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3-Heptyn-1-ol

    • Product Name 3-Heptyn-1-ol
    • Alias 1-Heptyn-3-ol
    • Einecs 211-967-0
    • 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

    391139

    Iupac Name Hept-3-yn-1-ol
    Molecular Formula C7H12O
    Molar Mass 112.17 g/mol
    Cas Number 931-86-2
    Appearance Colorless to pale yellow liquid
    Boiling Point 170-172 °C
    Density 0.86 g/mL at 25 °C
    Solubility In Water Slightly soluble
    Flash Point 71 °C (closed cup)
    Refractive Index 1.431 (at 20 °C)
    Smiles CC#CCCCCO
    Pubchem Cid 13766

    As an accredited 3-Heptyn-1-ol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Amber glass bottle containing 100 mL of 3-Heptyn-1-ol, labeled with hazard symbols, product name, CAS number, and safety information.
    Shipping 3-Heptyn-1-ol should be shipped in tightly sealed containers, under cool, dry conditions, and away from sources of ignition. Proper labeling as a flammable liquid is essential. Comply with local, national, and international regulations, and include safety documentation. Use appropriate packaging to prevent leakage or contamination during transit.
    Storage 3-Heptyn-1-ol should be stored in a tightly sealed container, away from heat, sparks, open flames, and incompatible materials such as strong oxidizing agents. Store in a cool, dry, and well-ventilated area, protected from direct sunlight. Proper labeling and secondary containment are recommended to prevent leaks and spills. Follow all appropriate chemical storage regulations and safety guidelines.
    Application of 3-Heptyn-1-ol

    Applications of 3-Heptyn-1-ol in Industrial Manufacturing

    3-Heptyn-1-ol serves critical roles in chemical synthesis and specialty intermediate preparation across multiple manufacturing sectors. As a factory manufacturer, we support downstream partners by ensuring consistent supply, traceable quality, and process-focused technical guidance for tailored industrial applications. Below we detail key sectors where this raw material demonstrates significant value.

    1. Agrochemical Synthesis Intermediates

    Downstream agrochemical producers engage our material as a structural intermediate for the synthesis of selective herbicides and insecticides. The unique acetylenic alcohol function facilitates targeted coupling reactions and allows for strategic modifications in molecular architecture to meet resistance management demands. Manufacturers rely on its low residual impurity profile to comply with regulated limits in final pesticide actives. Key application stages include Grignard-type reactions and alkyne-based coupling for advanced active ingredient development.

    Industry compliance standards

    • ISO 9001:2015 for Quality Management Systems in agrochemical manufacture
    • FAO/WHO Specifications for pesticide technical concentrate purity
    • REACH Regulation (EC) No 1907/2006 for European chemicals registration
    • China National Standard GB 20704 for pesticide intermediates

    Typical usage ratio

    • Applied at 2–15% molar ratio in coupling or cyclization step, adjusted based on target active ingredient structure

    Downstream process integration

    • Introduced post-halogenation or in initial condensation stages for alkynylated intermediate generation
    • Purity specification is maintained above 98% to avoid off-target reactivity or formation of side-products

    Final product types

    • Phenoxyalkynyl herbicide actives (e.g., fluorinated cyclohexenone derivatives)
    • Systemic insecticide scaffolds (e.g., pyrethroid analogues)
    • Pre-emergence weed control actives

    2. Pharmaceutical Advanced Intermediates

    Pharmaceutical API manufacturers incorporate this acetylenic alcohol as an intermediate for the construction of heterocyclic and aliphatic structures. The compound’s reactive triple bond offers selective transformation into terminal amines, propargylic ethers, and reduction products critical for several CNS and cardiovascular drug scaffolds. Our controlled synthesis route ensures low metal content and consistent color indices for pharmaceutical compliance throughout hydrogenation and cycloisomerization protocols.

    Industry compliance standards

    • ICH Q7 for GMP in active pharmaceutical ingredient production
    • USP/NF for pharmaceutical purity guidance
    • EU GMP EudraLex Vol. 4 for active intermediate quality systems
    • Ph. Eur. 2.4.8 for residual solvents and metallic impurities

    Typical usage ratio

    • Utilized at 1.5–8% of total API synthesis pathway on a molar basis depending on target molecule pathway complexity

    Downstream process integration

    • Fed into palladium-catalyzed coupling as an acetylene donor
    • Directly involved in cyclization and selective hydrogenation processes at intermediate stage
    • Subject to trace impurity monitoring after each transformation

    Final product types

    • Antiarrhythmic drug intermediates (e.g., propargylic derivatives)
    • Heteroaromatic building blocks for CNS therapeutics
    • Isomerized alcohols used for lipophilic drug carriers

    3. Fragrance Ingredient Synthesis

    Manufacturers in aroma chemistry leverage the terminal alkyne for constructing linear and branched fragrance aldehydes, alcohols, and musk intermediates. The defined carbon chain and triple bond contribute to the controlled formation of precursors such as heptynyl-substituted compounds, subsequently transformed via partial hydrogenation or ozonolysis. Consistent supply allows batch reproducibility vital for large-scale fragrance compounding operations.

