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HS Code |
185785 |
| chemical_name | 1-Butyn-3-ol |
| molecular_formula | C4H6O |
| molar_mass | 70.09 g/mol |
| CAS_number | 927-74-2 |
| appearance | Colorless to pale yellow liquid |
| boiling_point | 110-112 °C |
| melting_point | -81 °C |
| density | 0.891 g/cm³ |
| flash_point | 29 °C |
| solubility_in_water | Miscible |
| refractive_index | 1.423 |
| pubchem_cid | 13611 |
| autoignition_temperature | 380 °C |
As an accredited 1-Butyn-3-Ol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 1-Butyn-3-ol is packaged in a 100 mL amber glass bottle with a secure screw cap and labeled hazard warnings. |
| Shipping | 1-Butyn-3-ol is shipped in tightly sealed containers to prevent leaks and evaporation, under cool and well-ventilated conditions. It is classified as a flammable liquid, requiring appropriate hazard labeling and documentation. Transport must comply with local and international regulations to ensure safe handling and delivery. |
| Storage | 1-Butyn-3-ol should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible materials such as strong oxidizers and acids. Protect from moisture and direct sunlight. The storage area should be equipped with proper fire suppression systems, and containers must be clearly labeled and handled using appropriate safety precautions. |
Applications of 1-Butyn-3-Ol in Industrial ManufacturingAs a direct manufacturer of 1-Butyn-3-Ol, we supply this specialty alkyne alcohol to global clients who utilize its unique reactivity in synthesis and formulation across multiple industrial sectors. Below we detail its primary industrial applications, with specific focus on technical compliance, dosage, process positioning, and finished goods. 1. Pharmaceutical Synthesis Intermediates1-Butyn-3-Ol functions in pharmaceutical manufacturing as an alkyne building block for the synthesis of active pharmaceutical ingredients, including antiviral and anticancer compounds. Process chemists incorporate it into Sonogashira, Heck, and other C–C coupling reactions, ensuring precise control of stereochemistry and functional group placement. Our material provides high purity and batch consistency required for strict regulatory scrutiny in global pharma supply chains. Industry compliance standards
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2. Agrochemical Active Ingredient SynthesisLeading agrochemical manufacturers rely on 1-Butyn-3-Ol as a functionalized precursor to synthesize selective herbicides, insecticides, and plant growth regulators. The compound's terminal alkyne enables efficient elaboration to difunctional agroactives under conditions that maximize product yield and reduce process impurities, aligning with environmental controls on manufacturing emissions and worker safety. Industry compliance standards
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3. Flavors and Fragrance Ingredient FormulationWithin the specialty chemicals sector, 1-Butyn-3-Ol enables synthesis of unique alicyclic and aromatic alcohols used in fine fragrances and food flavorings. Its controlled introduction facilitates formation of ethynyl, allyl, and propargyl motifs, delivering distinct olfactory characteristics. Our production ensures low organoleptic off-notes, compatible with strict end-use compliance for consumer safety and global flavor regulations. Industry compliance standards
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4. Advanced Polymer Modification and Crosslinking1-Butyn-3-Ol acts as a functional additive in the modification of specialty polymers and resins, particularly in the development of crosslinked coating systems and high-performance adhesives. By introducing terminal alkyne functionality, formulators achieve increased network formation and tailored mechanical strength, enhancing thermal and chemical performance for industrial end-users in automotive, electronics, and construction sectors. Industry compliance standards
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5. Fine Chemical Building Block for Catalysis ResearchLeading research institutes and catalyst manufacturers use 1-Butyn-3-Ol as a key substrate for organometallic catalysis investigations and for the development of novel ligands and chelating agents. Material purity and trace metal content meet the stringent analytical requirements of advanced R&D facilities, supporting exploration of selective addition, cycloaddition, and coupling methodologies for both academic and process-scale discovery. Industry compliance standards
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Every batch of 1-Butyn-3-Ol tells a story about precision and persistence. In a chemical plant, our team doesn’t simply pour raw materials together. The creation of this molecule calls for steady hands, sharp eyes, and honed instincts developed over years of working with highly reactive alkynes. We focus on delivering a product that supports research labs, fine chemical synthesis, and the pharmaceutical sector. The molecule, 1-Butyn-3-Ol, stands out from related materials through its single triple bond paired to a terminal alcohol group. Combine that functionality, and it starts to open doors for all sorts of downstream chemistry.
