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D-Cyclohexylalaninol

    • Product Name D-Cyclohexylalaninol
    • Alias (1R,2S)-2-Aminocyclohexyl-1-methanol
    • Einecs 252-947-6
    • 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

    519095

    Name D-Cyclohexylalaninol
    Cas Number 14484-15-0
    Molecular Formula C13H21NO
    Molecular Weight 207.31
    Appearance White to off-white solid
    Melting Point 92-96°C
    Purity Typically ≥98%
    Optical Rotation [α]20/D +23° (c=1 in methanol)
    Solubility Soluble in methanol, ethanol, and DMSO
    Storage Temperature 2-8°C
    Synonyms D-2-Amino-3-cyclohexyl-1-propanol

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

    Packing & Storage
    Packing The packaging contains 25 grams of D-Cyclohexylalaninol, sealed in an amber glass bottle with a tamper-evident cap and clear labeling.
    Shipping D-Cyclohexylalaninol is shipped in tightly sealed containers designed to prevent moisture and contamination. It is transported under ambient conditions unless otherwise specified, with clear hazard labeling according to safety standards. Shipping documents include safety data sheets (SDS) and comply with all relevant regulations for handling and transit of laboratory chemicals.
    Storage D-Cyclohexylalaninol should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight and moisture. Keep it away from incompatible substances such as strong oxidizing agents. Store at room temperature, and avoid exposure to excessive heat. Ensure proper labeling and secure storage to prevent unauthorized access or accidental release.
    Application of D-Cyclohexylalaninol

    Applications of D-Cyclohexylalaninol in Industrial Manufacturing

    D-Cyclohexylalaninol serves as a specialized chiral building block for chemical synthesis in industrial settings. Our manufacturing customers utilize this intermediate across several advanced sectors where precise molecular configuration is essential. Below are focused applications across pharmaceuticals, agrochemicals, chiral ligand production, and peptide synthesis, each detailed with process-specific industry standards and operational parameters.

    1. Pharmaceutical Intermediate for Chiral Drug Synthesis

    Pharmaceutical producers demand D-Cyclohexylalaninol as a key chiral precursor in the asymmetric synthesis of certain antihypertensive agents and central nervous system (CNS) active drug candidates. Manufacturers require consistent enantiomeric purity to ensure clear lineage from raw material through to the active pharmaceutical ingredient (API). In this application, plant chemists incorporate the material during the early-stage conversion of protected amino alcohol motifs, adhering to strict batch and analytical controls. The compound integrates well into multi-step synthetic routes, commonly involving protection, activation, and various coupling methodologies.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice (GMP) for Active Pharmaceutical Ingredients
    • USP <1059> Excipient Characterization
    • European Pharmacopoeia monographs for chiral intermediates
    • FDA 21 CFR Part 211 Current Good Manufacturing Practice for Finished Pharmaceuticals

    Typical usage ratio

    • 5–20 mol% per total molar feed in the relevant synthetic step, adjusted according to reaction yield and stereoselectivity requirements

    Downstream process integration

    • Feedstock for first or second-stage chiral amine introduction, generally preceding API core structure assembly

    Final product types

    • Enantiomerically pure APIs (e.g., antihypertensive agents, CNS actives)
    • Chiral side-chain functionalized APIs
    • Pharmaceutical intermediates for later-stage derivatization
    • Bulk intermediates for contract manufacturing transfer

    2. Chiral Auxiliary in Asymmetric Catalysis

    Catalyst manufacturers incorporate D-Cyclohexylalaninol into the synthesis of chiral ligands and auxiliaries, particularly when preparing transition metal complexes for enantioselective hydrogenation and addition reactions. Its steric demands and amine-alcohol moiety suit the construction of oxazoline-type ligands, as well as imidazoline and Schiff-base structures, where precise chiral environment controls catalyst selectivity. Technical teams closely monitor the purity and geometric configuration at each step, integrating this raw material during key ligand forming reactions to guarantee catalyst reproducibility and target enantiomeric excess.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Systems
    • REACH Regulation (EC) No 1907/2006 for chemical handling
    • European Chemicals Agency (ECHA) notification for catalyst components
    • Internal process qualification per customer validation protocols

    Typical usage ratio

    • 1:1 molar ratio with the ligand backbone precursor; adjustments based on desired ligand geometry and catalyst loading

    Downstream process integration

    • Introduced at the initial stage of ligand construction, followed by metal complexation and purification

    Final product types

    • Chiral bis(oxazoline) ligands
    • Imidazoline-type auxiliaries
    • Transition metal catalysts for fine chemical synthesis
    • Custom chiral catalytic systems for contract R&D

    3. Agrochemical Intermediate for Selective Herbicides

    Industrial formulators in the crop protection sector use D-Cyclohexylalaninol as a stereochemically defined intermediate during the synthesis of certain selective herbicide actives. Its chiral backbone contributes to molecule specificity and environmental fate, essential for regulatory acceptance. Production lines dose the compound during the stepwise assembly of amino-alcohol herbicide scaffolds, implementing in-process controls to ensure traceability and minimize racemization. Final product consistency supports downstream registration with agricultural authorities in relevant markets.