    Industry compliance standards

    • IFRA Standards for safe use of synthetic aroma chemicals
    • ISO 9235:2013 for aroma and flavor chemical purity
    • EU Regulation 1223/2009 on Cosmetic Products
    • Good Manufacturing Practice (GMP) for fragrance raw materials

    Typical usage ratio

    • Introduced at 5–30% of reaction batch for formation of specific aldehyde or alcohol derivatives; modulated by target end-note intensity

    Downstream process integration

    • Channeled into partial hydrogenation to form unsaturated alcohols
    • Ozonolysis to cleave triple bond yielding aldehyde intermediates
    • Followed by fractional distillation for product isolation and odor balance

    Final product types

    • Heptynyl-derived musk intermediates
    • Fatty aldehydes for fine fragrances
    • Alkyl alcohols used as blending agents in detergent and personal care scent bases

    4. Specialty Polymer Synthesis

    Industrial resin and polymer producers utilize this alcohol for introducing functional branches or crosslinking moieties into specialty polyurethanes, polyesters, and alkyd resins. The alkyne group offers sites for subsequent ‘click’ chemistry (azide-alkyne cycloaddition) or controlled radical polymerization, enhancing the mechanical properties, hydrophobicity, and post-functionalization potential of the resulting materials. Precise dosing ensures predictable molecular weight and minimizes residual unreacted starting material.

    Industry compliance standards

    • ISO 9001:2015 for resin manufacturing quality management
    • REACH registration for monomers in industrial polymers
    • ASTM D638 for mechanical properties of plastic intermediates
    • RoHS 2011/65/EU for finished product safety (where used in electronics or related sectors)

    Typical usage ratio

    • Employed at 0.5–5% by weight in pre-polymer blend for functionalized resin systems; tuned to application’s crosslinking/branching demand

    Downstream process integration

    • Feeding phase during pre-polymer, polyol, or co-monomer blending
    • Alkyne click-modification post-polymerization for property tailoring
    • QC assessment for residual starting material by GC

    Final product types

    • Functional polyurethanes for adhesive and coating applications
    • Modified polyester resins in specialty films
    • Crosslinked alkyds for automotive and marine coatings

    5. Electronic Chemical Synthesis

    High-purity grades of this compound supply the microelectronics sector for fabrication of specialty etchants, cleaning fluids, and organometallic precursors utilized during semiconductor device patterning. Its distinct structure enables formation of etchant additives with controlled reactivity for advanced copper and alloy surface treatment processes. Consistent particle and ionic contamination control matches fab house traceability and batch release protocols.

    Industry compliance standards

    • SEMI C93 for electronic chemical purity and trace metal control
    • ISO 14001 for environmental management in semiconductor production
    • IEC 62474 for material declaration (hazardous substance restriction)
    • Restriction of substances according to US EPA TSCA for industrial chemicals

    Typical usage ratio

    • Applied at 0.02–0.30% by volume in specialized etching or cleaning formulations; dosing adjusted for cleaning strength and residue profile

    Downstream process integration

    • Mixed into proprietary copper and alloy surface treatment baths
    • Inline filtration and monitoring for sub-ppb metallic impurity specifications
    • Final mixture stabilized and supplied for direct fab line dosing

    Final product types

    • Semiconductor wafer cleaning fluids
    • Advanced copper etchant blends
    • Preparation agents for photomask cleaning and surface activation
    Free Quote

    Competitive 3-Heptyn-1-ol prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    3-Heptyn-1-ol: Meeting Modern Synthetic Demands with Precision and Reliability

    Understanding Our Commitment to Chemistry

    In the landscape of specialty chemicals, producing molecules like 3-Heptyn-1-ol never comes down to simple recipes. As a manufacturer engaged in the day-to-day details of synthesis, purity assurance, and shipment, we recognize both the complexity and the importance of dialing in every batch. Our direct experience on the production floor shapes the way we approach each client's request, each tightly-specified grade, and every unique requirement demanded by the research, pharmaceutical, and advanced materials sectors.

    Synthesizing 3-Heptyn-1-ol draws on more than standardized reactions. We monitor every step – beginning with vetted raw acetylene derivatives and tracking moisture control, heat profiles, and reagent quality through purification. What results, batch after batch, is a pale, oily alcohol with the expected alkyne reactivity locked into a robust, seven-carbon framework. From distillation to packing, every drum, bottle, and vial carries our confidence as producers who know the tools and quirks of our process.