Our approach never leans on generic procedures. The material leaves our facility typically in the form of a clear, colorless liquid. The boiling point and the characteristic sharp odor remind you that you’re working with a genuine alkyne. While the CAS number appears on any certificate of analysis, what people really care about is the purity of the final product. Every manufacturing run pushes for a minimum assay of 98 percent by gas chromatography, with water and peroxide levels kept below strict thresholds. A key insight we’ve seen is that seemingly tiny residues and byproducts can throw a sensitive synthesis off course, particularly in scale-up or in custom catalyst research.
We always align lot-to-lot properties, because any shift in content or trace impurity—even by small fractions—can translate to wasted time or failed results for customers engaged in demanding downstream chemistry. Rather than scaling up with shortcuts, we insist on in-process monitoring and direct quality checks while distillation is underway.
Across the years, we've engaged with R&D teams and independent chemists who trust this molecule for its dual reactivity: the terminal alkyne lends itself to copper-catalyzed click reactions, cross-couplings, and chain architectures, while the alcohol opens up essential paths in fine chemical modification. In practice, this combination leads to the building blocks of pharmaceutical intermediates, biologically active compounds, and more. A key demand comes from labs developing small-molecule probes, medicinal chemistry leads, and specialty coating materials.
1-Butyn-3-Ol is not a commodity like ethanol or methanol, whose tolerances and impurities hardly bend an application’s outcome. This material occupies a niche where one-off reactions, screening programs, and the need for downstream selectivity edge out bulk pricing considerations. What we notice is that successful use of alkyne-alcohols often relies more on the confidence established batch by batch between manufacturer and chemist, not on claims in a product flyer.
Producing small-scale fine chemicals differs completely from turning out tens of thousands of liters for bulk solvents. Our 1-Butyn-3-Ol never comes from a generalized supply line. Instead, manufacturing takes place in sealed, dedicated glassware and lined reactors, and we trace every blend to its documented synthesis. Analysts monitor both the main component and trace-level impurities—alkynes, aldehydes, small diols, metals—using GC, Karl Fischer, and elemental analysis. Any drum filled for shipment to research or manufacturing partners matches published assay minimums longer than a year after we began scaling up production.
Documents, test results, and batch data come directly from the research chemists and plant operators who produce and verify the material, not outsourced QA. Every drum or kilogram meets the proven specifications, not just for regulatory compliance, but for uninterrupted use in sensitive applications.
We value the transparency that comes from years of serving partners in pharmaceuticals, advanced materials, and academia. People have relied on our technical data sheets, but increasingly, conversations focus on where the material comes from, what trace elements are present, and whether the last batch performed precisely as expected. Laboratory managers count on that continuity. Where less-experienced operators might try to rush processes, we stick to validated cleaning, drying, and filling protocols—even if that sometimes slows down delivery.
As a manufacturer, we answer directly for each lot, making it our own problem if something fails to meet standard. That keeps us invested in every stage from raw material intake to last-mile logistics. Regular feedback allows us to adjust and strengthen our protocols. Once, a well-informed customer called out a minor, previously overlooked contaminant traceable to a cleaning solvent, prompting a full review and update of our entire procedure.
Some chemists might consider 1-Butyn-3-Ol side by side with other alkynols such as propargyl alcohol or 2-butyn-1-ol. These molecules look similar until you start measuring their practical reactivity. 1-Butyn-3-Ol features both the hydroxyl and alkyne separated by two methylene units, building in a specific geometry and electronic profile attractive for certain coupling reactions and as a linker in bioconjugation processes. Minor differences in backbone positioning control outcomes in pharmaceutical intermediates and fine organic synthesis.
As a real manufacturer, we do not substitute or cross-label products. Each has its own handling requirements and risk profile. Our own safety team uses atmospheric control and rigorous PPE because the low flash point and acute toxicity require vigilance. With experience comes appreciation for handling precautions invisible to buyers; these protocols contribute to both operator safety and to clean production runs which, in turn, ensure chemists downstream avoid the drag of unexpected contaminants.
The difference from other sellers is not only about high-purity numbers. It's also in response time to queries about trace impurities, willingness to support custom lot validation, and the collaborative attitude when scale-up or pilot-scale needs arise. Our chemists readily share data, batch details, and analytical reports, often in direct communication with those using the material at the bench.
Over the years, user expectations for 1-Butyn-3-Ol have evolved. Pharmaceutical groups demand ever-lower impurity levels as candidate molecules progress into clinical development. Material scientists use the alcohol for functionalization on nano-structured surfaces and novel polymer backbones. The work of analytical teams has never been more central, as customer pilot batches now require highly detailed impurity profiling and trace-level confirmation long before any large-scale synthesis begins.