    Industry compliance standards

    • FAO/WHO Specifications for Plant Protection Products
    • OECD Good Laboratory Practice (GLP) guidelines
    • Regulation (EC) No 1107/2009 (EU Plant Protection Product Authorization)
    • US EPA Pesticide Registration requirements (40 CFR Parts 150-189)

    Typical usage ratio

    • 10–35 wt% relative to the total mass of the intermediate batch; varies by specific herbicide chemistry and final product purity targets

    Downstream process integration

    • Charged as a mid-stage coupling partner after initial aromatic or aliphatic incorporation, typically undergoing amidation or sulfonation reactions

    Final product types

    • Chiral selective herbicide actives
    • Intermediate salts for agrochemical formulation
    • Bulk intermediates for multinational registration batches
    • Stereo-defined reference standards for method development

    4. Precursor for Peptide Synthesis in Specialty Biologics

    Custom peptide synthesis providers integrate D-Cyclohexylalaninol during the solid-phase or solution-phase assembly of short sequence peptides where a non-natural, cycloalkyl-modified residue imparts bioactivity or improved metabolic stability. The amino alcohol motif enables site-resolved incorporation via activated ester, carbodiimide, or phosphonium salt coupling, typically under anhydrous and inert conditions to preserve optical activity. Quality teams tightly control the stereochemistry and monitor residual solvents, guaranteeing conformance with customer specifications for advanced research or preclinical biologic development.

    Industry compliance standards

    • ICH Q11 Development and Manufacture of Drug Substances
    • ISO 13485 for Medical Devices (applicable for diagnostic peptide supply chains)
    • 21 CFR Part 210–211 FDA cGMP for peptide intermediates
    • Ph. Eur. 2.5.47 for enantiomeric excess by chiral HPLC

    Typical usage ratio

    • 1–2 residues per 10–30 residue peptide chain, typically representing 3–12 mol% of total amino acid equivalents, dosage determined by functional requirement and application

    Downstream process integration

    • Inserted during initial or mid-phase peptide chain elongation, post-resin attachment, using strictly controlled coupling chemistry

    Final product types

    • Bioactive peptides with cycloalkyl modification
    • Stabilized peptide analogs for preclinical research
    • Synthetic research peptides for biomarker discovery
    • Custom peptides for diagnostic reagent kits
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    Certification & Compliance
    More Introduction

    D-Cyclohexylalaninol: Precision and Reliability in Chiral Synthesis

    Introducing Our D-Cyclohexylalaninol

    In the world of chemical manufacturing, turning raw building blocks into precise, consistent products never stays simple for long. Years of hands-on practice show that not all chiral amino alcohols perform equally when actual process demands hit. D-Cyclohexylalaninol stands out in our portfolio for a handful of reasons learned the hard way—laboratory trials, pilot batches, and full-scale runs have shaped how we approach its production and why it meets the strict needs of researchers and production chemists.

    What Sets It Apart: Real Insights from the Manufacturer

    Our facility specializes in producing this compound at scale, building each batch from pharmaceutical-grade starting materials. Through repeated feedback from process engineers, we zeroed in on a synthesis route that keeps contaminants low. We target a content purity above 99%, backed by HPLC and NMR batch controls, without relying on catch-all claims. Higher purity translates to fewer headaches in catalyst recovery and reduces side product formation downstream. Each drum or bottle comes from a defined campaign, tracked and stored in a humidity-regulated warehouse. In practical terms, this means chemists can avoid unpredictable run-to-run variability—a common headache with outsourced intermediates.

    Model and Specification: Choices Informed by Real-World Needs

    This product usually ships in crystalline or powder form, with the enantiomeric excess confirmed above 98%. Most partners opt for D-configuration, given its use in asymmetric catalysis. We learned that trace impurities, even below 0.5%, cause issues in scale-up for peptide synthesis or chiral auxiliary preparation—our processes and specs reflect these field realities, not just paper targets. For those running preclinical development or research trials, the compound is offered in moisture-proof containers, protecting stereochemical stability even if storage sometimes drifts above recommended levels during shipment. Typical assay and water content readings appear right on our Certificate of Analysis, making it easier for chemists who need batch-to-batch transparency without chasing technical support each time a new lot arrives.

