocol after a shipment crossed continents and arrived with micro-degradation, forcing us to rethink not just synthesis but packaging and logistics from the ground up. Now, it isn’t uncommon for our clients to leverage our compound as a reference standard or as part of custom synthesis projects where small variations carry big consequences.

    Why Labeled Chiral Amines Matter

    Every seasoned chemist knows what a difference a precise isomer makes for ligand design, catalytic development, and pharmacophore mapping. Our (1R,2R)-(-)-2-Benzyloxycyclohexylamine finds frequent use as a chiral auxiliary or scaffold. Small guides like the benzyl protecting group remain in place while the cyclohexylamine backbone takes on functional groups, often in the pursuit of synthesizing enantiopure drugs or discovering novel molecular targets. Our own experience running small molecule libraries has taught us that even minor contamination makes downstream data noisy and—at scale—costly. Thus, our quality workflows provide real value where selectivity and reproducibility matter.

    We’re often in a dialog with analytical teams who want not only high-purity amines but traceability and batch history. Our documentation reflects an ongoing effort to address user questions as they arise: from the specific lot route history to impurity profiles, water content, and even the behavioral consistency in solid-state and solution.

    Comparing to Other Products: Direct and Meaningful Differences

    Over the years, we’ve benchmarked our product against competitive offerings. There are plenty of cyclohexylamine derivatives on the market, but few offer well-characterized isomeric purity. Many products available elsewhere start from racemic synthesis followed by inefficient resolution—their chiral content hovers well below the levels our end-users require. This is where our route, relying on highly selective hydrogenation and proprietary crystallization steps, produces consistently superior stereochemistry. We frequently run application tests comparing side-by-side performance in alkaloid syntheses and asymmetric hydrogenations, confirming that the starting material purity impacts yield, selectivity, and waste generation later in the pipeline.

    Where generic cyclohexylamines can introduce ambiguity in chiral pool synthesis, our compound simplifies downstream planning. By bringing a tightly specified starting point to medicinal, agrochemical, or flavor development teams, we enable researchers to trust their experimental controls instead of second-guessing background noise from isomer imbalance. Those working on chiral switches in lead compounds or testing enantiomer-specific pharmacokinetics depend on that certainty. In practice, our customers have reported a reduction in project cycle times once they shifted to our material—an effect that’s tough to measure but impossible to ignore in retrospective reviews of project success rates.

    Daily Practice and Real-World Learning

    Plenty of the lessons we've learned have come at the bench instead of in a classroom. We saw first-hand how air-sensitive impurities could creep in during extractions, so we started running parallel deprotection screens and adapted to nitrogen-purged vessels for critical points in the synthesis. By keeping close tabs on reaction times and temperature controls, we reduced by-product formation sharply and saw cleaner profiles on chromatograms.

    Routine engagement with our process development partners taught us that minimizing work-up steps not only saves time but protects the molecule’s integrity. One memorable batch several years ago fell short of the required chiral purity—analysis pointed to subtle solvent carryover. That event led us to re-examine our evaporation techniques and invest in higher-efficiency distillation hardware, keeping a closer eye on vacuum levels and solvent bores. Now, we log every run and minor process change, providing transparency for our team and reassurance for users who audit us.

    Because of the molecule’s value as a building block, we’re constantly pulled into iterative development efforts with academic teams. Joint pilot runs, where we fine-tune scale and monitor for consistency, have brought improvements in recovery rates and a better understanding of where losses creep in. Sometimes the best ideas come from an offhand comment about product handling or a small procedural adjustment on the factory floor.

    Stability, Handling, and Practical Use

    The benzyloxy-protecting group brings durability—not just in the bottle but through several synthetic manipulations. It tolerates conditions that could otherwise trigger decomposition or unwanted rearrangements. Early adopters in our partnerships pointed out that other amine derivatives struggled to survive both reductive aminations and oxidative deprotections in series; this compound holds tight across those classic hurdles. Handlers appreciate that our crystalline form is easy to weigh, one more factor that streamlines set-up when working through complex multi-step processes on a deadline.

    We encourage regular feedback from partners who’ve built out kilo-scale processes as well as those who run only a few grams for specialty screens. Process safety considerations remain a living conversation: from shelf-life studies to best practices in storage and transfer, we log incidents and near-misses, feeding back improvements rapidly. Our adoption of wide-mouth amber bottles came directly from a client’s struggle with static build-up and accidental spillage during winter months—details that would never appear in a traditional datasheet but make a practical difference in daily operations.