    Product Description and Specifications

    We've seen laboratories waste time testing impure or misidentified alkynols from sources indifferent to origin or method. Our 3-Heptyn-1-ol arrives with an authentic profile: a clear, colorless-to-pale yellow fluid with a faint, distinct aroma familiar to anyone working long hours around triple bonds and primary alcohols. The typical molecular formula is C7H12O, molecular weight 112.17 g/mol, and boiling point near 165-168°C (at normal atmospheric pressure). We offer the usual bottle sizes for R&D and the scaled-up pail and drum solutions for pilot-line and manufacturing teams expecting fewer questions and more uptime.

    Over time, adjustments in purification, including fractional distillation under reduced pressure and gas chromatography analysis, have allowed us to keep impurities consistently below accepted industry levels. Based on our own outgoing QA data, our lots regularly surpass GC purity thresholds of 98%. We've adopted both dynamic headspace analysis for volatile residues and Karl Fischer methods for water detection, ensuring the alcohol group remains an asset, not a liability, to downstream chemistries. Instead of talking process secrecy, we open ourselves up to audits, method reviews, and co-validation alongside our customers' own teams. The unvarnished truth: no two batches of 3-Heptyn-1-ol are ever absolutely identical, but the consistency we strive for lowers noise in your data and reduces waste.

    Applications Shaped by Practice

    Synthetic routes involving 3-Heptyn-1-ol have changed over the years. Early on, demand came mostly from pharmaceutical intermediates, where the triple bond offered a site for controlled couplings and derivatization. It allowed medicinal chemists to introduce rigidity or create specialized ligands. Chemists developing intermediates for anti-infectives, cardiovascular drugs, or CNS probes often gravitate here because a seven-carbon scaffold with terminal alkyne unlocks downstream steps unavailable with shorter homologues.

    As the field has shifted, we've responded to new calls from materials science and electronics researchers. Conjugated alkynes carry electric charge in distinctive ways. Clients working on sensors, specialty coatings, or electronics spin-offs have let us in on challenges: many commercial alkynols degrade, polymerize, or lose reactivity if exposed to atmospheric moisture or if carryover from previous syntheses lingers. By ensuring rigorous bottling and using inert gas overlays for sensitive lots, we've seen our 3-Heptyn-1-ol integrated into trial batches with fewer rejected runs.

    Academic partners constantly press for new use cases – propargylic expansions, click chemistry building blocks, cross-coupling partners for Sonogashira or coupling reactions. We keep up by tuning our supply cycles to academic calendars and by maintaining small-quantity production to support novel, high-risk syntheses. Rather than chasing only bulk contracts, we've committed bench time and resources for researchers who need only a few grams at a time, acknowledging the value of curiosity-driven innovation. Watching a new reaction succeed with our product boosts morale on the plant floor as much as landing a big customer.

    Comparisons with Related Alcohols and Alkynes

    Chemists who have spent enough years working with short-chain alkynols or bulk alcohols spot the difference once they try 3-Heptyn-1-ol. Take propargyl alcohol (2-propyn-1-ol) or 1-pentyn-3-ol, both common in starter kits for alkyne chemistry. Their volatility, low boiling points, and handling hazards are familiar. 3-Heptyn-1-ol balances volatility and chain flexibility with just enough backbone to provide stability during chromatography and purification. In our factory, we’ve handled both classes side-by-side, noting not just the obvious handling safety – thanks to the reduced flammability and less pungent odor – but a greater amenability to storage for weeks or months when sealed properly.

    In reactions needing a longer carbon chain, chemists often try 1-octyn-3-ol or even long-chain omega-alkynols. Cost, shelf life, and sourcing complexities start mounting on those species. Our experience shows fewer headaches with 3-Heptyn-1-ol regarding stability and competitive pricing at kilogram scales, without the rapid degradation seen in longer and less common homologues. Quality control feedback reinforces that less is lost in distillation and preparative TLC, which has direct impacts on project costs and time to results.

    Direct Feedback from Manufacturing

    Producing and supplying 3-Heptyn-1-ol day in, day out has taught us a few hard lessons. Equipment corrosion cropped up early on, with distillation columns showing wear from aggressive distillate fractions. Instead of swapping out entire assemblies on schedule, our in-house maintenance led to smarter choices of alloys and upgraded seals, limiting downtime and letting us pass the savings into the marketplace.

    Customer returns sometimes flagged “off odors” or unexpected color changes. In the early days, our root-cause analysis pointed to subtle washing inefficiencies after process runs and minor air leaks into storage vessels. We put new protocols in place: more rigorous inerting with nitrogen, double-checking for trace peroxides, and real-time logging to catch blips before they turn into outside complaints. After implementing these changes, the number of returns for shelf-life or color variation dropped by more than half over the following year – not just a feel-good metric, but concrete proof that incremental manufacturing improvements matter at every link in the supply chain.