    Usage by Real Chemists: What Gets the Job Done

    D-Cyclohexylalaninol finds its place as a chiral intermediate across multiple specialties. Peptide chemists use it for fragment coupling, sidestepping racemization found with less stable analogues. In asymmetric hydrogenation, its backbone helps construct ligands for metal catalysts, an approach proven in academic journals and validated by routine in-house screenings. Medicinal chemistry programs tap it as a building block, using the cyclohexyl ring to optimize hydrophobic interactions during hit-to-lead campaigns. Over time, our clients confirm that its physical form—free-flowing, easily weighed—makes handling practical on busy benches. No clumping during standard storage, and no special cutting tools needed, even in winter months.

    Lessons Learned: Working with D-Cyclohexylalaninol in Production

    The market includes other amino alcohols, but hands-on work highlights the difference D-Cyclohexylalaninol brings. Many suppliers focus on alaninol variants without bulky substituents, which lack the steric controls needed in higher yield asymmetric synthesis. Cheap racemates often look attractive on a price sheet but introduce unpredictable by-products that increase upstream and downstream cleanup. Based on repeated client reports and our own pilot lines, solvents and reagents matched specifically to cyclohexyl side chains—rather than generic workflows—deliver tighter isomeric ratios and shorter purification cycles. Handling D-Cyclohexylalaninol directly from our production line, customers avoid repeated chromatography and simplify cGMP compliance, which matters on production scales.

    Addressing Real Bottlenecks

    Chiral intermediates often come with poorly documented origins. When researchers reach out for process support, vague details slow down troubleshooting. In response, we developed transparent sourcing and synthesis disclosures for D-Cyclohexylalaninol. Shipments include a synthesis pathway summary, not just a COA and MSDS, so receiving labs know which residues or trace metals (if any) may persist. This details chemical lineage and gives process R&D teams a head start on validating their own analytics. Over the past decade, we saw fewer batch rejections and less confusion at the scale-up stage using this policy. Avoiding surprises matters more than abstract claims of compliance or generic “quality assured” platitudes.

    The Real-World Impact: Scale-Up and Application

    Process engineers face a set of recurring pains that only manufacturers see up close. D-Cyclohexylalaninol, prepared by experienced hands using controlled crystallization and storage, offers batch consistency critical for plant runs. Peptide coupling sequences, ligand design, and fragment condensations track tighter yields only if starting materials show reproducible melting points and clear stereochemistry—our QA protocols target these complications directly. Handling this intermediate on scale means fewer wet purifications, less time wasted chasing chromatographic ghosts, and faster project timelines. On-site collaboration with client teams gives us a direct line to application pain points—building in moisture protection and lot transparency evolved from these talks, not template reasoning.

    Navigating Regulatory and Analytical Demands

    Auditors and client QA staff now demand traceability back to starting materials. Drawing on years of experience passing pharmaceutical inspections, we produce full documentation packs: batch history, raw material analytics, and details on critical control points unique to D-Cyclohexylalaninol. Nothing frustrates a plant manager more than unexpected traces of non-volatile solvents or ambiguous specific rotation readings. Our focus on accurate HPLC reporting, combined with regular third-party lab audits, matches what process chemists actually face when preparing regulatory filings. Projects with tight impurity budgets appreciate our attention to secondary isomer formation and our direct communication line for clarification per batch—reducing wasted time shuttling between distributor and original production teams.

    Our Perspective: Responding to Industry Gaps

    We notice a familiar pattern in the specialty chiral intermediate markets: promised specs from distant producers often lack real traceability, and quick fixes seldom deliver on cost or reproducibility. As the manufacturer, we fine-tuned isolation, drying, and packing to meet feedback from end-users—down to the lot stamping and straightforward, readable COAs. Each load of D-Cyclohexylalaninol leaves our plant tied to a defined process—never mixed lots, never off-shore “mystery” originations. That’s not a marketing slogan but a lived reality: fewer investigators scrambling to audit sourcing, fewer scramble calls for last-minute resupply due to bad stock. It took persistent conversations and cycle after cycle of lost time in development labs for our approach to stick. Customers don’t just ask about purity—they ask for specific impurity patterns and synthesis routes, because that’s where bottlenecks and batch failures start. Our production and documentation respond directly to these realities.