    Meeting Research and Production Needs

    No two projects come at this intermediate from the same angle, but certain requirements repeat across industries. Teams working on novel psychoactives consistently flag the need for tight impurity profiles, especially where regulatory filings hinge on detailed characterization. Those scaling up synthesis for pilot production demand supply continuity and reliable delivery timelines. We maintain buffer stock in anticipation of rapid drawdowns and offer documentation packages that ease regulatory review—one more example of adjusting our service to the nature of our customers' goals.

    Emerging applications for chiral amines extend beyond traditional pharma. Our clients have combined (1R,2R)-(-)-2-Benzyloxycyclohexylamine with organometallic catalysts in asymmetric reactions, validating the compound’s value in high-throughput screening. In synthetic biology and flavor research, the precise stereochemistry remains vital, and even small improvements in chiral amine sourcing roll forward into new product launches. Many of the innovations we’ve seen come out of trusted relationships with scientists willing to share their challenges and process failures—we adapt as these needs surface.

    Continuous Improvement and Market Context

    Every end-user expects continuous access to high-purity materials at market-responsive prices, even as costs in raw materials and utilities fluctuate. Our ongoing investments in process scale-up allow us to flatten those spikes, ensuring stability for researchers planning multi-month or multi-year experiments. The supply chain turbulence over the past few years highlighted the importance of domestic resilience and local QC. We built dual-site validation for critical steps so that unexpected disruptions don’t halt delivery—something our partners notice most when global logistics slow down unexpectedly.

    We don’t treat compliance as a paper exercise. Regulatory scrutiny of chiral amine intermediates has only intensified. We maintain traceable batch records, validated cleaning regimens, and careful waste handling. By collaborating with industry and academic networks, we stay up-to-date with the latest analytical techniques—most recently refining our test panels to check for genotoxic by-products flagged in changing international standards.

    What Sets (1R,2R)-(-)-2-Benzyloxycyclohexylamine Apart

    The market contains other benzyloxycyclohexylamine options, but our in-house route delivers recognized value through tight, reproducible chiral ratios and clean impurity profiles. This compound’s particular configuration unlocks downstream flexibility for target teams, letting them focus on discovery and optimization work rather than compensating for unreliable starting materials. Many of our longstanding customers point to the technical documentation and post-delivery support as irreplaceable—it’s not just about selling a bottle but building reliability from synthesis to project completion.

    Unlike intermediates that land on benches with vague histories, every package of (1R,2R)-(-)-2-Benzyloxycyclohexylamine tells a complete story: tracked source raw materials, in-process controls, and a team invested in your next breakthrough. We support method transfers by making our chemists and QA specialists available for direct conversation, and we evolve our offering based on real-world feedback, rather than relying solely on static product protocols.

    Listening and Adapting to Market Needs

    Demand shifts rapidly in specialty chemicals, especially as new therapeutic modalities emerge or research pivots based on newly published studies. We dedicate time to listening—whether that’s through site visits, conference exchanges, or conversations with project leads facing deadline pressures. Open channels encourage honest feedback, which we integrate into product refinement and logistics planning. This practice surfaced opportunities to supply customized pack sizes, pre-dispensed aliquots, or even chilled shipping for sensitive downstream transformations.

    True value in chiral amines, including (1R,2R)-(-)-2-Benzyloxycyclohexylamine, comes from the sum of small, deliberate improvements that add up to a predictable, high-performing product in the lab. We never consider our process finished. Instead, each user experience provides the data to reassess, upgrade, and clarify, making the next lot better than the last. Whether you’re moving into scale-up or validating a synthetic hypothesis, we know the cost of unreliable input can outweigh any up-front savings; that philosophy guides every batch we deliver.

    Our ongoing commitment brings us into new collaborations every year. Joint publications, scale-up experiments, and even the sharing of negative results let us deepen our context for this molecule’s utility. Customer teams, whether start-ups or global development divisions, often share their insights back and forth with us, and together we solve issues that a lone researcher might miss. This cycle of improvement benefits everyone working to create value from the detail, precision, and reliability found in every shipment of (1R,2R)-(-)-2-Benzyloxycyclohexylamine.