    We also get frequent requests for larger or custom packaging. Rather than rely on standardized off-the-shelf bottles that sometimes introduce contamination or fail during cold shipping, our packaging crew tests, sources, and qualifies bottles and drums for both chemical compatibility and physical robustness. Whether shipping overnight in climate-challenged months or storing for six months in a remote warehouse, the product’s performance upon opening consistently comes from the attention our team gives long before labels go on bottles.

    Ensuring Safety and Traceability Without Compromise

    We understand safety not as a slogan, but as a way of life. Colleagues who have handled 3-Heptyn-1-ol for months or years speak up about refinements and near-misses. Training for cleanroom transfers, emergency procedures for spills, and double-verification for container labeling form part of our daily routines. Each lot receives a unique traceability code, and we maintain records dating back a decade or more for those with long-term liability or regulatory documentation needs.

    In regulatory terms, meeting and anticipating compliance gives us a measure of reliability. Whether a customer audits for Europe’s REACH, American TSCA tracks, or demands Japanese standard transparency, we keep not just paperwork, but living process knowledge, ready for review. Operational transparency signals not just a commitment to standards, but real-world risk management that affects customers, end-users, and everyone along the route from our lab to your bench or production line.

    Continuous Improvement through Customer Partnerships

    We wouldn’t have arrived at the current reliability of our 3-Heptyn-1-ol product without being pushed by thoughtful, persistent customers. One global client involved in OLED research asked for tighter control of trace aldehydes, demanding a threshold half the level most commercial suppliers claim. Working side-by-side with their technical group, we didn’t just tweak our purification train – we re-examined every sticking point for air ingress and surface contamination, eventually achieving the tighter standard credited in their analytical reports. The result was more than a contract win: it brought us new separation and monitoring technology that raised the quality of our overall product line.

    Listening carefully to customer feedback, we have expanded capabilities beyond simple bulk delivery. Blinded stability studies, custom inert packaging, and periodic sampling for long-term storage all came from client suggestions. Research groups seeking an edge in catalyst development or green chemistry have suggested different stabilizing agents or even requested specific isomer purities, which our R&D team investigated via pilot runs to determine feasibility. Insights gained through these collaborations drive incremental – sometimes even transformative – upgrades across our facility.

    Responsible Sourcing and Environmental Considerations

    Ethical sourcing isn’t abstract. Raw material shortages, fluctuating prices, and demands for environmental stewardship are daily concerns faced by our sourcing officers. We've established direct relationships with petrochemical suppliers known for their clean production streams and track their compliance with stricter emission and waste regulations. Waste minimization and closed-loop recycling of solvents during distillation have become standard, shaving down not just environmental footprint but real, measurable input costs.

    Handling organics like 3-Heptyn-1-ol responsibly also means continual investment in local air scrubbing, fire suppression, and spill mitigation. Production teams rotate safety drills every quarter, and our environmental health group measures effluent down to trace contaminants, staying ahead of regulatory scrutiny. Proactive management earns us quieter inspections and less rework, freeing up headcount for process improvements instead of repetitive compliance tasks.

    Research and Future Directions

    Looking ahead, we see expansion opportunities for 3-Heptyn-1-ol in advanced polymer architectures and as a precursor for next-gen pharmaceuticals. Material scientists at major research institutes hint at new applications involving surface functionalization of nanoparticles or as part of “molecular wires” for nanoscale devices. Another avenue, in green chemistry, involves selective catalytic transformations aiming for less wasteful reaction schemes and improved atom economy, both of which 3-Heptyn-1-ol’s unique structure can address.

    Our lab teams, drawing on the combined experience of chemists and technicians who have seen everything from runaway reactions to glassware breakthroughs, field requests for new grades, enantiomerically enriched forms, or “backshelf” inventory for unusual synthetic schemes. Unlike middlemen or distributors, our access to in-plant analysts and production engineers means feasibility questions receive real answers grounded in capability and precedent. Customers considering an unconventional use of 3-Heptyn-1-ol often get a direct line of sight into potential pitfalls and solutions.

    Conclusion: Built by Chemists, For Chemists

    Our journey producing 3-Heptyn-1-ol flows from a place of hands-on understanding. Years spent improving yields, tracking impurity profiles, and addressing downstream problems yield a supplier relationship that transcends price sheets and lead times. Serving as both producer and problem solver, we view each batch as an opportunity for progress. Those relying on 3-Heptyn-1-ol for research, clinical development, or as a backbone for novel materials find a partner who holds both the science and the service to high standards.

    Each bottle shipped carries the mark of living chemistry: minds and hands that know the product, not just the paperwork. This mindset informs every improvement and decision, building real trust with scientific leaders and innovators. From production to quality control, our team remains ready to support your pursuits, delivering 3-Heptyn-1-ol refined by deep expertise and shared ambition.