We have adapted our operations accordingly, updating procedures for solvent and reagent traceability, shifting to all-glass feeding systems for the most demanding applications, and ensuring batch splitting remains possible for users wishing to confirm identity and purity before full uptake. Periodic upgrades in chromatographic and spectroscopic capability let us pick out contamination at lower detection levels. We act on all quality-related customer reports, and our analytical team prioritizes open, accessible discussion on any technical subject.
As a direct manufacturer, we speak with end users ranging from graduate students to technical managers and adjust our operations to serve problems that pop up in real time. This transparency builds trust that no anonymous shipment or gray-market lot can match.
In the past, buyers treated 1-Butyn-3-Ol as a hard-to-get specialty intermediate, accessible only via bespoke syntheses or high-priced importers. Since we began investing in in-house production and downstream purification, researchers can get exact batches with verifiable history, clear customs faster, and tackle more ambitious projects. Even as costs in raw materials and energy have spiked over the past decade, sticking to close controls has allowed us to maintain quality while easing the uncertainty that used to surround one-of-a-kind chemicals.
Supply interruptions rarely stem from failures in the chemical process itself, but from complex factors like regulatory environment, logistics, or seasonal instability in key upstream feedstocks. We’ve created new buffer stock strategies and stronger raw material vetting based on firsthand experience—one missed train car or regulatory inspection used to mean weeks of delay. This operational knowledge helps our partners plan experiments and deliveries with greater confidence, keeping production and research lines open.
Running a chemical manufacturing operation never settles into a routine. Night shifts, last-minute corrections, equipment calibration, and process troubleshooting stay with us every day. Lessons learned get pooled into updated operating manuals, shared between plant operators, analysts, and managers, who all understand that a small error at their station could have outsized impact months down the line.
Our on-the-ground chemists and engineers often take part in technical calls or face-to-face discussions with the scientists actually using 1-Butyn-3-Ol. This brings new insight into process demands, impurity tolerances, and novel synthetic approaches. We listen to stories about failed experiments, equipment headaches, and application breakthroughs, then use that feedback to improve future lots. When one batch runs hotter than expected or carries a trace odor, we troubleshoot the source and run comparative tests. That level of involvement, paired with direct responsiveness, stands behind every liter we ship.
Trust between manufacturer and customer can’t ride solely on paperwork or an online description. Building that trust comes from years of meeting real-world specifications, addressing challenges in real time, and being available to resolve issues quickly. Some customers prefer a once-a-year order of pure material for a set research project. Others keep up a steady schedule for scale-up or continuous manufacturing. Both count on knowing who produced the chemical, why it meets their needs, and what steps exist to address any unexpected development.
We often share supporting analytical runs, stability tests, and out-of-spec investigations upon request, because seeing actual data trumps any printed marketing claim. The relationships we’ve built have often begun with minor troubleshooting or issue resolution and, over time, have expanded as scientific and business goals aligned. We see our role as more than just makers of chemicals—we’re committed problem-solvers, accountable for quality and flexibility, ready to work with partners on emerging science frontiers.
Most of the significant progress in chemical manufacturing comes at the intersection of quality control and open information flow. As new uses for 1-Butyn-3-Ol emerge—from catalyst development to smart coatings and advanced biomedical linkers—manufacturers like us face the ongoing challenge of keeping both quality and responsiveness front and center. Continued investment in analytical infrastructure, training and hands-on coordination across production shifts and customer service teams makes a measurable difference.
We want to see more projects come to fruition through reliable access to high-purity intermediates. Close collaboration makes a visible impact: if a batch requires a tailored impurity profile or smaller-than-standard drum size, we’re able to shift process parameters and documentation to suit. That’s a direct result of years spent at the production line and across laboratory benches, where our understanding grows with every shipment and every technical conversation.
Wide-ranging applications for 1-Butyn-3-Ol in fine chemistry, research, and process development depend on factors well beyond catalog descriptions. Clean, reliable material starts with technical know-how and continues with hands-on commitment to ongoing improvement. We take pride in every bottle and drum shipped and value the complex, fast-moving world in which our partners operate. The close collaboration between manufacturer and user builds bridges in an industry that can, at times, feel impersonal. We look forward to ongoing dialogue, creative application, and raising standards for both quality and technical exchange with every run of 1-Butyn-3-Ol we produce.