    Problem Solving: Supporting Innovation and Downstream Processes

    Many of our clients work in environments with strict environmental and safety oversight. Lessons drawn from process interruptions taught us how vital stability during transit, handling, and storage can be—not just for the compound, but for keeping projects and audits on track. We seal D-Cyclohexylalaninol under inert gas and pack it in reactive-resistant drums, tested for extreme humidity and accidental suboptimal warehousing. That came after a season of spoiled shipments during cross-continental ferry runs. No manufacturer gets it right the first time, but design based on actual failure modes sets this product apart. The product’s narrow particle size distribution and free-flowing form save time on weighing, metering, and blending operations, especially at plant scale where batching errors cost tens of thousands. This lesson didn’t come cheap but helped stabilize plant runs for both multinational and startup customers operating at different scales but facing similar hazards.

    Comparing with Alternatives: Looking Beyond Brochures

    We watch trends in related chiral alcohols: phenyl, isopropyl, benzyl, and others. Each has a reputation on paper, yet the actual working experience forms the gap between promised performance and daily workflow. Our D-Cyclohexylalaninol’s cyclohexyl group offers a unique balance—bulky enough for aggressive asymmetric synthesis, but not so sterically demanding as to complicate scale-up or downstream functionalization. Chemists switching from bulk racemic alaninols to this product consistently report sharper selectivity, shorter workups, and easier crystallizations. Process R&D teams confirm that the physical characteristics—no dusting during transfers, stable under fluctuating room humidity—mean fewer accidents and less downtime. We’ve seen well-designed synthetic pathways fail because of downstream instability in alternative chiral alcohols; years of monitoring customer product returns confirm our stability and physical specification choices successfully narrow these risks.

    Refining the Workflow: Supporting Next-Generation Synthesis

    Drug discovery, agrochemical development, and advanced materials research lean on solid, authenticated building blocks. D-Cyclohexylalaninol fits into modern chemical pipelines where asynchronous demand and complex project management are the daily routine. Over our own quality cycles, we noticed that small-lot flexibility outscores rigid minimum orders, so we scaled up our process with modular batch sizes without sacrificing documentation or quality controls. Peptide chemists, for example, push for half-kilo lots while catalytic R&D labs sometimes demand single kilo to tonne deliveries for plant trials—our packing and paperwork fit both without delays or error-prone rework.

    Understanding Real Customer Needs

    Through direct dialogue with process engineers and scientists, we adjusted our analytical routines and packaging formats. Standardizing reporting units, documenting minor organic impurities, and providing detailed batch histories makes integration into digital lab systems easier. No more surprises from “unreported” peaks on GC-FID or rogue signals in 1H-NMR—each run receives spectrographic reference files for cross-checking in case of disputes or audits. Direct shipping from our plant gives customers one clear path back to the original producer and traceable lots, reducing ambiguity and rework when scaling from pilot syntheses to continuous flow or production campaigns.

    Pushing Beyond “Good Enough”: The Manufacturer’s Mindset

    Routine commercialization of new compounds never goes by the book. Over nearly two decades, the lesson repeated itself: chemical intermediates—especially chiral building blocks like D-Cyclohexylalaninol—succeed only when groundwork covers both chemistry and practical use. Scaling synthesis not only stretches lab procedures but adds hurdles of stability, reproducibility, and documentation. We designed our processes to support the evolution from gram-scale tests in discovery labs to multi-kilo batches for manufacturing. Execution means full analytical suites, direct shipment stability, and readiness to troubleshoot based on firsthand process data. Keeping up with the real, unglamorous work of verifying every lot means our customers meet their milestones, not because of luck but because of predictable, traceable material flows.

    The Role of Traceability and Full Disclosure

    Pharma and biotech regulatory requirements grow stricter by the year. We adapted, not with broad-stroke “GMP certified” claims but by integrating full raw material and process documentation into every delivery of D-Cyclohexylalaninol. Downloadable batch histories, verifiable with unique lot IDs, allow users to backtrack every step if questions emerge during regulatory reviews or patent filings. We faced enough rounds of agency questions about origins and handling to know that nothing beats clear, timelined transparency from initial order to delivered carton. This approach means not just a reliable chemical, but a robust partnership for clients who operate in a world where any ambiguity derails months of planning.

    Conclusion: Manufacturing for Practical Chemistry

    In specialty chemicals, and especially in the field of chiral intermediates, feedback from process engineers and researchers has always played back into our approach. D-Cyclohexylalaninol took shape as a result of real-world problem solving, lessons from process setbacks, and continual improvement grounded in daily manufacturing practice. Our focus—supporting next-generation research and production, making high-value intermediates practical and predictable, and being direct about both our successes and failures—reflects how the real world operates. For those looking to push projects forward without unknowns or unplanned delays, a manufacturer-focused approach to D-Cyclohexylalaninol makes the difference. Years of in-house experience stand behind every lot, and that’s what makes it a reliable choice in the eyes of working chemists, not just another name in a catalogue.