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HS Code |
583853 |
| Iupac Name | N-hydroxyadamantan-2-imine |
| Common Name | 2-Adamantanone oxime |
| Cas Number | 40632-39-5 |
| Molecular Formula | C10H15NO |
| Molecular Weight | 165.23 g/mol |
| Appearance | White to off-white crystalline powder |
| Melting Point | 177-181 °C |
| Solubility In Water | Slightly soluble |
| Density | 1.13 g/cm³ |
| Purity | Typically ≥98% |
| Smiles | C1C2CC3CC1CC(C2)(C3)N=O |
| Inchi | InChI=1S/C10H15NO/c12-11-10-5-6-1-8(10)3-2-7(4-6)9(10)11/h7-9,12H,1-5H2 |
| Storage Temperature | 2-8 °C |
| Synonyms | Adamantan-2-one oxime |
As an accredited 2-Adamantanone Oxime factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 2-Adamantanone Oxime, 10 grams, is packaged in a tightly sealed amber glass bottle with a tamper-evident screw cap. |
| Shipping | 2-Adamantanone Oxime is shipped in sealed, moisture-resistant containers compliant with chemical safety regulations. Packaging ensures protection from light, heat, and physical damage. During transit, the product is labeled with appropriate hazard symbols and handled according to standard protocols for laboratory chemicals. Shipping documentation accompanies each consignment for regulatory compliance. |
| Storage | 2-Adamantanone Oxime should be stored in a cool, dry, and well-ventilated area, away from sources of ignition or heat. The container must be tightly sealed and clearly labeled. Protect the chemical from moisture and incompatible substances, such as strong acids or oxidizing agents. Always store at room temperature and follow standard laboratory chemical storage practices to ensure safety and stability. |
Applications of 2-Adamantanone Oxime in Industrial Manufacturing2-Adamantanone Oxime serves as a specialized building block and functional additive in multiple downstream sectors due to its distinctive adamantane skeleton and reactivity profile. As the direct manufacturer, we support technical clients in fields where stringent compliance, highly controlled dosing, and process stability are mission-critical. The following application scenarios detail real-world industrial uses, reflecting current market practice and regulatory expectations. 1. Pharmaceutical Intermediate SynthesisIn pharmaceutical manufacturing, 2-Adamantanone Oxime participates as a key intermediate for the preparation of adamantane-based antiviral and neurological compounds. Producers favor its stability under reaction conditions and clean conversion to amines or hydroxyl derivatives, which are essential in the final API stage. Entry into the process typically occurs at the convergent intermediate step following protection group manipulation. Industry compliance standards
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2. Specialty Polymer ModificationManufacturers use 2-Adamantanone Oxime as a structural modifier in advanced polymer systems, especially to enhance the rigidity and heat resistance of engineering plastics. It acts as a crosslinking initiator in the polymer backbone during reactive extrusion, imparting dimensional stability and improved mechanical performance. The material’s compatibility allows reactive compounding in both thermoplastic and thermosetting processes, targeting high-performance applications. Industry compliance standards
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3. Agrochemical Active Ingredient Manufacturing2-Adamantanone Oxime finds application as a precursor in the production of adamantane-derived agrochemical active ingredients, particularly for formulations requiring enhanced persistence and environmental stability. Agrochemical downstream manufacturers utilize the material to introduce protected nitrogen functionalities, supporting further elaboration into insecticidal or fungicidal scaffolds through catalytic hydrogenation and coupling chemistry. Industry compliance standards
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4. Organic Synthesis Reagent for Laboratory and Industrial R&DChemical laboratories and pilot-scale facilities employ 2-Adamantanone Oxime as a selective oxime reagent for custom synthesis, including the development of stereo-defined building blocks, ligand design, and pathway exploration for new active molecules. Its defined structure and robust handling profile enable precise reaction control in research, scale-up, and pilot process trials. Industry compliance standards
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Every day, we handle chemicals that underpin key advances in pharmaceuticals, materials science, and fine chemical synthesis. Among these, 2-Adamantanone Oxime stands out for its robustness and predictability. Chemists who work at the bench often value a product's repeatability in performance, and this compound shows consistent purity batch after batch inside our facility. Over the years, our production line operators and analytical teams gained deep familiarity with the challenges of synthesizing and isolating complex adamantane derivatives, particularly when working at the oxime stage.
2-Adamantanone Oxime, also known by its CAS number 4080-98-2, features an adamantane backbone—a rigid and symmetric tricyclic hydrocarbon that gives the molecule its unique stability. The oxime group installed on the 2-position of adamantanone is not just a functional extension; it confers marked differences over the parent ketone or the more common hydrocarbon derivatives. Our production runs continue to reinforce how crucial purification and control of side reactions are, especially when working at kilogram scales. Any chemist who has tried to push this chemistry on a pilot reactor appreciates the lessons learned from real-world crystallization and filtration challenges.
