|
HS Code |
677103 |
| Iupac Name | 2-Norbornanemethanol |
| Cas Number | 2416-17-9 |
| Molecular Formula | C8H14O |
| Molar Mass | 126.20 g/mol |
| Appearance | White to off-white solid |
| Melting Point | 64-68 °C |
| Boiling Point | 204-206 °C |
| Density | 1.02 g/cm³ |
| Solubility In Water | Slightly soluble |
| Flash Point | 88 °C |
| Smiles | OC[C@H]1CC2CCC1C2 |
| Synonyms | exo-2-Hydroxymethylbicyclo[2.2.1]heptane |
As an accredited 2-Norbornanemethanol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 2-Norbornanemethanol is typically packaged in a 100-gram amber glass bottle with a secure screw cap and appropriate hazard labeling. |
| Shipping | **2-Norbornanemethanol** is shipped in tightly sealed containers, typically made of glass or high-density polyethylene, to prevent leakage and contamination. It should be labeled as a chemical substance and handled according to relevant safety regulations. Temperature control is generally not required, but the shipment should be protected from strong oxidizing agents and direct sunlight. |
| Storage | **2-Norbornanemethanol** should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances like strong oxidizing agents. Keep the container tightly closed and protected from light. Store at room temperature, following standard laboratory chemical handling protocols, and ensure proper labeling to avoid accidental misuse or mixing with reactive agents. |
Applications of 2-Norbornanemethanol in Industrial Manufacturing2-Norbornanemethanol serves as a specialized intermediate with unique structure-based reactivity, making it a dependable choice in several tightly regulated downstream industries. Below, we detail real-world application scenarios that leverage this material for regulatory-compliant manufacturing, with each section addressing formulation specifics, relevant standards, integration into production, and representative finished goods. 1. High-Performance Alkyd Resin Production for Industrial CoatingsIn resin manufacturing for anticorrosive and high-durability industrial coatings, formulators use 2-Norbornanemethanol as a structural alcohol to improve the hardness, chemical resistance, and fast-drying properties of alkyd systems. Its bicyclic backbone contributes to resin flexibility control and pigment adhesion, addressing the demands of automotive refinish, heavy machinery coating, and maintenance paints. Downstream manufacturers integrate this intermediate at selected stages in polycondensation to fine-tune molecular weight distribution, always in line with tight environmental and occupational safety norms. Industry compliance standards
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2. Cycloaliphatic Epoxy Intermediate for Semiconductor and Electronic EncapsulationProducers of specialty epoxies for electronics rely on the steric features of this intermediate alcohol to synthesize cycloaliphatic epoxy resins with high thermal and dielectric strength. It serves as a building block in glycidylation steps, enhancing crosslinking density and improving resistance to chemicals and moisture. These properties are essential for reliable encapsulation of integrated circuits and power modules exposed to thermal cycling and harsh process chemicals during device fabrication. Industry compliance standards
Typical usage ratio
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3. Crosslinking Agent Precursor in UV-Curable Oligomers for Optical Fiber CoatingsIn the manufacture of UV-curable coatings for optical fiber systems, 2-Norbornanemethanol acts as a reactive intermediate to introduce controlled rigidity and hydrophobicity in oligomer chains. Fiber cable producers exploit this molecular architecture to boost mechanical strength, microbend resistance, and environmental durability for telecommunication and data transmission lines. Formulators adhere to precise process controls to ensure coating uniformity and low signal attenuation. Industry compliance standards
Typical usage ratio
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4. Polyurethane Modifier for High-Gloss Industrial Flooring SystemsManufacturers of solvent-based and water-dispersible polyurethane flooring systems utilize 2-Norbornanemethanol to introduce robust crosslinked networks and enhance gloss, abrasion resistance, and chemical durability required in factory, pharmaceutical, and warehousing environments. Its steric profile enables precise modulation of cure profiles and scar resistance, addressing facility managers' increasing expectations around lifecycle and maintenance intervals. Industry compliance standards
Typical usage ratio
Downstream process integration
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After years of hands-on chemical production, a chemist grows used to working with molecules that cause headaches in both process and application. Some of them demand constant adjustment to their reaction conditions or show unpredictable behavior in downstream synthesis. Others create waste or side reactions that add cost and complications. 2-Norbornanemethanol stands apart with its balance of predictable chemistry and physical stability.
With the chemical structure known as bicyclo[2.2.1]heptan-2-ylmethanol, this material has earned a spot on our regular manufacturing schedule. Our batches conform to demanding internal specifications, with GC purity usually exceeding 98%. Moisture content and residual solvent levels fall well below industry requirements, based on regular monitoring to avoid surprises during customer applications. This isn’t a new compound in the world of fine chemicals, but the experience of controlling its manufacture takes some lessons learned over time.
2-Norbornanemethanol appears in the plant as a white crystalline or off-white solid, depending on the final drying step. Melting point hovers consistently in the high 90s Celsius. The slight camphor-like odor signals its norbornane backbone. Some batches in the market carry minor yellowish tint—usually from insufficient control of reaction temperature—something we watch for on every run. Those details in process make a difference when it comes time for filtration or recrystallization, so we maintain clean glass-lined reactors and precise temperature controls.
The density feels just right for safe handling, neither too light to worry about dusting nor so heavy as to complicate transfer between containers. This aids safe transfer during bagging and filling drums. Compared with other saturated alcohols, 2-norbornanemethanol resists deliquescence and remains stable under recommended storage conditions, so warehouses and shipping containers stay neat and manageable. We check for oxidative degradation through routine shelf-life assessments, so processors get what they expect every time.
Chemists and engineers who have relied on good old linear alcohols like ethanol or cyclohexanol will notice the difference in reactivity. The strained ring structure of 2-Norbornanemethanol gives it unique performance, especially in reactions where steric effects play a role. For example, in reduction chemistry or Grignard-type coupling, the selectivity and yields can be much higher than with less hindered alcohols. We design our filtration steps to limit trace acidity and metal ion contamination, because many downstream users in pharmaceutical or specialty polymer fields require such purity to avoid side reactions.
Unlike low molecular weight alcohols, this molecule isn’t volatile enough to present major inhalation exposure. In our plant, workers handle it with standard PPE, and the lack of irritating vapors simplifies operations—one less thing for EHS staff to watch over. The low vapor pressure and sturdy melting point mean safe storage with no need for elaborate containment systems. Containers seal tightly, and the risk of polymerization or runaway decomposition is extremely remote under normal temperatures.
We have supplied 2-Norbornanemethanol across an array of demanding markets. Our expertise comes not just from lab-scale synthesis, but from listening to customer feedback and troubleshooting downstream bottlenecks. In the pharmaceutical sector, this compound serves as a high-utility chiral building block. Medicinal chemists prize the rigid bicyclic framework, which imparts stereochemical stability and enables formation of drug intermediates that resist metabolic breakdown.
Polymer and advanced materials manufacturers tap into its unique backbone to impart rigidity, hydrophobicity, or controlled branching in specialty resins and adhesives. The secondary alcohol functional group gives formulators flexibility—esterification, etherification, or oxidation open up synthetic doors. With a higher melting point and improved thermal stability versus linear or branched competitors, 2-Norbornanemethanol leads to end products with more reliable long-term properties.
We’ve also seen this compound make its mark in flavors and fragrances, typically as a masked precursor. The subtle, camphoraceous odor signals its potential in formulation, but safety and purity controls prompt customers to seek out lots with exacting impurity profiles. Our team works with downstream users to interpret chromatograms and understand whether a particular application needs a higher purity cut, special drying, or extra care to limit residual solvents.
The world of aliphatic alcohols is vast—so why make the effort to stock a niche product like 2-Norbornanemethanol? Much comes down to reaction outcomes and end-product performance. Typical alcohols such as methanol, propanol, or even cyclohexanol offer flexible reactivity but often lack the precise control demanded in fine chemical or medical synthesis. Branching and ring strain in 2-Norbornanemethanol introduce unique selectivity in enzymatic or chemical transformations. Our technical team has reviewed dozens of case studies where switching from an open-chain alcohol to this rigid bicyclic structure eliminated byproducts or shortened downstream purification steps.
If you’ve ever struggled with unwanted side-reactions or low yield from traditional alcohols, this material could resolve that headache. Its ring-locked structure resists over-oxidation and delivers better shelf life in intermediates. Even in applications such as crosslinkers or solid polymeric materials, we have documented improvements in mechanical strength and temperature stability. Glass transition temperatures measured in specialty testing labs show meaningful increases for modified polymer networks built using 2-norbornanemethanol moieties, compared to those designed with less bulky counterparts.
Our production process minimizes the risk of process-derived impurities common in non-rigorous, scaled-up manufacturing. Competing products in the market show greater batch-to-batch variation, especially in color and purity. Process chemistry, even for a well-known molecule like 2-norbornanemethanol, reveals subtle ways to control impurity formation—whether from side-chain cyclization or incomplete reduction steps. We have analyzed commercially available materials from both domestic and foreign producers, and results show that stricter in-line monitoring and deeper filtration play a critical role in delivering a consistent product.
Our crew on the production line has learned through repetition what leads to the cleanest output. Careful tuning of reduction conditions makes the difference between lots that require extra post-treatment and those that move right on to drying and packaging. Regular calibration of GC analytical equipment uncovers even tiny shifts in side product formation. In our QC laboratories, cross-checking melts, HPLC traces, and spectroscopic signatures means fewer rejections, less waste, and lower cost for the customer.