In-house synthetic experience tells us that targeting high chemical purity matters far beyond passing a quality control checklist. Each lot undergoes multiple stages of purification, using both column and recrystallization protocols developed by our process engineers over several years. Analytical staff use HPLC, GC-MS, and NMR to verify the product's identity and confirm purity levels above 99%. Moisture and residual solvents can trip up even the most carefully designed experiments, so we invest effort in monitoring Karl Fischer titration results and loss-on-drying, which remain consistently low for our oxime product. Particle size control enables easier handling and improved reactivity for further transformations, based on consistent feedback from downstream users working in medicinal chemistry and advanced material design.
The appearance of the compound may seem trivial to an outsider, but it actually signals a lot about its consistency. Our teams recognize a finely powdered or crystalline solid—pure white, never off-color—as proof that oxidation byproducts or solvent residues sit below strict detection thresholds. Over the years, chemists have developed fast checks based on melting points, using them as reliable indicators of product health before the more detailed instrumental work.
This oxime fills a distinct niche in research and production labs working at the intersection of organic synthesis and material innovation. Functional group conversions on the adamantane core frequently use the oxime as a linchpin intermediate, pushing toward structurally complex targets with tight timelines. Having spent decades supporting academics and pharmaceutical partners, our manufacturing chemists see the same feedback: Reliable 2-Adamantanone Oxime cuts out unnecessary troubleshooting steps, keeps batch records free from annotation overload, and helps synthetic teams stay on schedule.
Those involved in the creation of new drug scaffolds or advanced polymers often seek robust, non-labile building blocks. Adamantane’s fused-ring structure imparts rigid three-dimensional geometry, increasing molecular stability and modulating the overall polarity. Our customers routinely engineer these features into their target molecules for improved drug pharmacokinetics or to manipulate polymer properties such as thermal resistance. The oxime variant performs as an effective intermediate, allowing advanced functionalization by reductive or substitution pathways.
Many laboratory and commercial settings reach for adamantane derivatives expecting sheer inertness or bulk. Yet, the introduction of the oxime group opens new doors. In our own process trials, we observed that the oxime displays higher chemical reactivity under mild conditions compared to either the parent ketone or hydrocarbon. This means chemists can achieve key transformations—such as Beckmann rearrangements or nucleophilic substitutions—at lower temperatures and with fewer impurities left behind. Our quality assurance teams cross-checked side-by-side reactivity studies using both NMR kinetics and isolation yields, finding that reactions with 2-Adamantanone Oxime often reach completion faster and with less byproduct formation, especially in one-pot sequences.
Other oximes on the market sometimes bring inconsistent profiles of water or residual amine, which might not be visible in a simple TLC or spot test. Our own lab teams have picked up on this while troubleshooting customer complaints involving competitor material—solubility quirks and sticky residues can throw off a synthetic plan. Repeated purification and rigorous analytical validation set our material apart, especially during upscaled production campaigns where tiny process lapses quickly become significant.
Over the years, individual chemists at our facility have acted as internal champions for process improvements built around 2-Adamantanone Oxime. Early in production trials, batches exposed to trace metals created colored byproducts, which led to months of collaborative troubleshooting. Our plant engineers worked closely with production chemists to implement inline filtration and new environmental controls. Gradually, we eliminated the issue completely, setting a new benchmark for batch reproducibility. This feedback loop—direct from our plant floor to R&D—keeps our quality high and our production headaches low.
Maintenance technicians on the line noticed that raw material shipment temperatures affected the physical form of intermediates, influencing the ease of subsequent oximation steps. Flexible scheduling and storage protocols now keep material within tight temperature limits before and after processing, with batch tracking that links every deviation to a final report. As a result, we reduced failed crystallizations and minimized downtime, passing the savings and consistency on to our customers downstream. Every adjustment springs from actual hands-on troubleshooting, not a textbook solution.
Working with nitrogen-containing functional groups always brings unpredictable outcomes on scale-up, especially with oximes prone to hydrolysis or rearrangement in the presence of acid or base. In the past, we lost small fractions of batch yield to inadvertent acidification during solvent exchange or drying steps. Catching these errors required an open line of communication between warehousing, plant techs, and analytical chemists. By tracking every deviation in real-time, regardless of how minor it appeared, we ensured traceability through comprehensive documentation. We post root-cause analyses prominently on shop floors and in digital archives, using them as case studies in both human and process error reduction.
Feedback from experienced customers also enhances our manufacturing discipline. Developers of novel APIs or materials sometimes discover incompatibility between their solvents and trace impurities. In response, we introduced extra in-process solvent washes and extended dry times only after lengthy side-by-side comparison runs. When customers raise even small questions about solubility shifts or unexpected peaks on their in-house traces, we test new filtration materials to address issues at the source, not downstream. This hands-on approach shortens the cycle from complaint to practical solution.