We also listen closely to feedback from end users. Some need anhydrous material for moisture-sensitive applications, prompting us to add additional drying stages with modern molecular sieve systems. Others focus on trace mineral content, so we run ICP-MS analyses and adjust our equipment cleaning protocols. Real-world feedback has helped us tighten up on packaging methods, too—inert gas filling, lined drums, and tamper-evident seals protect the product during shipment and storage.
It pays to keep an eye on emerging application fields. In recent years, research groups have reached out to seek custom cuts of 2-Norbornanemethanol with novel isotopic purity or special enantiomeric enrichment. We have invested in both in-house and partnered chiral resolution and isotopic labeling capabilities. That sort of focus comes from understanding the material well enough to respond nimbly to opportunities from cutting-edge R&D customers.
Producing and supplying 2-Norbornanemethanol requires a thoughtful approach to stewardship. Local environmental agencies routinely inspect our facility for emissions, waste, and resource usage patterns. Our process generates limited byproducts, rapidly neutralized in on-site treatment systems before discharge. Material moves through enclosed systems, reducing dust, vapor, or spill risk. Employees undergo routine training, covering not only routine handling but emergency response specific to this compound’s hazards.
Our QA department maintains certificates of analysis for each lot, with full traceability back to raw materials and processing equipment. This offers reassurance to customers facing their own cGMP or ISO audits. On the labeling and logistics side, we make sure product documentation addresses current transport and handling regulations. Though 2-Norbornanemethanol itself rates low on acute hazard scales, familiarity with its combustion products, reactivity toward strong oxidizers, and waste handling keeps operations safe for both workers and the community.
The chemical market never stands still, and neither do the challenges facing manufacturers. In producing 2-Norbornanemethanol at scale, we encounter familiar bottlenecks—procurement of starting materials, regulatory updates, energy management, and waste minimization. Our procurement team keeps a close watch on feedstock quality and global sourcing trends, since even the best process can’t overcome subpar raw materials. We’ve tested alternative green solvents and improved catalysts, searching for both cost and efficiency gains without sacrificing the product profile that our customers expect.
Energy consumption remains a constant target for improvement, with investments in heat integration and process optimization to lower both carbon footprint and utility costs. Closed system waste capture and solvent recovery translate to lower environmental impact and bottom-line savings. We share energy usage and waste generation metrics with stakeholders, demonstrating transparency and constant improvement—because producers and customers alike want responsible supply chains.
Adapting to environmental and safety regulations calls for staying proactive. We allocate resources to monitoring shifts in allowed emissions, packaging waste reduction, and regional health standards. The QC group participates actively in both internal and third-party audits, so we continue meeting or exceeding regulatory guidelines. This vigilance ensures 2-Norbornanemethanol keeps its place as a trustworthy, compliant specialty material.
The story doesn’t end at the shipping dock. Our support team stands behind each lot of 2-Norbornanemethanol, helping customers troubleshoot scale-up, process compatibility, and regulatory rollout. Chemists in the field sometimes run into solubility, mixing, or reactivity surprises using this compound for the first time, and our technical staff draws on years of experience to offer practical advice. We hold records of solubility curves in common organic solvents, stability against heat and light, and compatibility with various stabilizers or process aids.
For customers working on new projects or shifting to this material for the first time, consultation often begins with a conversation about intended use, purity thresholds, and delivery format. We have shipped 2-norbornanemethanol in glass bottles, lined steel kegs, polyethylene carboys, and brought in multiple partners to verify compatibility with diverse processing equipment. Because our facility handles both bulk and specialty packaging, lead times stay short, and traceability remains intact from reactor to end-user.
Long-standing customers receive regular communication regarding lot changes, prospective process adjustments, and advance notice if supply chain issues arise. Real-world feedback cycles back into our production and QA workflows, resulting in steady improvement over time. Whether a customer needs advice on solvent compatibility or troubleshooting a specific synthetic route, our staff brings practical knowledge born from direct experience making and handling the product.
2-Norbornanemethanol doesn’t earn its place in our lineup by accident. Its unique structure, reliable chemical behavior, and wide-ranging uses distinguish it from crowded fields of simpler alcohols. Our commitment to producing batches with consistently high purity, minimal impurities, and reliable physical properties gives customers confidence during every handling and application step. We continually refine our process in response to technical, regulatory, and market developments.
Each batch we ship represents more than a run through reactors—it reflects decades of institutional experience, daily diligence on the plant floor, and ongoing conversation with some of the world’s most innovative chemists. The craft of making 2-Norbornanemethanol only improves through such continuous engagement. Through quality, transparency, and responsive support, we help our customers turn a specialized chemical into real-world innovation.