Our work does not end after shipping a drum or a bottle. Customer chemists tackling complex syntheses frequently consult directly about optimal storage, reactivity, or trouble spots. Years of manufacturing experience reveal subtle quirks—such as the tendency for the oxime to absorb traces of moisture if exposed to humid air—that might escape written specifications. We suggest storing 2-Adamantanone Oxime in tightly sealed containers under dry nitrogen whenever feasible, based on hundreds of long-term stability studies performed in our own facility.
Organic chemists and process engineers who have used low-grade or repackaged materials often encounter poor reproducibility in downstream transformations. After comparing failures involving off-specification starting materials versus our in-house produced oxime, teams shared confidential findings back to help refine our synthetic route and quality control checks. Many problems faced by our customers—unexpected melting curves or colored impurities at elevated temperature—stem from subtle process upsets that only surface weeks or months after the initial delivery. In real-world settings, proactive two-way communication closes that loop.
We earn the most trust through performance in rigorous applications. Pharmaceutical chemists synthesizing new CNS ligands or anti-infective scaffolds often report that deviations in starting material purity lead to major setbacks. In polymer R&D, unpredictable impurity profiles can cause changes in polymer chain termination or physical behavior, jeopardizing entire production runs. Working directly with the teams running pilot plants or kilo-labs, we have fine-tuned our packaging protocols, minimizing electrostatic build-up and controlling particle flow to keep operations efficient and safe. Even a minor inconsistency can snowball, so our investment in quality at every step matters.
Partnerships with universities and industrial labs sometimes bring challenging custom requests for alternative forms or increased lot sizes. Each new request tests the skills of our process development team. Years spent troubleshooting these challenges ensure we never cut corners on hazard identification, risk assessment, and logistical planning. At the same time, we document these experiences as a form of living knowledge, informing every new generation of employees through regular process reviews and technical seminars.
Those in the chemical industry feel increasing pressure to deliver both high-quality and environmentally conscious products. Early on, our facility faced compliance audits covering regulatory and environmental standards, especially concerning waste minimization in oxime synthesis. By switching to closed-loop solvent recovery systems and optimizing water usage during washing, our teams reduced the environmental impact while keeping operating costs in check.
Safety remains central to every production decision. Handling adamantane derivatives during oxime formation—especially under elevated temperatures—carries unique hazards not present in simpler small molecule synthesis. We arm our operators with continuous training and require that all equipment maintenance logs stay up-to-date. Review boards regularly audit incident reports, and direct feedback from plant floor meetings fuels updates to both process controls and personal protective equipment policy.
Supplying 2-Adamantanone Oxime straight from our own facility gives us a critical edge over distributors or resellers working from repackaged, often older stock. Complete vertical integration—from raw material sourcing to final packaging—lets us exercise direct control over every stage, detecting and correcting minor process deviations before they reach customers. Internal batches always undergo exhaustive stability studies, including stress testing under a range of environmental exposures. Where resellers sometimes sell off-age or questionable material, our products reach customers with full batch records and retention samples available for cross-reference.
Customers often share anecdotes describing the difference high-integrity supply makes on actual project timelines and budgets. Missed quality holds can halt an entire project, while replacement shipments add up in lost time and cost overruns. Our in-house technical team maintains open lines for troubleshooting, technical reference, or advice on custom specifications. Real collaboration on technical challenges strengthens ongoing partnerships and keeps the focus on advancing end-user science, not after-the-fact repairs.
Decades spent developing and refining chemical production teach discipline, adaptability, and the value of continuous learning. It is not enough just to push a product through a reactor and hope that paperwork meets external requirements. The lived experience of daily plant operation—navigating unexpected reactivity, troubleshooting filtration setbacks, managing temperature on large-scale crystallization, and receiving rapid customer feedback—shapes every decision, big or small.
Fielding questions from both long-standing partners and new entrants, we see that providing consistent, high-purity 2-Adamantanone Oxime enables innovation across pharmaceutical, materials, and research domains. Having seen countless successes—and the occasional setback—firsthand, we trust in the value of transparency, robust documentation, and real collaboration. Plant operators, analytical chemists, and technical support teams bring practical knowledge that cannot be replaced by generic data sheets or distant distributors. Every keg, drum, or container bearing our label carries with it commitment, knowledge, and a proven record of manufacturing traceability.
Customers today expect more from suppliers. Project needs change, regulations shift, and scientific priorities evolve alongside new discoveries. By staying close to the process, supporting open knowledge-sharing, and investing in people and plant, we deliver more than just bulk chemical shipments. We see ourselves as long-term partners—ready to customize, troubleshoot, and improve.
Decades of production have taught that every process tweak, every quality improvement, every honest assessment of what went right—or wrong—drives both our reputation and the trust placed in our products. Our experience with 2-Adamantanone Oxime highlights the value of continually learning from the real world and carrying those lessons forward for every new order, every new partner, every new challenge. The next chapter of chemical manufacturing will be written by those who know their business from the ground up, not just from a spreadsheet or brief specification sheet.